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1 of 33 Creating the UNIT Element Exercise No. 1 Creating Project Unit For an IMP Catalog In this Exercise you will be responsible for creating the Administrative Top-Level Element that will hold Project Units. This element type and it members can only be created via Syntax) 1) Position yourself at the WORLD level ( /* ) 2) From Main Menu Bar Select: Display > Command Line. 3) In the Input & Output Command Window Key-In the follow inside the Text Box: NEW UNIT /XUNIT (NOTE: this will created the Unit Element) 4) In the Input & Output Command Window Key-In the follow inside the Text Box: BUNI INCH (Set the Bore units to inch) DUNI FINCH (Set the Distance units to feet and inches) (NOTE: Bunits and Dunits are attributes of the UNIT Element) Note: The MDB list order is very important as the default session units are determined by the first UNIT element of the first CATA db.

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Page 1: Material Definition

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Creating the UNIT Element Exercise No. 1

Creating Project Unit For an IMP Catalog In this Exercise you will be responsible for creating the Administrative Top-Level Element that will hold Project Units. This element type and it members can only be created via Syntax) 1) Position yourself at the WORLD level ( /* ) 2) From Main Menu Bar Select: Display > Command Line. 3) In the Input & Output Command Window Key-In the follow inside the Text Box:

NEW UNIT /XUNIT (NOTE: this will created the Unit Element)

4) In the Input & Output Command Window Key-In the follow inside the Text Box: BUNI INCH (Set the Bore units to inch) DUNI FINCH (Set the Distance units to feet and inches) (NOTE: Bunits and Dunits are attributes of the UNIT Element)

Note: The MDB list order is very important as the default session units are determined by the first UNIT element of the first CATA db.

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Creating Catalog Hierarchy Exercise No. 2

In this Exercise you will need to set up the additional Top-Level Elements that will hold the various “parts” that go into making a completed catalog for your Company. See the chart below for the hierarchy and names required. Create the following Element Types by using the Paragon Pipework Application menu bar:

CATA Create > Catalog SECT Create > Sections CATE Create > Category > Element

(NOTE: Do not create component categories yet. We will use another option to create the CATE for Piping Components)

1) Create Element Types Name

CATA /XCATA SECT /XPTSET SECT /XGMSET SECT /XDATASETS SECT /XTEES SECT /XELBOWS SECT /XFLANGES SECT /XREDUCERS SECT /XGASKETS SECT /XPIPE SECT /XVALVE SECT /XINST SECT /XINSU SECT /XBOLT (Used for New Bolting)

CATE /XBOLT.SDTE CATE /XBOLT.SMTE

SECT /XDTEXT

CATE /XELBO.SDTE CATE /XFLAN.SDTE CATE /XGASK.SDTE CATE /XINST.SDTE CATE /XINSU.SDTE CATE /XRED.SDTE CATE /XPIPE.SDTE CATE /XTEE.SDTE CATE /XVALV.SDTE

SECT /XMTEXT CATE /XFIT.SMTE CATE /XPIPE.SMTE

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Setting Up the Storage Areas Exercise No.3

Select the following from the Paragon Pipework Application menu bar:

2) Settings > Reference Data

Set the Storage Areas (SECT or CATE only) for the following Elements:

a. Ppoint Sets / XPTSET b. + Geometry Sets / XGMSET c. Bolt Sets /XBOLT (Note: Used for New Bolting) d.

You may also set the Detail and Material Texts storage areas, or simply navigate to the appropriate category before creating the Detail or Material text elements.

e. Detail Text /XFLAN.SDTE f. Material Text /XFIT.SMTE

(Note: On the Reference Data form, key-in the name of the element or navigate in the Members form to the appropriate Name, then left mouse-click on the CE button.

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Page 6: Material Definition

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Creating 150#-WN-RF-Flange Exercise No. 4

In this exercise, you will be creating a range of 150# Weld Neck Raised Face Flanges (2”, 3”, 4”) using the dimensional information provided. Using the ISODRAFT Ref. Manual, identify the orientation of the P-points for the component. Sketch out the component on paper.

Component Data Sheet Gtype Used:____________ CATEGORY NAME : ________________________________________________ COMPONENT DESCRIPTION: ________________________________________________ Detail Text Material Text SDTE Name-: ________________________ SMTE Name-: ________________________ SKEY USED-: ________________________ RTEXT : ________________________ XTEXT--------: ________________________ STEXT : ________________________ YTEXT--------: ________________________ PTset Name: ________________________ GMset Name: __________________ Component Sketch 1.) Mark P-Points required 2.) Mark Parameters required

-X X

Y

-Y

P0

P1 P2

Para2

Para5

Par

a7

Par

a 6

Par

a 8

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From Main Menu Bar select: Settings > Reference Data…[ Set the location of the Ptset and Gmset on this form if you have a Reference SECT or CATE set up. Default storage is current CATE. ]

From Main Menu Bar select: Create > Category > for Components…

CATE name of 150# weld neck flanges to be created: _________________________

SKEY _________________________

PTSE name of 150# weld neck flanges to be created: _________________________

GMSE name of 150# weld neck flanges to be created:_________________________

Define Parameters Text that will be used when the components are created:

PARA 1 Nominal Bore______________________

PARA 2 _________________________________

PARA 3 _________________________________

PARA 4 _________________________________

PARA 5 Flange Thickness___________________

PARA 6 _________________________________

PARA 7 _________________________________

PARA 8 _________________________________

PARA 9 Weld Dot Diameter__________________

Parameter Chart for 150# WN-RF-Flange

Navigate to the last TEXT element of the CATE you just created. Select Create > Component from the Pipework Application menu bar.

g. On the Component form, a. Key-in name for new SCOM b. Check to be sure the PTSE and GMSE are properly set for this component. c. Select the correct GTYPE for the component.

On the Parameter Setting form, fill in the required Parameter Values for this component. Repeat the above steps to create the full range of sizes needed. With an SCOM as the CE, select the Display > Component Select the Ptset in the References area on the Piping Components form.

h. Create the P-points needed for the component. 1. Select Create > Point Set > Primitives 2. Then Select AXIAL or MIXED or CARTESIAN 3. Fill out the creation form and repeat until all the required p-points have been created.

Select the GMset in the Reference Box on Form. i. Create the geometry needed for the component. 1. Select Create > Geometry set > Primitives 2. Then Select the Primitives need to create the component. 3. Fill out the creation form and repeat until all the required geometry has been completed.

Size NAME Para 1

Para 2

Para 3

Para 4

Para 5

Para 6

Para 7

Para 8

2” /_____________JJ 2IN ____ ____ ____ ____ ____ ____ ____ 3” /_____________LL 3IN ____ ____ ____ ____ ____ ____ ____ 4” /_____________NN 4IN ____ ____ ____ ____ ____ ____ ____

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Copying 150# -WN-RF-Flange to 300#-WN-RF-Flange Exercise No. 5

After the 150# Weld Neck Flanges are completed, you will need to make a copy at the CATE level and RENAME the components for the 300# Flanges. After the COPY, you will need to modify the parameters of all the components (SCOMs) in the category to match the sizes for the 300# Flanges.

Navigate to the CATE named /XAAFWBB0. In the Commands and Requests window, key-in:

VAR 1 NAME <Enter>

NEW CATE /XAAFWBD0 COPY $V1 REN $V1 /XAAFWBD0 <Enter>

Another example of copying a CATE if the CATE you want to copy is the CE: NEW CATE /XAAFWBD0 COPY PRE REN /BB0 /BD0

Parameter Chart for 300# Weld Neck Flange

Size NAME Para 1

Para 2

Para 3

Para 4

Para 5

Para 6

Para 7

Para8

2” /XAAFWBD0JJ ____ ____ ____ ____ ____ ____ ____ ____

3” /XAAFWBD0LL ____ ____ ____ ____ ____ ____ ____ ____

4” /XAAFWBD0NN ____ ____ ____ ____ ____ ____ ____ ____

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Creating 150# RF and 300# RF Gaskets Exercise No. 6

Create a range of 150# RF and 300# RF gaskets (2”,3”, and 4”) that are 1/8” thick, which will be incorporated into the catalog.

Create the Category name: XACGCBBV__________________ Create the PTSET name: ____________________________ Create the GMSET name: ____________________________ Fill in the parameter chart before creating the components.

Parameter descriptions are:

PA1 Nominal Bore

PA 2 Gasket Thickness

PA 3 Gasket O.D.

PA 4 Gasket I.D.

PA 5 End Connection

Parameter values are in mm

Parameter Chart 150# Gaskets Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5

2” /XACGCBBVJJ 50.8 3.17 104.78 50.8 GBB

3” /XACGCBBVLL 76.2 3.17 136.52 76.2 GBB

4” /XACGCBBVNN 101.6 3.17 174.63 101.6 GBB

Copy the 150# Gasket CATE to a 300# CATE: NEW CATE /XACGCBDV COPY PRE REN /BV /DV Modify the Parameter values for the new SCOMs:

Parameter Chart 300# Gaskets Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5

2” /XACGCBDVJJ 50.8 3.17 111.13 50.8 GBD

3” /XACGCBDVLL 76.2 3.17 149.23 76.2 GBD

4” /XACGCBDVNN 101.6 3.17 180.98 101.6 GBD

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Creating Variable/Fixed 90 Degree Long Radius Elbows Exercise No. 7

In the following exercise you will create a range of 90 degree long radius butt weld elbows to be incorporated into your catalog. The piping specification will dictate whether the angle is variable or not. From the Main Menu Bar Select: Create > Category > for Components

New Category Name = /XAAEA20V Use PTSET Name = /ELBO/PT2-1 Use GMSET Name = /ELBO/GM1-4

Define Parameters Text that will be used when the components are created. Para 1 Nominal Bore Para 2 Center to End Para 3 Outside Diameter Para 4 End Connection Para 5 Weld Symbol Size

NOTES: Sizes to be included are N = 4”, L = 3” and J = 2” Create both a double line and single line representation of the elbows If using inches for the parameters then add IN after number.

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 2” /XAAEA20VJJ 2IN 3IN 2.375IN BWD 15 3” /XAAEA20VLL 3IN 4.5IN 3.5IN BWD 20 4” /XAAEA20VNN 4IN 6IN 4.5IN BWD 25

P1P2

X

-Y

-X

Y

(PAXI) X DDANG Y

(PDIST) TANF PARAM 2 DDANGLE (Reverse Polish

or ((TAN (ANG / 2)) * PARA[2]) (Algebraic)

Ppoint Arrangement for Variable Angle Elbows

LINE Pts P1 T0 P2 Dia 0

SCTO Paaxis P1 Pbaxis P2 Pdia Para3

Tan to P0 (Zero, not Oh)

Note that the Angle selector of the SPEC can be used to control whether and how much the design angle may be changed by the user. An angle of 90 in the SPEC dictates that the angle can only be 90. An angle of 22.5,90 allows the designer to specify an angle in a given range.

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Creating Fixed 45 Degree Long Radius Elbows Exercise No. 8

In the following exercise you will create a range of 45 degree long radius butt weld elbows to be incorporated into your catalog.

From Main Menu Bar Select: Create > Category > for Components New Category Name = /XAAEC200 Skey _____________________ New PTSET Name = /ELBO/PT2-3 New GMSET Name = /ELBO/GM1-4 Define Parameters Text that will be used when the components are created.

Para 1 Nominal Bore Para 2 Center to End Para 3 Outside Diameter Para 4 End Connection Para 5 Weld Symbol Size

NOTES: Sizes to be included are N = 4”, L = 3” and J = 2” Create both a double line and single line representation of the elbows If using inches for the parameters then add IN after number.

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 2” /XAAEC200JJ 2IN 1.375IN 2.375IN BWD 15 3” /XAAEC200LL 3IN 2IN 3.5IN BWD 20 4” /XAAEC200NN 4IN 2.5IN 4.5IN BWD 25

P1

P2

X

-Y

-X

Y

PAXI = X 45 Y

Pdist PARA 2 (typ.)

P-point Arrangement for 45 degree Fixed Angle Elbows

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Creating Straight Tees Exercise No. 9

In the following exercise you will be creating a range of straight butt weld tees to be incorporated into your catalog. From Main Menu Bar select: Create > Category > for Components

New Category Name /XAATA200 Skey __________________ New PTSET Name /TEE/PT1-3 New GMSET Name /TEE/GM1-4 Define Parameter texts that will be used when the components are created.

Para 1 Run NOM SIZE Para 2 Bran NOM SIZE Para 3 Run CL TO END Para 4 Bran CL TO END Para 5 Run O.D. Para 6 Bran O.D. Para 7 Run End Conn. Para 8 Bran End Conn. Para 9 Run Weld Symbol Para 10 Bran Weld Symbol

NOTES: Sizes to be included are 4” x 4”, 3” x 3”, and 2” x 2” Create both a double line and single line representation of the tees If using inches for the parameters then add IN after number.

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 Para

6 2”x 2” x 2” /XAATA200JJ 2IN 2IN 2.5IN 2.5IN 2.375IN 2.375IN3”x 3” x 3” /XAATA200LL 3IN 3IN 3.375IN 3.375IN 3.5IN 3.5IN 4”x 4” x 4” /XAATA200NN 4IN 4IN 4.125IN 4.125IN 4.5IN 4.5IN

Size Name Para

7 Para

8 Para

9 Para10

2”x 2” x 2” /XAATA200JJ BWD BWD 15 15 3”x 3” x 3” /XAATA200LL BWD BWD 20 20 4”x 4” x 4” /XAATA200NN BWD BWD 25 25

PARA 3

PA

RA

5

PA

RA

4

PARA 6

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Creating Reducing Tees Exercise No. 10

In the following exercise you will be creating a range of reducing tees butt weld to be incorporated into your catalog. From Main Menu Bar select: Create > Category > for Components

New Category Name = /XAATA20R Skey ________________________ New PTSET Name = /TEE/PT1-3 New GMSET Name = /TEE/GM1-4 Define Parameter texts that will be used when the components are created.

Para 1 NOM RUN SIZE Para 2 NOM BRAN SIZE Para 3 CL TO END of Run Para 4 CL TO END of BRAN Para 5 O.D. of Run Para 6 O.D. of BRAN Para 7 End Conn. of RUN Para 8 End Conn. of BRAN Para 9 Weld Symbol of RUN Para 10 Weld Symbol of BRAN

NOTES: Sizes to be included are 4” x 4” x 3”, 4” x 4” x 2”, and 3” x 3” x 2” Create both a double line and single line representation of the tees If using inches for the parameters then add IN after number.

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 Para

6 3”x 3” x 2” /XAATA20RLJ 3IN 2IN 3.375IN 3IN 3.5IN 2.375IN

4”x 4” x 2” /XAATA20RNJ 4IN 2IN 4.125IN 3.5IN 4.5IN 2.375IN

4”x 4” x 3” /XAATA20RNL 4IN 3IN 4.125IN 3.875IN 4.5IN 3.5IN

Size Name Para

7 Para

8 Para

9 Para10

3”x 3” x 2” /XAATA20RLJ BWD BWD 20 15

4”x 4” x 2” /XAATA20RNJ BWD BWD 25 15

4”x 4” x 3” /XAATA20RNL BWD BWD 25 20

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Creating Concentric Reducers Exercise No. 11

In the following exercise you will be creating a range of butt weld Concentric Reducers to be incorporated into your catalog. From Main Menu Bar select: Create > Category > for Components

New Category Name = /XAARC200 Skey ______________________

New PTSET Name = __________ New GMSET Name = __________ Define Parameter texts that will be used when the components are created.

Para 1 Nom Bore-large end Para 2 Nom Bore-small end Para 3 Overall Length Para 4 O.D. -large end Para 5 O.D. -small end Para 6 Offset large to small end Para 7 End Conn. -large end Para 8 End Conn. -small end Para 9 Weld Symbol -large end Para 10 Weld Symbol -small end

NOTES: Sizes to be included are 4” x 3”, 4” x 2”, and 3” x 2” If using inches for the parameters then add IN after number.

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 3”x 2” /XAARC200 LJ 3IN 2IN 3.5IN 3.5IN 2.375IN 4”x 2” /XAARC200 NJ 4IN 2IN 4IN 4.5IN 2.375IN 4”x 3” /XAARC200 NL 4IN 3IN 4IN 4.5IN 3.5

Size Name Para

6 Para

7 Para

8 Para

9 Para 10

3”x 2” /XAARC200 LJ 0 BWD BWD 20 15 4”x 2” /XAARC200 NJ 0 BWD BWD 25 15 4”x 3” /XAARC200 NL 0 BWD BWD 25 20

P A R A 3

PA

RA

4

PA

RA

5

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Creating Eccentric Reducers

Exercise No. 12 In the following exercise you will be creating a range of butt weld Concentric Reducers to be incorporated into your catalog. From Main Menu Bar select: Create > Category > for Components

New Category Name = /XAARE200

New PTSET Name = _________________ (We will use a P3 (positioned at the origin)

for flat side orientation.)

New GMSET Name = _________________

Define Parameters Text that will be used when the components are created. Para 1 Nom Bore-large end Para 2 Nom Bore-small end Para 3 Overall Length Para 4 O.D. -large end Para 5 O.D. -small end Para 6 Offset large to small end Para 7 End Conn. -large end Para 8 End Conn. -small end Para 9 Weld Symbol -large end Para 10 Weld Symbol -small end

NOTES: Sizes to be included are 4” x 3”, 4” x 2”, and 3” x 2”

Parameter Chart

Size Name Para

1 Para

2 Para

3 Para

4 Para

5 3”x 2” /XAARE200 LJ 3IN 2IN 3.5IN 3.5IN 2.375IN 4”x 2” /XAARE200 NJ 4IN 2IN 4IN 4.5IN 2.375IN 4”x 3” /XAARE200 NL 4IN 3IN 4IN 4.5IN 3.5IN

Size Name Para

6 Para

7 Para

8 Para

9 Para 10

3”x 2” /XAARE200 LJ 14.29 BWD BWD 20 15 4”x 2” /XAARE200 NJ 26.99 BWD BWD 25 15 4”x 3” /XAARE200 NL 12.7 BWD BWD 25 20

PARA 3

PA

RA

6

PA

RA

4

PA

RA

5

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Creating Implied Tubing Exercise No. 13

In this exercise, you will be create the component needed for Implied Tubing by selecting Create > Category > for Component.

1.) CATE name: /XAAPA200JJ_____________________

2.) PTSE name: _________________________________ Note: Only 1 Ppoint is required and it MUST reside at the origin of the axis and direct down the -X axis (PAXI -X).

3.) GMSE is not required for this exercise. (Geometry sets are required for pipe shapes other than circular, or if centerline draft representation will be required).

4.) Define Parameter texts that will be used when the components are created.

NOTE: Implied tubing has certain requirements that MUST be taken into consideration. There are 3 parameters that must be in this order:

PARA 1 Nominal Size

PARA 2 Pipe OD

PARA 3 Connection Type

Parameter Chart

Size Name PARA

1 PARA

2 PARA

3 2” /XAAPA200JJ 2IN 2.375IN TUB 3”” /XAAPA200LL 3IN 3.5IN TUB 4”” /XAAPA200NN 4IN 4.5IN TUB

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Creating Detail and Material Text Exercise No. 14

You will also need to create a Detail Text element (SDTE) and a Material Text element (SMTE) for the components you have created. A combination of the Detail text and Material text is the component description that is displayed on an Isodraft drawing. The detail description is entered via the Rtext attribute of the SDTE. The material description of the component is entered via the Xtext attribute of the SMTE.

Create detail and material text in the appropriate CATEGORY, which will be associated with the previously created components.

DETAIL TEXT

CATEGORY (EXISTING)

NAME DESCRIPTION SYMBOL KEY

XTEE.SDTE XAATA200-D BW TEE TEBW XTEE.SDTE XAATA20R-D BW REDUCING TEE TEBW XELBO.SDTE XAAEA20V-D 90 DEG.L.R. BWD ELBOW ELBW XELBO.SDTE XAAEC200-D 45 DEG.L.R. BWD ELBOW ELBW XFLAN.SDTE XAAFWBB0-D 150# R.F.W.N. FLANGE FLWN XFLAN.SDTE XAAFWBD0-D 300# R.F.W.N. FLANGE FLWN XINST.SDTE VALTEK-D 300# RF VALTEK CV OP. SIZE 80 CVFL XREDU.SDTE XAARC200-D BW CONCENTRIC REDUCER RCBW XREDU.SDTE XAARE200-D BW ECCENTRIC REDUCER REBW XPIPE.SDTE XAAPA200-D CARBON STEEL PIPE XGASK.SDTE XACGCBBV-D 150# SPIRAL WOUND 1/8” THK

GASKET

XGASK.SDTE XACGCBDV-D 300# SPIRAL WOUND 1/8” THK GASKET

MATERIAL TEXT

CATEGORY NAME DESCRIPTION XFIT.SMTE SCH40.A105 SCH. 40 ASTM A105 FORGED STEEL XPIPE.SMTE

SCH40.SMLS SCH. 40 API 5L GR. B SMLS

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Connection Compatibility Tables Exercise No. 15

Connection compatibility tables are referenced from within the Design module. When a DESIGNER connects one component to another, a check is made at the connection compatibility table to see if it is a valid connection. Below is a list of end conditions needed for your catalogue. Use this list to create the combinations needed.

BWD = Butt Weld

FBB = 150# RF Flange

FBD = 300# RF Flange

GBB = 150# RF Gasket

GBD = 300# RF Gasket

TUB = Pipe

Instructions: 1. Navigate to the WORLD level in the Members form.

2. Create a new Connection Compatibility Table (CCTA). Then create a COCO element to

list each connection combination needed for your catalogue. Both the Ctype and the Ckey

attribute of the COCO must be set.

3. All key-ins will need to be entered from the Commands and Requests window.

4. Set the Ckey attribute to PL for each pair of connection types in the COCO elements you

create. Utilities > Modify Ckeys is also available from the main menu bar if the required

COCO has been created.

5. Begin the exercise. (below is an example of how to start.)

COMMENTS:

NEW CCTA /XCOCOTABLE (creates and names the CCTAB element)

NEW COCO /BWD-BWD (creates and names the COCO element)

CTYPE BWD BWD (sets Ctype attribute of the COCO to BWD BWD to define a valid connection type)

CKEY BW (sets Ckey attribute to BW for use by the Spooler Module to determine what type of connection is used to join two elements (e.g. Buttweld, Screwed, etc.) If left unset, Spooler will assume a Plain connection type.

Ckey Connection Type Ckey Connection Type BW Butt Weld CP Compression SW Socket Weld FL Flanged SC Screwed Connection PL Plain

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Creating an Insulation Specification Exercise No. 16

Insulation parameters (IPARA) are used in conjunction with the component’s PARA’s to allow components to have a variable insulation thickness representation in the DESIGN model. The IPARA’s with the insulation specification will increase the thickness of a component if it meets certain criteria (i.e. BRAN Temp and bore size) in DESIGN. If the geometry set of a component is built properly with a supplemental IPARA in PARAGON, and the component INSULATION specification reference and TEMP attribute in the Design module point to a designated IPARAM, the component will be shown with a full volume that includes the insulation parameters. Create the required insulation components in Paragon, modify the piping components Gmsets, and then create and load an insulation specification using Specon. Instructions:

1) First navigate to SECT /XINSU. Create a new CATE called /INSU-IC. Now create the insulation components for thickness 1” through 2.1/2” using the following chart. Note that these components do not require a point set or geometry set.

SCOM name Gtype Para 1 (2x thk) Para 2 (1x thk)

/IC1 INSU 2in 1in

/IC1.5 INSU 3in 1.5in

/IC2 INSU 4in 2in

/IC2.5 INSU 5in 2.5in

2) Modify GMSETs of your pipe components to include the required IPARAMs

where necessary, i.e. for ELBO SCTO, Attrib Pdiameter would change to (PARA[3] + IPARA[1]). Iparam1 is 2x Insulation Thk.

PdiameterPARA 3

1x Insulation Thk

1x Insulation Thk

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If it is wished the component has a 2 inch wrap of insulation, the component is built with the addition of IPARA 1. If there is a larger wrap of insulation on a component, you could use IPARA 2 with a multiplier of whatever the desired wrap thickness would be.

3) Create a detail text (SDTE) to describe the type of insulation. Navigate to

/XINSU.SDTE and create Detail Text /CAL.SIL. Set the Rtext attribute to ‘Calcium Silicate’

4) Create a text file using the following table as a reference. This text will be macro’d into Specon to create the insulation specification.

$S- NEW SPECIFICATION /IC TEXT ‘INSU’ HEADING TYPE NAME PBOR0 TEMP CATREF DETAIL DEFAULTS - - - - INSU */IC1:A 1,24 0,100 /IC1 /CAL.SIL INSU */IC1:B 1,2.5 101,200 /IC1 /CAL.SIL INSU */IC1.5 3,24 101,200 /IC1.5 /CAL.SIL INSU */IC2 1.,2.5 201,400 /IC2 /CAL.SIL INSU */IC2.5 3,24 201,400 /IC2.5 /CAL.SIL $S+ For tracing specifications to be itemized in Isodraft, a tracing specification such as the following example is required: NEW SPEC /3/8CopperTube-Single NEW TEXT Stext ‘TRACE’ In DESIGN, the PIPE and BRAN need their Tspec attribute set to point to the Tracing Specification. For a graphical representation in DESIGN, the tracing must be modeled as a PIPE.

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Creating a Range of Instrument Control Valves with Design Parameters Exercise No. 17

In this exercise, you will be creating a range of Valtek control valves (2”, 3”, and 4”), which will be incorporated into the catalog. Use the supplied vendor information. We will use a combination of Parameters and Design Parameters. Make a list of the required parameters and the design parameters, along with their descriptions. You will need to create a Dataset element (DTSE) and a Data element (DATA) for each Design Parameter (DESP.) Using the ISODRAFT Ref. Manual, go to page 181, and identify the orientation of the P-points for the component. Sketch out the component on paper, marking the Ppoints and Parameters that will be required.

Component Data Sheet

Gtype Used:_________ Skey Required:_________ CATEGORY NAME : VALTEK.300RF

COMPONENT DESCRIPTION: __________________________________________

Detail Text Info Material Text Info SDTE NAME-: ________________________ SMTE Name-: ______________

SKEY USED-: ________________________

RTEXT-------: ________________________ XTEXT:

______________________

STEXT-------: ________________________ YTEXT:

______________________

PTSET NAME: ________________________ GMset Name:

__________________

Sketch the component to determine physical shape and P-Point locations also .

1.) Mark P-Points required 2.) Mark Parameters required

Connection code to be used at arrive and leave P-Points is FBD Geometry set members to be used for both double and single line representations double and DON’T FORGET to allow for removal of the operator. Component names are:

(2”) VALTEK.CV.JJ (3”) VALTEK.CV.LL (4”) VALTEK.CV.NN

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Creating Old Bolting Exercise No. 18

FLAN2" 150# RF

BRAN

PIPE

ZONE

SITE

WORL

SPCO*/2.0SB150

SELETans BOLT

SPCO

SELETans FLAN

SPECXA150 Quest TYPE

SPWL

SBOLXIBBJ

BLIS#150.STUD

DTAB5/8STUDLENG

LTABIMP.BOLT.LENG

BLTAIMP.BOLTS

WORL

The Bolt Table (BLTA) is an administrative element that is used to group Bolt Lists (BLIS), Length Tables (LTAB), Multiple Bolt Lists (MBLI), and Text (TEXT) elements. Its legal owners include the WORL, SECT, or CATE.

1. Navigate to the World and create a Bolt Table for Imperial Bolts in your Catalog Database. NEW BLTA /XIMP.BOLTS

The Length Table (LTAB) is a member of the Bolt Table. The legal members of the Length Table include the Diameter Table (DTAB) and TEXT. You might use the length table for grouping Imperial and metric sizes and for grouping the available lengths of stud bolts and machine bolts. In the example given, BOLT refers to a stud bolt. It could be that you would create LTABs for Imperial stud bolts, Imperial machine bolts, Metric stud bolts and Metric machine bolts.

2. Create a Length Table as a member of Bolt Table /XIMP.BOLTS

NEW LTAB /XIMP.BOLTS.LENGTH The Diameter Table (DTAB) is a member of the Length Table and can have no descendants. Each diameter table element has a Blength attribute (a REAL array) that is used to store all the bolt lengths for a particular kind and size of bolt. These lengths are simply a list of lengths that are available from a vendor. The diameter table is used in old bolting as a reference to find the correct length of bolt when wafer components between flanges require a bolt length longer than that required for a standard flange set.

3. Create diameter tables (members of LTAB) for ½”, 5/8”, and ¾” diameter Imperial bolts. Diameter tables are used to define the available bolt lengths for a particular diameter bolt. The Blength attribute is a Real array that allows up to 200 values. The values are set to default session units unless otherwise specified. State at least the four first letters of the attribute name, enter a space, and then open parentheses. Enter all the values that are required (make sure they are separated by a space) and then close the parentheses and press the Enter key.

Bltref

Nstdblength

Spref

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NEW DTAB /1/2ISTUDLENG Blen (2.25 2.1/2 2.3/4 3 3.25 3.5 3.75 4 4.25 4.5 4.75)

NEW DTAB /5/8ISTUDLENG Blen (2.1/2 2.3/4 3 3.25 3.5 3.75 4 4.25 4.5 4.75 5)

NEW DTAB /3/4ISTUDLENG Blen (3.5 3.75 4 4.25 4.5 4.75 5 5.25 5.5 5.75 6)

The Bolt List (BLIS) is an administrative element can be used to group single bolts by the flange rating and type (i.e. RF, RTJ, etc.) and the type of bolt being used (i.e. stud, machine, etc.).

4. Create a separate Bolt List (member of BLTA) for 150# & 300# RF Flanges. The Bolt List can be used to divide single bolts by the flange rating and type (i.e. RF, RTJ, etc.) and the type of bolt being used (i.e stud, machine, etc.). NEW BLIS /150#.RF..STUD NEW BLIS /300#.RF.STUD

The Single Bolt (SBOL) element is a member of the BLIS and has no members. Old bolting uses the following attributes:

The Nstdlength (Non-standard bolt length) reference attribute points to a Diameter Table in the event that additional wafer components are added to the flange set. The BDIAmeter (bolt diameter) attribute holds text that indicates the bolt diameter. The Length attribute is REAL and defines the length of bolt required for a standard flange set. The Noff (Number off) attribute is an INTEGER that stores the number of bolts required for a standard flange set. A naming convention for SBOLs is advisable. In the example given, X is used for training purposes. The first character is I, a code for Imperial. The second character is B, a code for stud bolt (you could use S if you like). The third character is the flange rating code (we used this for the Coco Table earlier) where B indicates 150#. The fourth character is the flange nominal bore, derived from Table 8 of the naming convention guide.

5. Create SBOLs (member of BLIS) for 1.1/2”, 2”, 3”, 4”, & 6” bore sizes for each BLIS.

SBOL Name Nstdblength Bdiameter Length Noff /XIBBH /1/2ISTUDLENG 1/2IN 3IN 4

/XIBBJ /5/8ISTUDLENG 5/8IN 3.25IN 4

/XIBBL /5/8ISTUDLENG 5/8IN 3.75IN 4

/XIBBN /5/8ISTUDLENG 5/8IN 3.75IN 8

/XIBBR /3/4ISTUDLENG 3/4IN 4IN 8

/XIBDH 3/4ISTUDLENG 3/4IN 3.75IN 4

/XIBDJ /5/8ISTUDLENG 5/8IN 3.5IN 8

/XIBDL /3/4ISTUDLENG 3/4IN 4.25IN 8

/XIBDN /3/4ISTUDLENG 3/4IN 4.5IN 8

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/XIBDR /3/4ISTUDLENG 3/4IN 5IN 12

The catalogue now requires the creation of the reference elements for the bolt specification components (SPCO), which includes a single “dummy” SCOM that all BOLT SPCOs will use for a Catref. This “dummy” SCOM must have the Gtype attribute set to BOLT, but it requires no point set or geometry set.

6. Navigate to SECT /XBOLT in the CATA /XCATA. Now create a component (SCOM) called /XDBOLT with the Gtyp attribute set to BOLT. There are no PTSET or GMSET references. This SCOM is a “dummy” for all bolt SPCOs to reference via the Catref attribute.

Each BOLT SPCO will also need a Detail Text (SDTE) and a Material Text (SMTE) for use by Isodraft.

a. Navigate to CATE /XBOLT.SDTE and create a Detail Text (SDTE) named /XDBOLT-D. Set the Rtext attribute (this is the Detail (Isodraft) field on the Detail Text Definition form) to ‘STUD BOLT CW HVY HEX NUTS’. No symbol key is required, so if you use the form, set only the name and the Detail fields.

b. Navigate to CATE /XBOLT.SMTE and create a Material Text (SMTE) named /XDBOLT-M. Set the Xtext attribute (this is the Material (Isodraft) field on the Material Text Definition form) to ‘ASTM A193-B7/2H’.

The piping specification /XA150 needs to be modified to complete the old bolting. First, the FLAN and flanged elements (valves, etc.) should be output in old format. The Bltref attribute should be set to point to the correct Single Bolt (SBOL). For example: HEADING NAME TYPE PBOR0 STYP SHOP CATREF DETAIL MATXT CMPREF BLTREF DEFAULTS - - - = = */2.0WNRF FLAN 2.00 WN TRUE /XAAFWBB0JJ /XAAFWBB0-D /SCH40.A105 =0 /XIBBJ */3.0WNRF FLAN 3.00 WN TRUE /XAAFWBB0LL /XAAFWBB0-D /SCH40.A105 =0 /XIBBL */4.0WNRF FLAN 4.00 WN TRUE /XAAFWBB0NN /XAAFWBB0-D /SCH40.A105 =0 /XIBBN

Now in new format, add the required bolts to SPEC /XA150 HEADING TYPE NAME PBOR0 CATREF DETAIL MATXT CMPREF BLTREF BOLT */2.0SB150 2.000 /XDBOLT /XDBOLT-D /XDBOLT-M =0 /XIBBJ BOLT */3.0SB150 3.000 /XDBOLT /XDBOLT-D /XDBOLT-M =0 /XIBBL BOLT */4.0SB150 4.000 /XDBOLT /XDBOLT-D /XDBOLT-M =0 /XIBBN

Mixed Bolt Sets If, for example, a component has connection points that have different bores and/or ratings, such as a relief valve, then you must create a Multiple Bolt List (MBLI) under the Bolt Table (BLTA). The MBLI is used to group Multiple Bolts (MBOL). You may wish to have a MBLI for 150#/150# connections, another MBLI for 300#/300# connections, another for 300#/150# connections, etc. The naming convention for MBOLs could be similar to the SBOL, with MBOL /IBDL-BN indicating a stud bolt sets for a 3” 300# flange and a 4” 150# flange. The SBRA (Special Bolt Reference Array) attribute of the MBOL can be set to a maximum of ten references to Single Bolts (SBOL). Note that the order of the SBOL names specified determines which SBOL is to be used for each connection point. If, for example, there was a component with flange connections at P1 and P3, you must enter a placeholder (Nulref for P2, i.e. SBRA /XIBBN =0 /XIBDL.

Once the flange SBOL has been selected, it is cross-referenced to obtain the detail and material text from the BOLT SPCO.

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Command line example: /XIMP.BOLTS (Navigate to a Bolt Table element (BLTA)) NEW MBLI /150#-300# (Create a new multiple bolt list) NEW MBOL /XIBBN-DL (Create a new multiple bolt) SBRA /XIBBN /XIBDL (Set the bolt reference array to the single bolts required.) Once the catalogue work has been completed, the piping specification must be updated so that 1) the Bltref attribute of all SPCOs having multiple flanges with different rating/bore should be set to the name of the appropriate MBOL. 2) the specification should contain BOLT SPCOs for all single bolts named in the reference array of the multiple bolt.

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New Bolting Exercise #19 1) Basic Flange to Flange

Note: Although this exercise has the user create a new bolt table and diameter tables, new bolting is no different than old bolting in this area. You could reference the existing bolt tables with no problem. PARAGON 1. At /WORLD create Bolt Table NEW BLTA /XBOLT-TA Note: Legal owners of BLTA include WORL SECT CATE. Find legal owners with syntax Q OLIST. 2. Create Length Table NEW LTAB /XBOLT-LENGTH 3. Create Diameter Tables NEW DTAB /XSTUD.625

NEW DTAB /XSTUD.75 4. Set DTAB Attributes for each BLENGTH (4 4.25 4.5 4.75 5 5.25) 5. Create Bolt List NEW BLIS /XSTUD.BOLT 6. Create Single bolt NEW SBOL /XSTUD.BOLT.625

Set SBOL Attributes NSTD /XSTUD.625 BITEM NUT WASH WASH NUT BITL 5/8 1/16 1/16 5/8 Xtralength 1/4 Create Single bolt NEW SBOL /XSTUD.BOLT.75

Set SBOL Attributes NSTD /XSTUD.75 BITEM NUT WASH WASH NUT BITL 3/4 1/16 1/16 3/4 Xtralength 1/4 7. Navigate to SECT /XBOLT, then Create > Category > Element /XBOLT.BTSE 8. Create Bolt Set Create > Bolt Set > Element /XSTUD8X.625.BTSE

9. Create Bolt Points Create>Bolt Set>P-point /XSTUD8X.625/1

Set BLTP Attributes NUMB 1 (Each of 8 bolts have unique no.) BDIA (.625IN) BTHK PARAM5 (flange thickness) BTYP BOLT

Copy BLTP 7 times, & Modify NUMB to match names

10. Create Bolt Set Create > Bolt Set > Element /XSTUD8X.75.BTSE 11. Create Bolt Points Create>Bolt Set>P-point /XSTUD8X.75/1

Set BLTP Attributes NUMB 1 (Each of 8 bolts have unique no.)

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BDIA (.75IN) BTHK PARAM5 (flange thickness) BTYP BOLT

Copy BLTP 7 times, & Modify NUMB to match names

12. Navigate to the following components and set the Bolt Reference Array attribute Name Blrfarray (This is a pointer to the bolt set)

/XAAFWBD0JJ /XSTUD8X.625.BTSE

/XAAFWBD0LL /XSTUD8X.75.BTSE

/XAAFWBD0NN /XSTUD8X.75.BTSE

: 13. Navigate back to SECTion /XBOLT

Create > CATEgory > Element /XBOLT.SCOM Create > Component /XCAP (Set Gtyp attribute to BOLT) (for later) Create > Component /XNUT (Set Gtyp attribute to BOLT) Create > Component /XSTUD (Set Gtyp attribute to BOLT) Create > Component /XWASH (Set Gtyp attribute to BOLT) Note: As far as the SPEC is concerned, the SPCO for a STUD, NUT, CAP, or WASHER

could point via the Catref to the same dummy SCOM with Gtyp BOLT. We are using separate SCOMs for clarity on the Detail and Material text. 14. Navigate to CATEgory /XBOLT.SDTE

Create > Detail Text (element type SDTEXT) for each: /XCAP-D Rtex ‘CAP SCREW’ (for later)

/XNUT-D Rtext ‘HEAVY HEX NUTS’ /XSTUD-D Rtext ‘STUD BOLTS’ /XWASH-D Rtext ‘RING WASHERS’ 15. Navigate to CATEgory /XBOLT.SMTE

Create > Material Text (element type SMTEXT) for each: /XCAP-M Xtext ‘A193 GR.B7 CLASS 2H’ (for later) /XNUT-M Xtext ‘A194 GR. 2H’ /XSTUD-M Xtext ‘A193 GR.B7 CLASS 2H’ /XWASH-M Xtext ‘A194’

The Catalog work is now complete. Now you must access the SPECON module to create the Bolting Specification.

16. Create Bolt Spec. /XBOLT.SPEC with the following table:

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NEW SPECIFICATION /XBOLT.SPEC BLTM 'NEW' HEADING TYPE NAME BDIA BTYP CATREF DETAIL MATXT CMPREF BLTREF DEFAULTS - - - STUD BOLT */.625STUD 0.625 STUD /XSTUD /XSTUD-D /XSTUD-M =0 /XSTUD.BOLT.625 BOLT */.625NUT 0.625 NUT /XNUT /XNUT-D /XNUT-M =0 =0 BOLT */.625WASH 0.625 WASH /XWASH /XWASH-D /XWASH-M =0 =0 BOLT */.750STUD 0.75 STUD /XSTUD /XSTUD-D /XSTUD-M =0 /XSTUD.BOLT.75 BOLT */.750NUT 0.75 NUT /XNUT /XNUT-D /XNUT-M =0 =0 BOLT */.750WASH 0.75 WASH /XWASH /XWASH-D /XWASH-M =0 =0 17. At the piping spec /X300, set these attributes:

Bspec /XBOLT.SPEC (Bolt Specification pointer) Bltm “NEW’ (Bolt Method)

Access the Design module and test the bolts 18. Enter DESIGN and create a Pipe and Branch with the Piping Specification set to /X300. Use a 4inch bore

Flange - Gasket – Flange.

19. Navigate to FLAN 1, select Query > General, and then pick the Specific option “Bolt Information” for a form to check if the bolting requirements are correct and working properly. Query syntax: Q P1 BOLT 1 SPRE Q P1 BOLT 2 SPRE Q P1 BOLT 3 SPRE Besides the Specification Reference, you can also query: 'SPRE/F' 'RTEX/T' 'STEX/T' 'TTEX/T' 'XTEX/T' 'YTEX/T' 'ZTEX/T' 'BDIA/METER' 'NOFF' 'BLEN/GTH' Access the Isodraft module and test the bolts 20. Generate an isometric of the branch or pipe. Verify the bolts in the BOM.

Bltref points to SBOL

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New Bolting Exercise # 20 2) Bolting Through Wafer Components

PARAGON 1. Go to DTAB /XSTUD.75 and /XSTUD.625, and increase BLENGTH of each to: BLENGTH (4 4.25 4.5 4.75 5 5.25 5.5 5.75 6 6.25 6.5 6.75 7 7.25 7.5 7.75 8 8.25 8.5 8.75 9) Notes: You must enter all values simultaneously. To output the correct decimal places, use syntax PREC OUT DIS 3 DPLS 2. To create new 150# Wafer Check Valve SCOMs, first create a new SECT /XCHECK under CATA /XCATA. Use the copy/rename syntax to copy CATE /TMVWBD0.

NEW CATE /XTMVWBB0 COPY /TMVWBB0 REN /TMV /XTMV Note that we are copying the category as an exercise. In practice, your specification could be set up to use the existing category as the Catref for your VALV SPCOs. Notice that the connection type of this wafer component is WFBB. The first letter of the connection type is set to “W” and this is important as the bolt calculation will add this dimension to the bolt length. Remember that a COCO should be in place to define WFBB to be compatible with GBB. SPECON 3. Output all VALV in new format from SPEC /A. Edit the file to remove all valves except the Wafer Check Valves, then run the new SPCOmponents into SPEC /XA150. Remember to change “NEW SPECIFICATION /A” to “OLD SPECIFICATION /XA150”. Add an “X” in front of the Catref name to point to your SCOMs. Remove the line for the SPEC that says BSPEC =0 as we do not want to unset this attribute. DESIGN 4. Modify the BRANch created in Exercise #1 to this configuration:

Flange - Gasket – Valve (WCK) – Gasket – Flange

5. Connect Branch Tail to last member.

6. With FLAN 1 as the CE, select Query>General and then click on the Specific gadget. Now select “Bolt Information”.to see if the bolting requirements are correct and working properly. ISODRAFT 7. Generate an isometric of the branch or pipe. Verify the bolts in the BOM. Remember: Wafer components with no special bolting needs do not require a bolt pointset.

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New Bolting Exercise #21 3) Wafer component with Cap Screws

PARAGON 1. Navigate to LTAB /XBOLT-LENGTH and create the following Diameter Tables: Syntax Set the Bolt Length array

NEW DTAB /XCAP.625 Blength (1.5in 1.75in 2in 2.25in 2.5in 2.75in 3in 3.25in 3.5in 3.75in 4in) NEW DTAB /XCAP.75 Blength (1.5in 1.75in 2in 2.25in 2.5in 2.75in 3in 3.25in 3.5in 3.75in 4in) 2. Navigate to BLTA /XBOLT-TA Create Bolt List NEW BLIS /XCAP.SCREW 3. Create Single bolt NEW SBOL /XCAP.SCREW.625

Set SBOL Attributes NSTD /XCAP.625 (DTAB pointer) BITEM WASH BITL 1/16 4. Create Single bolt NEW SBOL /XCAP.SCREW.75

Set SBOL Attributes NSTD /XCAP.75 (DTAB pointer) BITEM WASH BITL 1/16 5. Navigate to CATE /XBOLT.BTSE Create Bolt Set Create > Bolt Set > Element /XSTUD-CAP8X.625.BTSE

6. Create Bolt Points in order 1-8

Create>Bolt Set>P-point /XSTUD-CAP8X.625/1 etc. Set Attributes for BLTPoints 1,4,5,8

NUMBER 1 (1,4,5,8) BDIA (.625IN) BTHK (PARA[2] * .15) (3/4 of WCK flg thk) BTYP CAP

Set Attributes for BLTPoints 2,3,6,7 NUMBER 2 (2,3,6,7)

BDIA (.625IN) BTHK 0 BTYP BOLT

7. Create Bolt Set Create > Bolt Set > Element /XSTUD-CAP8X.75.BTSE

Create Bolt Points in order 1-8 Create>Bolt Set>P-point /XSTUD-CAP8X.75/1 etc. Set Attributes for BLTPoints 1,4,5,8

NUMBER 1 (1,4,5,8) BDIA (.75IN) BTHK (PARA[2] * .15) (3/4 of WCK flg thk) BTYP CAP

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Set Attributes for BLTPoints 2,3,6,7 NUMBER 2 (2,3,6,7)

BDIA (.75IN) BTHK 0 BTYP BOLT

8. Navigate to the following components and set the bolt reference:

SCOM (300# RF Wafer Checks) Blrf

/XTMVWBD0JJ /XSTUD-CAP8X.625.BTSE

/XTMVWBD0LL /XSTUD-CAP8X.75.BTSE

/XTMVWBD0NN /XSTUD-CAP8X.75.BTSE SPECON 13. Add new SPCOs for cap selection to Bolt Spec. (XBOLT.SPEC) OLD SPECIFICATION /XBOLT.SPEC HEADING TYPE NAME BDIA BTYP CATREF DETAIL MATXT CMPREF BLTREF DEFAULTS - - - STUD BOLT */0.625CAP 0.625 CAP /XCAP /XCAP-D /XCAP-M =0 /XCAP.SCREW.625 BOLT */0.75CAP 0.75 CAP /XCAP /XCAP-D /XCAP-M =0 /XCAP.SCREW.75 (DESIGN 14. Enter DESIGN and create a new Pipe and Branch with 3inch bore PSPE /X300B Elbow-Flange - Gasket – Valve (Wafer Check) – Gasket – Flange - Elbow.

15. Navigate to FLAN 1, then pick Query>General and then “Specific.” Now pick “Bolt Information” to see if the bolting requirements are correct and working properly. ISODRAFT 16. Generate an isometric of the branch or pipe. Verify the bolts in the BOM.

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Creating Nozzle Specifications #22

1. Enter Paragon and select Paragon > Spec Generator from the main application menu bar.

2. Select Create > Spec. World to create /XNOZZLE-SPECS. Enter “Nozzles” into the Description text gadget, ensuring that the first “N” is in upper case. Select “Equipment” from the Generic Type gadget, and then press the OK button when complete.

3. Select Create > Specification

After completing the form, press the OK button and the Build Specification form will appear.

4. Navigate to CATE /ANSI.CATA and then to SECT /ANSI.NOZZLE. Now scroll through the SECT members until you find a CATE with 300# RF Flanged Nozzles. On the right side of the Build Specification form, select (Para1) Name under the Name gadget. Click the Load button if necessary to display the nozzle SCOMs in the Category window.

5. On the Build Specification form, select Gtype > Add, which displays the Add Generic Type

form. Each Gtype entry will create a selector in the Spec. Enter a meaningful description such as “Ansi Flanged.” This will be displayed against the Nozzle Type and Generic Type on the Create Nozzle and Nozzle Specification forms in DESIGN. When satisfied, Apply and then Dismiss the Add Generic Type form.

6. The nozzles in the Category can be added to the Entries area by picking all required elements using the mouse. Once the selection has been made, press the Add button on the lower right side on the form. Similarly, any unwanted entries can be selected with the mouse in the Entries area, and then eliminated from the window by pressing the Remove button.

7. The SPEC can now be completed by selecting Control > Build on the Build Specification form.

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Quick Reports

Exercise No. 19 To extract a listing of catalog components detail text descriptions at PDMS 11.3 NT: From the application menu bar, select Utilities > Quick Reports.

1. You can output this report to the terminal by checking the Term option button OR

2. You can output the report to a text file by entering a new file name (Note: this option will allow you to use the search and replace functions available in any text editor.).

File name C:\TEMP\CAT_LIST.TXT Types SDTE With (leave blank) Columns OWN NAME RTEX Hierarchy /ANSI.CATA /GEN.CATA /MANU.CATA

Run the report.