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ARCHITECTURAL PROGRAM
for
McALLEN MEDICAL CENTER
McALLEN TEXAS
BY
REYNALDO VARGAS
THESIS
Submitted in Partial Fulfillment of the Requirements for the Degree of
Bachelor of Architecture
Texas Tech University Lubbock, Texas
December, 1975
hC
,5,-7- ACKNOWLEDGEMENTS
Professor William Stewart
Dr. Jack Thorpe, & Associates, who devoted part of their time to this project
Kandy May, the stenographer
i i
TABLE OF CONTENTS
I. GENERAL INTRODUCTION Page
A. Nature of project ^ -r B. Socio-economic Regional Study o C. Climatic Analysis ^3
II. MEDICAL OPERATIONAL SYSTEM
A. Progressive Patient Care Concept -^2 B. Some Aspects of Progressive Patient Care 34 C. Elements of Progressive Patient Care 35 D. Flow of Patients in Progressive Patient Care L^Q
E. Benefits of Progressive Patient Care Zf6
III. ECONOMIC ANALYSIS
A. Sources of Income of a Health System /g B. Cost of Providing Health Service * 50
C. Economics in Allocation Decision 51
IV. DEPARTMENTAL DESCRIPTIONS
A. Administration Division 55
B. Patient Quarters Division 57 C. Diagnostic-Therapeutic Division* 59 D. Ancillary Services Division gO
V. GROUPING OF ELEMENTS AND CIRCULATION A. Administration Division 62 B. Patient Quarters Division 63 C. Diagnostic-Therapeutic Division 65 D. Ancillary Services Division; 68
VI. DEPARTMENTAL SPACE ALLOCATIONS
A. Administration Division 70 B. Patient Quarters Division, 77 C. Diagnostic-Therapeutic Division 96 D. Ancillary Services Division 121
V I I . SITE ANALYSIS
A- Site Criteria Statements ; 1 i 4
B. Site Plan, li.6 C. Site Survey and Soil Investigat Jo n 14? D. City Ordinances and Standards 150
VIII. BUILDING CODE ANALYSIS
A. Introduction 169 B. Types of Construction 1 69 C. Height and Area Restrictions 170 D. Structural 171 E. Means of Egress, Passageways, and Vertical Openings ... 175 F. Fire Prevention 1 82 G. Elevators and Dumbwaiters 1 8if
IX. INTRODUCTION TO SOLAR ENERGY STUDY
A. Solar Energy 195 B. Air Conditioning 19? C. Solar Space Heating 199 D. Solar Heat Collectors 200 E. Storage 210 F. Controls 212
X, MAJOR EQUIPMENT SCHEDULES
XI. BIBLIOGRAPHY
GENERA L INTRO DUG TION
GENERAL INTRODUCTION
I A. NATURE OF PROJECT
B. SOCIO-ECONOMIC STUDY
C. CLIMATIC ANALYSIS
GENERAL INTRODUCTION
Whatever the stage of development of a society, adequate
health care is nowadays considered the right of every individual.
If it were desirable for no other reason, good health care plays
an important role in simulating economic development. When
suffering is reduced and the possibility of a longer and richer
life unfolds, people face their future with more optimism and
confidence. They become more capable of improving their conditio^i,
and their productivity rises.
Thus the planner of medical facilities must consider man's
innermost needs, the aspirations of peoples, social structures,
values and attitudes toward human life. But the substance of
physical planning is mostly technical. It deals with the strin
gent functional requirements of medicine, a highly involved and
specialized complex of scientific disciplines. The hospital is
justly referred to these days as perhaps the most complex of con
temporary social institutions. It is the traditional job of the
architect as master builder to bring out the orderly and meaningful
solution inherent in the problem. But modern life, its insti
tutions and functions, inextricably intertwined, may not be re
duced to simple forms. If we are to plan effectively to satisfy
man's needs we must face up to the complexity of the task, and
to do this we must base our efforts on two reciprocal concepts:
comprehensiveness and integration. (12)
COMPREHENSIVENESS, as applied to planning, means that plan
ning should embrace all facets of a given problem. Specifically,
in medical facility planning, it means that institutions or health
care systems should complete, and contain all the elements
necessary to perform a medically effective job.
INTEGRATION means that the components of a hospital or a
health system are arranged to complement and support each other
so that they can work in unison. It means that the parts should
help the task to be accomplished and that their distribution should
be appropriate to the needs of the population to be served, with
no wasteful or neglected gaps.
NATURE OF PROJECT
On October 22, 1972, a group of McAllen's leading Physicians comprised of Dr. Williams Johnson, Dr. Carlos Trevino, Dr. Anthony McMasters, and Dr. Jack Thorpe met to discuss the possibilities and potentialities of locating a major medical center in McAllen, Texas.
At this meeting it was the general consensus of the group that such a facility would have numerous, positive effects, not only to the Southern portion of Texas, but also to the Northern portion of Mexico. A facility of this nature vould help foster diplomatic relations with the two countries and at the same time help improve the health^9nditions of the region.
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A year later, on September 29, 1973, a preliminary study
was conducted and it was learned that an area with a radius of
22 5 miles and approximately 1 million people was served with only
1300 hospital beds. Such a limited number of beds resulted in
recommending to the physicians an increase of 600 - 700 beds
of varied and specialized medical services not found available
to this region because of its isolated geographical location
relative to other specialized medical services.
On June 21, 1974, the following recommendations were made
to the physicians now organized as the board of directors.
Phase 1 A. 200 Bed General Hospital with future expansion
of 150 beds. Total 3 50 beds. B. Out-patient Department C. Doctor's Office Complex D. Nursing Teaching Facility
Phase 2 A. 160 bed Convalexcent Home B. 55 bed Veteran's Hospital C. Cancer Research Center D. Pharmaceutical Teaching Facility
Phase 3
A. 50 bed Tuberculosis Hospital B. Rehabilitation Center
This recommendation is to be distributed over a 10 year period
with provisions being taken into account for the general ancillary
services necessary for such a center to operate on. Adequate
7
provisions should also be made to accomodate other medical insti
tutions which may be added due to the vast concentration of re
sources which a Medical Center provides.
8
In November 1975, this preliminary proposal and feasibility
study had tentatively been approved by the legislature, progress
was being reade for a 3.5 million dollar federal loan, and work
was being preformed for an additional 1.5 million dollar federally
funded grant for solar energy research conducted as part of a
health facility.
As was stated before in the general introduction, the vast
and complex nature of a medical center of this scope, practically
makes it impossible to program in a one semester's period.
Therefore, it will be my intention to program phase 1 and develop
a predominating mood which may b e incorporated with the other
phases.
SOCIO-ECONOMIC REGIONAL STUDY
Although nationally known as the Lower Rio Grande Valley
of Texas, this fertile region is not a valley at all. For tne
most part it is a delta of rich alluvial soil deposited over
the years by the meandering Rio Grande, the international river
that forms the boundary line between the United States and Me
xico. In typical delta formation, the slope is away from the
river, with drainage generally northeast. East to west, the
Valley extends about 140 miles upstream from the mouth of the
Rio Grande, and to the north, 35 to 50 miles. It includes the
counties of Cameron, Hidalgo, Starr and Willacy. Cameron, Hi
dalgo, and Starr counties lie directly on the Rio Grande.
McAllen is located in the Lower Rio Grande Valley of Texas
in Hidalgo County, and is in the southermost settled area in the
United States, at the same latitude as Miami, Florida. The
Valley is an irrigated garden spot approximately 40 miles wide
and 140 miles long on the banks of the Rio Grande River. In
this setting of tropical trees, shrubbery, flowers and citrus
groves, you will find McAllen a beautiful clean city composed of
friendly and progressive citizens, U.S. Highway 281 is the main
highway entering into the Valley and McAllen is located just 3
miles w4st of it on U.S. 83. U.S. Highway 77 is another main route
into the Valley.
10
Basic industries of the Lower Rio Grande Valley are agri
culture, manufacturing, petroleum and tourism. Fishing and in
ternational trade are also important.
Because of the rich soil and mild climate, agriculture is
the leading contributor to the area's economy. Cotton is the
major crop although it has dropped some in importance in recent
years. Livestock, grain sorghum and vegetable production have
become increasingly important. Two or more vegetable crops are
raised annually. County agricultural agents report that total
cash farm income in 1972 was $230 million.
Some 690 Valley manufacturing and industrial firms produce
and process over 260 products. Widely diversified in their ac
tivities, these industries include petro-chemicals, refineries,
clothing and furniture manufacturing, canneries, concrete and
plastic pipe plants, and many others.
The third largest industry is oil and gas. The 1972 dollar
value of petroleum products was $175 million. Natural gas ex
tracted in 1972 totaled 220 billion cubic feet.
Seafood and seafood processing, with an annual cash volume
in excess of $40 million, has become one of the Valley's leading
industries. The 1973 shrimp catch totaled 14.5 million pounds
taken in by 3 50 trawlers operating out of the Port Brownsville
and Port Isabel shrimp basins.
11
Both Port Brownsville and Port Isabel are deep-water ports.
Port Brownsville, the largest, is located at the terminus of a
17-mile deep-water ship channel leading from the Gulf of Mexico.
In 1973 this port handled 4% million tons of cargo. Port Browns
ville and Port Isabel are also Intracoastal Canal barge ports
as are Port Mansfield and Port of Harlingen.
Tourists find the Valley especially attractive because of
the excellent opportunities for hunting, fishing, swimming, and
other outdoor sports, and its proximity to the quaint charm of
Mexico. Most popular attraction of recent years is the new
Padre Island National Seashore area. Padre Island is a 110-
mile strip of land extending from Corpus Christi south to Port
Isabel. Accommodations on the south end of the island, reached
via a causeway from Port Isabel, range from luxury motels to fish
ing camps. For swimming, fishing, or just lying in the sun. Padre
Island offers uncluttered, uncrowded and unending miles of sandy
beach and rolling surface.
The Lower Rio Grande Valley is a popular winter resort area
for people from the Midwest. Most impressive, is the unhurried,
easy-going relaxed atmosphere of the border towns. Perhaps the
"do it manana" philosophy has much to do with it. At any rate,
it is a refreshing change from the fast-paced hustle and bustle
of most cities.
Many tourists who have visited the area return to enjoy
their retirement here. Persons reaching retirement age are
12
attracted by the warm subtropical climate, the excellent recrea
tional facilities and the low cost of living. Most larger cities
in the Valley have special retiree groups or "tourist clubs", and
settlements with recreational facilities specifically designed
for senior citizens.
The Lower Rio Grande Valley serves as an important gateway
to northern Mexico and its interior. Mexico is easily reached
over international bridges at Brownsville, Progresso, Hidalgo,
Roma-Los Saenz and Rio Grande City. The Lower Rio Grande Valley
of Texas represents only one-half of the actual urbanization
area. The population on the Texas side of the Rio Grande is matched
by an approximately equal number on the Mexico side. The estimated
1963 population of Matamoros was 100,000 people. In Matamoros
and Reynosa, across the river from Brownsville and McAllen, re
spectively, the traveler can take a quiet stroll through the plaza,
up narrow streets, and into the market place, where he can purchase
everything from fine Mexican silver to trinkets from the Orient.
For the fanciers of fast-paced tourism, Reynosa and Matamoros do
offer a good smattering of neon-embellished night clubs, complete
with floor shows, exotic Latin American drinks and tasty food.
A paved highway extends 200 miles southward from the Brownsville-
Matamoros International Gateway to a junction with the Pan-American
Highway at Ciudad Victoria. Other paved highways connect Reynosa
and Roma with Monterrey-
CLIMATIC ANALYSIS
The Lower Rio Grande Valley has a subtropical, semi-arid
climate. Although the area borders the Gulf of Mexico on the
east, and is largely dominated by maritime tropical air from
this source region, it does not possess a truly marine clinate.
Average annual rainfall is considerably less than along the mid
dle and upper Texas coast. Rapid temperature changes, accompany
ing strong polar or occasional arctic air masses in winter, give
the climate a modified continental flavor during this particular
season.
Typical of subtropical regions, the climate is characterized
by short mild winters and long hot summers. There is no sharply
established delineation of the so-called four seasons. Shortened
spring and fall transitional periods often possess the character
istics of either winter or summer. The persistent southeasterly
breeze from the Gulf is quite refreshing during the warmer months.
SUMMER. Climatically, summer begins with the month of May
and lasts through September. While the highest temperatures are
normally reached in July and August, both May and September are
"hot" months with only minor day-tc-day fluctuations.
WINTER. The winter season consists of the traditional period,
December through February, although little in the way of actually
cold weather is experienced before December 15. This season is
not marked by any prolonged periods of cold weather but rather
by short spans of 2 to 3 days. The winter season is one of nany TEXAS TECH UBRARY
1^
changes. The weather fluctuates between warm and cold, clear and
cloudy, wet and dry. Usually there is a frontal passage about
once a week, but with 5 to 6 intervening days of pleasant wea
ther conditions for outdoor work and recreation. Occasional
short periods of cold temperatures and drizzle (generally 1 to 2
days each week) interfere some with outdoor activities.
SPRING AND FALL. The fall months of October and November,
and the spring months of March and April, are transitional,
offering some variety in the weather pattern as modified polar
air masses move in and out of the area. Daytime temperatures
and drizzle are mild but usually not hot and nights are cool-
These are the most pleasant months of the year. (36)
Temperature
The moisture-laden air from the Gulf of Mexico has a mo
derating effect on Valley temperatures. In general, summer
maxima are hotter and winter minima cooler as the distance from
the Gulf increases. The average annual temperature is close to
74° F. (23.3* C.) at all stations; however, the range between
the average maximum and the average minimum increases westward.
o ^ \ • The average annual daily maximuip is 87.1 F. (30.6 C.) at Rio
Grande City compared to 80.4* F . (26.9^ C.) at Port Isabel. Ex
cept in the western portion of the Valley, minimum temperatures
equal or exceed 50° F. (10.0° C.) on an average of more than 300
15
days per year. Daily maxima of 100° F. (37.8° C.) or above are
quite common in July and August in the Western portion. January
is the coldest month, with an average daily minimum of 54.8° F.
(12.7° C.) at Port Isabel and 46.2° F. (7.9° C. ) at Rio Grande
City. On an average, lowest daily minima occur from about the
last week in December through the third week in January. Average
winter maxima are in the low 70's. (35)
Precipitation
Average annual rainfall in the Lower Rio Grande Valley de
creases from over 26 inches in a wide belt along the eastern part
to 18 inches in the southwestern part, with a minimum of a little
over 17 inches at Rio Grande City. From Raymondville in west
central Willacy County to Rio Grande City in south central
Starr County, the average annual rainfall decreases about one
inch every 7% miles. Most of the precipitation falls in the form
of thundershowers, with the result that amounts are unevelny dis
tributed, both geographically and seasonally. Large variations
may occur over relatively small areas. Occasional tropical cy
clones in the late summer produce heavy rains and cause the monthly
rainfall averages to show a September maximum . A secondary rain
fall maximum, occurs in late May and early June as the result of
squall line thunderstorms. It is possible for a single thunder-
16
storm to account for the entire month's rainfall at a station.
The most persistent rains are associated generally with warm
fronts and stationary fronts during the winter, and with easterly
waves or tropical lows during the late summer and early fall.
November and March are usually the driest months, although the
entire period November through March could be termed the dry
season. The average number of days per year with .10 inch or
more of precipitation ranges from 37 and 3 5 at Port Isabel and
Brownsville, respectively, down to 28 days at Rio Grande City.(36)
Relative Humidity
The distribution of relative humidity is similar to rainfall-
Mean annual relative humidity averages about 75 to 80 percent in
Willacy and Cameron counties, 70 to 7 5 percent in Hidalgo and 65
to 70 percent in Starr County. Although monthly variations are
small, lowest mean monthly relative humidities occur in March and
April, and again in July and August. Highest mean monthly rela
tive humidities occur in January and February, and again in May.
Daily values are usually highest during the early morning hours
just before sunrise and lowest during mid-afternoon. Although
the humidity is high in the coastal counties, cool sea breezes
during the summer are very refreshing.
17
Wind
The predominant low-level wind flow across the Lower
Rio Grande Valley is from a southeast to south-southeasterly
direction. Surface winds blow from these directions about 41 percent
of the time at Brownsville and about 38 percent of the time at
Harlingen (20). Surface winds from southwest through west-north
west are the most effective in removing moisture from the area
and in producing clear skies. Winds blow from these directions
about 5 percent of the time. The southeast to south-southeasterly
flow off the Gulf of Mexico is prominent in winter as well as in
summer. Surface winds from this direction reach a minimum during
December, but the frequency does not drop below 26 percent at
Brownsville or 21 percent at Harlingen. Northwest to north-
northeasterly winds reach a peak frequency during November through
February with little variation from month to month, then decrease
in frequency in March. ( 36 )
Sunshine and Solar Radiation
The Lower Rio Grande Valley receives between 60 and 65
percent of the total possible sunshine annually. Although
the western portion receives more sunshine than the coastal
section, the difference is rather small. Total sunshine is least
in December and January and most abundant in July and August.
Average annual sunshine at Brownsville is 46 percent of the
18
total possible in December and January and 80 percent in July.
Sightly more sunshine is received during the fall than during
the spring.
Tables 18a and 18b list mean daily total radiation received
near the ground at Brownsville, Texas, measured in Langleys. The
Langley is a unit of energy equal to one gram-calorie per square
centimeter. Data are a combination of both direct and diffused
radiation received on a horizontal surface. In the absence of
clouds, energy is depleted from the direct solar beam through
absorption and scattering by air molecules, water vapor and dust.
A considerable portion of this scattered radiation also reaches
the ground. It has been estimated that in the area of the
United States, about 80 percent of the incident extraterrestrial
energy reaches the ground during cloudless days. Table 18c indicates
that, for Brownsville, approximately 70 percent reaches the ground
during cloudless days with only a small variation from month to
month. The variations in extraterrestrial energy introduced by
clouds is considerably with cloud types as indicated by data in
Table 18f. In general cirroform clouds permit much more radia
tion readhing the ground through a stratus overcast is only about
14 percent of the total possible, on an average. The percentages
of extraterrestrial radiation reaching the ground through altostra-
tus and cirrus overcasts are 22 and 53 percent, respectively.
19
Measurements of solar radiation at Brownsville show lowest
average daily values for December, when the days are the shortest,
but with considerable variation from year to year. Likewise,
highest values appear in June and July near the period of
maximum duration of daylight. Maximum cloudiness occurs in winter
and the amount of solar radiation received at the ground during this
season is significantly reduced by the prevalence of "low type"
clouds. During the summer the period of minimum cloudiness cor
responds closely to the period of maximum available daylight so
as to increase the amount of solar radiation received.(36)
Cloudiness and Fog
At Brownsville the average number of clear days per year
is 99; partly cloudy days, 139; and cloudy days, 127. In the
more western portion of the Valley, Starr County for example,
the number of clear days increases while the number of partly
cloudy days decreases- There is only a small decrease in the num
ber of cloudy days.
Cloudiness (sunrise to sunset) readies a maximum during
the period December through April with only a slight vatiation
in average cloudiness from month to month. Minimum cloudiness
occurs in July and August. Low clouds, especially stratus, are
the predominant type. Cloudiness in the Lower Rio Grande Valley
exhibits the same diurnal characteristics typical of all South
20
Texas stations; that is, it reaches a maximum between the hours
of 7 a.m. and noon during November through April. This cloudi
ness generally decreases to less than 50 percent during all other
periods of the day except during March April. Afternoon and night
time cloudiness show a greater persistence during March and April.
Afternoon and nightime cloudiness show a greater these two months
than during any other months of the year.
The high frequency of morning cloudiness decreases from
April to June, but themost significant change occurs between
June and July. The amount of morning cloudiness does not increase
significantly again until about November. ( 36)
Freezes
Freezes (32° F. or lower) do not occur every year in the
Lower Rio Grande Valley. Because of the moderating influence
of the Gulf of Mexico, freezes are less frequent near the coast
and increase in frequency as the distance from the coast increases.
If we arbitrarily classify any freeze that occurs on or after
January 1 as a spring freeze, and any freeze that occurs on or
before December 31 as a fall freeze (this is convenient for
statistical computation), then spring freezes occur with greater
regularity than fall freezes since the coldest weather occurs
during January and February. At Brownsville a freeze occurs
in the spring only an average of about 2 out of every 5 years,
21
and a freeze occurs in the fall only about once in 5 years.
At Weslaco a spring freeze occurs about 2 out of every 3
years while a fall freeze occurs on an average of about 1 out
of every 2 years. At Rio Grande City, which is least influenced
by moist air from the Gulf, a freeze occurs in both spring and
fall about 3 out of every 4 years.(3 6)
Thunderstorms, Wind and Hailstorms, Tornadoes
Thunderstorms do not occur frequently in the Lower Rio
Grande Valley, The average number of days per year with
thunderstorms is only about 24. The peak season is during
August and September with an average of about four thunderstorms
each month. Thunderstorms are rare during the colder season
November through February. The great majority of thunder
storms occur during the afternoon and early evening. Maximum
frequency occurs between 1 p.m. and 3 p.m. The least thunder
storm activity occurs from about 10 p.m. to 3 a.m. and again
from 8 a.m» to 11 a.m.
Hailstorms are equally rare. Only two major hailstorms
are known to have occurred during the 5-year period of 1960-64.
Hailstones up to 1% inches in diameter fell from a thunderstorm
a few miles north of Raymondville in October 1960, and in May,
1963, hail caused extensive damage to a small area-of citrus
and crops north of Mission. In the latter storm, hailstones
22
averaged about three-quarter inch in diameter, with the
largest stones iH to 2 inches in diameter. The months
of April and May are the most favorable for the occurence
of hail, and average diameter of the hailstones is most
likely to be about one-quarter inch.
The frequency of tornadoes in the lower Rio Grande
Valley is among the lowest in the State. Only three have
occurred within the 5-year period 1960-64. These were small
storms that touched ground only briefly and caused relatively
minor damage.( 3 6)
c u m A6. MMRHLI TOtrSltATaLES - NcUXOI, i9^:-t-2
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CKATH U WMTKLT mtPCIATVUS • HECOOK ...:.: 23
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JM). res, H u . A R . Mir Jin> J U I T AUB. s i n . OCT. NOT. » C . JAM. F t l . N U . AFl. mi J ( M m t AUC. U T I . OCT, K V . MC.
CIATU A7> MOHtHLY TEKPnAIVSES - HISSIOH. 1931-C>2 GBAPH A9. HOKIMLV TBHPEItATlJIlES - 110 CHAWC CtlY, ').<1-<J2
m . NW, AI». tWY JVU JTIT AUC. M I T . OCT. PW. DEC.
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JAR. FEB. WB. ATI. WT JDK JDIT AUC. B R . OCT. Wfl. K C .
26
^
TABLE 1
STATION Jan Feb
TEMPERATURES 1931-1962
Mar Apr May Jun Jul Aug Sep Oct Nov
24
Dec Annual
Port I sabel Ejctrerae High Mean Daily Max Mean Daily Mean Daily Hin Qctreroe Low
Brownsville Eictreine High Mean Daily Max Mean Daily Mean Daily Hiii fictrerae Low
89 68.8 61.8 51.8
22
87 69.3 60.8 52.2
19
90 71.5 6ii.li 57.3
30
9U 72.8 6a.0 55 .1
22
92 7ii.3 67.8 61.2
32
99 76.2 67.8 59.3
32
9U 79.0 73.3 67.5
37
100 81.8 73.7 65.6
97 8U.0 78.5 73.0
56
100 86.5 75.8 71.1
53
99 86.3 82.5 76.7
62
101 90.0 82.5 75.0
eh
99 89.9 63.7 77.5
66
102 92.2 8ii.2 7 6 . 1
68
99 90.2 83.8 77.3
65
102 92.5 au.2 75.9
66
98 67.8 81.9 75.9
59
lOU 89.a 81.3 73.2
55
96 83.5 77.2 70.8
52
96
76,0 67.2
hh
9:i 76.U 69.6 62.7
36
9U 76.U 67.5 58.5
3U
89 71.U 61i.3 57.2
32
90 71.5 62.7 53.8
29
99 80.U 7U.1 67.7
22
IQU 81.9 73.6 65.3
19
Harlingen Extreme High 91 99 102 106 103 106 107 Mean Daily Max 71-5 75-5 79-5 85.6 90.5 9U.0 96.3 Mean Daily 61.1 6^.5 68.7 lh*9 79.9 83.6 85.2 Mean Daily Min 50.6 53.5 57.9 6U.2 69.3 73.2 3U.0 Extreme Low lU 21 29 37 50 61 68
106 96,9 85.li 73.8
63
106 92.5 81.9 71.2
52
100 87.6 76.2 6ii.8
U5
95 78.6 67.5 56.li
32
93 73-3 62.6 51.8
27
107 85.2 7U.3 63.1*
lii
Raymondville Extreme High 92 99 105 IO6- 106 lOU Mean Daily Max 70.5 7U.5 79.3 85.5 90.i4 9U.0 Mear Daily 60.0 63.U 68.2 7U.6 79-7 83.3 Mean Daily Min h9.h 52.3 57.1 63-7 69.O 72.5 Extreme Low lii 19 28 37 U8 59
106 96.2 8U.6 73.U
65
107 96.9 85.0 73.0
61
105 92.2 81.5 70.8
51
100 87.0 75.5 63.9 . 1*0
95 77.3 66.2 55.1
28
93 72.0 6l.li 50.8
26
107 8a.7 73.7 62.6
Hi
Wealaco 2E Extreme High Mean Da i ly Max Mean Da i ly Mean Da i ly Min Extreme Low
McAllen* Extreme High Mean Daily Max Mean Daily Mean Daily Kin Extreme Low
91 71.6 61.2 50.7 16
92 71.1 60.0 18.9 17
98 75.9 6U.9 53.9 19
99 75.9 6a.5 53.1
19
101 80.5 6 9 . a 58.3 31
102 80.7 69.1 5 7 . a 31
105 85.9 75.8 65.7 38
105 86.1 7a.9 63.7
ao
103 89.9 79.9 69.9
a?
106 90.6 80.1 69.6 50
102 92.6 63.1 73.3 61
l o a 93.6 63.5 73.3 61
105 9a.5 6a.5 7a.1 67
105 96.0 85.0 7a .0 65
105 95.2 8a.5 73.8 62
loa 96.5 85.2 73.8
6a
102 91.5 8i .a 71.2
ae
102 92.6 51.9 71.1 50
99 66.9 75.9 6a.8
ao
100 67.1 75.8 6a .a
a2
95 78.2 67.5 56.7 30
97 78.0 66.9 55.8 30
92 73.1 62.7 52.2 2a
95 73.2 61.9 50.5 26
105 8a.7 7a.2 63.7 16
106 65.1 7a.1 63.0 17
Mission Extreme High 9a 101 103 Mean Daily Max 70.2 7a.6 80.2 Mean Daily 59-3 63.2 68.a Mean Daily Min a8.a 51.7 56.5 Extreme Low 10 19 31
108 86.6 75.1 63.6 39
106 7I.I 60.2 67.3
a6
106 9a. t 83.9 73.1
S9
110 96.9 85.5 7a . i 67
108 97.8 85.8 73.8 63
106 93.3 82.2 71.0 51
100 87.7 75.8 63.9
ao
98 77.7 66.3 5a .9
29
9a 71.6 60.7 a9.8
25
110 85.2 73.9 62.5 18
McCook * Extreme High Mean Daily Max Mean Daily Mean Daily Min Extreme Low
Rio Grande City Extreme High Mean Daily Max Mean Daily Mean Daily Min Extrone Low
9a 71.7 59.8 a7.9 10
96 71.1 58.7 a6.2 10
99 76.9 6a.5 52.1 16
102 76.0 62.9 a9.7 15
105 82.2 69.6 57.0 30
108 52.1 6 8 . a 5 a . 7
26
106 88 .a 76.1 63.8
a2
112 69.6 75.8 62.0 32
108 92.5 80.8 69.1
a?
112 9a . 0 61.L 66,8
aa
106 95.7 Su.3 72.9 60
U2 97.0 8 5 . a 73.0 56
107 98.a 86.1 73.7 66
no 99.7 87.0 7a.3 59
107 96.9 86.1 73.3 63
115 100.3 67.1 73.6 60
107 9a.0 82.2 70.3
as
107 9a.5 82.5 70.5 52
100 68.1 75.6 63.1
ao
101 88.8 75.8 62.8
39
98 78.6 66.6 5a.6 29
99 78.5 65.6 52.6 27
96 73.8 61.8 a9.7 26
96 72 . a 60.0 a7.6 23
108 86.6 7a.5 62.3 10
115 67.1 7a.2 61.3 10
*Period of Record 19a2-1962
34
TABLE L8A. MEAN DAILY TCTTAL RADIATION* -
EROV,T:SVILLE (JULY 1952-JUNE 1963)
25
Mean
Mean
Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov
Spring
a66.6 161.6
Summer
589.0 123.2
Fa l l
386.0 l a i . i
Winter
286.0 132.9
Dec
279.9 331.ij aoo.3 a63.5 5a6,2 595.6 622.1 555.7 a62.a a02.2 286.2 25l.a ^ 126.7 i a5 .5 150.8 157.1 iao .8 127.2 109.0 122.8 125.2 121.8 116,8 u a . 6
Year
a32 . i 178.2
* Lan. leys per Day <y* Standard Deviation
Note
Data in Tables I8a- l8f are taken fror. R. A, Atlas and P. N. Charles, Sunriary of Solar "--;:L^Lion j r r e r v a l i jns - Tabular 5u.ijr.aries, Document D2->0577-2, December 196h, 995 pp. .O'-.-ir.ent rz-?-.-:;*?-!, S-Jinary of ^ioiar radia t ion Observations, December 196a, describes the
basic jQta, defines s t a t i s t i c a j . r t ia i ior ic and procedures used in preparing the tabular cu-'-T-ar^es. Both docunents, Zi-yC577-l and -I may be ordered for t he cost of reproduction i'ro-i: Director , National V.eather Records Center, U. S. 'Weather Bureau, Aahevil le , North Ca: --Ima 2o601,
TABLE iSb, MEAN DAILY TOTAL RADIATION^ BY TRIPARTED MONTHS -
BRO^JSVILLE (JULY 1952-JUNE 1963)
Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec
1-10 Mean <r
11-20 Mean cr
2]!-M) Mean
26a.O 3ai.O 380.6 a60.9 517.3 6 ia .0 627.7 609.7 UiS.! a2a.3 296.6 262.9 122.6 133.1 136.2 167.7 166.7 96.1 12a.2 lOl.a ia7.3 130.6 123.2 l lO.a
%•), ^^ fii ^i g-i 215 S;S 1 5 i£5 S:; S £5
S:l S5 ^i S5 Si S:5 'Hi '&i " - ^i -:>' -'.;
* Langleys per Day (S' Standard Deviation
82
TABLE iSc. MEAN PERCENTAGE OF DAILY F.XTRA-TERRESTRIAL RADIATION vs . L'AILY t-XAN CLOJ:- COVLi - 2 6
BRO' 'SVILLE (JULY 1952-JUN" 1963)
Claud Ccr«r Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec
0/10 t Mean 72.9 71.5 69.7 69.8 69.5 68.5 69.6 71.5 66.3 72.5 67.2 69.1 , ^ 3.6 3.1 8.3 2.7 2.6 2.1 5.1 3.3 2.5 a .3 12.^ 1C.6
0-3/10 Mean , _ . _ . _ , . . (T 5.2 3.7 5.5 3.8 a.6 5.3 a.a 5.3 5.3 5.6 9.6 7.6
70.a 70.a 68.7 68.a 68.0 67.1 68.5 67.7 66.1 68,7 66.6 68.8
a-7/10 Mean ^ . . , ^ - , , ^ — , . - ^ , . _ _ , , . (T 9,1 8,3 8.6 8.0 9-S 8.2 8.6 9.3 10.1 9.7 9.9 6.8
57.6 58.7 58.1 57.a 57.0 60.8 62.5 59.2 55.8 55.9 53.0 53-5
29.5 30.3 35.5 35.7 36.5 38.2 a6.a 39.a 35.a 33-2 30.9 28.8 8-10/10 Mean ^,-^ ^--, ^^.^ -,,-. , _ . _ , , ,^ , <r 15.6 15.2 15.1 ia.9 ia.2 15.6 15.5 13.2 13.7 13.9 la.a 15.1
10/10 Mean 22.3 21.3 25.7 2a.a 23.1 28.5 31.a 33.7 2a.a 23.9 20.2 21.0 <r 12.5 12.6 12.3 13.1 13.6 16.0 21.a 11.5 10.9 10.1 10.1 12.3
•1" Standard Deviation
83
TABLE I8d. hXAN HOURLY AIJD MEAN DAILY SOLAR RADIATION* -
BROWNSVILLE (JULY 1952-JUNE I963) Zl
Hour
05 06 07 08 09 10 11 12 13 la 15 16 17 18 19 20 IkUy
March Mean ^
0. 0.1 3.8
15.8 29.5 ao.3 50.0 55.8 56.0 52.a a3.7 31 .a 16.6
3.8 0 .1 0.
395.5
- 0 . 0,1 2.6 6.2
i a . 3 i 9 . a 22.1 23.0 22.7 2 i . a 18.0 12.9
7.a 2.2 0 .1
- 0 . 151.3
April Mean
0. o.a 7.3
2o.a 3a.3 a 7 . i 56.7 62.6 61.9 57.8 a9.o 36.7 21.2 7.0 O.a 0.
a55.a
<r
- 0 , o.a 3.8 9.6
15.2 19.3 22.2 23.6 23.a 21.6 18.2 13.8
9.0 3.5 0.5
- 0 . 161.3
May Mean
0, 1.7
12 .a 27.3 a2.6 5a.a 63.9 69.8 69.7 6a.6 57.7 aa .6 27.5 11.6 1.5 0.
5a7.8
<r
- 0 . 0.^ a.7
10.0 i a .7 18.8 20.2 20.6 20.9 16.9 15.7 12.1
8.8 a .3 1.0
- 0 . 136.8
June Mean
0. 2.9
15.8 31.6 a7.5 60.3 68.1 7a . i 72.0 68.3 52.1 a7.o 31.3 i a . 6
2.5 0,
590.8
c r
- 0 . 1.3 a.7 9.2
12.9 16.2 17.6 19.3 19.8 19.3 17.3 13 .a
9.1
a.a 1.2 - 0 .
133.6
July Mean
0. 2.5
16.2 33.5 50.0 63.3 71.9 76,1 76.1 71.5 62.8 as .9 32.3 l a . a
2.1 0.
616.9
<r
- 0 . 1.1 a .o 7.a
11.a 13.7 i6 .a 18.7 19.0 18.2 i a . 5 11.0
7.1 3.9 1,0
- 0 . 112.9
August Mean
0. 1,0
11.9 29.2 aa.7 58.a 65.6 69.2 69.3 66.3 57.7
aa.o 27.5 10.5 0.9 0.
552.9
(T
0. 0.7 a.o 6.a
i 2 . a 15.3 18.2 20.7 20.7 1?.0 16.6 12.8
6.a a.o 0.8
- 0 . i 2 a . i
84
"y^m
TABLE iSd. MEAN HOURLY AND MEAN DAILY SOLAR RADIATION* -
BROWNSVILLE (JULY 1952-JUNE I963)
28
^emr
« 06 D7 OS 09 10 11 12 13 lU v^ 16 17 18 19 20 Ikily
*
Septenber Mean
0 . 0.2 6.7
22.8 36.0 U9.B 57.5 61.3 61.7 57.7 U8.1 33.7 19.5 5.5 0.2 0.
1*59 .U
Langleya
(T
0 . 0.2 2.9 7.6
i 2 . a 16.5 20.1 2 i . a 21.U 19.5 17.2 13.2
7.6 2.6 0 .3
- 0 . 126.2
October
Mean
0 . 0 . 2.7
15.7 3 i . a as.2 53.9 57.9 57 .a 50.9 a2.5 28.9 la.o
2.1 0 . 0 .
399 .a
^ Standard Deviation
6'
- 0 . - 0 .
1.8
6.a 10.8 i a . 7 17.6 19.3 19 .a 18.9 15.1 10.9
5.6 1.2
- 0 . - 0 .
122.5
November Mean
0 . 0 . 0.7 8.6
21.0 32.2 ao.o a3.o a2,7 38.a 30.9 19.5
7.5 0.5 0 . 0 .
282.0
cT
- 0 . - 0 . 0.6 a.5 9.6
i a . 3 17.6 19.2 19.9 18.3 i a . 5 9.5 a.i 0.5
-G. - 0 .
118.0
December
Mean
0. 0 . 0.2 5.8
17.0 27.8 36,a ao.8 39.a 35.1 27.6 16.6
5.6 0.3 0. 0 .
250.3
cr
- 0 . - 0 . 0,2 3.5 9.0
13.9 17.7 i 9 . a 19.7 17.8 13.8
8.7 3.0 0,3
- 0 . - 0 .
115.5
January Mean
0 . 0 . O.a 7.3
19.1 31-2 39.2 a3.5 a3.3 36,7 30.0 19.1
6.9 0.5 0 . 0 .
276.2
cT
- 0 . - 0 , O.a a.2
10.2 15.3 19.1 20.9 20.7 18.9 15.0
9.8 3.8 0.6
- 0 . - 0 .
i28 .a
February Mean
0. 0 . 1.2
10.2 23.3 35.9 aa.5 a9.6 a9.6 a5 .3 36.2 2a.1 10.6
1.3 0. 0 .
328.1
<s
- 0 . - 0 . 1.0 6,0
12.2 17.6 21.2 22.8 23.1 21.0 17.5 11.7
5.7 1.5
- 0 . - 0 .
laa.a
TABLE 18 «i MEAN TRANSMISSIVITY AS A FUNCTION OF SOLAH ELEVATION AND CU)UD COVER
BROWNSVILLE (JULY 1952-JUNE 1963)
Cloud Corer
O-3A0 Mean
U-7A0 Mean
8-ioAo Mean
0/25
17.9 17.3
ao.8 17 .3
25 .1 15.8
26/36
66.2 8.2
57 .0 1 3 . 1
32.8 18.2
37/a5
7 i . a 6.9
61.7 12.5
36.0 19.2
Elevation Angle a6/53 5a/6o
72.5 6 .1
62.8 13.a
37.2 19.0
72.3 5.8
65.3 11.9
a i . 8 20.2
(De&) 61/66
71.9 6.2
63.2 13.6
a i . 6 19.8
67/72
72.9 5 .9
66.5 11 .8
a3 .2 2o.a
73/78
72.9 5.8
6a .5 13.a
aa.o 20.0
79/90
73.a 5.7
67.9 U . 7
a8.2 19.5
(T standard Deviation
note: Transndssivity is the ratio of the amount of radiation transmitted •through the at«.osi*.ere to the total radiation incident at the top of the ataospbere.
85
TABLE l 8 f . MEAN PERCENTAGE OF POSSIBLE RADIATION v s . OVERCAST CLOUD TYPES
BRO'.VNSVILLE (JULY 1952-JUNE I963) 29
Mean cr
Mean
ST
15.0 11.1
ST
la.o 8.1
3T
sc, CU, CB
23.a 12.5
SC CU, CB
21.8 12.5
SC CU, CB
Spring
AS AC
2o.a 2a.9 10.7 12.8
Fall
AS AC
19.9 25.6 10.0 11.0
Year
AS AC
CI
a6.o 16.6
CI
a5.2 lo.a
CI
OS
a5.7 16.3
CS
a6,5 13.0
CS
ST
6.0 2.8
ST
so, CU, CB
21.9 15 .a
SC CU, CB
Sunner
AS AC
21.7 19.5 6.a 12.8
Winter
AS AC
CI
0. -0.
CI
13.9 21.7 2a.a 28.1 57.1 9.a 12.3 10.7 13.9 i5.a
.< standard Deviation
Note: Readings of cirrostratus cirrus (CI), altocumulus (AC), a
CS
37.6 19 .a
CS
a2.7 18.0
CS), Lto-
stratus (AS), and stratus (ST) cloud Mean ia.2 22.1" 21.8 26.0 52.9 a3.5 types are used only when no other layers T 9.6 12.5 10.2 12.5 16.3 16.3 are reported. Also, readings of strato-
cumulus (SC), cumulus (CU), and cumulonimbus (CB) are used only when no other cloud types are reported.
86
, ^ ^ . ^ . ^ m » .- ... • ' — " •• * • " • ' ^ " i " " '•-'
TABLE 2 3 c . TOTAL HOUBS OF COLD AND WARM TEMPERATURES AT WESUCO 2B DURING THE WINTER SEASON
30
November 15 - February 15
1955-1956
1956-1957
1957-1958
1958-1959
1959-1960
1960-1961
1961-1962
1962-1963
1963-1964
1964^1965
Average
U5 and below
195
128
265
375
269
305
285
390
408
220
284
70 and above
383
645
411
363
450
364
496
447
321
528
U1
Source: Noman MazveU, Texas Agricultural Experiment S ta t ion , UeslacOy Texas
TABLE 2a. NUMBER OF DAYS WITH MINIMUM TEMPERATURES OF 32 F OR LOWER
FOR AT LEAST ONE STATION IN THE LCWER RIO GRANDE VALLEY
November through March Number of Days
195a
1955
1956
1957
1958
1959
1960
1961
1962
1963
Average
1955
1956
1957
1958
1959
I960
1961
1962
1963
196a
6
6
3
5
8
13
7
U
13
104
— '•—
11
MEDIGAL OPERATIONAL SYSTEM
31
II. MEDICAL OPERATIONAL SYSTEM
It is very important for the hospital designer to fully
understand the basic principle by which a patient receives care
and treatment in a hospital. Therefore, a brief description
of the "PROGRESSIVE PATIENT CARE CONCEPT" has been provided.
A. PROGRESSIVE PATIENT CARE CONCEPT
B. SOME ASPECTS OF PROGRESSIVE PATIENT CARE
C. ELEMENTS OF PROGRESSIVE PATIENT CARE
D. FLOW OF PATIENTS IN PROGRESSIVE PATIENT CARE SYSTEM
E. BENEFITS OF PROGRESSIVE PATIENT CARE
1 1 : l i :
• '
32
PROGRESSIVE PATIENT CARE CONCEPT
In the face of ever-increasing costs and demands for health
and hospital services in a modern industrial society \A ere
resources, such as medical personnel, are limited, the concept
of progressive patient care appears to open a new dimension
for better planning and management of health services. The
current trend of the hospital and health system appears to move
towards the progressive patient care pattern.
The concept of progressive patient care can be character
ized by the following two prominent features: (1) the tailoring
of hospital services to meet the patient's need; and (2) the
right patient, in the right bed, with the right service, at
the right time (14). The primary objective of this growing
concept is to provide better treatment and care by organizing
health services around the individual patient's medical and
nursing needs. This can be best achieved by setting up special
units to v^ich patients will be assigned according to their
degree of illness and need for care-
In a health care delivery system, the nurses, the patients,
the physicians, and all others involved operate as interacting
components of the total system, rather than independent entities.
Although each component has a distinct role in the operation
of the system, because of high interdependency, the system has
developed a high degree of complexity for the coordination of
33
the activities of each individual component towards a common
objective (31).
In the conventional hospital, the patient is kept in a
private, semi-private, or ward room. All the necessary
emergency or regular services are rushed to him when required.
In contrast to this, the progressive patient care system allows
the movement of the patient from one service unit to another
depending upon the nature of service and the degree of care
necessary for his particular health condition. Therefore there
is considerable flow of patients among the various service units
within the total system.
3k
SOME ASPECTS OF PROGRESSIVE PATIENT CARE
Although progressive patient care with its present refine
ment seems to be a radical change in hospital procedure, the
basic philosophy of this concept is not new. For centuries,
the Japanese have been classifying the patients according to
their needs. Even in England more than one hundred years ago.
Miss Florence Nightingale, in a sense, practiced progressive
patient care in the operation of open wards. It was her plan
to place the sickest persons at the head of the ward, nearest
the nurse's desk. (14)
Since the beginning of the twentieth century in the United
States, the concentration of the critically ill, the convales
cent, and the self-care patients in separate wards has been
practiced in army hospitals, tuberculosis hospitals, psychiatric
institutions, and some private hospitals. Except for these
scattered examples, however, few attempts have been made to
follow an organizational plan of this type prior to the develop
ment of the current progressive patient care concept. It is
believed that the concept of progressive patient care began
to take shape in several hospitals in the United States in the
early 19 50's although it was not given the name "progressive
patient care" until 1956. During this period, the Department
of Health, Education, and Welfare began to place special emphasis
on the need to study and develop methods of organizing health
facilities and services more closely related to the varied needs
35
of the patients. A Government Advisory Committee was appointed
in September, 19 56 to survey the problem areas and make recommen
dations for use in new hospitals as well as in the existing
health systems. (32)
Elements of Progressive Patient Care
At least six elements can be incorporated in the progressive
patient care concept. (25) These are: (1) emergency care,
(2) surgical or operative care, (3) intensive care, (4) inter
mediate care, (5) self-care, and (6) long-term care. In
addition two more elements, namely (7) home care, and (8) out
patient care, have been suggested by Abdellah. (3)
Emergency Care
Emergency care is for the patients who are usually brought
to the hospital as a result of accidents or other unexpected
eventualities for receiving emergency treatments. Traditionally
this service unit has emphasized on emergency surgery because
of accidents, and emergency medical care for the cases such
as heart attack, stroke, fainting, snake bite, and burn injuries.
Patients are given necessary emergency treatment and subsequently
moved to other nursing units depending upon their needs for subse
quent care.
Surgical Care
Surgical care is for the patients who need to have a surgical
operation performed on their body for an adjustment or cure to
36
prevailing functional disorders. Usually the diagnosis is made
through X-ray or laboratory tests about the functional dis
orders, such as a broken bone; a severed, torn or cut muscle,
ligament, or tendon; an abnormal growth; a displaced or swollen
nerve; a displaced organ; and some other functional disabilities.
The diagnosis is usually made before the patient arrives at
the surgical unit.
Intensive Care
Intensive care is for the critically ill patients who are
usually unable to communicate their needs and require extensive
observation and nursing care. Surgical cases constitute a
major portion of the total load in intensive care. They
usually include patients with intestinal perforation, chole
cystectomy, gastrectomy, hysterectomy, pneumonectomy, traumatic
wounds, and complicated surgical problems. Medical cases
constitute the remainder of the case load. They usually include
patients with gastointestinal bleeding, intracranial hemorrhage,
acute myocardial infraction, pulmonary embolism, neoropsychiatric
problems including attempted suicide, delirium tremens or other
acute mental disturbances. (4) These patients are kept under
close observation of specially trained nurses. All necessary
emergency lifesaving equipment, drugs and supplies are
immediately available at the intensive care unit.
31
Intermediate Care
Intermediate care is for those patients who require a
moderate anount of care- Some of these patients may be ambu
latory for a short period of time. Usually, patients in this
unit include persons with uncomplicated appendectomies,
varicose vein litigations, hemorrhoidectomies, and medical
problems such as pneumonia, colitis, and hepatitis. Those
patients who are beginning to participate in taking care of
themselves are also included in this group. Emergency nursing
care and extensive observation are seldom required. The
level of nursing care becomes relatively stable with a per
sistent high level of occupancy.
Self Care
Self care is for the ambulatory and physically self-
sufficient patients who need diagnostic or therapeutic ser
vices, or who may be convalescing (i.e., gradually recovering after
illness). This unit usually handles three types of inpatient
ambulatory problems: therapeutic, postsurgical,convalescent,
and diagnostic. For example the diabetic patient receives
training in diet maintenance; the postcoronary patient regains
confidence in his ability to perform his normal social duty;
the diagnostic patient can stay in this unit during the period
of diagnosis. The patients are instructed in self care
38
within the limit of their illness. This unit is a new thera
peutic tool which allows the physician to study the patient
in an environment very similar to that of average daily
Iving.
Long-term Care
Long-term care is for the patients who require skilled
as well as prolonged medical and nursing care. The patients
in this unit usually include cases, such as malignancy, severe
intractable cardiac decomposition, etc. They may need
occupational therapy, physical therapy, and rehabilitation
services. In addition, emphasis is primarily directed towards
teaching them to adjust to their illness and disability.
Home Care
Home care is for patients who can adequately be taken care
of in the home through the extension of certain hospital
services. In a hospital based home care program, equipment
and personnel are supplied by the hospital or by the community
health service agencies, such as the local health department,
or the Visiting Nurses Association. The hospital, however,
assumes the responsibility of coordinating the services,
whether they are offered by the hospital or by another agency.
39
Out-patient Care
Out-patient care is for the ambulatory patients who need
diagnostic, curative, preventive, and rehabilitative services,
This element is a generally accepted activity of the average
general hospitals.
^0
Flow of Patients in Progressive Patient Care Svst em
One of the important features of a progressive patient
care system is the flow of patients among the various cata-
gories of services. As soon as the condition of health of
the patient changes considerably, he is usually moved to
another service unit depending upon the degree and need for
care for his particular health condition. For example, a patient
in an intensive care unit may be transfered to an intermediate
care unit as soon a s his health condition improves significant
ly. Although, there exists a very high controversy about who
should decide about the transfer of a patient from one service
unit to another, still now it is commonly accepted that the
patient's physician should be the right person to make this
decision. The possible movement and flow of patients in and
out of the various categories of services in a progressive patient
care system will be described in detail in the following paragraphs,
In Emergency Care Unit
Upon arrival at the emergency entrance, a patient is
taken into the preparation room, where he may be given his
initial examination. His relatives may be asked to wait in
the adjacent waiting room. By this time the emergency staff
has been assembled, and the physician in charge takes over.
The patient may need to be washed, bandaged, given blood.
41
given sedation to kill pain, given minor surgery or splints,
or prepared for further treatment in surgery, or diagnosis
in X-ray. After the diagnosis has determined what treatment
is needed, the patient may be transfered to such service units,
or to an observation bed, or he may be given treatment forth
with and discharged. Average service time in an emergency
care unit is usually 4-5 hours. It is desirable to have this
service unit close to X-ray and surgical unit. But as the
emergency care unit becomes larger and more self-sufficient,
these proximities become less important. This service unit
should be easily accessible from the emergency ambulance
entrance.
In Surgical Unit
The patient who s to undergo surgery is usually admitted
to an intermediate care unit, a self-care unit or a long-
term care unit by appointment, or may be admitted through the
emergency care unit. The patient is usually given preliminary
laboratory tests, and examined by X-rays prior to the surgery.
On the day of operation, the patient may be given sedation and
taken to the operating room on a wheeled stretcher, possibly
on a recovery room bed, or occasionally on his own bed.
There, he is transfered to the operating table, shaved if
necessary, draped with linens, and made ready for anesthesia.
42
As soon as the patient is anesthetized, time becomes most
important and the operation begins at once. Upon completion
of the surgery, the patient is usually removed to an adjoining
recovery room to recover from the anesthetic. Thereafter, he
is usually transfered to his own bed. But if his condition
deteriorates, he must be removed to the intensive care unit
for further care. It is desirable to have this service unit
close to the intensive care unit; Some hospitals prefer to
have the surgical unit close to the emergency care unit> so
that the emergency surgery can also be performed in this
service unit.
In Intensive Care Unit
When the health condition of a patient in an emergency
care unit, a post operative recovery room, an intermediate
care unit, or a long-term care unit deteriorates, he is usually
transfered to an intensive care unit for a high level of
constant intensive care. Surgical cases constitute the major
portion of the total case load in this service unit. They
mostly come from the emergency care unit or the post operative
recovery room. Medical cases constitute the remainder of the
case load who are usually transfered from intermediate care
and long-term units. After receiving services in this
unit the patient is usually transfered to an intermediate care
43
unit or a long-term care unit for further care. He may even
expire during his stay in this service unit. The average
lenghth of stay of a patient in this service unit is usually
4-5 days. It is desirable to have this service unit close
to the surgical unit, and the emergency care unit.
In Intermediate Care Unit
Patients are usually admitted directly into an intermediate
care unit by appointment. They may also get transfered to
this service unit fran an intensive care unit, or a self-
care unit. The length of stay in an intermediate care
unit depends upon the nature and the degree of illness; and
it usually varies from 6-10 days. After receiving treatments
in this service unit a patient may go back home, or to a self-
care unit where he may be kept for some days for observation.
But if his health condition deteriorates he is usually trans
fered to an intensive care unit. He may also need a surgical
operation in which case he must be transfered to an inten
sive care unit. He may also need a surgical operation in which case
he must be transfered to the surgical unit. It is desirable to have
this service unit close to the self-care unit, where the patient
can be moved without much difficulty. Besides, the provision for
a number of interchangeable beds can be made for absorbing the fluc
tuations in load in either of these service units.
44
In Self-Care Unit
Patients are usually admitted directly into this service
unit by appointment for diagnosis. X-ray, or laboratory tests,
prior to surgery or physical therapy. Patients are also
transfered to this service unit from an intermediate care
unit, a surgical unit, an emergency care unit, and a long-term
care unit. The average length of stay in this service is
usually 5-6 days. After receiving services in a self-care
unit most of the patients go back home. But those patients
who get admitted to this service unit prior to surgery, are
usually transfered to the surgical unit. They may also get
transfered to a long-term unit.
In Long-Term Care Unit
Patients are usually admitted directly into this service
unit by appointment. They may also get transfered to this
unit from a self-care unit after diagnosis of the illness,
or from an emergency care unit, a surgical unit, or an in
termediate care unit, for further long-term care. The average
length of stay in this unit is usually 25-30 days. A large
number of patients go back home after receiving services in
a long-term care unit. Some of the patients may
get transfered to the surgical unit for a surgical operation,
or to the intensive care unit if their health condition
deteriorates suddenly so that intensive care becomes essential.
45
This unit is usually located at a remote part of the hospital,
because the flow of patients in and out of this unit is not
very frequent, and in most of the cases isolation is desirable.
In Home Care
In a home care program patients are usually kept at their
home. They are usually transfered to the hospital only when
their health condition deteriorates to such a level that such
transfer becomes necessary. After receiving service in a
hospital a patient may come back home and receive care through
a home care program until he recovers completely.
In Out-Patient Care Unit
Patients arriving at an out-patient care unit are ambu
latory in nature, and need primarily diagnostic, preventive,
and curative services. After receiving services, they usually
go back home. Some of them may get admitted to the self-care,
long-term care, or the surgical unit of the hospital.
46
Benefits of Progressive Patient Care
Haldeman (32), and Abdellah (33) have reported that prog
ressive patient care has numerous benefits. These benefits
extend primarily to the patient, the physicians, the nurses,
and to the hospitals.
Benefits to the Patient
The patient receives the specialized attention and care
for his needs at the right time. He is helped in making his
adjustments, first to the hospital atmosphere and later to
his return to his home and community. Some hospitals strive
to offer emergency services within seconds; continuous nursing
Whenever necessary; complete high quality care irrespective
of the economic status of the patient; total (physical, teaching,
emotional, and rehabilitative) services and nursing care when ne
cessary, all in a planned progressive way towards complete
recovery of the patient. Important consideration is given in
preparing the patient to adjust from hospital to the home or
community. The transfer of the patient to the self-care unit
prior to discharge helps the patient in adjusting gradually
from complete dependency to self-sufficiency.
Benefits to the Physician
The physician receives greater assurance that his patient
is receiving high quality nursing care, and that the special
drugs, medication, and equipment necessary for diagnosis and
treatment are readily available. There can be better planning
in the allocation of beds and of trained personnel. The nurses
on duty can contact the physician immediately in emergencies
and carry out orders and procedures as required. Emergency
orders can be carried out more efficiently without upsetting
the entire routine, as the personnel are geared mentally and
physically to such emergency situations.
Benefits to the Nurse
The nurse makes effective use of her special capabilities,
and the nursing department faces fewer problems in providing
coverage for critically ill patients in widely seperated areas.
This system permits the assignment of nurses to the area where
their individual skill can best meet the needs of the
patient. Nurses have more time to spend with patients, and
are able to help patients and their families in solving their
health problems.
In a conventional nursing system, patients are usually
separated by type of service, age and sex. The patient usually
remains in the same unit during the various stages of illness.
This decreases the possibility of his receiving intensive
care when he really needs it. At the same time, when he makes
seme progress and needs instruction, emotion support, and
48
rehabilitation, the demands of other critically ill patients
receive priority. Consequently, the patient is often left
with the feeling of being neglected, which may retard his
progress towards full recovery.
By organizing the service and skill based on the need of
patients, this system can help to make comprehensive specialized
nursing care available to patients during different stages of
illness. As the nursing supervisors, head nurses, and team
leaders work closely together in planning the whole patient
care program, the coordination of patient care emerges as a
major responsibility of the nursing team. Moreover, the nurse
utilizes her competence more effectively and thereby obtains
more job satisfaction.
Benefits to the Hospital
The hospital can improve the quality of patient care as a
result of effective and efficient use of personnel, beds,
physical facilities, equipment, supplies, and funds. Better
utilization of hospital facilities reduces the capital outlay for
installation and maintenance of such a system, and subsequently
may reduce the medical expenses to the patients.
''.'.fir
EGONOMIG ANALYSIS
ECONOMIC ANALYSIS
A. SOURCES OF INCOME OF A HEALTH SYSTEM
B. COST OF PROVIDING HEALTH SERVICE
C. ECONOMICS IN ALLOCATION DECISION
49
Sources of Income of a Health System
Hay (6) has described the various possible sources of
income of a health institution. The management of a hospital
may plan on receiving income from one, some, or all of the
following sources: (1) grants or subsidies from public and
private agencies, (2) contributions, donations, legacies, and
bequests, (3) donated services, (4) revenue from the pharmacy,
the nursing school, or other services on the hospital premises,
and (5) charges for services rendered to patients. Revenue
from fund-raising drives, legacies, and bequests is very
difficult to anticipate on a scientific basis. Similarly,
grants from government agencies, community chests, and founda
tions also depend upon v^ether the request for such graits will be
honoured or not. Donated services from religious groups may
not always be available. There is a high degree of uncertainty
involved in the availability of an income from these sources.
It is not advisable to depend heavily on such uncertain incomes
for the purpose of designing a health system for a community.
Therefore, the only dependable source of income will be the
charges for services rendered to patients.
It should be noted that the management of a hospital does
not have complete control on the charges for the various cate
gories of services offered. The various health insurance companies,
such as Blue Cross, Blue Shield, and the Welfare Department of the
50
government, are contract purchasers of hospital services.
These agencies usually put enormous pressure on the
hospital authority to reduce the charges. Also the charges
for various categories of services depend on the market si
tuation, which means that it is to the interest of the indi
vidual hospitals to make sure that their own charge fixation
policies are in accord with those of other hospitals.
Cost of Providing Health Service
The total cost of providing health service in a hospital
or a health system includes not only the cost of the day-to
day operations, such as nursing, dietary, laundry. X-ray,
laboratory, pharmacy, etc., but also the capital for buildings,
equipment, and facilities, payment of interest and principal
of indebtedness are also items of cost resulting from the
securing of funds by borrowing.
A cost budgeting and cost analysis is necessary for the
determination of the unit cost of operation for each category
of service offered in the hospital or the health system. The
cost budgering should consider all possible costs pertaining
to the physical construction, operation and maintenance over
a predetermined useful life of the system. Similarly, the
cost analysis should apportion all the budgeted costs among
the revenue sharing units for the determination of the unit
cost of operation for each category of service of the proposed
system. Hay (6) has discussed in detail some of the standard
51
procedures of cost budgeting for hospitals and health systems.
The American Hospital Association has described the
various cost finding and allocation methods usually used for
the cost analysis in hospitals.
Economics in Allocation Decision
With the increasing rise in cost and demand of health
services, there has been a growing demand for better plan
ning for utilization of the available resources and improvement
of the economics of the operation of a health system. This
trend has been continuously forcing a change in management
philosophy of a health system from one of a charitable organ
ization to one of a nonprofit-seeking business. Currently,
most of the hospitals usually try to recover as much as
possible of the total cost of operation from the fees charged
to the patients for the offered services. Then, additional
funds in the form of donations and/or government appropriations
are sought for compensating the incurred loss. There are also
some hospitals which plan to operate on a break-even point
without depending on private or public donations or govern
ment appropriations. At the same time, there are very few
examples where a hospital can be found to operate as a profit-
seeking enterprise. Still, it depends entirely upon the
management of the health system to select the policy decision
L ^ .^ t-k. ^
52
regarding the operation of the proposed health system and the
allocation of beds.
I?f P>1 R TMEN TA L DESGRIP TIONS
53
Departmental Descriptions
A brief description of each department within the hospital's major divisions is essential for the designer to be fully aware of its internal function. a>fa
Administration Division
A. Admitting Department B. Business Department C. Public Relations Department D. Volunteer Services Department E. Medical Redords Department F. Medical Library Department
II. Patient Quarters Division
A, Nursing Service Departments
1. Medical and Surgical 2. Pediatrics 3. Orthopedics 4. Obstetrics 5. Tuberculosis
6. Psychiatric
B. Physiatric Department
III. Diagnostic-Therapeutic Division
A. Clinical Laboratories Department B. Radiology Department C. Electrocardiography Department D. Electroencephalography Department E. Anesthesiology Department F. Social Service Department G. Outpatient Department H. Dental Department
IV. Ancillary Services Division
A. Central Supply Department B. Dietary Department
54
C. Pharmacy Department D. Housekeeping Department E. Laundry Department F. Maintenance Department
55
Administration Division
A. Admitting Department
Purpose: Admit patients to hospital in accordance with policies and regulations established by governing board and executive office, in such a way as to promote good relationships with patients, relatives, and medical staff,
B. Business Department
Purpose: Manage the hospital's business activities and keep administration informed of financial condition of institution.
C. Public Relations Department
Purpose: Interpret policies and objectives of hospital to the public, foster attitudes and respect in the hospital on the part of the community, and interpret the public's opinion of the hospital to hospital authorities.
D. Volunteer Services Department
Purpose: Supplement activities of regular hospital staff in order to release technical personnel from routine duties; and perform amenities which will contribute to pleasant environment and comfort to patient, thereby helping to foster favorable public relations. (13)
E. Medical Records Department
Purpose: Provide a central file of medical records compiled during treatment of a patient, that will be used as a permanent record in event of future illness, as an aid in clinical and statistical research, as an administrative tool for planning and evaluating the hospital program, and as a legal protection for the patient, hospital, and physician.
56
F. Medical Library Department
Purpose: Make accessible to staff members, medical literature on standard procedures and recent developments in medicine, surgery, and the various specialties. (13)
57
Patient Quarters Division
A. Nursing Service Department
Purpose: Furnish nursing care, as a part of professional treatment, for the recovery and physical well-being of the patient. (13)
1. Medical and Surgical: Nursing care is provided in medical and surgical units in accordance with physicians' instructions. The patient with pneumonia or a cardiac condition requires a much different type of nursing from that given the patient with anemia, diabetes, or nephrites. Surgical patients also require special preoperative and postoperative care,
2. Pediatrics: This service embraces care of children under 14 years of age.
3. Orthopedics: Nurses in this unit must have a thorough knowledge of operative procedures in all types of bone, joint, muscle, tendon, and other corrective surgery, as well as techniques for care of patients after surgery.
4. Obstetrics: Prenatal work, observation and comfort of patients in labor, delivery room assistance, and care of mother after delivery, as well as nursing care of the newborn, are important responsibilities of this unit.
5. Tuberculosis: Tuberculosis is usually a long-term illness requiring special facilities. Nursing care must reflect understanding of effects on patients of long-term illnesses, and specific knowledge of prevention of infection among personnel.
6. Psychiatric: While most mental patients are treated in specialized hospitals, the general hospital also has recognized its responsibility and provided facilities for the mentally retarded.
58
B. Physiatric Department
Purpose: Assist in recovery and rehabilitation of mental, orthopedic, traumatic, and other patients, through physical means such as mechanical devices, constructive recreational programs, and handicrafts. (13)
59
Diagnos t ic -Therapeut ic Division
A. C l i n i c a l Labora tor ies Department
Purpose: Perform laboratory tests necessary for diagnosis and treatment of hospital patients, and engage in research essential to medical advancement.(13)
B. Radiology Department
Purpose: Provide an adjunct diagnostic and therapeutic radiology service in examination, care, and treatment of hospital patients.
C. Electrocardiography Department
Purpose: Assist in diagnosis of heart disease and aid in medical research of heart conditions.
D. Electroencephalography Department
Purpose: Assist in diagnosis and treatment of mental illness and aid in medical research.
E. Anesthesiology Department
Purpose: Provide for administration of all anesthetics used in the hospital, and contribute to treatment of patients and advancement of knowledge of use of drugs and anesthetics,
F. Social Service Department
Purpose: Assist in meeting the problems of patients whose medical needs may be aggravated by social factors and who, therefore, may require social treatment based on their medical conditions and courses of treatment.
G. Outpatient Department
Purpose: Provide facilities for medical diagnosis and treatment of ambulatory patients, contribute to preventive health care in community, and serve in a training capacity for interns and residents-
60
Ancillary Services Division
A. Central Supply Department
Purpose: Centralize the storage, issuance, and preparation of nursing supplies and equipment used in care and treatment of patients in order to save time, money, and equipment, and provide a more effective supply service. (13)
B. Dietary Department
Purpose: Prepare and serve special general diets, educate patients in good nutritional habits, and train dietitians, student nurses, and other hospital personnel in diet therapy.
C. Pharmacy Department
Purpose: Supply all prescriptions and manufacture stock drugs and solutions to both in-patient and outpatient services.
D- Housekeeping Department
Purpose: Keep the hospital clean, healthful, and in sanitary condition in order to provide an environment important to welfare and care of patients -
E. Laundry Department
Purpose: Collect and launder hospital linens and uniforms in order to provide adequate supplies of clean, sanitary linens to all using departments. (13)
F. Maintenance Department
Purpose: Provide services of light, heat, repair, and maintenance necessary for care of hospital facilities; and to create a pleasant and comfortable physical environment for patients, employees, medical staff, and general public.
•B!!
^i'
GROUPING OF ELEMENTS & CIRCULATION
61
Grouping of Elements and Circulation
In order for todayfe modern hospital to function properly,
the following grouping of departments into divisions have to be
taken into consideration. How these divisions relate to each
other and how their organization influences avenues of circula
tion for proper movement of persons, supplies, and services is
an essential step for proper hospital design.
1. Administration Division: Business, Medical, and Miscellaneous, etc,
2. Patient Quarters Division and their immediate services.
3- Diagnostic-Therapeutic Division
4. Ancillary Services Division: processing, supply, disposal, housekeeping, maintenance, etc.(12)
62
Administration Division
There are two major arms of Administration: Medical, and
Ancillary. The first is concerned with the Medical-Professional
aspects of hospital activity. The second has to do with Busi
ness, and Operation of the institution. It is desirable that
both anns of administration adjoin each other, so there is no
wall between medical and non-medical. (12)
63
Patients Quarters Division
Today with "Progressive Patient Care", patient quarters can
be classified as recovery beds, intensive care beds, intermediate
care beds, maternity beds, pediatric beds, self-care beds, and
long-term beds. (12 )
A. Recovery beds should be adjacent to the operating suite,
because these areas are or should be under the super
vision of the Anesthetist.
B. Intensive care beds should be adjacent to recovery beds,
because acutely ill patients require the same kind of
expert nursing as recovery patients, and much can be
gained in patient welfare and in operating economy if
these two services are intimately conjoined.
C. Intermediate care beds comprise the bulk of the short-
term beds, and these, as nursing units, should be beside
the Disgnostic-Therapeutic Division, or be spread over
the ground adjoining it.
D. Maternity beds, when part of the general hospital,
should be sufficiently separated from the rest of the
hospital, to avoid contamination, but still be a part of
the hospital, with reasonably ready access to the Diag-
64
nostic-Therapeutic Division and Ancillary Services Division-
The beds of the mothers should conjoin the delivery suite,
again in the interest of Asepsis,
E. Pediatrics beds may be part of an intermediate care nursing
unit.
F, Self-care and long-term care beds can be in separate nursing
units on the ground floor, or adjoining the intermediate
care nursing units - so connected that patients from inter
mediate care can go or be taken to the long-term quarters
with ease and, conversely, so that long-term patients can
be readily taken to the Diagnostic-Therapeutic Division
or back to the short-term nursing units when occassion
demands .
65
Diagnostic-Therapeutic Division
When possible, all services comprising the Diagnostic-
Therapeutic Division should be assembled in a logical sequence
into one entity. The components of this division usually are:
(12)
Clinical Laboratories, radiation services, surgery and
recovery beds, physical medicine, social service, outpatient
service, doctor's offices, and blood bank.
A. Laboratories serve both inpatients and outpatients and
it is therefore preferable that this department be so
situated that it is accessible to both. It is even more
important that those in laboratories be easily accessible
to those in radiation services and in surgery.
B. Radiation services also serve both inpatients and out
patients, but in this case it is the patient himself
who comes to this service. In modern medicine, there
are situations in which the work of the departments
of laboratories and radiation intermingle, when there
is need for frequent consultation between the two and
consequently it is desireable that the departments be
contiguous.
66
C- Surgery: Except for some minor surgery, the great bulk
of surgery is done on inpatients. Because of the
necessity of consultation between surgeons, laboratory
scientists, roentgenologists, the surgery suite should
be contiguous to laboratories and roentgentology.
Consultation is often done while a patient is on the opera
ting table.
D. Physical medicine, which is an important factor in the
rehabilitation process, should be, if possible, in the
diagnostic-therapeutic division so that it will be
simple for surgeons or other specialists to help plan
physical therapy regimens and to drop in to see how
patients are progressing. Physical medicine serves
both inpatients and outpatients. Since outpatients
who report to physical medicine may, in various ways
be disabled, the trip from the entrance of the hospital
to the physical medicine component should be as short
and as convenient as possible.
E. Social service is in a sense both diagnostic and thera
peutic and therefore belongs in this division - situated
conveniently to the admitting office and to the out
patient service.
67-
F, Emergency service, outpatient service and doctors' offices
Emergency patients may need immediate laboratory tests.
X-rays and even surgical intervention. This is the main
reason for placing emergency in the diagnostic-thera
peutic division. Following emergency treatment, a patient
may need intensive care; this is why the intensive care
unit should be placed convenient to emergency in this
division.
68
Ancillary Services Division
The ancillary services division should be placed for con
tiguity and ready access to the diagnostic-therapeutic division
and the patients quarters. The elements comprising the ancillary
services are generally: supplies, purchasing offices, and dis
tribution center; sterilization facilities, laundry, pharmacy,
kitchen, mortuary and autopsy, housekeeping offices, mailing
and printing, locker rooms for non-professional personnel; and
power plant, incinerator, other mechanical facilities, and
maintenance shops. (12)
A. Supplies, purchasing, distribution, sterilization,
laundry, pharmacy. Supply services should be grouped
around the distribution center which adjoin means of
conveyance. The reverse process should be considered:
returning supplies for reprocessing, for incineration,
or other ways of disposal; also the discreet transportation
of corpses to autopsy and necropsy and their departure
from the hospital.
B. The kitchen is a source of supply, i.e., food, it
should therefore be contiguous to the source of supplies.
C. Housekeeping should be placed so that it lies in the
path transversed by employees.
•"J
-^^*-»«y,,
DEPARTMENTAL SPACE ALLOCATIONS
ADMINISTRATION DIVISION
DEPARTMENTAL SPACE ALLOCATION,
A C T I V I T I E S AND RELATIONSHIPS
69
DEPARTMENTAL SPACE ALLOCATION
A. ADMINISTRATION DIVISION
1. Adqninistration Department
B. PATIENT QUARTERS DIVISION
1. Nursing Unit
2. Obstetrical Suite
3. Newborn Nursery Department
C. DIAGNOSTIC THERAPEUTIC DIVISION
1. General Laboratory
2. Radiology Suite
3. X-Ray Therapy Suite
4. Surgical Suite
5. Physical Therapy Suite
6. Emergency Department
D. ANCILLARY SERVICES DIVISION
1. Central Storage Department
2. Dietary Department
3. Central Sterliziing and Supply Room
4. Housekeeping Department
5. Employee's Facilities
6. Pharmacy Departijnent
7. Pathology Department
8. Engineering Service and Equipment Areas
NOTE: The following sq. ft. figures for each department are essential minimums.
70
ADMINISTRATION
The administration offices are grouped in the area adjoining
the main lobby and main entrance. Certain subgroupings should be
considered so that each unit within a subgroup will be conveniently
located with reference to others. (29)
1. Main Lobby and Waiting Room
The main lobby and waiting room should be convenient to the
stairs, corridors and elevators, leading to the patient areas,
but access to these facilities by the public is controlled by
the information desk.
The lobby should have direct access to the business office
through the cashier's window and access tothe administrator's
office under the control of the information desk.
Separate toilets for men and women should be convenient to
the lobby and waiting room and, preferably, so located that visitors
do not have to go beyond the area controlled by the information
desk to reach them.
2. Information and Switchboard
The information is located so as to govern public entry
to the hospital proper and to the administrative offices. It is
highly desirable to separate telephone and paging service. The
desk should be furnished with the standard information desk
71
equipment, including the doctors" in and out register, the patients"
index and the room register,
3. Admitting Office
The admitting office should provide privacy, be in a quiet
location convenient to the main lobby, and adjacent to the social
service office.
No examination facilities are required in conjunction with
the admitting office. Convenient communication with the business
and administration offices and the emergency room and easy access
to the medical record room are required. A small space for a
miniature X-ray machine should be provided in conjunction with
the admitting office.
4. Business Office
This provides the general office space for the clerical staff
and equipment, a vault for business records and a safe for patient's
valuables. The business office should be arranged with a cashier's
window opening from an alcove off the main lobby, but with no
direct entry from that area.
5. Administrator's Office
The administrator's office should be accessible to all other
offices but located so as to allow privacy.
72
6. Director of Nurses' Office
The director of nurses is provided with office space convenient
to the administrator's office and to stairs and elevators. The
office should be quiet and protected from the public. Separate
areas should be provided for assistants and secretaries.
7.Medical Social Service Office
The medical social service office should be convenient to
the admitting office and reasonably accessible to the business
and administrative offices and medical record room. When there
is more than one social worker, provision for privacy in inter
viewing should be provided. The social service office should
be readily accessible fresco the outpatient waiting room.
8, Medical Record Room
The medical record room should have convenient access to
the inactive record storage room. Space should be available for
staff members to use while completing their medical records and
for reviewing microfilmed records. A pneumatic tube system is
necessary to convey records to and from the nurses' stations,
admitting room, outpatient department and emergency room.
73
9. Library and Conference Room
A separate library and conference room should adjoin the
medical records room, thus serving the double purpose of
furnishing a control for the library books and space for staff
members to consult records without removing them from the con
trol of the medical record librarian.
10. Staff Lounge and Locker Room
Adequate space must be provided for the comfort of the
visiting staff. These facilities include a sitting room and
private cloakroom, a bulletin board, lockers, telephones, paging
outlet, clock, and lavatories.
11. Gift Shop
It is highly desirable to have a space next to the lobby set
aside for furnishing minor items for visitors, patients, and employees
74
Administration Department
Description Quantity
Main Lobby & Waiting Room 1
Public Toilets (m & f) 1
Public Telephone Booths
Admitting Office
Social Service Office
Information Center
Administrator's Office
Secretary
Business Offices
Personnel Toilets
1
1
2
1
Staff Lounge & Conference Room 1
Medical Library 1
Director of Nurses' Office 1
Janitor's Closet 1
Medical Records Unit
Active Record Storage Area 1
Assistant Administrator's Office 1
Record Review and Dictating Area 1
Work Area 1
Inactive Record Storage Area 1
Area Sg. Ft,
900
450
40
175
290
100
300
240
800
4 50
650
200
225
50
100
200
125
200
100
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PATIENT QUARTERS DIVISION
DEPARTMENTAL SPACE ALLOCATION,
A C T I V I T I E S AND RELATIONSHIPS
77
NURSING FACILITIES
1. Patient Areas
Each nursing unit will contain patient accomodations and those
auxiliary nursing facilities required for proper operation. The
auxiliary facilities required in each nursing unit include the nurses
station, a solarium, toilets, bath, bedpan rooms, a utility room,
flower room, a linen closet, and a supply closet.
In addition to the facilities needed for each nursing unit,
certain other facilities will be required on each floor to serve
the nursing units on that floor. These will include a visitor's
room, a floor pantry, a stretcher closet, attendant's toilet
facilities, a janitor's closet, a treatment room and conference room.
Those areas designated for the nursing units, however, must
be so located within each nursing unit as to require maximum
travel of not more than 80 ft. to serve patients, and those
designated for floors must be centrally located on each floor.(29)
2. One-Bed Room
One-bed rooms should be furnished with a lavatory with knee
or elbow controlled valves and gooseneck spout. Each toilet
should have a lavatory and a silent water closet equipped with
a device for emptying, flushing and cleaning the patient's in
dividual bedpan. Some bedrooms may be provided with baths to
meet the local demand for more complete accomodations. For
78
safety it is not advisable to place showers over tubs.
Whenever possible, one-bed rooms should be of such size as
to accomodate two beds in emergencies. Two clothes lockers should
be installed so they will be available for two patients.
3. Two-bed Room
Two-bed rooms should be provided with cubicle curtains but
otherwise should be similar to the one-bed rooms. The entrance
door should be so situated that a person using it will not be
struck by the opening door if the door is hung on that side.
4, Isolation Unit
Each isolation room should have a lavatory with knee action
control, a hook strip for gowns near the corridor door and an
individual toilet with bedpan flushing attachment and shower or
bath. It is advisable to locate these rooms either at the end
of a corridor or off a subcorridor. Placing of one-bed rcxDms
on the opposing side of the corridor will permit additional
isolation beds if needed.
5- Psychiatric Room
The typical isolation rooms which are included in each
nursing unit can be made satisfactory for this purpose by the
installation of certain safety features.
79
Maximum safety and security should be provided. Care should
be taken to avoid projections of structure, sharp corners, exposed
piping, etc. and no design should be acceptable which could en
courage attempts at hiding, escape or suicide.
6. Treatment Room
Treatment rooms are necessary on each patient floor. They
should be acoustically treated and equipped with supply cupboard,
bulletin board, instrument cabinet, nurse's call, and scrub sink.
Space is provided for an examination table with a small portable
sterilizer.
7. Nurses' Stati on
This unit, centrally located, should provide optimum space
for desk and administrative activities inherent in patient care,
such as charting, receiving physicians' orders, direction of
visitors, nurses' call system, telephone and intercommunicating
systems, centralization or personnel assignments and control of
assignments and control of supplies.
A separate medicine room will provide for the least disturbance
and distraction, to the nurse while preparing medications, A
separate locked compartment is essential for narcotics,
8. Consultation Room
A small room in each floor is required where staff members
80
can retire for consultation, teaching and conferences with physicians,
patients or patients' families. Such a room would require space
for a desk, chairs, bookcase, locker, and lavatory.
9. Utility Room
The utility room should be centrally located in each nursing
unit. This room requires ample cupboard and counter space,
sterilizer, utensil cabinet, and clinical sink.
Space will be provided for a crushed-ice box for nonbeverage
use. The utility room should be provided with a separate area
for the preparation of treatment trays and another for the cleaning
of nursing supplies and equipment.
10. Solarium
A solarium at the end of each patient's wing is highly desirable.
The solarium is a therapeutic adjunct for the convalescent patient.
11. Pediatric Unit
When the number of child patients carried does not warrant
a separate pediatric unit, children will be cared for in one
or two-bed rooms designed for them. This arrangement will be si
milar to that in one and two-bed rooms with provisions for cu
bicles as required.
Bed A l l o c a t i o n
81
1^
Recovery Beds
A. Surgical B. Maternity
Intensive Care Beds
Singles
3 0
Doubles
0 6
Wards
0 0
Total
3 6
A. I.C.U. B. Cardiac
3 3
0 4
0 0
3 7
Intermediate Care Beds
A. Surgical B. Pediatrics C. Psychosis D. Neurosis E. Ortho-
9 4 2 4 3
26 8 8 8 8
0 8 1 3 3
35 20 11 15 14
Maternity Beds
A. Obstetrics
B. Gynecology
Long Term - Self Care
A. Extended Care B. MedicaJ
2 2
13 9
0 6
26 24
2 0
0 2
4 8
39 35
Tota l 57 124 19 200
( 1 5 )
82
Nursina Unit
Description
One Bedroom Plan
Two Bedroom Plan
Ward Plan
Toilet and Shower
Treatment Rooms
Solariums
Visitors
Nurse's Station
Toilets. Baths, B edpans
Utility Room
Sub Utility Room
Floor Pantries
Stretcher Alcove
Flower Room
Closf^ts
Quantity
57
124
19
100
4
6
4
8
8
8
8
8
8
8
8
Area Sg. Ft,
100
160
100
30
760
500
100
1460
1200
190
60
125
960
50
20
83
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85
OBSTETRICAL FACILITIES
Maternity service facilities should be planned in a "dead
end" area, and so located that future building expansion will
not make them a traffic thoroughfare. (29)
The accomodations will be generally the same for obstetrical
patients as for other types of patients with adecpaate provisions
for toilets, showers and lavatories.
In considering the nursery and delivery room suite in their
relationship to each other, they should be as far removed as the
limits of the obstetrical department will permit, inasmuch as
visitors to the view windows of the nursery would be a potential
danger if pemitted near the delivery area.
1. Delivery Rooms
Delivery rooms should be provided in similar design as
operating rooms. In addition to space for regular room equip
ment, delivery rooms should have space for a heated bassinet and
oxygen resuscitation apparatus-
2. Labor Rooms
Labor Rooms are of the general type as ordinary patient's
rooms, except that they are sound proofed and will require
portable lighting equipment. Provisions of toilet facilities
for use by patients in early stages of labor may be desirable.
86
3. Scrub-up Alcove
Scrub-up facilities will be similar to those of the operating
suite.
4. Substerilizing Room
Sterilizing facilities must be furnished in the delivery suite,
even though this section will be supplied from the central supply
room. The area suggested is intended for the obstetrics suite,
adjacent to the delivery rooms. Provision should be made in the
sterlizing room for water sterilizer, small high speed, pressure
instrument sterilizer, and work counter with sink.
5. C lean-up Room
The clean-up room should be similar to that of the operating
suite except that a bedpan flushing attachment has been added to
the service sink.
6. Treatment Room
A treatment room within the maternity section, but not in the
delivery suite, is essential for postpartum examination, removal
of sutures and similar procedures.
87
7. Supervisor's Office
A small office is needed for the obstetrical supervisor
similar to that in the operating suite.
8. Doctors' Locker Room
The doctors' lounge should follow the general design of
the lounge in the operating suite.
9. Nurses' Locker Room
The nurses' locker room in the obstetrics suite is similar
to that in the operating suite.
88
Obstetrical Suite
Description Quantity Area Sq. Ft,
Delivery Room 2 610
Labor Room 3 600
Recovery Room 3 (2 beds each) 120
Isolation Room 1 100
Scrub-up Alcove 1 60
Substerilizing 1 115
Clean-up Room 1 130
Doctors' Lounge 1 28 5
Nurses' Lockers 1 1^0
Nurses• Station 1 ^^
Non-sterile Storage 1 ^^
Sterile Storage 1 ^^
Stretcher Storage 1 ^^
Janitor's Closet 1 ^^
Toilet & Shower 1 - 5 ^
89
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91
NURSERY FACILITIES
The nursery area is located in the maternity section but
outside the delivery suite. It should be readily available to
visitors who wish to observe the infants through the nursery
windows, with a minimum of traffic through corridors in patients'
areas. (29)
1. Premature Nursery
It is suggested that nurseries for premature infants be
limited to a maximum of four premature infants in any one nursery.
Individually heated bassinets or incubators with temperature and
humidity control should be furnished and oxygen outlets installed,
2. Worlf Space, Nurses' Station and Examination Room
The examination area requires a table for the examination
of infants, a hook strip for gowns, a waste receptacle, and a
lavatory.
The nurses' station area should be designed as a control
station, with the nurse's desk so located that she can control
the entrances from the corridor to the anteroom and from the
anteroom to the nurseries.
The nurseries should be visible from the nurses' station
through observation windows in the walls-
92
3. Suspect Nurseries
The suspect nurseries are provided for the observation and
care of newborn infants who develop symptoms suggestive of com
municable disease. Infants with definitely diagnosed communicable
disease are cared for elsewhere in an isolation unit.
4. Forumula Room
Location of the formula room should be in the maternity
and dietary section. Two separate areas should be provided,
one for the receiving and washing of soiled bottles and the
other for the preparation of formulas and filling and sterili
zing of bottles.
Newborn Nursery Department
93
Description Quantity
Nursery (12 bassinets.) 2
Formula Room 1
Work Space & Examination 1
Suspect Nursery (2 bassinets) 1
Suspect Anteroom (6 bassinets) 1
Bottle Washing
Preparation
1
1
Area Sg, Ft.
765
100
160
2 50
45
25
25
T
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DIAGNOSTIC-THERAPEUTIC DIVISION
DEPARTMENTAL SPACE ALLOCATION,
A C T I V I T I E S AND RELATIONSHIPS
96
GENERAL LABORATORY
The laboratory should be so located as to be accessible to
members of the medical staff and to outpatients who may be sent
to the laboratory for specific procedures. (29)
A small waiting room as well as a small room for taking
specimens should be provided for patients coming to the labora
tory. Spaces should be provided for pathology, serology, bacteriology,
chemistry, hematology, urinalysis, and blood bank.
Ample work bench facilities of standard manufactured units
with the proper bench top material should be carefully selected
according to the type of laboratory procedure performed.
1. Basal Metabolism, Electrocardiography
One room in a quiet location will usually serve this dual
purpose. Except for test equipment, it will be similar to a
one-bed room. Since these tests and observations are usually
done by, or under the supervision of, the laboratory technician
or director, reasonably convenient access to the laboratory is
prefered.
General Laboratory
97
Description Quantity Area Sg. Ft,
General Laboratory 1
Bacteriology and Serology 1
Washing and Sterlizing Room 1
Basal Metabolism, Electro- 1 cardiograph and specimen room
Storage Room
Office
Wa i t i ng Room
1
1
1
745
200
100
2 50
50
175
100
98
1
1
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Floors & Walls
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General Laboratory
Bacteriology and Serology
Washing and Sterilizing Room
Basal Metabolism, Electrocardiograph & Specimen'Room
Storage Room
Office
Waiting Room > tD P 01
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RADIOLOGY SUITE
The department of radiology should be so located as to be
conveniently accessible to the inpatient areas, as close as
possible to the emergency room and to the outpatient department.
Corridor traffic should be kept to a minimum. (29)
This department should include a separate radiographic room,
fluoroscopic room, therapy room, viewing room, office, and waiting
room.
1. Darkroom
The darkroom should be lightproof, mechanically ventilated
and equipped with developing tank, unexposed film storage, work
counter, sink, film dryer, built-in film illuminators, and a ref
rigerated water supply and thermostatic mixing valves.
2. Radioisotope Facilities
The minimum, basic, adequate facility for use of radio
isotopes in the hospital consists of two rooms: a radiochemistry
laboratory and a patient uptake-measuring room. It will provide
for a patient load of about 60 patients per month with a maximum
of 10 patients in one day.
The radiochemistry laboratory should include the following
features, equipment located on the side walls; separate work tops
for patient dose and clinical specimen preparation; high level
radiation area and isotope storage; separation from patient
101
uptake-measurement room to minimize disturbance of radiation
measurements by radioisotopes stored in laboratory.
Contaminated dry wastes may be collected in a waste container
and stored in the hood base behind lead bricks until disposed of.
Wall and base cabinets are desirable to provide storage space for
equipment and supplies. Sufficient space is needed for a
patient's stretcher and the medical treatment team for special
injections.
Radiology Suite
102
Description Quantity Area Sg. Ft
Radiology and Fluoroscopy 1 Room
Toilet 2
Control Enclosure 2
Film Processing Room 1
Office & Viewing 1
Waiting Room 1
Dressing Room 4
Film Filing Room 1
Storage 1
Holding Area for Stretcher 1 Patients
200
30
70
200
200
125
16
40
40
50
Mobile X-Ray Machine Room 50
103
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5
Radiology & Fluoroscopy Room
Toilet
Control Enclosure
Film Processing Room
Office & Viewing
Waiting Room
Film Filing Room
Storage
Holding Area for Stretcher Patients
Mobile X-Ray Machine Room
fD P 01
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X-Ray Therapy Suite
104
Description
Waiting Room
Office
Linen Closet
Rest Room
Dressing Room
Deep Therapy
Control Corridor
Superficial Therapy
Examination & Radium Treatment Room
Quantity
1
1
1
2
6
1
1
1
1
Area Sg. Ft
125
175
25
30
16
42 5
150
425
175
Doctor"s Office 175
105
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106
SURGICAL FACILITIES
It is important that the operating suite be completely
isolated from the reat of the hospital and so located that there
will be no traffic through it. (29) (11)
1. Operating Rooms
Operating rooms require sufficient space for the operating
table, instrument and dressing tables, anesthetist's table,
anesthesia apparatus, basin stands, stools and foot stools, sponge
rack, drum stand and container for soiled dressings. Open or
closed shelving for 24 hour supply ot sutures, solutions, trays
and other material necessary for use during operating procedures
may be built in or movable. Equipment includes overhead, portable
and emergency lights; emergency nurses' call; suction and oxygen
outlets, and a double x-ray illuminator.
2, Cystoscopic Room
This room may be provided for in the operating suite area
where continuous surgical supervision can be given. While i^
is prefered to have a cystocospy table with the x-ray tube
directly on it, mooile x-ray equipment may be used. A connecting
toilet should be provided.
107
3. Fracture Room (Ortnopedic)
A special fracture room may be located in the operating
suite. Fixed equipment includes a stainless steel work counter
for use by the surgeon in preparing plaster applications.
Explosion proof light fixtures are required as anesthetic gases
will be used.
4. Substerilizing Rooms
Direct access from each operating room and the corridor is
desirable. The facilities include a small high pressure, high
speed instrument sterilizer, hot and cold sterile water supply,
solution warmer, instrument sinj:, counter space and clock.
5. Scrub-up Facilities
A minimum of three sinks to be used for scrub-up should
be supplied for each pair or operating rooms. The sinks should
have gooseneck spout or other high outlet, hot and cold water
supply controlled by knee valves. Glass view windows between
the scrub-up sink area and operating rooms are advantageous.
Clean-up Room
One clean-up room for the surgical area is sufficient.
It should be located close to the operating rooms and furnished
^ith a rim-flushing service sink, work counter, and a double
108
compartment sink with drainboards.
7. Anesthesia Equipment Room
A special fireproof room is necessary for the storage of
ether, anes the t ic gases and anesthesia equipment. This room
should be convenient to the operating rooms but snould open to
a corridor.
8. Surgical Supervisor 's Office
The surgical supervisor's office should be so located as to
control the department and should have a glass partition on the
corridor side. A bulletin board, intercommunicating telephone,
clock and nurses' call indicator will be supplied in this office.
9. Doctors' Locker Room
The doctors' locker room snould be situated at the entrance
of the surgical suite, preferably a walk-through room serving
as a doctors' entrance to the suite. Adjoining should be the
shower, toilet and lavatory facilities.
10. Nurses" Locker Room
The nurses' locker room also should be situated at the
entrance of the surgical suite, and designed to serve as the nurses'
109
entrance. It should have lockers and shower, toilet and lavatory
facilities.
110
CENTRAL STERILIZING AND SUPPLY ROOM
Space in the sterilizing room is divided into three distinct
areas, which may or may not be physically divided: (1) work areas
for receiving and cleaning unsteril material and for assembling
packs; (2) sterilizing area for sterilizing supplies; (3) sterile
supply area for storage and issuing sterile supplies and (4) un-
sterile storage. (29)
Surgical Suite
11
Description
Major Operat ing Room
Sub S t e r i l i z i n g Room
Scrub-up Alcove
Minor Operat ing Room
Cystopic Room
Recovery Room
Central S t e r i l i z i n g & Supply
Unster i l Supply Room
Instruments
Clean-up Room
Storage Closet
Stretcher Alcove
J a n i t o r ' s Close t
Surgical Supervisor
Surgical Corr idor
Recorder
Doctor "s Lockers T,L, & S
Nurse's Lockers T,L, & S
Fracture Room
Plas te r Close t
Spl int Close t
Darkroom (X-Ray)
^ e s t h e s i ? » S-hrvT-Arro
Quanti ty
4
2
2
1
1
3
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
1
Area Sg. Ft.
1325
230
185
265
230
120
900
160
150
140
60
50
20
100
180
45
3 50
250
220
35
85
30
150
112
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M a j o r O p e r a t i n g Room
S u b S t e r i l i z i n g Room
S c r u b - u p A l c o v e
M i n o r O p e r a t i n g Room
C y s t o p i c Room
R e c o v e r y Room
C e n t r a l S t e r i l i z i n g & S u p p l y
U n s t e r i l S u p p l y Room
I n s t r u m e n t s
C l e a n - u p Room
S t o r a g e C l o s e t
S t r e t c h e r A l c o v e
J a n i t o r ' s C l o s e t
S u r g i c a l S u p e r v i s o r
S u r g i c a l C o r r i d o r
R e c o r d e r
D o c t o r s • L o c k e r s
N u r s e s ' L o c k e r s
F r a c t u r e Room
A n e s t h e s i a S t o r a g e
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113
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PHYSICAL THERAPY SUITE
The principal divisions of the department are for electro
therapy, hydrotherapy, and exercise. The first is by far the most
extensive in the hospital and in the small unit may constitute prac
tically the entire activity. Treatment tables, short-wave diathermy,
infrared and ultraviolet equipment are essential. (29)
The hydrotherapy room should be separated from the electro
therapy area. Whirlpool bath equipment is essential, along with
mobile or Hubbard tanks, and equipment for hot and cold applica
tions and contrast baths.
The exercise or gymnasium area should include such commercial
equipment as posture mirror, gym mat, pulleys, etc. Parallel
bars, stall bars, practice steps, shoulder wheels, and ladders
are also used.
A physical therapy office, waiting-room space, and patient
toilet facilities are necessary-
f I
Physical Therapy Suite
15
Description Quantity Area Scr- Ft,
Waiting Room
Office
Exercise Room
Rest Room
Corridor
Examination Room
Therapy Booths
Hydrotherapy
Linen and Storage Closet
Stretcher Alcove
Occupational Therapy
1
1
1
1
1
1
4
1
1
1
1
125
200
400
30
85
100
80
200
30
50
500
116
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0 ro P M ^ f t 3 H-
ro 0 o f t s; 0 hh ro ^<
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W a i t i n g Room
O f f i c e
E x e r c i s e ^ o m
R e s t Room
C o r r i d o r
E x a m i n a t i o n Room
T h e r a p y B o o t h s
H y d r o t h e r a p y
L i n e n a n d S t o r a g e C l o s e t
S t r e t c h e r A l c o v e
O c c u p a t i o n a l T h e r a p y
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117
EMERGENCY DEPARTMENT
The emergency department should be so located that patients
arriving by ambulance may have direct access to the emergency room.
It should not be directly connected to the operating suite nor
should the emergency room be counted as an operating room. The
emergency entrance should have a convenient loading platform or
a ramp and a marquee to protect patients being taken from cars or
ambulances. (29)
1. Emergency Room
The emergency room will be planned as a minor operating
room along with scrub-up facilities. It should have a special
medicine closet, poison cabinet, nurses call, and space for
resuscitation equipment.
2. Observation Beds
It is recommended that a few beds in this area for patients
in shock, for moribund patients and possibly for accident patients
suspected of having communicable disease.
3. Office and Waiting Room
An office and a waiting room is essential for the emergency
department convenient to emergency entrance.
118
Emergency Department
Description
Vestibule & Office
Stretcher Alcove
Toilet
Emergency Operating Room
Supply Storage & Closet
Utility Room
Bath
Observation Bedroom
Quantity
1
1
1
1
1
1
1
2
Area Sg. Ft
280
50
50
280
45
45
59
205
119
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nj
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Resistance
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Halls Onlv
Durability
Resistance to impact
Absence
of reflection
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Conductivity
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Resistance
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1 —
Property
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1
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2
Most Desireable
3
Vestibule & Office
Stretcher Alcove
Toilet
Emergency Operating Room
Supply Storage & Closet
Utility Room
Bath
Observation Bedroom
Areas of
Use
k k k k
120
o
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p
ANCILLARY SERVICES DIVISION
DEPARTMENTAL SPACE ALLOCATION,
A C T I V I T I E S AND RELATIONSHIPS
1 1
CENTRAL STORAGE DEPARTMENT
The central storage area includes space for bulky pharmace
stores, facilities for the storage of special beds, large
orthopedic equipment, extra equipment and for all supplies and
replacements to be issued for use throughout the institution. (29)
In planning a central storeroom, the pharmacy storeroom, furniture
room and anesthetic storeroom should be independent of the main sto
rage area, although immediately adjacent to it.
The pharmacy stores are usually handled by the pharmacist
rather than by the general storekeeper. When this room is kept
separate, pharmacy stores are available without allowing access
to the other storage areas.
The furniture room must be available at any hour as a bed
or a fresh mattress may be needed in an emergency when the store
keeper is off duty.
The stores office should connect with the main storage area
so that the storekeeper can have ready access to it.
Central Storage Department
122
Description
Vestibule
Anesthesia Storage
Issue Sc Receiving
General Storage
Bulk Storage
Furniture Room
Pharmacy Storage Room
Record Storage Room
Quantity
1
1
1
1
1
1
1
1
Area Sg. Ft
50
200
300
1000
1000
1000
450
400
123
Resistance to water
Resistance to chemicals
Attractiveness
PJ
1
1
1
v
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1
1
1
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1
-
-
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1
1
1
1
Ease of cleaning
-
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ro
PO
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PJ
ro
ro Floors & Walls
Resistance to impact
Absence of reflection
Ray protection
1
1
1
1
.
1
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Durability
-
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V>i
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Nonslip characteristics
Conductivity
1
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Resistance to wear
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Property
Desireable
1
Very Desireable
2. Most
Desireable
3
Vest ibule
Anesthesia Storage
Issue & Receiving
General Storage
Bulk Storage
Furn i tu re Room
Pharmacy Storage Room
Record Storage Room
1
Area s of Use
2k
DIETARY DEPARTMENT
The main components of the dietary department are food
refrigeration and storage, preparation, cooking, servicing, special
diets, dishwashing, dining, and formula preparation. These
must be laid out with consideration for traffic lines within the
kitchen and with related units properly grouped. (29)
A good traffic flow requires that the refrigerators and day
storagestorage area be located close to the delivery entrance of the
kitchen so that the food progresses through various stages to the
serving area. From the refrigerators the food is taken to the
preparation area where it is cleaned, peeled and cut and then to
the cooking areas frcxn which it moves to the serving areas.
1. Receiving
The delivery entrance should be located at a point where
truck unloading will not disturb patients-
2. Day Storage
The day storage area takes care of small food items and part
cases of food not requiring refrigeration. The most convenient
place to locate the day storage is near the receiving area, and
adjacent to the meat, vegetable and salad preparation.
125
All storerooms must be constructed so that rats, mice and
insects cannot enter and hide. The bottom metal shelf must be
at least 18 inches above the floor to permit inspection of all
parts of the floor, and the top and ends should provide space for
cleaning and inspection.
3. Meat, Vegetable and Salad Preparation
The meat, vegetable and salad preparation should be in
convenient relationship to their respective refrigerators and
cooking areas.
4. Cooking and Baking and Special Diets
The main cooking section consists of ranges, fryers,
broilers, ovens, steam kettles and steamers. This equipment is
best placed in a centralized location convenient to the serving
area.
5. Pot Washing
The pot washing area should be located off the main traffic
lines but near the range from which most of its work comes.
Since this is a noisy area, it should be enclosed in a separate
room.
6. Dietician's Office
The kitchen area is the prefered location for the dietician's
126
office so that it may allow him close supervision of the work
performed in the kitchen.
7. Dishwashing
The dishwashing area should be located near the entrance
of the kitchen area where the noise will not be audible to
patients' areas and dining room areas,
8. Dining area
The dining area should be adjacent to the kitchen if either
cafeteria or table service is to be installed.
1^7
Dietary Department
Description Quantity
Food Preparation Center 1
Dietician's Office 1
Formula Room 1
Dishwashing Room 1
Refrigerated Walk-in Storage
Meat 1
Dairy Products
Fruit & Vegetables
Potwashing Facilities
Receiving Area
Janitor's Closet
Toilet Room
Day Storage
Cart Cleaning Facilities
Cart Storage Area
Waste Disposal Facilities
Dining Facilities Staff (2 sittings, 50 persons)
Dining Facilities Employees (2 sittings, 30 persons)
1
1
1
1
1
1
1
1
1
Area Sg. Ft,
2600
200
275
275
75
45
100
200
65
40
60
150
200
125
100
1200
600
128
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Food Preparation Center
Dietician's Office
Formula Room
Dishwashing Room
Refrigerated Walk-in Storage
Potwashing Facilities
Receiving Area
Janitor's Closet
Toilet Room
Day Storage
Cart Cleaning Facilities
Cart Storage Area
Waste Disposal Facilities
Dining Facilities Staff
Dining Facilities Employees
ro p
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129
130
HOUSEKEEPING DEPARTMENT
1. Housekeeper's Office and Stores
The housekeeper's office may be located adjacent to the
central linen room.
2. Central Linen Room
In this room space and equipment is needed for mending and
sewing, as well as for marking new linens. Space for linen trucks
and their loading will be required. The central linen room
should be located adjacent to the "clean" end of the laundry.
3. Soiled Linen Room
Sorting bins in the soiled linen room assist in sorting and
in the preparation of loads of proper size for the washers. The
bins may be of the fixed type, or movable, but the capacity of
each bin should be the same as that of the washer compartments.
(29)
131
Housekeeping Department
Description Quantity Area Sg. Ft.
Central Linen Room 1 500
Housekeeper's Office 1 150
Soiled Linen Room 1 260
Clean Linen & Mending Room 1 400
Linen Cart Storage 1 200
Lavatories 1 26 5
Laundry Processing Room 1 900
Janitor's Closet 1 30
Storage for Laundry Supplies 1 100
Central Storage Department
Description Quantity Area Sg. Ft.
Record goom 1 400
Central Stores 1 4000
132
Resistance to chemicals
Attract ivenes
8
1
'^
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—
1
1
1
1
1
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1
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Resistance
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-
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Absence of reflection
1
1
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1
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1
Resistance to impact
—
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Walls Onlv
Durability
-^
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Resistance to wear
Resistance to indentation
Nonslip characteristics
Conductivity
1
1
1
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Property
Deaireable
1
Very
Deaireable
2 Moat
Deaireable
3
Central Linen Room
Housekeeper's Office
Soiled Linen Room
Clean Linen & Mending ^om
Linen Cart Storage
Lavatories
Laundry Processing Room
Janitor's Closet
Storage for Laundry Supplies
Record Room
Central Stores
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33
EMPLOYEE'S FACILITIES
Employee lockers and rest rooms should be conveniently ad
jacent to the employee entrance. It is considered good practice
to permit neither professional nor non-professional employees
to go through the building in street clothes.(29)
1. Nurses' Locker Room
This area is equipped with individual lockers, a built-in
counter for a dressing table of sufficient length to accommodate
several persons and with mirrors above; adjacent should be showers,
toilet and lavatories.
2. Locker Room for Male Employees
This area is similar to that of the nurses' locker room
however separate entrances are required.
3. Locker Room for Female Employees
This area is similar to that of the nurses' locker room.
Employee's Facilities
134
Description Quantity Area Sg. Ft.
Nurses' Locker Room 4-T, 96-L, 5-S
Female Help's Locker Room 4-T, 50-L, 4-S
Male Help's Locker Room 3-T, 1-U, 50-L, 4-S
1000
600
4 50
Pathology Department
Description Quantity Area Sg. Ft.
Morgue & Autopsy Room
Shower Room
Refrigeration Unit
1
1
2
500
50
300
135 > » 50 n ft ro ro P ft QB 01 0) ft H- H- ro P QB QD O f t f t 0 ft P p H I H- 3 5 < Q O 0 ro ro ro H 3 ro ro ft f t p QB 0 O 3 01 H-
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PHARMACY DEPARTMENT
The hospital pharmacy should be located near the center of
the activities called upon most frequently, easily accessible
to the elevators and outpatient department.
1. Compounding and Dispensing Laboratory
Adequate storage space is essential in the pharmacy. Cabinets,
drawers and shelves are required for storage of chemicals and
pharmaceuticals.
2. Parental Solution Laboratory
This space should be a separate, enclosed, and dust-free
room for the preparation of sterile solutions.
The arrangement of the parental solution laboratory should
provide for a sequence of operations: (a) washing the flasks,
(b) rinsing in sterile water, (c) filling, (d) sterilizing,
(e) sealing and labeling.
3. Active Store Room
The active store room holds the reserve stock of the many
items which are represented in smaller size units in the compounding
and dispensing laboratory. This conserves the drug cabinet
storage space in the latter and facilitates dispensing.
1 'O
Pharmacy Department
Description Quantity Area Sg. Ft
Compounding & Dispensing 1 500 Laboratory
Active Storage Room 1 200
Parenteral Solution Laboratory 1 200
Manufacturing Laboratory 1 120
Alcohol Vault 1 30
Office 1 100
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I n c i n e r a t o r S p a c e 1
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OUTPATIENT DEPARTMENT
AREA REQUIREMENTS
NOTE: ISSER APPENDIX A
DOCTOR'S OFFICES
AREA REQUIREMENTS
-: R'FI^r-: APPENDIX Ai
NURSING SCHOOL FACILITIES
PROGRAM
NOTE: REF! :! APFE'IDIX A
O - r •
SITE ANALYSIS
1 3
SITE ANALYSIS
A. SITE CRITERIA STATEMENTS
B. SITE PLAN
C. SITE SURVEY AND SOIL INVESTIGATION
D. CITY ORDINANCES AND STANDARDS
I I
14^
S I T E ANALYSIS
1. Accessibility
The accessibility of the site for ambulant and nonambulant
patients, visitors, staff members and personnel, and for the
delivery of supplies, must be considered. The modern nospital
designed to handle acute cases should be reasonably accesible to
the center of community activity, but located in an uncongested
district so that unnecessary noise and parking and traffic problems
can be avoided. (29) (30)
Inexpensive transportation facilities for ambulant patients
should be available within reasonable distance, especially if an
outpatient service is to be maintained.
2. Public Utilities
The hospital should be situated near adequate sewerage,
water, electrical, telephone and gas facilities.
Whenever possible the hospital should be served with water
from an approved public supply system. The site should be readily
available to a portion of the distribution system having mains
of adequate size to furnish the quantity of water that will be
required, (30)
Sewer levels should be low enough for adequate drainage of
all outlets on tfe lowest floor of the building.
1 5
3. Nuisances
The site chosen for the hospital should be free from undue
noise, such as that emanating from railroads, freight yards, main
traffic arteries, schools and childrens playgrounds. It should
be remote from industrial or topographic conditions which would
encourage the breeding of flies, mosquitoes or other insects-
The site should not be exposed to smoke, foul odors or dust, or
so located that prevailing winds from a nearby industrial develop
ment will bring smoke or objectionable odors to the hospital.
Proximity to a cemetery is undesirable for a hospital site.
4. Orientation and exposure
The site should be chosen with consideration for proper
orientation of tY^ building so that every patient room will receive
sunlight at least during part of the day and proper advantage
can be taken of prevailing winds in the interest of natural venti
lation. (29)
5. Dimensions
The dimensions of the site will be affected by the type of
plan adopted. Sufficient space must be available to accomodate
the various traffic lanes approaching the institution and ample
parking spaces must be provided. About 15 to 2 parking spaces
1 6
per bed is recommended for medical staff, hospital personnel, and
visitors" parking. (15)
6. Topography
Ideally the building is best located on relatively high
ground in order to take advantage of natural drainage. The
elevation should not be so great, however, as to be a handicap
to ambulant patients who approach on foot. The contours should
be such that it will permit the patient entrances to be located
close to the ground level.
The outlook from the site should be as unrestricted and
pleasing as possible. The nature of the adjacent areas should
be considered.
147
Site Survey and Soil Investigation
1. The owner should provide for a survey and soil investigation
of the site and furnish a plot of the site- The purpose of
this survey and soil investigation is to obtain all information
necessary for the design of the building foundations and
mechanical service connections and development of the site.
It is suggested that this matter be deffered until the architect
has been selected in order that he may cooperate with the
engineer who obtains the data. (33)
2. If any existing structures or improvements on the site are
to be removed by the owners or others, the buildings or
improvements should be designated on the pfe t,
3. Any discrepancies between the survey and the recorded legal
description should be reconciled or explained.
4. The plat should indicate:
The courses and distances of property lines.
Dimensions and location of any buildings, structures, easements, rights-of-way or encroachments on the site.
Details of party walls, or walls and foundations adjacent to the lot lines.
The position, dimensions and elevations of all cellars, excavations, wells, back-filled areas, etc., and the elevation of any water herein.
148
All trees which may be affected by the building operations.
Detailed information relative to established curb and building lines and alley, street, sidewalk and curb grades at or adjacent to the site and the materials of which they are constructed.
All utility services and the size, characteristics, etc., of these services.
The location of all piping, mains, sewers, poles, wires, hydrants, manholes, etc., upon, over or under the site or adjacent to the site if within the limits of the survey.
Complete information as to the disposal of sanitary, storm, water and subsoil drainage and suitability of subsoil for rainwater or sanitary disposal purposes if fry wells are used.
Official datum upon which elevations are based and a bench mark established on or adjacent to the site.
Elevations on a grid system of not more than 20-foot intervals to indicate changes in slope, etc., over that portion of the site to be developed.
Elevations of contours, bottoms, excavations, etc.
Contemplated date and description of any proposed improvements to approaches or utilities adjacent to the site.
5. The plat should bear a certification by the city engineer or other qualified official , that the true street lines and the officially established grades of curbs, sidewalks and sewers are correctly given.
6. Adequate investigation should be made to determine the sub
soil conditions. The investigations should include a sufficient
number of test pits or test borings as will determine, in the
judgment of the architect, the true conditions.
149
7. Samples of strata of soil or rock taken in each pit or boring
should be retained in suitable containers. Each sample con
tainer should be identified as to the boring and elevations
at which taken and the labels initialed by the engineer making
the soil investigation.
8. The following information should be noted on the plat:
Thickness, consistency, character, and estimated safe bearing value of the various strata encountered in each pit or boring.
Amount and elevation of ground water encountered in each pit or boring, its possible variation with the seasons and effect on the subsoil.
The elevation of rock, if known, and the probability of encountering quicksand.
Average depth of frost effect below surface of ground.
High and low levels of nearby bodies of water affecting the ground water level.
The probability of freshets overrunning the site.
Whether the soil contains alkali in sufficient quantities to affect concrete foundations.
S I T E PLAN
y
150
CITY ORDTNANCR.q
AND STAJN^DARDS J
Adopted from City of Lubbock
ORDINANCE NO. 4371 151
AN ORDINANCE AMENDUX; SECTIONS 2 8 - 1 , 28-4^ 2 8 - 1 0 , 2 8 - 1 5 , ARTICLE I AND SECTIONS •8 -17 , 2 8 - 2 2 , 2 8 - 4 2 , 2 8 - 4 3 , 2 8 - 5 0 , 2 8 - 5 0 a , 2 8 - 5 2 , 2 8 - 5 5 , 2 8 - 5 8 , 28-60 AND 23-63 OF ARTICLE I I AND SECTION 28-66 OF ARTICLE I I I OF CHAPTER 28 CODE OF ORDINANCES, CITY 7F LUBBOCK; TO PROVIDE FOR THE ADOFTIGN OF OFFICIAL MAPS; A METHOD 7CR DETERMINING rrREET NUMBERS; PROHIBITING THE OBSTRUCTION AND PIANTI?X3 IN PARKWAYS AND PROVXnr^. 'OR EXCEPTIONS THERETO; MAKING TT THE DUTY OF THE OCCUPANT OF PREMISES TO KEEP AD-fACEWr SIDEWALKS, PARKWAYS AND ALLEYWAYS CLEAN; REQUIRING COMPLIANCE WITH ARTICLE t l AS PREREQUISITE TO THE ISSUANCE OF A BUILDING PERMIT; REQUIRING A BOOT), CERTAIN CNSURANCE AND AN AGREEMENT FOR INDEMNITY FOR WCRK ON PUBLIC RIGHT OF WAY; PROVIDING ?0R AND AUTHORIZING AN APPEAL TO THE BOARD OF EXAMINERS AND APPEALS UNDER CERTAPJ :ONDTriONS; ADOPTING CERTAIN DESIGN AND LAYOUT PUNS FOR CONSTRUCTION OF SIDEWALKS, )RIVEWAYS, CURBS AND GUTTERS IN THE CITY OF LUBBOCK; PROVIDING FOR LOCATION CF SIDEWALKS AND MAKING CERTAIN EXCEPTIONS THERETO; DESCRIBING THE REQUTREME TTS FCR SIDEWALK WIDTHS; PRESCRIBING FOR THE SETTING OF LINES AND GRADES FOR SIDEWALKS AS fELL AS THE MATERULS TO BE USED IN THE CONSTRUCTION (T SUCH SIDE-H^ALKS; DIRECTING rHE FINISHING AND MARKING OF SIDEWALKS; DIRECTING THE PLACEMENT OF INNER CURBS JHERE SIDEWALK IS ADJACENT TO AN OFF-STREET PARKING AREA; PROVIDING FCR THE PAVING OP DRIVEWAYS INTO PRIVATE PROPERTY OR FOR ALLEYS AND PROVIDING FOR THE REPLACEMENT OP PAVEMENT WTTUIN A PUBLIC STREET THAT IS CUT FOR UnLITY INSTALLATION; REPEALING SECTION 28-24 OF ARTICLE I I AND SECTION 28-61 OF ARTICLE I I I OF SAID CHAPTER 2 8 ; PROVIDING FOR A PENALTY AND A SAVINGS CLAUSE; DIRECTIIIG THE PUBLICATION OF THE DESCRIPTIVE CAPTION AND THE PENALTY CLAUSE IN LIEU OF PUBLICATION OF THE CRDTNANCE ( S PROVIDED BY LAW.
BE IT ORDAINED BY THE CITY COUNCIL OF THE CITY OF LUBBOCK:
SECTION 1 . THAT A r t i c l e s I , I I , I I I of Chap te r 28 e n t i t l e d S t r e e t s and S lda -walks of t h e Code of O r d i n a n c e s of t h e C i t y of Lubbock be and t h e same i s hereby amended a s f o l l o w s :
S e c . 2 8 - 1 . O f f i c i a l Maps.
" t h e o f f i c i a l map of t h e C i t y of Lubbock s h a l l be p r e p a r e d by t h e C i t y E n - i n e e r on the I n d i v i d u a l s h e e t s r e p r e s e n t i n g 2 ,560 a c r e s of a r e a p e r s h e e t t o s c a l e or 1 . 3 0 0 ' and on which s h a l l be shown and d e s i g n a t e d t h e v a r i o u s s t r e e t s , - v e n u e s ^nc bou.e v a r d a , t e r r a c e s and p u b l i c p a r k s and a l l e y s t o g e t h e r w i t h t h e l o t s and a u d i t ion or s u b d i v i s i o n nuiDbers and names , a s w e l l a s t h e s t r e e t n u n i e r for each b l c c x . The Cit: . E n g i n e e r I s h e r e b y a u t h o r i z e d and d i r e c t e d t o r e v i s e t h e o f f i c i a l map when any p i a . of any s u b d i v i s i o n a d d i t i o n o r o t h e r a r e a has been approved by t h e P l a n n i n g Conn^ission of t h e C i t y of Lubbock and h a s been r e c o r d e d in t h e County C l e r k ' s o f f i c e of Lubbo..< County , T e x a s , o r when o t h e r w i s e d i r e c t e d by o r d i n a n c e .
S e c . 2 8 - 4 . S t r e e t number method.
•The Bu l ld ln i ? I n s p e c t o r s h a l l de t e rmine t h e o f f i c i a l s t r e e t numbers by d e s i g n a t i n g o^e J u ^ r J l ^ ^ e r . o r each p l a t t e d l o t a l o n g t h e s t r e e t - - - ^ J - ^ ^ W excep t where t h e p r o p e r t y I s p l a t t e d i n t o l o t s c r t r a c t s w i t h a f ^ ° " " g « / J " " , ^ ^ „ \ ' ^ " s t r e e t , avenue or b o u l e v a r d i n e x c e s s of 75 f e e t ^l>«>^^° « " ' \ « ^ f ' ' ' J ^ ^ ^ ^ ^ J ' ^ ^ ^ , ^ i n s p e c t o r s h a l l a l l o c a t e one n u n ^ r l c a l a d d r e s s f o r each 50 f ee t of f " " ^ ^ g « ° ^ ^ ^ ° ^ p o r i i o n t h e r e o f . Where duplex h o u s e s , a p a r t m e n t s or b u s i n e s s b u i l d i n g s a r e e r e c t e d
- 1 -
152
e n t i r e l y on any one lot wnlch i s e n t i t l e d to receive only one number as provided herein and defined in Section .8^3 , each apartment, business or other unit shal l be designated with the numoer to which the lot i s e n t i t l e d followed by an alphabetical suf f ix for each such additional unit beginning v l t h the l e t t e r *W\
Sec. 28-10. Obstruction and planting in Paric^avs - Cerera i
"No obstruction or planting of any kind shall be maintained, constructed, placed, planted or grown in the area of the public parkway Iving between the curb or grade l ine of any public s treet and the abutting sidewalk or private property l ine other than grass, plants or shrubs thac w i l l not exceed 13 inches in height above the top of the curb l e v e l , and which are kept t r i m e d or pruned In such manner as t o keep such plants and shrubbery from encroaching over or obstructing the adjacent public sidewalk or street area.
Provided, however, the owner of any abutting property may use the public parkway contrary t o the above provision by application for a "Street Parkway Use Permit" executed by the City Secretary who i s hereby authorized to issue such a permit which sha l l provide that the oermittee by acceptance of such permit agrees and obl igates himself or ass igns to maintain any t r e e , shrub or plant placed in such area In such manner as to keep same from becoming a motor vehicle or pedestrian t r a f f i c hazard and further i f in the event said parkway shall at any time be needed for any puollc purpose or for any u t i l i t y llr.e or po les , s treet s igns , t r a f f i c s igns and/or other devices placed in such area under lawful authori ty of the City Council the permittee shal l wtienever i t shal l be deemed necessary in the public Interest as may be determined by the City Council remove any t r e e , plant or shrub s i tuated within such area at no expense to City.
Sec. 28-15. Duty to keep stdewalkp parkway and alleyway clean.
"it sha l l be the duty of the owner, tenant or l e s see to keep the abutting or adjacent sidewalk, parkway^ and alleyway clean and free of a l l weeds^ trash rubbish, f i l t h and debris which may Incumber such sidewalk, parkway and a l l e y way and t o place such material in trash receptacles aa required by t h i s Code and fa i lure t o comply with the requirement of t h i s paragraph shal l be and Is hereby declared to const i tute a nuisance subject to abatement as provided for in Section 15-29 t o 15-34, of t h i s Code,
Sec. 28-17. Compliance with ar t i c l e prerequlsi^g to IssuaT^ce of building permit.
'Vhenever appl icat ion i s made to the Building Inspector by any person^ firm or corporation for a building permit to naks any construction, addition or structural a l t era t ion on a building or other structure, or to pave a parking lot where a permit Is required by t h i s Code or any other ordinance of the City on property adjacent t o or abutting on a public s t r e e t , where the ex i s t ing sidewalks, driveways e i ther private or conroerclal, curbs, street curbs and gutters abutting such property do not conform to the basic standards, s p e c i f i c a t i o n s , layout, det a i l s and designs provided for and established by t h i s a r t i c l e , or in the event »*hen a l l sidewalks, driveways e i ther private or connnercial, curbs, s treet curbs and gut ters , required to be constructed have rot been construcced, no permit shal l be Issued by the Building Inspector unti l applicant for such p-rmit shal l agree In writ ing t o construct, reconstruct or repair, the curb, gutter^ si-iewalk or
- 2 -
iip5
driveway in accordance with t h i s a r t i c l e as a part of and a condition to the Issuance cf such building permit. No construction, addit ion or a l t e ra t ion to such buildings or ether improvements placed or constructed on the adjacent private property shal l be approved by the Building Inspector , un t i l such times as a l l the sldewalkso driveways, curbs, s t reet curbs and gutters have been constructed or reconstructed and comply with tha provisions of t h i s a r t i c l e .
Sec. 28-22. Bond retjuired for work on Public Right-of-Wav,
"The person, firm or corporation to whom a bui lding permit i s issued co do construct ion, a l t e r a t i o n , repair or other work on private property which i s adjacent to a sidewalk, curb, gutter and/or driveway or other work within public right-of-way which i s required to be constructed, reconstructed, removed or repaired as a condition to the issuance of a permit, shal l provide the Building Inspector with evidence that the General Contractors Bond required and as provided in the Building Code of the City includes coverage on a l l work required to be done on public right-of-way as well as private property pr ior to issuance of the bui lding permit for any such construction.
"(1) When construction, removal or repair of sidewalks, curbs, gutters and driveways or other work within the public right-of-way i s to be done separate to construction on the adjacent private property, the applicant for permit under Sec. 28-20, shal l provide the Building Inspector at the time of making application for permit, a good and sufficient performance bond issued by a surety company authorlr^ed to do business as such In the s t a t e . In the penal sum equal to the t o t a l estiicated cost of the proposed sidewalk, curb, gutter , s t reet or a l ley a l t e ra t ion or improvement. In favor of the City of Lubbock, conditionad that such construction shall be completed In accordance with the City 's standards and specif icat ions. Such bond shall be approved by the City Attorney pr ior to tha issuance of permit hereunder. In l ieu of such performance bond, the applicant may deposit in cash with the Building Inspector a sum equivalent to the estimated cost of the improvements or a l t e r a t i on to secure the completion of such construction m accordance with the C i ty ' s standards and specif icat ions. Said money to be returned to applicant upon proof of completion and acceptance. Provided, however, in the event such construction as herein contemplated is not completed in accordance with the Ci ty ' s standards and specif icat ions,said money deposited in l ieu of bond shall be forfeited In favor of the City of Lubbock.
"(2) Where the application for building permit Includes work on public right-of-way, the Building Inspector shall require tha t there be filed with each application for permit hereunder a cer t i f ica te of insurance for public l i a b i l i t y and property damage issued by a solvent insurance company or companies authorized to do business in the State of Texas, evidencing that the City of Lubbock is ^ adequately protected from any l i a b i l i t y or damages r e su l t ing by vir tue of applicant s construction pursuant to such permit. The public l i a b i l i t y and property damage insurance required herein shall have a minimum limit of Five Thousand Dollars ($5,000.00) property damage for each accident and Twenty-five Thousand Dollars ($25,000.00) aggregated property damage and Twenty-Five Thousand Dollars (525,oOO 00) bodily Injury or death of one person and Fifty Thousartd Dollars ($50,000.00) bodily Injury or death for more than one person.
"(3) In addition to the performance bond and insurance required in Subsections (1) and ( 2 ) , the Building Inspector shall be furnished an agreement,
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evidenced by execution of the application and acce;t^.nce of the permit Issued hereunder, that applicant will indemnify and hold h=*rml-s3 the Citv, its officers, agents, servants and employees from ^ay and ail claims, damagss, suits, attorneys' fees, cause of action and Judgrrents which may result in any mar.rer from the construction or laying of any such improvements upon any public street or alley In the City.
"(4) The Building Inspector shall require agreement by the applicant, •vidancad by execution of application and acceptance of permit hereunder, that applicant shall, during the period of such construction and prior to the acceptance of such improvetnents by the City, maintain such public street or alley in a safe condition and Issue all necessary instructions and take all precautions as may be reasonably required to maintain such public streets or alleys in a safe condition for all public use.
Sec. 28-42. Appeal to Board of Examiners and Appeals - Authorized.
•Vhen in the event the application of the provisions of this article is calculated to do manifest injury to any property or the improvements thereon or to be constructed thereon or the lawful use thereof, which is due to che peculiar physical condition of the property or the improvements, the Board of Examiners and Appeals as established by Chapter 5 of the Building Code, is hereby authorized and vested with jurisdiction to review such conditions, upcn written appeal made by the owner of such property which shall set forth the reasons the application of this article will do a manifest injury to such property, the improvements thereon or lawful use thereof.
Sec. 28-48. Design^ layout and Plans.
••rha desigHt layout and plans for construction, reconstruction, alteration or replacement of all sidewalks, curbs, driveways either private or commercial, and street curbs and gutters shall conform to ani be constructed according to the design, layout, plans, details shown and provided by the City of Lubbock Standard Plans and Specifications for Construction of Sidewalks, Driveways, Curbs, and Cutters in the City of Lubbock, which have been or may hereafter from time to time, be adopted or amended by ordinance.
Sec. 28-50. Sidewalk Location.
"All sidewalks shall be constructed in that area between the curb or grade Una of the public street and the abutting property line with the inner-edge of tha sidewalk being contiguous and parallel wich the property line.
"Sidewalks shall be constructed along all streets ar.d avenues abutting tha property being developed or Improved and shall extend to the curb Una on each comer lot simultaneous with any construction or development on the property except:
"(a) On any one side of a residential street into which lots front when more than 60% of the frontage between street intersections has been developed without sidewalks at the time a permit is requested.
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••(b) TJhen a Specific Use Zone Permit is hereafter granted which specifically oes noL provide for a sidewalk.
"(c) Where, in a single family residentlally zoned area the minimum lot Tontage on the side of the street In question between street intersection, as latted and as developed, is 150 feet and the minimum lot area is 30,000 square feet,
"(d) In manufacturing or industrial zoning districts, where the abutting itreet is not designated as Highway or is not designated by the Master Thoroughfare Ian as a Major Street, and is outside the area bounded by 4th Street, Avenue A, 9th Street, and Avenue Q.
"(e) When the area to be Improved is on a street where there are no existing :oncrete sidewalks on the same side of the street within the block and is to be Lsed as off-street parking lot the entire surface of which is to be paved, including he area extending to the curb under the terms of a Street Use License that provides 'or construction of bumper rails or guards as specified in Sec. 28-60 of this Code o be placed along and on the property line. Provided, however, this exception ihall not apply when the parking lot area is within the area bounded by 4th Street, ivenue A, 19th Street and Avenue Q, or when the parking area is to be used In connection with an adjacent commercial operation or a building is constructed on :he same lot.
"(f) When an addition or Improvement Is made to an existing residential itructure and the area of such addition does not exceed 200 square feet, not in-:luding unenclosed porches or carports.
"At locations where sidewalks are not required by this Code or where side-lalks do not exist it shall be the duty and responsibility of the property owner to oaintain the parkway area in such a condition so as to permit safe use by pedestrians, to sidewalk shall be removed except for repair or replacement and then it shall be repaired or replaced in accordance with this Code.
Sec. 28-50a. Sidewalk Widths.
"Sidewalks shall be a minimum of four feet wide in residential and industrial areas and a minimum of six feet wide In commercial areas except commercial Breas when the sidewalk constructed at the required width would leave 24 Inches or less of space between the back of the curb and the outer edge of the sidewalk In which case the sidewalk width shall be increased sufficiently to extend to the back of the curb.
Sec. 28-52. Lines and grades.
"It shall be unlawful for any person, firm or corporation to excavate commence construction or place any mterlal for any work described in this article in a public street or public place, until a permit for such work has been obtained from the Building Inspector, as provided herein or until stakes or lines and grades for such work have been given by the City unless the curb adjacent to the property is existing, and then the contractor shall follow the grade of the f ^^^^"^ curb . Contractors or other persons in charge of such work will be required to P^°^;-^^oth line and grade stakes after the same have been set and any errors In lines or grades
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caused by stakes having been ra ised, lowered or otherwise charged or los^ wi l l be charged against the ;:or/cractcr or other person in dtarge of e.ch work, ^ni he wil l be required to correct such mistak-s at h is own cost and expense.
•The aligameat of the sidewalk sh . l l para l le l the acjacer.t property l i r e unless the Building Inspector gr^r.ts permission for the sidiv^lK to para l le l ^r. ex is t ing s t r ee t curb. The property owner shall have his property line established before Issuance of a permit by the Building Ir.spector,
"The grade of the sidewalk shall para l le l the grade of the top of the s t reet curb when the curb ex i s t s at the time of the sidevilk construction or shall conform to grades establ ished by the City when there is no curb exis t ing , A minimum fee of $2.50 shal l be charged by the City to set two grade acikes for the elevation of the sidewalk and an addi t ional one dollar shall be charged for each addit ional grade stake required or requested by the contractor. The contraccor shall preserve the grade stakes set by the City un t i l the final inspection by the City,
"The elevation of the sidewalk at the edge nearest the s t ree t shall be at leas t as high as but not more than two Inches above the top of the adjacent curb and the elevation of the sidewalk may r i s e as much as one-quarter of an Inch per foot of width.
•*rhe elevation of tha sidewalk at a prl'r^te drlvev&y shall continue the grade of the sidewalk on e i ther side of the driveway except:
"(a) When the distance from the edge of the sidewalk to the back of curb is four feet or less in which case not more than two feet of the sidewalk widch may be sloped and used as a part of the driveway t ransi t ion between the gutter and the property l i n e .
"(b) When the sidewalk i s constructed adjacent to the back of the curb in which case not more than five feet of the sidewalk width may be sloped for the driveway t r ans i t i on approach.
"(c) When in the opinion of the Building Inspector on-site or private property drainage cannot be provided with the sidewalk placed =it curb grade in such event the longitudinal gr^tie of the sidewalk on ei ther sice of tha driveway may be sloped down at the ra te of one inch per foot of length not to exceed four inches but the concrete sidewalk shall be continuous across the driveway.
Sec, 28-55, Material to be used.
"Sidewalks, driveways, inner curbs or s treet curbs shall be constructed of concrete composed of Portland cement, fine aggregate and coarse aggregate, except as herein specified. Except that other comparable material may be used when approved by the Building Inspector. The concrete shall contain not less than five sacks of cement per cubic yard and not more than eight gallons of wicer net per sack of cement when coarse aggregate is used. The amount of ccarsa aggregate shall not exceed eighty-five one hur.credths cubic feet per cubic foot of ce.r.-r.t (dry, loose volume). The minimum compressive strength at 28 days shall be 2,500 pounds per square inch.
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Sac. 28*58. ' F in i sh ing and maiklng.
•Tlia f ln iah on the surface of the cor.crete sl iewalk sha l l be monolithic with eh« alab and sha l l ba such that i t does not present a hazardous condition. The •arklng of tha top of the sidewalk slab must be docs with a s p e c i a l l y devised • srk ing t o o l at four*foot i n t e r v a l s . The narKlng muse cut at l e a s t one-half way through tha s lab and sha l l be done af ter tha slab hss set s u f f i c i e n t l y so that the coacroca w i l l not f l o v . The exposed edges of a l l concrete sha l l be neatly finished with a spac ia l edging t o o l . Tha contractor shal l employ adequate measures to proeact a l l work from tha act ion of tha sun, cold and wind u n t i l the same has thoroughly hardanad and s a t .
Sac. 28*60. Inner Curbs where sidewalk Is adjacer.t t o o f f - s t r e e t parking area,
"Vhara aidawalka are adjacent t o an o f f - s tree t parking area a concrete inner curb or an iron pipe buapar r a i l sha l l be bui l t to separate the parking area from tha sidawalk* Any such concrete curb or iron pipe bumper r a i l sha l l be at. least 4 Inchas high. I f * concrete inner curb i s constructed i t must be at least 4 Inches la width and axtand a Biniiaum of 6 inchas below the driving surface. Iron pipe uaad for a bumper r a i l sha l l have a minimum of 3 inches in outside diameter. The sidawalk may be used as t h i s inner curb provided such sidewalk extends a minimum of 4 inchaa abova tha driving surface.
Sac. 28-63, Privaways into private property or a l l e y s .
"All driveways Into private property shal l be paved from the s treet curb Una t o tha proparty l i n e . They shal l be constructed according t o the standards contained harain and the ir design shal l be as shown on the standard de ta i l s for construction of s idewalks, drlv«ways, curbs and gutters , referred to in Sec. 28-48, for access t o a l l proparty other than s ingle family residences sha l l be approved aa t o daaign by the City Traff ic Engineer under the terms and conditions of t h i s A r t i c l e .
"Wo drivMay access t o ' ^ - 1 " , "R-2", 1 l -3" or other r e s i d e n t l a l l y zoned proparty sha l l ba permitted from a street which ia designated as a Major Street by tha Maater Thorou^fare Plan except when the Pla:L:r.ing Commission shal l have approved tha plat with l o t s fronting on such s t ree t s or when the plat was f i l e d of record prior t o January 2 2 , 1953, with l o t s fronting on the Major Street .
Sac. 28"66. Rsplaceaent of pavetoent.
"All pavad aurfacas of City s t ree t s cut for u t i l i t y i n s t a l l a t i o n shal l be rapUcad by tha City at the expense of the u t i l i t y who caused the s tree t cut. The u t i l i t y may place the concrete base as required herein with i t s own or contractor Ubor but only under the direct ion and supervision of the Street Superintendent of tha City of Lubbock. Tha City w i l l b i l l the contractor or u t i l i t y for the actual coat of mater ia l s , equipment, labor and supervision required to repair the paving. In l iau of tha City doing tha work the u t i l i t y may ^"^« '^^ ^ '' ^^^^ ^ \ !!5*o^^ Mnc paraons of Ita s e l ec t i on provided tha u t i l i t y provides the City with a bond assuring that tha aurface replaced w i l l ba adequately repaired by the u t i l i t y for a period of thraa years ."
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SECTION 2 . Section 28-24 of Art ic le H , chapter 28 and Section 28-61 of irt ic la I I I of said Chapter 28 are hereby repealed.
SECTION 3 . If any s ec t ion , subsection, sentence, clause^ phrase or portion jf t h i s ordinance i s for any reason held invalid or unconstitutional by any court 3f competent j u r i s d i c t i o n , such portion shal l be deemed a separate, d i s t inc t and Indapendcnt provis ion and such holding shal l not affect the v a l i d i t y of the raaaining portions thereof .
SECTION 4 . Any person, firm or corporation v io la t ing any of the provisions of t h i s ordinance shal l be deemed gui l ty of a misdemeanor and upon conviction thereof shal l be fined not exceeding the sum of $200.00. Each day such v io la t ion Is coaBittad, or permitted to continue, shal l const i tute a separate offense and shall be punishable as such hereunder.
SECTION 5. The City Secretary i s hereby authorized and directed to cause :ha publication of the descr ipt ive caption hereof together with the penalty provision for v i o l a t i o n thereof in l i e u of publication as provided by Art ic le 1176b-l, Vernon's lanotated Civ i l Statutes of Texas.
SECTION 6. This order shal l take ef fect 10 days from and af ter the las t lata of publ icat ion as herein provided,
A N D I T I S SO ( DERED.
tessed by tha City Council on f i r s t reading t h i s 4th day of June, 1964.
?assed by tha City Council on second reading t h i s 30th day of June, 1964.
YlTklj/. ^Jrh^AAA^ MAX TIDMORE, Mayor
ATTEST:
lavanla Lowe, City Secretary-Treasurer
) '.
' ' 1 1 > 1 1 • ' '
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SECTION 12 159
"AM" APARTMENT-MEDICAL DISTRICT
PURPOSE
The purpose of this d i s t r ic t is to provide for quality medical and related development through p roper planning and design. The regulations a re intended to produce an a t t rac t ive environnnent which will insure the compatibility between nnedical and other uses ; encourage and protect future developnnent; provide modern facilities for the public; provide proper acces so ry uses ; and p romote , s tabi l ize , and enhance the City as a medical center . When proposed development in this d i s t r ic t is adjacent to any residentlally zoned proper ty , the proposed development shall be designed to provide for maximum compatibility with the adjacent development. Architectural design, landscaping, screening , and parking a r e a s shall be properly provided to insure maximum protect ion of the adjacent uses .
GENERAL PROVISIONS
12. 2-1 When proposed development in this dis t r ic t is adjacent to " R - 1 " or " R - 2 " zoned proper ty , on either side or to the rear» even if separated by an alley, a six (6) foot solid screening fence of wood or masonry construction or an equivalent landscaping sc reen shall be installed and permanently maintained on the development lot along the adjacent property line.
12. 2-2 Accessory uses shall be located and designed to provide for compatibili ty with the p r imary use and shall be for the convenience of the occupants and their clientele.
PERMITTED USES
12. 3-1 Apartments as specified in the "A-2" Section, including efficiency uni ts .
12.3-2 Blood Bank.
12.3-3 Convalescent, nursing, orphan, materni ty, or ger ia t r ics homes.
12.3-4 Day N u r s e r i e s .
12. 3 .5 Hospital , clinic or medical office, except ve ter inary facili t ies.
12. 3-6 Medical , dental, and optical laboratories providing service for individuals of the medical profession and their clientele.
43
12.3-7
12.3-8
12.3-9
Adminis t ra t ive offices for the medical profession including independent management, legal, accounting and bookkeeping '^ ^''^ serv ice for doctors , hospitals , c l imes , and medical personnel .
P h a r m a c y , not exceeding two thousand (2,000) square feet of g ross floor a r ea , limited to retail sale of d rugs , medicines and /o r medical supplies only.
Schools, pr ivate or public, directly related to the medical p r o fession.
12, 3-10 Acces so ry uses as follows, provided such uses a r e not visible o r identifiable from outside the building in which they are located, have no exter ior signs, have no entrance except from a lobby or other comnnon area, within the building and are for the use and convenience of the occupants and/or the clientele.
12. 3-10-1 Barber Shop.
12. 3-10-2 Beauty Shop.
12. 3-10-3 Flower Shop.
12. 3-10-4 Gift Shop.
12. 3-10-5 Newsstand.
12. 3-10-6 Res taurants .
CONDITIONAL USES
The following uses may be permit ted when approved by the Zoning Board of Adjustment in the manner specified in Section 25.
12. 4-1 Ba rbe r Shop.
12. 4-2 Beauty Shop.
12.4-3 Establ ishments which sell , fit, or repair devices for the c o r r e c tion or prevention of physical deformities.
12. 4-4 Flower Shop.
12.4-5
12.4-6
Gift Shop.
Newsstand.
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12. 4-7 Ambulance service and other medically related facilities of a p r ima r i l y service type nature not provided for as permit ted 161 uses in this Dis t r ic t .
SPECIFIC USE
To provide l imited flexibility for modern urban design, additional uses in this Dis t r ic t a r e provided in the "Specific Use" section of this Ordinance.
YARD REQUIREMENTS
^2.6-1 Fron t Yard. The minimum front yard shall be twenty-five (25) feet, except that when the entire front yard is landscaped and permanent ly maintained, the required front yard may be fifteen-(15) feet. This section shall not be construed so as to permi t obstruct ions of any nature on corner lots within the visibility triangle as defined in Section 27 .2 -6 -9 -2 .
12.6-2 Rea r Yard. The minimum rea r yard shall be five (5) feet. When proposed development is adjacent to any "R-1" or "R-2" Dis t r ic t , even if separated by an alley, the rea r yard shall be a minimun:i of one (1) foot for each one (1) foot of total height.
12. 6-3 Side Yard. There shall be a minimum side yard of ten (10) feet on each side of any one (1) or two (2) s tory s t ruc ture , and twenty (20) feet on each side of any s tructure with more than two (2) s t o r i e s . When proposed developnnent is adjacent to any " R - 1 " or " R - 2 " Dis t r ic t , the nriinimum side yard shall be one (1) foot for each one (1) foot of total height.
7 LOT WIDTH. The minimum lot width shall be fifty (50) feet, except as provided for apartnnents in the "A-2" regulations.
8 LOT AREA. The minimum lot a rea shall be six thousand (6,000) square feet except as provided for apartments in the "A-2" regulations.
9 LOT COVERAGE. The combined area of all buildings shall not exceed forty (40) percent , except that permitted accessory uses in apartment developments may cover an additional ten (10) percent of the development lot a r ea .
10 FLOOR AREA RATIO. Apartments shall meet the requirements of the "A-2" Dis t r ic t .
11 HEIGHT LIMIT. Buildings shall not exceed three (3) s tor ies and shall not exceed forty (40) feet. Provided, however, that buildings may be erected to aheight of seventy-five (75) feet whenthe front, side and rea r yards a re increased one (1) additional foot for each foot such buildings exceed fort>' (40) feet.
45
O F F - S T R E E T PARKING 162
12.12-1 Off-Street Parking - Required.
12 .12-1-1
12 .12 -1 -2
12 .12 -1 -3
1 2 . 1 2 - 1 - 4
12 .12 -1 -5
12 .12 -1 -6
12 .12 -1 -7
12 .12 -1 -8
12 .12-1-9
Apartments - one (1) space for each efficiency unit, one and one-half (1 1/2) spaces for each one bedroom unit, two (2) spaces for each unit with two bedrooms, two and one-half (2 1/2) spaces for each unit with three (3) o r more bedrooms, plus one (1) additional space for each four (4) units in the development.
Hospital - two (2) spaces for each bed.
Clinic and Offices one (1) space for each one hundred and fifty (150) square feet of gross floor a r e a .
Convalescent, nursing, materni ty , or ger ia t r i cs homes . Three (3) parking spaces for each five (5) beds .
Orphan home one (1) space for each five (5) beds .
Medical, dental, or optical laborator ies - one (1) space for each one hundred and fifty (150) square feet of gross floor a r e a .
Schools - one (1) space for each one hundred and fifty (150) square feet of gross floor a r e a .
Day Nurser ies - one (1) space for each three hundred (300) square feet of gross floor a r ea plus an off-s t r ee t drive, having separa te ingress and eg res s , capable of the temporary storage of three (3) or more vehicles.
Blood Bank - one (1) space for each two hundred (200) square feet of gross floor a r ea .
12 .12-1-10 Conditional uses - the number of required, spaces shall be set up by the Zoning Board of Adjustment, based on the requirements for that use or s imi lar type uses in this or other d is t r ic t s .
12.12-2 Off-Street Parking - Provisions
12.12-2-1 AH parking spaces required herein shall be located on the same lot with the building or use served, except that where an inc rease in the number of spaces is required by a change or enlargement of a permit ted
46
use or building, the required additional spaces may be located a distance not to exceed three hundred (300) feet from the proper ty l ine.
12.12-2-2 P lans of proposed off-street parking a reas shall be submitted to the City Traffic Engineer to be checked for compliance under the t e r m s of this d i s t r ic t and the City's driveway regulations.
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\ LANDSCAPING REQUIREMENTS
12.13-1 Apar tments :
12.13-1-1 Fifteen (15) percent of the total development lot a r e a shall be landscaped and permanently nnaintained. One-fourth (1/4) of the required landscaping shall be located in the required front yard.
12.13-1-2 The parkway area shall be landscaped and permanent ly maintained. This area shall be in addition to the required landscaping.
12.13-2 All Other Uses:
12.13-2-1 Ten (10) percent of the total developnnent lot a rea shall be landscaped and permanently maintained. All of the required landscaping shall be located between the building lines and adjacent s t ree t s .
12,13-2-2 The parkway area shall be landscaped and permanent ly maintained. This area shall be in addition to the required landscaping.
47
1 ^ > ' ^
VEWAY STANDARDS !• It
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40 MAX. 20 UIH.
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3^ MAX \ 15'H
20 MiH \
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COMBINATION
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3 M
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UJ a:
23'<•
MIN. •STREET-
S^ MAX.
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3* Drivffvay
COMMERCIAL DRIVEWAYS
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rTon«ant Potnt of
^^ JOINT APPHOAO*
9 MtN.'^ STREET
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5 MIN.-
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^ ALLCY-DRIVE WAT
COMSIXATIOH
RpqinrNTlAL DRIVEVt'AYS
CITY OF LUBBOCK
TKAFFIC EN"'=? DEPT.
R<vis«<l •^pr.;, 1974
165
PLATE NO. 4
VISIBILITY TRIANGLE Ord.** 5309
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BUILDING CODE ANALYSIS
r
168
BUILDING CODE ANALYSIS
A . INTRODUCTION
Bo TYPES OF CONSTRUCTION
C . HEIGHT AND AREA RESTRICTIONS
D . STRUCTURAL
E . MEANS OF EGRESS, PASSAGEWAYS AND VERTICAL OPENINGS
F . F I R E PREVENTION
G. ELEVATORS AND DUMBWAITERS
H . H £ A i r , : , COOLING, AND VENTILATION SYSTEMS
169
General Construction Requirements
A. Introduction
1. These standards constitute minimum requirements of con
striction. They are considered necessary to insure
properly planned and well constructed hospitals, which
can be maintained and efficiently operated to furnish
adequate service. (33)
2- No attempt has been made in establishing these standards
to comply with all the various state and local codes
and regulations which, of course, must be observed. THE
STANDARDS HERE SET FORTH MUST BE FOLLOWED WHERE THEY
EXCEED ANY OTHER STATE AND LOCAL CODES AND REGULATIONS.
B. Types of Construction
1. Type 1 - NONCOMBUSTIBLE: THE STRUCTURAL ELEMENTS SHALL
BE OF STEEL, IRON, CONCRETE OR MASONRY. WALLS AND
PERMANENT PARTITIONS SHALL BE OF NONCOMBUSTIBLE ONE-
HOUR FIRE RESISTIVE CONSTRUCTION. SEE ALSO CHART BELOW.
2. Type 2 - NONCOMBUSTIBLE: THE STRUCTURAL ELEMENTS SHALL
BE OF STEEL, IRON, CONCRETE OR MASONRY. WALLS AND
PERMANENT PARTITIONS SHALL BE OF NONCONBUSTIBLE ONE-
HOUR FIRE RESISTIVE CONSTRUCTION. SEE ALSO CHART BELOW.
170
3. Type 3 - NONCONBUSTIBLE (1-HOUR): THE STRUCTURAL ELEMENTS
SHALL BE NONCONBUSTIBLE MATERIAL. (Interior partition
of one story structures may contain combustible material,
but must have a 1-hour fire resistive rating.) SEE ALSO
CHART BELOW. (34)
MINIMUM FIRE RESISTIVE VALUES, BY CONSTRUCTION TYPE
Exterior bearing Type 1 Type 2 Type 3 Type 4 Walls 4-hr. 2-hr. 1-hr. 1-hr.
Structural Frame 3-hr. 2-hr. 1-hr. 1-hr.
Partitions
Vertical Shafts
Floors and Roofs
Boiler Rooms
Combustible Storage
C. Height and Area Restrictions
1. Type 1 - No limit.
2. Type 2 - LIMIT THREE STORIES, no area limit.
3. Type 3 - SINGLE STORY AREA LIMIT, 7,000 SQUARE FEET: TWO STORY AREA LIMIT 4,000 SQUARE FEET PER STORY. OVER TWO STORIES NOT PERMITTED.
4. Type 4 - SINGLE STORY AREA LIMIT 5,000 SQUARE FEET. NO MULTISTORY BUILDING PERMITTED.
1-hr.
2 -hr .
2 -hr .
2-hr .
2 -h r .
1-hr.
2-hr .
2-hr .
2-hr .
2-hr .
1-hr.
2 -hr .
1-hr.
2 -hr .
2 -hr .
1-hr
1-hr
1-hr
2-hr
2-hr
(35)
171
For the purpose of this section, each portion of a building
separated by one or more continuous 4-hour fire resistive
walls extending from the foundation through the roof at all
points may be considered a separate building.
The above restrictions may be waived to the extent indicated
below:
Separation from existing structures or adjoining property
lines along 3 sides (75% of perimeter) of the building
will make possible a 2.5% increase in area for each foot
of separation in excess of 20 feet. Maximum increase, 100%.
Separation from existing structures or adjoining property
lines along all sides (100% of perimeter) of the building
will make possible a 5% increase in area for each foot of
separation in excess of 20 feet. Maximum increase, 100%.
D. Structural
1. CODES - IN ADDITION TO COMPLIANCE WITH THESE STANDARDS,
ALL OTHER APPLICABLE LOCAL AND STATE BUILDING CODES AND
REGULATIONS MUST BE OBSERVED, IN AREAS WHICH ARE NOT
SUBJECT TO LOCAL BUILDING CODES, THE RECOMMENDATIONS OF
THE FOLLOWING NATIONAL CODES SHALL APPLY INSOFAR AS SUCH
RECOMMENDATIONS ARE NOT IN CONFLICT WITH THESE STANDARDS.
Southern Building Code; Building Officials Conference of America, 1525 East 53rd Street, Chicago, Illinois 60615
72
2. Design Data
GENERAL - THE BUILDINGS AND ALL PARTS THEREOF SHALL BE
OF SUFFICIENT STRENGTH TO SUPPORT ALL DEAD, LIVE AND
LATERAL LOADS WITHOUT EXCEEDING THE WORKING STRESSES
PERMITTED FOR THE MATERIALS OF THEIR CONSTRUCTION IN
THE APPLICABLE CODE.
SPECIAL - SPECIAL PROVISIONS SHALL BE MADE FOR MACHINE
OR APPARATUS LOADS WHICH COULD CAUSE A GREATER STRESS
THAN THAT PRODUCED BY THE SPECIFIED MINIMUM LIVE LOAD,
WITH DUE CONSIDERATION OFVIBRATION OR IMPACT RESULTING
FROM OPERATION OF SUCH EQUIPMENT (e.g., some portable
x-ray machines weigh as much as 1,000 pounds). CONSI
DERATION SHALL BE GIVEN TO STRUCTURAL MEMBERS AND CON
NECTIONS OF STRUCTURES WHICH MAY BE SUBJECT TO HURRICANES,
TORNADOES AND EARTHQUAKES. SUITABLE ALLOWANCE SHALL BE
MADE FOR FUTURE PARTITION CflANGES.
FOUNDATIONS - FOUNDATIONS SHALL REST ON NATURAL SOLID
GROUND AND SHALL BE CARRIED TO A DEPTH OF NOT LESS THAN
ONE FOOT BELOW THE ESTIMATED FROST LINE OR SHALL REST ON
LEVEL ROCK OR LOADBEARING PILES WHEN SOLID GROUND IS NOT
ENCOUNTERED. FOOTINGS, PIERS, AND FOUNDATION WALLS SHALL BE
ADEQUATELY PROTECTED AGAINST DETERIORATION FROM THE ACTION
OF GROUND WATER.
173
LIVE LOADS - THE FOLLOWING UNIT LIVE LOADS SHALL BE TAKEN AS
THE MINIMUM UNIFORMLY DISTRIBUTED LIVE LOADS FOR THE OCCUPAN
CIES LISTED:
HOSPITAL WARDS, BEDROOMS, AND ALL ADJOINING SERVICE ROOMS
COMPRISE A TYPICAL NURSING UNIT (EXCEPT SOLARIA AND
CORRIDORS) - 40 P.S.F. SOLARIA, CORRIDORS IN NURSING UNITS
AND ALL CORRIDORS ABOVE THE FIRST FLOOR, OPERATING SUITE,
EXAMINATION AND TREATMENT ROOMS, LABORATORIES, TOILETS AND
LOCKER ROOMS - 60 P.S.F.
CORRIDORS ON FIRST FLOOR, WAITING ROOMS AND SIMILAR PUBLIC
AREAS, OFFICES, CONFERENCE ROOM, LIBRARY, KITCHEN AND
RADIOGRAPHIC ROOM - 80 P.S.F.
STAIRWAYS, LAUNDRY, LARGE ROOMS USED FOR DINING, RECREATION
OR ASSEMBLY PURPOSES, VDRK SHOPS - 100 P.S.F.
RECORDS FILE ROOM, STORAGE, SUPPLY - 125 P.S.F-
MECHANICAL EQUIPMENT ROOM (UNLESS ACTUAL EQUIPMENT LOADS
ARE ACCURATELY DETERMINED) - 150 P.S.F.
ROOFS (EXCEPT USE INCREASED VALUE WHERE SNOW AND ICE MAY
OCCUR) - 20 P.S.F.
WIND - AS REQUIRED BY LOCAL CONDITIONS, BUT NOT LESS THAN
15 P.S.F.
17^
3. Veiling Heights:
BOILER ROOM:
NOT LESS THAN 12'-0" except that a lesser height may be
used for these small buildings which may use a domestic type
packaged hearing unit. When a boiler is set in a depressed
pit area, the height shall be measured from the pit bottom.
LAUNDRY:
NOT LESS THAN ll"-0" (a higher ceiling is desirable).
KITCHEN:
NOT LESS THAN lO'-O" (a higher ceiling is desirable).
OPERATING ROOMS, DELIVERY ROOMS, CYSTOPIC ROOMS, EMERGENCY ROOMS
AND SIMILAR ROOMS HAVING CEILING-MOUNTED LIGHT FIXTURES:
NOT LESS THAN 9'-6" (a higher clearance may be necessary for
some surgical lights).
CORRIDORS AND PASSAGEWAYS:
NOT LESS THAN 7'-6" (a higher ceiling is desirable).
ALL OTHER ROOMS EXCEPT THOSE CONTAINING SPECIAL EQUIPMENT WHICH
MAY REQUIRE A GREATER HEIGHT (X-RAY, ETC.):
not less than 8'-0" except that ceiling heights for corridors,
storage rooms, patients' room toilets and other minor auxil
iary rooms may be lower.
INSULATION IN CEILINGS: CEILINGS OF KITCHENS AND LAUNDRIES SHALL
BE INSULATED WHERE THE FLOOR DIRECTLY ABOVE TflEM IS TO BE USED
FOR HOSPITAL PURPOSES-
175
E. Means of Egress, Passageways and Vertical Openings
1. Means of Egress {3k)
ALL EXIT FACILITIES SHALL FOLLOW THESE STANDARDS, AND WHERE
THERE IS NO CONFLICT, THE RECOMMENDATIONS OF THE BUILDING
EXITS CODE OF THE NATIONAL FIRE PROTECTION ASSOCIATION.
NUMBER, LOCATION, AND TYPE OF EXITS - EACH FLOOR OR STORY
OF EVERY BUILDING SHALL HAVE AT LEAST TWO SEPARATE AND INDE
PENDENT MEANS OF EGRESS LEADING TO THE OUTSIDE, OR TO A
CORRIDOR WHICH HAS TWO SEPARATE AND INDEPENDENT MEANS OF
EGRESS LEADING TO THE OUTSIDE.
ALL EXIT DOORS SHALL BE BETWEEN FLOORS OF EQUAL ELEVATION
EXTENDING AT LEAST THE WIDTH OF THE DOOR IN EITHER DIRECTION.
MEANS OF EGRESS IN ADDITION TO THE MINIMUM OF TWO REQUIRED
FROM EACH FLOOR SHALL BE REQUIRED WHEN THE MAXIMUM POSSIBLE
OCCUPANCY EXCEEDS 100 PATIENTS PER FLOOR. THERE SHALL BE
AT LEAST ONE ADDITIONAL MEANS OF EGRESS FOR EACH ADDITIONAL
100 PATIENTS PER FLOOR. EXITS SHALL BE OF SUCH NUMBER AND
SO ARRANGED THAT IT WILL NOT BE NECESSARY TO TRAVEL MORE THAN
100 FEET FROM THE DOOR OF A PATIENT OCCUPIED ROOM TO REACH
THE NEAREST APPROVED MEANS OF EGRESS FROM THAT FLOOR.
ALL PATIENT OCCUPIED ROOMS SHALL BE LOCATED BETWEEN APPROVED
MEANS OF EGRESS, EXCEPT ONE ROOM ON EACH END OF A CORRIDOR
THAT MAY PIAVE NOT MORE THAN TWO PATIENTS IN EACH ROOM, OR
ONE ROOM AT THE END OF ANY CORRIDOR THAT MAY HAVE NOT MORE
176
THAN FOUR PATIENTS. DOORS FROM ROOMS PROVIDED FOR BY THIS
PARAGRAPH SHALL BE NOT MORE THAN 30 FEET FROM AN APPROVED
EXIT, STAIRWAY, FIRE ESCAPE, OR EGRESS DIRECTLY TO THE OUT_
SIDE AT GRADE.
WARD ROOMS AND OTHER PATIENT ROOMS LOCATED IN AREAS BETWEEN
EXITS SHALL BE OF SUCH DIMENSIONS THAT NO PART OF TflE ROOM
WILL BE IN EXCESS OF 30 FEET TO THE ROOM EXIT DOOR UNLESS AN
APPROVED SECONDARY MEANS OF EGRESS IS PROVIDED FOR SUCH WARD.
NO ARCHITECTURAL TREATMENT, MIRRORS, FALSE WINDOWS, DOORS, OR
OTHER DECORATIONS SPIALL BE USED SO AS TO GIVE THE APPEARANCE
OF DOORS OR EXITS WHERE NO DOORS OR EXITS EXIST, OR SO PLACED
AS TO DECREASE THE WIDTH OR IMPAIR THE USE OF THE EXIT.
NOTHING SHALL BE PLACED OR HUNG IN FRONT OF EXIT SIGNS WHICH
WILL OBSTRUCT OR PREVENT A CLEAR VIEW OF THE EXIT SIGNS.
PASSAGEWAYS TO ANY MEANS OF EGRESS SHALL NOT BE USED FOR
HOUSING OR PATIENTS.
ELEVATORS SHALL NOT BE APPROVED AS REQUIRED MEANS OF EGRESS,
BUT WHERE REQUIRED, THE MINIMUM PLATFORM SIZE SHALL BE 64"X96"
AND THE MINIMUM DOOR WIDTH SHALL BE 46".
WINDOWS SHALL NOT BE APPROVED MEANS OF EGRESS; HOWEVER, FOR
THE PURPOSES OF SMOKE CLEARING AND OF EMERGENCY ACCESS TO
FRESH AIR, ALL PATIENT BEDROOMS SHALL POSSESS A WINDOW. THE
177
WINDOW SILLS OF ONE-STORY BUILDINGS CONSTRUCTED OF OTHER
THAN NONCOMBUSTIBLE MATERIALS SHALL BE NOT MORE THAN SIX FEET
ABOVE THE ADJACENT GROUND LEVEL.
ALL CORRIDORS SHALL LEAD DIRECTLY TO THE OUTSIDE OR TO A RE
QUIRED STAIRWAY HAVING DIRECT ACCESS TO THE OUTSIDE THROUGH
APPROVED EXIT DOORS AT GRADE WHICH WILL GIVE ACCESS TO PUBLIC
STREET. ONLY ONE REQUIRED STAIRWAY MAY TERMINATE IN AND HAVE
EGRESS DIRECTLY ACROSS THE MAIN FLOOR ENTRANCE LOBBY, WHICH
HAS AMPLE APPROVED MEANS OF EGRESS TO THE OUTSIDE GIVING
ACCESS TO A PUBLIC STREET.
CORRIDORS AND PASSAGEWAYS CONSIDERED AS APPROVED MEANS OF
EGRESS SHALL BE AT LEAST 90" IN HEIGHT.
CORRIDOR BARRIER DOORS, OTHER THAN APPROVED SMOKE BARRIER
DOORS, SHALL BE EQUAL TO 1 HR. RATED DOUBLE ACTION DOORS ONLY
AND SHALL NOT BE SECURED BY ANY DEVICE OTHER THAN BY A TYPE
THAT WILL PERMIT OPENING THE DOOR IN THE DIRECTION OF TRAVEL
FROM EITHER SIDE WITH A NORMAL PUSH OR PRESSURE. ALL DOUBLE
ACTION DOORS SHALL INCORPORATE VISION PANELS, MEETING RE_
QUIREMENTS FOR GLASS IN PARTITIONS, AS SPECIFIED BELOW.
ALL ROOMS SHALL BE SEPARATED FROM CORRIDORS WITH PARTITION
CONSTRUCTION WHICH WILL AFFORD AT LEAST A 1 HOUR FIRE RESIS_
TIVE RATING. ANY GLASS IN SUCH PARTITIONS (INCLUDING DOORS)
178
SHALL BE k INCH WIRED GLASS IN STEEL FRAMING, NOT EXCEEDING
1,296 SQUARE INCHES PER OPENING WITH NO LINEAR DIMENSION EX_
CEEDING 54 inches.
2 . Doors and doorways (3k-)
ALL DOORWAYS WHICH ARE A PART OF A MEANS OF EGRESS SHALL BE
AT FLOOR LEVEL EXCEPT WHERE PROPER APPROVED RAMPS ARE PRO
VIDED.
ALL DOORS, INCLUDING SCREEN AND STORM DOORS, FORMING A PART
OF AN APPROVED MEANS OF EGRESS TRAVEL. This section shall
not be construed to require doors from patient occupied rooms
to open into corridors EXCEPT THAT SUCH DOORS SHALL NOT BE
HUNG SO AS TO OBSTRUCT EGRESS PASSAGE. THERE SHALL BE NO
OBSTRUCTION AT ANY TIME TO THE OPENING AND CLOSING OF EGRESS
DOORS OR DOORS FROM PATIENT OCCUPIED ROOMS INTO CORRIDORS.
ALL DOORWAYS FROM PATIENT BEDROOMS AND DOORS FORMING A PART
OF AN APPROVED MEANS OF EGRESS SHALL BE AT LEAST 80" IN
HEIGHT AND OF SUCH GREATER HEIGHT AS WILL ALLOW FOR FREE
PASSAGE OF BEDS AND ATTACHED EQUIPMENT WHERE REQUIRED,
DOOR STOPS ALONG FACINGS SHALL BE TERMINATED 4"-6" FROM THE
FLOOR, IN ORDER TO PROVIDE AN EASILY-CLEANABLE JOINT AT THE
BASE OF THE FACING.
179
BASE OF THE FACING.
DOOR WIDTHS SHALL NOT BE LESS THAN 44 INCHES IN WIDTH. IN
ADDITION, DOOR WIDTHS SHALL BE AT LEAST 44 INCHES AT ALL:
TREATMENT ROOMS
OPERATIONG ROOMS
RECOVERY ROOMS
THERAPY AND DIAGNOSTIC X-RAY ROOMS
DELIVERY ROOMS
LABOR ROOMS
PHYSICAL THERAPY ROOMS
EMERGENCY ROOMS
REVOLVING DOORS SHALL NOT BE APPROVED AS PART OF A MEANS OF
EGRESS. WHERE REVOLVING DOORS ARE INSTALLED, A DOOR, OR
DOORS, COMPLYING WITH THESE STANDARDS SHALL BE INSTALLED
WITHIN 15 FEET OF EACH REVOLVING DOOR.
FIRE RESISTANT SMOKE BARRIERS WITH SINGLE ACTION DOORS SHALL
BE PROVIDED ACROSS CORRIDORS OVER 150 FEET IN LENGTH AND
BARRIERS SHALL BE NOT MORE THAN 150 FEET APART IN BUILDING
OF FIRE RESISTANT CONSTRUCTION, AND NOT MORE THAN 7 5 FEET
APART IN BUILDING OF NON-FIRE RESISTANT CONSTRUCTION.
BARRIERS SHALL BE LOCATED TO PROVIDE AN AREA OF REFUGE ON
EITHER SIDE THAT IS SERVICED WITH AN APPROVED MEANS OF EGRESS
WHERE THE CEILING OR FALSE CEILING IS LESS THAN ONE-HOUR
180
FIRE RESISTANT CONSTRUCTION, THE BARRIER SHALL CONTINUE TO
THE FLOOR OR ROOF ABOVE THE FULL WIDTH OF SUCH OPEN AREA.
SUCH SMOKE BARRIER DOORS SHALL BE NOT LESS FIRE RESISTANT
THAN CLASS "C" LABELED FIRE DOORS; AND WHERE DOUBLE DOORS
WITHOUT MULLIONS ARE USED, SYNCHRONIZING HARDWARE AND ASTRA
GALS SHALL BE INSTALLED.
3. Stairways and other vertical openings (3U)
ALL STAIRWAYS FORMING AN APPROVED MEANS OF EGRESS SHALL HAVE
SUITABLE HANDRAILS ON EACH SIDE.
ALL STAIRWAYS FORMING AN APPROVED MEANS OF EGRESS SHALL BE
AT LEAST 44 INCHES WIDE IN THE CLEAR. HANDRAILS ATTACHED
TO WALLS MAY PROJECT INTO THE REQUIRED WIDTH OF A STAIRWAY
NOR MORE THAN 3H INCHES AT EACH SIDE.
ALL STAIRWAYS FORMING AN APPROVED MEANS OF EGRESS SHALL HAVE
TREADS NO LESS THAN 10 INCHES WIDE, EXCLUSIVE OF THE NOSING,
AND THE RISERS SHALL NOT EXCEED 7 INCHES IN HEIGHT. TREADS
AND RISERS SHALL BE OF UNIFORM WIDTH AND HEIGHT IN EACH INDI
VIDUAL STAIRWAY, AND TREADS SHALL BE OF NON-SKID MATERIAL.
NO STAIRWAY FORMING A MEANS OF EGRESS CONSISTING OF TWO OR
MORE STEPS WHICH, IN CHANGING DIRECTION, DOES SO BY BENEFIT
OF THE VARIANCE IN THE WIDTH ALONG EACH TREAD, SHALL BE
APPROVEDo THIS SECTION SHALL NOT BE CONSTRUED TO PROHIBIT
181
A STAIRWAY WITH TREADS OF UNIFORM WIDTH THROUGHOUT WHICH
CHANGES IN DIRECTION BY BENEFIT OF INTERMEDIATE LANDINGS OR
PLATFORMS .
THE MAXIMUM VERTICAL DISTANCE BETWEEN PLATFORMS OR LANDINGS
IN ANY FLIGHT OF STAIRS SHALL NOT EXCEED 10 FEET.
THE TEXAS STATE FIRE ESCAPE LAW SHALL APPLY IN ALL CASES NOT
SPECIFICALLY COVERED HEREIN, EXCEPT THAT CHUTE TYPE FIRE
ESCAPES, BOTH STRAIGHT AND SPIRAL, ARE PROHIBITED.
AN ESCALATOR OR MOVING WALK MAY BE ACCEPTED AS A COMPONENT
IN A MEANS OF EGRESS WHEN IT CONFORMS TO THE GENERAL RE
QUIREMENTS FOR MEANS OF EGRESS AND TO THE SPECIAL REQUIRE
MENTS IN THIS SECTION. AS SUCH THE ESCALATOR IS DESIGNATED AS AN
EXIT ESCALATOR AND THE MOVING WALK AS A MOVING WALK EXIT.
A SIGN INDICATING THE DIRECTION OF THE NEAREST APPROVED EXIT
SHALL BE PLACED AT THE POINT OF ENTRANCE TO ANY ESCALATOR
OR MOVING WALK THAT DOES NOT CONFORM TO OR SERVE AS A MEANS
OF EGRESS.
AN EXIT ESCALATOR SHALL COMPLY WITH THE APPLICABLE RE«
QUIREMENTS FOR EXIT STAIRS EXCEPT AS MODIFIED IN THIS SECTION.
NO ESCALATOR CAPABLE OF BEING OPERATED IN THE DIRECTION
CONTRARY TO NORMAL TRAVEL SHALL BE USED IN A MEANS OF EGRESS.
182
AN EXIT ESCALATOR SHALL BE OF THE HORIZONTAL TREAD TYPE AND
SHALL BE OF NONCOMBUSTIBLE CONSTRUCTION THROUGHOUT EXCEPT
FOR THE STEP THEAD SURFACES, HANDRAILS AND STEP WHEELS.
TREADS AND RISERS SHALL BE DIMENSIONED IN ACCORDANCE WITH
THESE STANDARDS FOR STATIONARY STAIRS.
NO SINGLE EXIT ESCALATOR SHALL HAVE AN UNINTERUPTED VERTICAL
TRAVEL OF MORE THAN 1 STORY.
NO MOVING WALK CAPABLE OF BEING OPERATED IN THE DIRECTION
CONTRARY TO NORMAL EXIT TRAVEL SHALL BE USED IN A MEANS OF
EGRESS.
F. Fire prevention
l.Standpipe (3k)
IN ALL BUILDINGS EXCEEDING TWO STORIES IN HEIGHT ABOVE THE
HEIGHEST GRADE ENTRANCE, AN APPROVED STANDPIPE SHALL BE
PROVIDED AND EQUIPPED WITH HOSE SUFFICIENT IN LENGTH TO REACH
ALL PARTS OF EACH FLOOR.
THERE SHALL BE AT LEAST ONE OUTLET ON EACH FLOOR, INCLUDING
THE BASEMENT. FIRE DEPARTMENT CONNECTIONS SHALL BE PROVIDED
ON THE OUTSIDE OF THE BUILDING TO PERMIT A SUPPLY OF WATER
TO THE STANDPIPE SYSTEM. STANDPIPE OUTLETS WITHIN THE
BUILDING SHALL BE PROVIDED WITH A CONNECTION SUITABLE FOR
^83
USE BY THE LOCAL FIRE DEPARTMENT. RISERS FOR THE STANDPIPE
AND THE SIZE OF THE CONNECTIONS SHALL BE DETERMINED BY THE
INSPECTING AUTHORITY BASED UPON THE CONDITIONS INVOLVED.
ifi. Fire Alarm System (31 .)
ALL BUILDINGS SHALL BE EQUIPPED WITH AN APPROVED FIRE ALARM
SYSTEM WHICH SHALL CONSIST OF AT LEAST ONE OF THE FOLLOWING
(INSTALLED IN COMPLIANCE WITH NFPA 72 and 101, OR LOCAL CODES)
An electrically operated, closed circuit, self-supervised, local system with suitable signalling devices of such character and so located as to communicate the alarm of the fire to the personnel of each floor of the building, and to a manned, centrally located 24-hour duty station within the building or institution so that immediate notification can be given to the fire department. Such a system shall also have approved, actuating stations suitably located on each floor and basement so that it will not be necessary to travel more than 100 feet from any room to reach a station on the same floor.
^ inter-communication public address system, providing it can be operated from stations suitably located on each floor and basement and be heard in all parts of the building including a manned, centrally located 24-hour duty station within the building or institution, so that immediate notification can be given to the fire department. Operating stations shall be so located that it will not be necessary to travel more than 100 feet from any room to reach a station that is on the same floor.
A TELEPHONE OR OTHER SUITABLE MEANS OF COMMUNICATION AND
ALARM OF FIRE TO THE FIRE DEPARTMENT SHALL BE PROVIDED. PAY
STATIONS WILL NOT BE AN APPROVED MEANS OF SENDING AN ALARM
OF FIRE.
18/f
3 . Sprinkler System (3 ^ )
ROOMS WHERE COMBUSTIBLE MATERIALS ARE STORED AND MAINTENANCE
SHOPS SHALL BE PROTECTED BY AN APPROVED AUTOMATIC SPRINKLER
SYSTEM AND SHALL BE A FIRE RESISTANT EOOM EQUIPPED WITH FIRE
DOOR AND FRAME ASSEMBLY.
SPRINKLERS, AUTOMATICALLY ACTUATED BY A TEMPERATURE RISE,
SHALL BE INSTALLED IN AT LEAST THE FOLLOWING LOCATIONS:
LAUNDRY CHUTES
LAUNDRY
SOILED LINEN ROOMS
BULK STORAGE AREAS
TRASH CHUTES
CARPENTER AND PAINT SHOPS
ACCESSIBLE ATTICS
BASEMENT CORRIDORS
ALL COMBUSTIBLE BUILDINGS OR BUILDING SECTIONS
IN ADDITION, AN AUTOMATIC FIRE OETECTION SYSTEM SHALL BE
INSTALLED IN BULK STORAGE AREAS.
*. Elevators and I\imbwaiters
1. Codes
ELEVATORS AND DUMBWAITERS SHALL COMPLY WITH ALL LOCAL AND
••••
185
STATE CODES, AMERICAN STANDARD SAFETY CODE FOR ELEVATORS,
DUMBWAITERS, AND ESCALATORS (A17 .1-1960 ) # THE NATIONAL
BOARD OF FIRE UNDERWRITERS, AND THE NATIONAL ELECTRICAL CODE.
2. Number of ^levators
ANY HOSPITAL WITH PATIENTS ON ONE OR MORE FLOORS ABOVE THE
FIRST OR WHERE THE OPERATING OR DELIVERY ROOMS ARE ABOVE THE
FIRST FLOOR SHALL HAVE AT LEAST ONE ELECTRICALLY OPERATED
HOSPITAL-TYPE ELEVATOR WITH CAR INSIDE DIMENSIONS OF AT
LEAST 64" WIDE BY 96" DEEP. AND DOOR CLEAR OPENING OF NOT LESS
TtiAN 46". HOSPITALS WITH A BED CAPACITY OF FROM 201 TO 3 50
ABOVE THE FIRST FLOOR SHALL HAVE NOT LESS THAN THREE SUCH
ELEVATORS.
3. Controls
ELEVATORS SHALL HAVE EITHER GENERATOR FIELD CONTROL OR MULTI-
VOLTAGE CONTROL WHERE SPEED IS GREATER THAN 150 FEET PER
MINUTE. ELEVATORS WITH SPEEDS OF MORE THAN 3 50 FEET PER
MINUTE SHALL BE THE GEARLESS TYPE. ELEVATORS SHALL HAVE
LEVELING (AUTOMATIC) OF THE TWO-WAY TYPE (AUTOMATIC MAIN
TAINING) WITH ACCURACY WITHIN PLUS OF MINUS l^ INCH.
4- Operation
ELEVATORS FOR WHICH OPERATORS WILL NOT BE REGULARLY EMPLOYED
186
SHALL BE EQUIPPED FOR AUTOMATIC OPERATION AND SHALL HAVE CAR
SWITCH TO PERMIT OPERATION BY AN ATTENDANT DURING SPECIAL
OCCASIONS, OR TO BYPASS REGISTERED CALLS IN EMERGENCIES.
5. Dumbwaiters
ALL DUMBWAITERS SHALL BE ELECTRICALLY OPERATED. When travel
does not exceed 50 feet, the minimum speed should be 50 feet
per minute; FOR TRAVEL OF MORE THAN 50 FEET, THE MINIMUM
SPEED SHALL BE 100 FEET PER MINUTE.
H. Heating, Cooling, and Ventilation Systems
1. Codes
THE HEATING SYSTEM, STEAM SYSTEM, BOILERS, VENTILATION
SYSTEM, AND AIR CONDITIONING SYSTEM SHALL BE FURNISHED
AND INSTALLED TO MEET ALL REQUIREMENTS OF THE LOCAL AND
STATE CODES AND REGULATIONS, THE REGULATIONS OF THE
NATIONAL BOARD OF FIRE UNDERWRITERS, THE CURRENT EDITION
OF THE NATIONAL FIRE PROTECTION ASSOCIATION'S PAMPHLET
NO. 90-A ENTITLED, "AIR CONDITIONING AND VENTILATION
SYSTEMS." AND THE MINIMUM GENERAL STANDARDS AS SET FORTH
IN THIS SECTION.
2. General
The building shall be heated by a hot water, STEAM, OR
EQUAL TYPE HEATING SYSTEM.
187
THE USE OF FIREPLACES FOR ANY BURNING PURPOSE IN HOSPITAL,
BUILDINGS SHALL NOT BE PERMITTED
HEATING PLANTS SHALL BE ENCLOSED BY WALLS, FLOOR, AND
CEILING HAVING AT LEAST 2 HOUR'S RESISTANCE TO FIRE WITH
AT LEAST ONE WALL BEING AN OUTSIDE WALL. DOORWAYS AND
OTHER OPENINGS THROUGH REQUIRED HEATING PLANT ENCLOSURES
SPIALL BE PROTECTED BY ONE-HOUR FIRE DOORS AND FRAMES
INSTALLED SO AS TO BE REASONABLY SMOKE TIGHT, AND BE
EQUIPPED WITH SELF-CLOSING DEVICES.
HEATING PLANT ROOMS SHALL NOT BE LOCATED BENEATH ANY
PORTION OF A BUILDING. THIS REGULATION SHALL NOT BE CON
STRUED TO REQUIRE THE REMOVAL OF AN EXISTING HEATING PLANT
FROM BENEATH AN EXISTING HOSPITAL OR INSTITUTION BUILDING
UNLESS IT SHALL BE SO REQUIRED IN THE INTEREST OF PUBLIC
SAFETY. IN THE EVENT IT BECOMES NECESSARY TO EXPAND THE
CAPACITY OF A HEATING PLANT TO HEAT A HOSPITAL OR IN
STITUTION BUILDING, SUCH EXPANSION SHALL NOT BE PERMITTED
UNDER ANY PORTION OF THE EXISTING BUILDING.
FURNACE ROOMS OR HEATING PLANT ENCLOSURES SHALL BE PRO
VIDED WITH APPROVED AIR VENTS CONNECTED DIRECTLY TO THE
OUTSIDE, SUFFICIENT IN SIZE TO SUPPLY THE REQUIRED VOLUME
OF AIR TO SUPPORT PROPER COMBUSTION. ADEQUATE VENTILATION
SHALL BE PROVIDED DIRECTLY TO THE OUTSIDE FROM THE CEILING
188
OF THE HEATING PLANT ENCLOSURE TO ELIMINATE EXCESSIVE
TEMPERATURE AT ALL T I M E S .
ALL HOT WATER HEATERS AND STEAM PLANTS SHALL BE LOCATED
IN THE HEATING PLANT ROOM OR IN A ROOM OF COMPARABLE
CONSTRUCTION.
THE USE OF UNVENTED OPEN FLAME HEATERS I S SPECIFICALLY
PROHIBITED. PORTABLE HEATING UNITS SHALL NOT BE PERMITTED.
WITHIN THE BUILDING, THERE SHALL BE NO CONTACT BETWEEN
AIR FOR COMBUSTION CHAMBERS (EXCEPT STERILIZERS) SHALL
HAVE THEIR OWN TOTAL AIR SUPPLY FROM THE OUTSIDE ATMOS
PHERE.
ALL DIRECT-FIRED HEATING UNITS SHALL BE DESIGNED SO AS
TO DISCHARGE THE PRODUCTS OF COMBUSTION INTO VERTICAL
FLUE OR CHIMNEY LEADING TO THE OUTER AIR ABOVE THE HIGH
POINT OF THE ROOF. DIRECT-FIRED HEATING UNITS SHALL NOT
BE PERMITTED IN ANY OPERATING ROOMS, OR IN ANY OTHER
ROOM WHERE COMBUSTIBLE VAPORS MAY BE PRESENT.
GAS OR ELECTRIC METERS SHALL NOT BE PERMITTED WITHIN 5
FEET OF THE HEATING PLANT, AND SHALL BE LOCATED IN A ROOM
SEPARATED FROM OTHER OCCUPANCIES AND EXPOSURES BY AT LEAST
A ONE-HOUR RATED ENCLOSURE WHICH I S VENTED TO THE OUTSIDE.
^ ^ b
189
3* Steam System and Heating Plant Equipment and Accessories
A SYSTEM OF STEAM AND RETURN MAINS AND APPURTENANCES SHALL
BE PROVIDED TO SUPPLY ALL EQUIPMENT WHICH REQUIRES STEAM
HEAT.
BOILERS SHALL HAVE THE NECESSARY CAPACITY WHEN OPERATING
AT NORMAL RATING TO SUPPLY THE HEATING SYSTEM, HOT WATER,
AND STEAM OPERATED EQUIPMENT, SUCH AS STERILIZERS, LAUNDRY
AND KITCHEN EQUIPMENT. Spare boiler capacity should also
be provided in a separate unit to replace any boiler
which might break down.
BOILER WHICH SUPPLY HIGH PRESSURE STEAM TO STERILIZERS,
KITCHENS, LAUNDRY, ETC., SHALL MEET THE REQUIREMENTS OF
THE CITY AND CODES FOR 12 5 POUNDS WORKING PRESSURE. It
is desirable to operate boilers, supplying steam for
laundries, at not less than 105 pounds pressure while
boilers for sterilizers and kitchen may operate at 50
pounds pressure.
It shall be POSSIBLE TO MAINTAIN A TEMPERATURE OF 70°
FARENHEIGHT IN EACH ROOM AND OCCUPIED SPACE EXCEPT THAT
IN OPERATING AND DELIVERY ROOMS AND NURSERIES SHALL BE
750 FAHRENHEIT. IN SPACES WHERE RADIANT HEAT IS USED, THE
1 >
MINIMUM TEMPERATURES SPECIFIED MAY BE REDUCED TO MAINTAIN
AN EQUIVALENT COMFORT LEVEL. RADIATORS AND CONVECTORS,
IF USED, SHALL BE PROVIDED WITH HAND CONTROL VALVE EXCEPT
WHERE INDIVIDUAL ROOM AUTOMATIC CONTROL IS PROVIDED.
'•^^m-''
SOLAR ENERGY STUDY
191
INTRODUCTION TO SOLAR ENERGY STUDY
This country is experiencing an energy shortage and many
people are looking for alternative energy sources. The use of
radiant energy is one of these alternatives, hence, solar heat
ing is becoming another method of dealing with the space con
ditioning necessity of environmental control. {kO)
Today, there is growing public interest and pressure for
solutions to the energy problem and solar energy is one of the
viable solutions being investigated. The sun sends to the earth
enormous amounts of energy, most of which are not being used.
It is ecologically sensible to harness and use solar energy,
whenever feasible, rather than to use limited coal, oil, and gas.
The use of solar energy is one of the solutions to curtail the
declining reserves of fossil fuels.
It is important for an architect to know about the appli
cations of solar energy for space heating and water heating, how
to apply its use, and how best to advise a client with
regard to its use. Sdar radiation can be collected in the form
of heat. Just ^ the sun varms a black object, it can warm water
or air that will be used to heat a house or water for domestic
use. Heat can be stored economically for use at a later time as
long as the storage time period is not too long- There are many
different methods of collecting and storing solar energy. The
amount of solar energy required may dictate the size of the collec-
]02
tor or the storage unit. The type and size of storage system may
depend on the medium used to transport the energy or the maximuun
number of days without sunshine. The possibilities for collect
ing, storing, and using the amounts of energy necessary to meet
heating requirements are many. This study was undertaken to
examine solar energy from an architectural point of view hoping
to inform others on the best ways to deal with it in design.
193
SOLAR ENERGY
Solar radiation reaches the outskirts of the earth's at
mosphere with an intensity of 1.94 calories per square centi
meter per minute which is equal to 430 BTU (British Thermal
UnitsX per square foot per hour or 132 5 watts per square meter.
This fugure is called the solar constant and is based on the
earth's distance from the sun. This radiant energy varies
somewhat because of the changing distance from the earth to
the sun during the year and because of solar disturbances. (37)
It has been computed that in the year 1970 mankind con
sumed an anount of energy equal only to the amount of solar
energy that strikes the earth's outer atmosphere in fifteen
minutes. In its downward passage through the earth's atmos
phere, part of the radiation is scattered and part absorbed by
the constituents of the atmosphere. This depletion is sub
stantial, even on cloudless days, and with heavy clouds it may
be nearly complete. The solar radiation received on the earth"s
surface consists of direct solar radiation and diffuse or sky
radiation. The sky radiation arises from the fact that the part
scattered or absorbed by the atmosphere may in turn be partial
ly re-radiated downward to the earth's surface. Hence, the in
tensity of radiation received on the earth's surface will change
not only diurnally, monthly, and annually; but will also depend
IQ/ -J'{
on the latitude and altitude of the site on the earth's hemisphere,
More specifically the amount of radiation received from the sun
depends on the following = the position of the sun according to
the time of day, the position of the sun according to the season,
clouds and other obstructions, the direction of the slope of the
measuring station, the angle of the slope of the station, the
altitude of the station and the physical surroundings of the
station. (39)
Insolation refers to the total of direct and diffuse solar
radiation incident on a unit area and is measured on a horizontal
plane by weather stations throughout the world in langleys per
minute. O^e langley is equal to one calorie of radiant energy,
per square centimeter or 221 Btu per square foot per hour. The
intensity of solar radiation on the earth's surface varies from
zero to 1.6 calories per square centiipeter per minute depending
on location, time, and atjnospheric conditions as stated above,
langleys per day can be converted to ^tu per square foot per
day when multiplied by 3.69. Weather information and maps
depicting solar radiation in langleys are given in Appendix A
and B respectively; but local climatological data should always
be attained prior to attempting analysis of solar conditions.
Solar energy is clean, "free", and abundant but has not
been used extensively in the past for various reasons. Though
this fuel is "free", the radiant energy reaching the earth is quite
dilute and therefore must be collected over a large area for use
HHIA^a^
195
in an extensive solar heating system. Also, the equip
ment for collecting solar energy is expensive. -Mother reason
that solar energy has not been used extensively is that it is
variable. On cloudy days not much solar energy gets through to
the earth's surface and at night there is none. This necessi
tates the storage of the energy for use at a later time.
The basic conversion processes for solar energy can be
divided roughly into three general groups, the thermal process,
the electrical processes, and the chemical processes. The most
pronising of the three is the thermal process, by which solar
energy is converted directly into heat. Thermal energy can be
found as low temperature heat, somewhat below that of boiling
water, obtained with flat plate collectors and useful for space
conditioning and water heating, low temperatures pumps and dis
tilling devices. Temperatures up to one thousand degrees Centi
grade (C.) are reached easily with concentrating collectors, and
are often transmitted to such devices as steam generators, cook
ers, and low temperature furnaces. Ultra-high temperatures,
ranging from 1000*^ C. to the temperature of the sun, are achiev
ed in specially designed furnaces with parabolic concentrators
and are presently used for industrial and research purposes.
The solar to electrical process deals with the direct conversion
of solar energy to electrical energy using various photovoltaic
materials. These have been very useful in the space program
but arestill very expensive.
196
The solar to chemical processes, includes chemical, bio
chemical, and biological conversions, and these have produced various
means of using and converting solar energy.
The two possibilities to the United States "energy crisis",
as our impending shortages have been termed, seem to lie in the
future possibilities of nuclear fussion reactors and solar energy
power plants as proposed by the ^einels. Fussion reactors
haven't been developed yet but are to produce one hundred times
the output of present day nuclear fussion reactors that are
drawing so much criticism. (38)
197
AIR CONDITIONING
Since the 1930's the cooling process of "air conditioning"
has been predominantly an electrical one. Electrically powered
refrigerant compressors have been the principal means of
operating the refrigeration cycle. (37)
In areas of abundant sunshine, there is need for refrigera
tion for air conditioning and food preservation. The use
of solar radiation itself in the absorption refrigerating cycle has
therefore much promise. The refrigerating cycle requires thermal
energy at a high-temperature level and this can be assured through
the utilization of solar concentrators or flat-plate collectors
with two or three glass layers.
Of the different types of absorption refrigerating systems,
the continuous operated unit requires many mechanical components.
On the other hand, the intermittent absorption unit has no mech
anical parts, is cheap and easy to construct, and is most suit
able for use in non-industrialized areas.
To accomplish solar refrigeration by one method, a steel
vessel is filled with ammonia and water and heated with focused
sunlight. The ammonia is driven out of the solution and con
densed in a water-cooled container under pressure. The two
steel containers connected with a pipe to give a closed system
are then taken into the house and a small container of liquid
198
ammonia is placed in a small insulated box. The water solu
tion cools down and the ammonia is reabsorbed in the water.
The evaporation of the liquid ammonia cools the refrigeration
box. A two-hour exposure to focused sunlight was found suffi
cient to keep the box cooled to 0° C. for twenty-four hours.
For cooling by solar absorption and desorption, ammonia solu
tions of non-volatile salts are even better than solutions of
cunmonia and water. (UO)
199
SOLAR SPACE HEATING
Solar space heating systems consist of a heat collector
or absorber, a storage unit, a method of utilizing the heat,
and the controls. The collector is able to absorb a portion
of the incoming direct or diffuse energy and transfer it to the
storage unit or to the place it will be utilized. A solar
heated building might have a collector plate located on the roof,
a storage tank in the basement, and utilize either hot air or
hot water controlled by a thermostat for heating the building in
the winter months. (UO)
200
SOLAR HEAT COLLECTORS
The general principle ot all flat-plate collectors is
essentially the same—a black surface faces the sun and absorbs
its radiant energy. Heat transfer fluid, usually air or water,
flows over the black surface ot through property arranged chan
nels and transports tne absorbed energy out of the collector.
There is essentially only one layer of absorptive surface facing
the sun and the heat transfer area is therefore rather low.
If the convective heat transfer coefficient between the plate
and the fluid is also low, as is the case with air, a relative
ly high plate surface temperature vrould be necessitated for a
given heat load per unit area of collector. Under such conditions
the various collector heat losses are high and its overall ef
ficiency is low. This results in a large surface area for a given
heat output, relatively large friction losses, and an increased
capital and operating cost of the solar heating system. (37)
The collector is the key to any solar appliance as it ab
sorbs the solar radiation and transfers the accumulated energy
to the transfer medium. The net rate of useful heat collection
is such a system per unit area of collector is the difference
between the amount ot solar energy absorbed inside the collector
and the outward heat loss rate. The absorbed energy depends on (1)
the insolation rate on the collector and the angle or incidence,
(2) the absorptivity of the surface for solar radiation, (3) the
201
transmittance properties of the transparent cover, and (4) losses
due to dust on the cover and shading of the side walls on the ab
sorbing plate. In actual tests the effect ot dirtiness on col
lector performance was surprisingly small. The reduction in
transmission was not greater than 3%. The thermal losses from
the collector depend on (1) the temperature of the absorbing
plate, (2) the emissivity of the plate, (3) the number ot trans
parent covering sheets, (4) the environmental conditions such as
air temperature and wind speed, and (5) the rear and edge insu
lation. The temperature of the absorbing plate also depends on
(1) the fluid flow rate through the collector, (2) the tempera
ture at which the heat removal fluid enters the collector, (3)
the heat transfer coefficient between the heat removal fluid and
the flat absorbing plate, (4) tne conductance of the bond between
the tubes carrying the fluid and the absorbing plate, and (5) the
fin efficiency of the flat plate as determined by the plate
material, plate thickness, and distance between the fluid carry
ing tubes. (38)
A solar heat collector intercepts solar radiation, converting
it to thermal energy, and transfers this heat to a working fluid.
The collector is a collector plus heat exchanger. Flat plate
collectors use diffuse or scattered radiation as well as direct
sunlight and are usually stationary. The flat-plate collector
is one of the simplest means of collecting solar energy for use
202
in systems that require thermal energy at comparatively low tempera
tures . It usually consists of a flat metallic plate painted black
on the surface facing the sun, insulated on the reverse to reduce
heat loss and in the front with transparent glass sheets. In
the northern hemisphere, the collector is orten set facing
South and tilted toward the equator at an angle depending on
the latitude and the time of the year when maximum effect is
desired. There are many types of flat-plate collectors. One
type uses overlapped glass plates. Another uses copper tubes
soldered to a blackened metallic plate. A third type uses
single sheets of corrugated metal. Others use metallic sheets
with built-in fluid circulating channels. There are numerous
possibilities and many combinations of them. (39)
Formerly metallic collectors were invariably coated with a
flat black paint, but today selective surfaces are being used
wnich have a high absorptance for solar radiation and a low
emittance for long-wave radiation. Processes are now in use in
the United States and in Japan for producing sheets of copper
or aluminum in wnich tubes are formed by inflating narrow open
ings within two malleable sheets. Discontinuities are created
within two malleable sheets. Discontinuities are created
within the sheets and then after the sheets are rolled, the
tubes are created by applying pressure a
203
Heat transfer is often affected by water flowing through
pipes soldered to the blackened copper absorber plate. The
copper pipes fixed to tne absorber are usually four to six
inches apart and effect on absorber efficiency depends on a
number of factors such as material and thickness of the absorber
plate, the number of glass plates, the distance between pipes,
and the limited contact area between pipes and plate. As the
rate of fl.ow through the collectors varies, so does the temp
erature and the efficiency. As flow rate increases (generally
from four to twenty-one gallons per hour) temperature change
decreases and efficiency increases. A double exposure flat-
plate collector can be made by replacing the back insulation with
glass panels and utilizing an aluminum reflector to reflect incident
solar energy onto the reverse side of the collector.
Since the transfer of the maximum amount or heat to the
working fluid is desirei^, it is obvious that the heat losses to
the environment must be minimized and the heat transfer co
efficients of tne heat exchanger process must be maximized.
Flat-plate collectors, unlike concentrating collectors, can take
advantage of the diffuse component of scattered solar radiation
as well as the direct component. The energy absorbed per unit
collector area for either one of these components is simply the
product of the absorptance coefficient for solar radiation, the
effective transmittance of the cover plates, and the solar irra-
20k
diance falling on the collector surface. The heat loss to the
environment is made up from a conduction loss from the back of the
absorber plate through the insulating material and the upward
radiation, conduction, and convection loss through the cover
plates. Since it is easy and economical to provide good insu
lation of the rear surfaces, this heat loss is usually negli
gible compared to the upward heat loss. (I4.I)
A conventional blackened absorber has a high emissivity and
easily loses heat by radiation. To reduce these radiation losses,
selective surfaces can be used. A selective surface is one
wnose emissivity is a function of wavelength. If a surface has
a high absorptance for solar radiation and has a low emissivity
at longer wavelengths where reradiation takes place, then it
will operate at higher temperatures than conventional blackened ab
sorbers.(I4.0)
When solar radiation falls on a sheet of glass, part is re
flected, part is transmitted, and the rest is absorbed. The
familiar warming of the interior of a greenhouse by the sun has
been the subject of sane disagreement as to its exact nature and
evaluation but it is generally agreed that the glass has the pro
perty of transmitting light and other short-wave radiations and
that it is opaque to the long-wave radiation of the infra-red
part of the spectrum and of the longer waves of radiation.
205
From this, it follows that the short-wave energy which comprises
the bulk of the solar energy can pass through tne glass cover of
a greenhouse (or collector) and heat up whatever material may be
on the inside and is capable of absorbing the energy. Any long
wave radiation that is reradiated from the inside will be trapped
by the cover. The collector glass is quite transparent to
the short-wave radiation that ccanes from the sun. When the black
copper sheet absorbs these rays and converts them into heat, it
radiates longer infra-red rays which do not pass easily through
the glass. Thus heat is trapped by the collector. Not all of
tne solar radiation is transmitted through the glass, part is re
flected and part is absorbed. There is also some heat loss frem
tne collector plate to the outside. In all, the amount of use
able heat picked up by the blackened copper sheet is usually
about one-third of that striking the outer glass surface. (I4.2)
Two glass sheets over the collector will produce higher
temperatures than a single glass sheet. This is explained by
the fact that upward heat loss from the absorber surface is the
sum of the convective loss and the radiation loss. Addition of
a glass layer reduces the convection loss considerably to offset
tne transmissivity and absorption coefficient of solar radiation
by its interposition.
The best year-round performance is obtained with the absorber
facing due south, when it is inclined with the horizongal approx-
206
imately 10° to 15° more than thellocal geographic latitude.
If the collector is within a 60° angle of incidence solar
radiation, very little effect difference in absorption is found.
The heat transfer in a solar collector takes place by
simultaneous radiation, convection, and conduction. The net
rate of useful heat energy collected per unit area is the
difference between the amount of solar energy absorbed and the
heat loss because of the collector being ho1;ter than the sur
roundings. The efficiency of a solar absorber depends primar
ily on the rate of solar radiation entering the exposed cover
and on the rate or heat loss from the same receiver surface.
Basic to the design of any solar energy utilization system
in which flat-plate collectors are used is the long term average
performance of these collectors. The long term average per
formance, instead of the instantaneous rate ot energy collection,
is needed since the latter is extremely variable due to differ
ences in cloudiness. As sufficient heat storage is usually
provided, the average energy collection is also the useful ener
gy collection. The performance of a collector of any angle of
tilt at any locality can be predicted when the following two
parameters are known: the monthly average daily total radiation
on a horizontal surface and the monthly average daytime ambient
temperature. (UO)
207
Flat-plate solar collectors have advantages over concen=
trating types for several reasons: (l) they can be easily
manufactured in large sizes witnout the need of precision
methods, (2) they collect diffuse radiation as well as direct
beam radiation, (3) their orientation is not critical, (4) tne
collector can be used as part ot tne roof as for house heating
and air conditioning applications, and (5) less maintenance is
required.
Focusing or concentrating type collectors use direct sun
light or a certain area and reflect it to a concentrated spot
to obtain very high temperatures that even approach the tem
perature of the sun. The focusing of the parabolic or the
parabolic-cyclindrical mirrors type collectors has the advan
tage of reducing heat losses. However, it is nearly useless
except in direct sunlight while the flat-plate collector will
continue some operation on cloudy days. \k^}
SOLAR ENERGY FOR HEATING i COOLING BUILDINGS
208
P\J,S' : OR GLASS - . r ASSCRB. ' .C S U ^ ' A C : .uVERS \ '
.\ ' / 0 \
COLLECTOR
UNIT
HE-IT STCRACt
"I"~!
HEATING
A L J X I L : A R Y HEADER
\| J COOU\G
I /
NASA -tQ 'P " J -15338 (1) l l - 5 - - ' 3
Fi :5ure 1
BASIC DESIGN CONCEPT ROOF TOP CONCENTRATOR
COLLECTOR
WINTER C O L L E C T O K
209
SUMVE9
F'.^--xe 13 H ji-T'^p Conce . t r . - Baa . ; r^esu-n C r ' - ' e p '
210
STORAGE
The second component in a solar heating system is the stor
age unit. The intermittent availability of solar radiation
requires storage of the energy for use wnen it is nor available.
As sunlight is available for only part of the day, it is neces
sary for many purposes to provide storage facilities. The stor
age of power is more expensive than the storage of heat but it
can be accomplished through the use of storage batteries or by
pumping water to a higher reservoir and allowing it to flow back
later through a water wheel that drives a dynamo. Solar heat
may be stored by raising the temperature of such inert substances
as water or rock or in such reversible chemical reactions as the
dehydration of salt hydrates or the vaporization of water = See
Figure 4. Water has the highest heat capacity of any ordinary
material. Its specific heat of one (l,0) is the basis for com
paring all other materials. A volume of water raised through
5 C, will return the five kilocalories which it absorbed, when
it is cooled to its original temperature.(l -O)
^ck bins have SOTie advantage for storing heat that is re
moved from a stream of warm air. The heat capacity of the rocks
is about one-fifth that of water but the density is greater. A
blower is necessary for controlling tne flow of the air. Below
and above their melting points, the chemical compounds are ca
pable of storing their specific heat, which is very nearly the
21 1
same specific heat of water, when compared on an equal volume
basis. The advantages of heat of fusion type materials is heat
storage within a narrow temperature range, higher collector
efficiency due to low storage tempeiature, and additional heat
as specific heat. It is estimated that five to nine times more
solar heat can be stored as heat of fusion than can be in water
or other specific heat storage material, compared on an equal
voluipe basis. The problems ot heat storage using chemically
inert material include packaging the chemical, tne cost, the
heat transfer temperature, and the thermal insulation required
to contain the heat. Physical changes and chemical reactions
involve much greater heat effects so heat storage vessels for
reacting chemicals can be smaller in size. The salt hydrates
are among the simplest types of chemical used for heat storage.
As the temperature changes sodium sulfate from a liquid to a
solid or jell at 90* F- the heat ot reaction is about fifty
calories per gram.
212
CONTROLS
Several methods of control can be used for the pumps and
fans necessary to circulate the water or air within a particu
lar system. Here are three of the many possibilities of a
pumped system. The first, known as a differential controller,
monitors the water temperature in the bottom of the storage
tank and in the absorber or collector near the outlet. The
pump is switched on whenever the absorber temperature exceeds
the bottom tank temperature by some fixed amount, and is
switched off whenever the absorber outlet drops below the tem
perature of the tank bottom. This controller adds energy to the
system wnenever it is available. The second control metnod
utilizes a thermostat near the absorber outlet and switches the
pump on or off as the temperature rises above or falls below
some predetermined level. This is known as a set temperature
controller. The third method uses a radiation sensor. The pump
is switched on or off according to whether incoming radiation is
greater or smaller than some predetermined minimum. Fans used
on air systems may be operated by thermostats, as above, to move
the hot air from collector to storage and storage to utilization
or from collector to utilization. Air systems necessitate the
use of filters to clean the dust from the air and leakproof
ducts to direct it. {kO)
From a tecnnical standpoint, the major cost is in tne heat col-
215
lector and the expense of enough heat storage capacity to get
through a number of cloudy days. Most advocates of solar heat
ing now accept auxiliary heating by fuel as a necessity where
long successions of cloudy days or extremely cold spells are
likely. The inclusion of auxiliary heat has a definite basis
in a minimum-cost heating system. Provision for auxiliary
heat has a profound influence on the rest of the design as
concern over the difficulty of storing solar heat for a period
of several sunless days disappears. A decision on the type of
fuel to be used in an auxiliary heater might be dictated by
what is available in a particular area. Possibilities include
heat pumps, oil furnaces, gas heaters, electric heaters, and
wood burning stoves. The auxiliary system will probably use
the same ducts or piping as the solar system. The optimum
placement of the auxiliary heater will depend on the particular
system. It might be used on the heat transfer medium in storage
or just before utilization and could be the auxiliary for the
hot water heater too.
&.
r.*v'-
Si
MAJOR EQUIPMENT SCNEDUL
214
If
REFERENCE:
Refer to personal library for equipment schedules.
BIBLIOGRAPHY
1. Bell, George H.,"Hospital and Medical School Design", E. & S. Livingstone and London, July 1961.
2. Butler, Charles, F.A.I.A. and Erdman, Addison, A.I.A., F.W. Dodge Corporation, New York, 1946. "Hn< pii- i Planning"
3. Deasy, C.M.^ "Design for Human Affairs", Halstead Press Division, New York, 1974.
4. Griffith, John R., Weeks, Lewis E. Ph.D., and Sullivan, James H., "The MpPhpr.snn Fxpftrimpnt", The Bureau of Hospital Administration, The University of Michigan, ^ n Arbor, 1967.
5. Harding, le Riche, W. M.D., M.P.H., Balcom Carolee E., R.N., B.S., and Belle, Gerald van, M.A., "The Control of Infections in Hospitals". University of Toronto Press, Toronto, 1967.
6. Hay, Leon E., Ph.D., C.P.A., "Budgeting and Cost Analysis for Hospital Management", University Publications, Bloomington, Indiana, 1958.
7. Hung, William Dudley Jr., A.I.A., "Hospitals, Clinics, and Health Centers^. F.W. Dodge Corporation, 1960.
8. Koren, Herman R.P.S., M.P-H., H.S.D., "Environmental Health and Safetv". Pergamon Press Inc., New York, 1974.
9. Llewelyn, R. Davies, Macaulay, H.M.C., "Hospital Planning and Administration", World Health Organization, Geneva, 1966.
10. Rosenfield, Isadore FAIA, "Hospital Architecture Integrated Components", Van Nostrand Reinhold Company, New York, 1971.
11- Smith, Warwick, "Planning the Surgical Suite". F.W. Dodge Corporation, New York, 1960.
12. Rosenfield, Isadore FAIA, "Hospital Architecture and Beyond" Van Nostrand Reinhold Company, New York, 1969.
13. United States Department of Labor, "Job Descriptions and Organizational Analysis for Hospitals and Related Health Services", United States Government Printing Office, Washington, 1952.
14. Weeks, Lewis E., & Griffith, John R., "Progressive Patient ^^r^". The University of Michigan, Ann Arbor, 1964.
15. Wheeler, E. Todd, F.A.I.A., "Hospital Design and Funntion". McGraw-Hill Book Company", New York, 1964.
16. Wheeler, E, Todd, F.A.I.A.,"Hospital Modernization and Expansion", McGraw Hill Book Ccanpany", New York, 1971.
17. United States Department of Health, Education, and Welfare, "A Study of Hospital Central Medical and Surgical Supply Services". Public Health Service, United States Government Printing Office, 1966.
l^. United States Department of Health, Education, and Welfare, "Hospital Dietary Services", United States Government Printing Office, 1966,
19. Uniued States Department of Health, Education, and Welfare, "Design Features Affecting Asepsis in the Hospital", United States Government Printing Office, 1966.
20. United States Department of Health, Education, and Welfare, "Planning Nurseries for Newborn in the General Hospital", United States Government Printing Office, 1966.
21. United States Department of Health, Education, and Welfare, "Planning the Labor Delivery Unit in the General Hospital", United States Government Printing Office, 1966.
22. United States Department of Health, Education, and Welfare, "Public Health Service Regulations - Part 53", United States Government Printing Office, 1966.
23. United States Department of Health, Education, and Welfare, "The Hospital Electroencephalographic Suite", United States Government Printing Office, 1966.
24. United States Department of Health, Education, and Welfare, "Planning the Physical Therapy Department", United States Government Printing Office, 1966.
2 5. United States Department of Health, Education, and Welfare,
"Elements of Proaressjvfi Patient Care". United States Government
Printing Office, 1966.
26. United States Department of Health, Education, and Welfare, '^ "General standards of Construction and Equipment of ^^^f^^j-Hospitals". United States Government Printing Office, 1966.
27. United States Department of Health, Education, and Welfare, "Radioisotope Facilities in the General Hospital", Unit ed States Government Printing Office, 1966.
28. United States Department of Health, Education, and Welfare, "A Facility Designed for Coronary Care", United States Government Printing Office, 1966.
29. United States Department of Health, Education, and Welfare, "Design and Construction of General Hospitals", United States Government Printing Office, 1966.
30. United States Departr^ent of Health, Education, and Welfare, "General Standards of Construction for Medical Facilities", United States Government Printing Office, 1966.
31. Abeellah, F- H. "Progressive Patient Care: A Challenge for Nursing", Military Medicine, May, 1960.
32. Haldeman, J.C. El. PPC Public Health Service, Pub. No. 930-C-l, U.S.P.O.H.E. & W., Washington, D.C.
33. Croatman, W., "Progressive Patient Care: What It Means For You", Medical Economics, Inc., March, 3-962 .
34. Texas State Department of Health, Hospital Licensure Division. "Hospital Licensing Standard", Austin, Texas; 1969.
3 5. Southern Building Code; Building Officials Conference of America, Chicago, Illinois, 1972.
36. Orton, Robert, Texas State Climatologist. "Climatic Guide -The Lower Rio Grande v^ll^y of Texas". Texas A & M University: College Station, Texas, 1967.
37. Solar Energy Society. ".qmar Energy:' I-XIII. New York: Pergamon
Press, 1957-1972.
38. Hammond, Allen L. "Solar Energy: A Feasible Source of Power?" Science. CVXXII (May 14, 1971), p. 660.
39. Pauly, David. "America's Energy Crisis". Newsweek, LXXXI (January 22, 1973), pp. 52-60.
40. Thorpe, Jack R. "Solar Space and Water Heating for Domestic Use". University of New Mexico, Albequerque, 1973.
41. committee on Science and Technology, U.S. House of Represen^^ tatives. Solar Heating and Cooling Demonstration Act of 1974.
41. (cont'd) May 1975.
42. Committee on Science and Astronautics, U.S. House of Representatives. Solar Heating and Cooling Demonstration Act. November 1973, H.R. 10952 et al.
i
i
APPENDIX A
R U : -.TICrAL BASIS CF TH G:T
Five particular rcb cir.c played a
dec:, . .
\ inent part in r..; hospital
1. FATi::;:: a/.? : - I-Iovr to c.isare that the s:^Sotj and well-
belli, of the patient is not subr.ersed lii the complex
requirements of the medical „p, iT.ti-: al system.
2. nriTIGlITY - ::-A: tc relate closely, the Dia,;iiOSti.; -
Therapeutic Division, both trith the /. rsi:v" units
and the Paramedical Departments.
3. ADAI'T,\ri'ITY "ou to make provisions for meeting future
Jii. -rna! chanf;eG an-:' exter .al growth *n some . ajor depart-
me:its.
-'• CIRa'lATICN AIJ) TVJ'.TyiQ _ '.lev. U provide for movement of
patients, ct--'.'T and suprO'es, and for control of
externa^ a' 'val and departure c.' traffic.
5. SUPriT OP.GANIZATICr Hou to pla.: tAc production departments
for ease of ranai:rer.cnt and hc.f tc simp: ify distributl'u of
cuppl.'es.
i
actuates smoke ser;Sl__ devices.
Color is used extensively throughout the hospital to establish
locaticus and for i '.entification on each patient floor. Each
nursir;,: floor is Izeyed ::ith identl-ying clors i:i flc^orlnr,, walls
and fur_.iG:.ings. Textured vinyl wall '~vf::livrs arc used in pul] ic
halls and in patient rooms.
Nursing flcis are des'.'?" to hold J2 beds each with each
f .oor divided into 2 l6 bed sections. A nursinr team of one R.l.
and one or two nursin;; assistants staff each sectic. . Instead cf a
nurses' station, each floor is equi ped irith an ad-Inistrative control
center where a nonprofessional staff ner-ler operates v.n e^abcrate
comi^unlcacion system and also serves as a rece "tli/i st.
Witacut a nurses* staticri as a focal "ci;.t, /iurses circulate
through patient roo"s during their entire shifts.
Call lie;hts in the corridors alert nurses tc patient needs,
but even when they are in patient rooms, nurses can be reached
by pocket pagers which they carry at all tir.cs.
This systei-. allows nurses to spend far more tine ,:ita patients
that in c: .\M:li mal arrajTcments and reduces the number of nurses
needed to rrovide con" arallo care.
2. CCI.TIGl'lTY
The architectural problems arise - rinarily in the relationship
of the clinical departments to the rrrc'ni-: .'.its. "'he main
-r'l. i'c] is that the needs of pat*o..i care should be the primary
•"a-l r in deteri^'n: n* hoi: t],e nursing in.its are grouped.
(!) raterj.lty an- per"': rtri cs department must relote to the
delivery s,7:ts an.' nursery department,
(2} Sur, ira"' patients must relate to the s..r,,ioo"i suite,
intensive care unit, radiology and reccvt r;,- departments.
(3) Lon, :-term patlc./L-s must relate to the , eneral services
offered by the I Istgnostic-Therapeut:'- Livision.
(A) For ease of i.cjlzontal i,;oveiiei.t for both patient and
professir :;al s c ' f, each departr.ent vri__.:- the Dia,uost:c-
Therapeutin Divlsi::j is on the same leve^ as its receptive
nursing uiIt war.
(B) Because of the high laboratory mec ' cal services, all
sub-laboratory spaces have been rt. uped.
(c) Outpatient Department, Doctors* arivate offices, and the
adml-.o'ons department are located on the first level to
provi>. c convenience to the v;alk-lii patient, and to y
eli. inate excessive vertical circulation. pf
3- A \: . - i \
r a j o r grLU^; a reas of the hospi ta l i a^Llod in order of be'
i nc rease .
(A) r u r s l n g Uni ts bed : icrements
(h) Eiagnost lc-Therapeut ic Divis i - ; ,
1. T abora to r l e s
2. Kcu-'ology Department
3 . Sur.' i ca l Department
k. Tlaternlty Departneiit
(c) Anci l la ry l i v i s i o n
1. Food Prepara t ion
2. General s torage f a c i ^ ' t i e s
Adap tab i l i ty should be in ter ; ^ of the a l . ' l i t y tc make ? 1:1 ted
in t e rna l adjustmenlc to chan^^lu'; needs and to provide for some f'uture
growth ex t e rna ] ly .
Cuch adap ta l ' V ty "s achelved by the ,:TOUT : ng of ">'1^ f i j c l i o n s
and aVouin for changes re"'a'--'ve to the t^:eneral cata^^ory of ;ror^' for
which the un i t -.ras designed. No r e. cvacic p a r t i t i o n s were taken into
cons idera t ion for a p a r t i a l sr iuL'oa of a d a p t a l i l i t y ber-n-. -o of the
h"ph sound proofing requirements c h a r a c t e r i s t i c of these departments.
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5 . SUPPLY CRlA!a[ZATION
The i n t e r n a l d i s t r i b u t i o n system vi i ' l be by e l e c t r o n i c a l l y
con t ro l l ed c a r t s , Ih.ls system i s based on the close "rojpinr of
the supply •OT-ara ./ " located a t the center of the ccnple::. These
departr.ients include Central S t e r i l e S a r ^ l i e s , Pharmacy, li: tchen svrT^ly,
and Centr-^i! S t o r e s . This system has i t s g rea t e s t poten.tia] when ir . ter :atcc
:nt^ the future expansion of the ledi-^a"' Center.
e t h e r bene f i t s of the automated supply system include; ( l )
corc-lcte control of a^ l p a / o n t suppl ies and - ^-'^- -nt u n t i l they are
i:sGd. (2) Daily iaventory of a l l suppVcs used in pa t ien t care , inc""-d-. ._
ing constant cont ro l to prevent the use of outdated s t e r i l e c ^ i e s ,
and (3) reduct ion in the nuir.ber of s taff members required to move the
suppl ies and equipment.
11. J rr/IROPHJITTAl CONTROL
dnvironmental control is needed in three distinct '.rcyc;
(A) For psycholo,pical and physical comfort of patients, staff
and visitors.
(B) For safety of patients and staff in relation to cross
infection and other hazards.
(c) For scientific worl preformed in the lal oratory under
carefully controlled environmental '•'-ndltions.
A portion of tlils h-soital'?^ desire, is achej.ved ly prove i.
a sense of openess with a variety of external veers alonr: all major
circulatirn nodes. The total effect is an atmosphere designed to
the patient as well as the professional staff member.
MlCIIAelCAT SYST'ilMS
Total heat Recovery System
The central feature of the heat recovery system is elece^" ally
driven rec?procatinr "C;.e-r"03sion water chilling eqeei pne .it. When
cliilled water is bei le used for air cooling, the heat removed f-om
the liilding plus the heat generated by the compressor is transferred
to a second water sysbor. which vrarms those se-T'ti is of tijc hospital
requiring additional heat and also raises the temperature of vjater
intended for ^ne - hot water usage. When air cooling is not req\ .i-cd,
the chillers are operated with a e alse cooliiv; load and the compressor
heat Is channeled as "n warmer weather. Av;xilia?:y heaters are located
in hot water storage tank tc bring temperatures up to desired levels
before vrater is piped, i.ito the hospital.
The major advantages of eliminating combustion heat sources
(1) removal of the ooilor room and its iniierent problems, and (2)
the ability to design spaces rithout mailing accomodations for ducts,
vents and flues.
Since a hospital is on of the most comrlicated architectural
instit-ti'i.s to desi .., one of my earliest decisions was to elirlnate
the incorporaticn of a solar -energy systei,: into the desi, n.
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III. STRUCTURAL TEC}n:iQuns
Precast concrete construction techniques were used through
out the hos ital base and nursing tower.
UCSPITAl B/\G_
The main emphasis for the structural system was the use of
repetitive bays irith modular ccnstnaction since repellLive bays are
more econrmical than esln. a variety cf structural systems. Combined
modular construction with open-ended planning also provided a vrorkable
solution for nondisruptive future expansion.
IX'RSIhG TOILER
A precast concrete module system was used for the nvrsin,-: tower.
This system allows for the mass production of each tvro bed room.
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