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SA Cat II, SA Cat I, 1800 RVR Cat I (ILS)
150 ft DH
GS Antenna
Threshold
200 ft DH
2400 RVR, Std Cat I
1400 RVR, SA Cat I
1800 RVR, Cat
I/LPV<250’HAT
100 ft DH
1200 RVR, SA CAT II
AC: Autopilot (AP) or Flight Director (FD) or HUD to DA
GRD: RVR (1)
All benefits achieved with MALSR lighting only.
No ALSF-2 required for SA Cat II. Immediate savings
on order of $6M; difference in price of MALSR and ALSF-2 systems.
AC: HUD to DH
GRD: RVR (1)
AC: AL or HUD to Touchdown
GRD: RVR (2)
2011 forward:
•SA CAT I – 142 eligible now
– 28 need RVR install
•SA CAT II – 38 eligible now*
– 48 need LOC ant.
Upgrade=$2.4 M
*165% Increase in CAT II
Special Authorization (SA) CAT I
• 150 DH (RA), 1400 RVR CAT I minima
• Requires:
– HIRL and MALSR, SSALR, or ALSF
– Unrestricted CAT I ILS
– Use of HUD to DH
– OpSpec, MSpec, or LOA approval (C052)
• Will reduce CAT I mins at
162 CAT II/III runways
– 94 additional CAT I candidates
Special Authorization (SA)
CAT I
http://www.faa.gov/about/office_or
g/headquarters_offices/avs/office
s/afs/afs400/afs410/
Special Authorization (SA) CAT II
• TDZL, RCL, and ALSF-2 not required
• Requires:
ILS flight checked to CAT II standards
HIRL and MALSR, SSALR, or ALSF
OpSpec/MSpec/LOA (C059)
Chart Note: Reduced Lighting: Requires specific OpSpec, MSpec, or LOA approval and autoland or HUD to touchdown.
Potential US Special Authorization CAT II
142 Additional
Approaches
0
50
100
150
200RVR Added
Potential WithNo AdditionalRVRs
Current Cat II
40
44
98 +40
182 Total
98 +40
138
0
50
100
150
200
110 Additional
Airports
35
40 70 +35
145 Total
70 +35
105
SA CAT I/II Implementation • SA CAT I
– Add mins at existing CAT II/III locations
– New SA CAT I runways
• SA CAT II – Suitably equipped runways
– Runways that require equipment upgrades ($$$)
• Process – AWO coordinates with other FAA LOBs
– 18-24 month publication schedule
– ILS monitor and “burn-in” requirements
EFVS/SVS/CVS Update • EFVS to Touchdown Rulemaking:
– Draft preamble to NPRM/ Preliminary team concurrence due 12/2/11
– NPRM published mid 2012
• AC 90-106 –
– Revise/AC 90-EFVS to include guidance material and means of compliance for EFVS to Touchdown, dispatch relief, approach ban relief, new training requirements
– Delete airworthiness sections
• FAAO 8900.1 – Inspector Guidance --
– EFVS to 100 ft HATh:
– EFVS to Touchdown, Including Dispatch and Approach Ban Revisions:
• Guidance for Issuing OpSpec/MSpec/LOA C048/C348 --
– Inspector guidance for issuing C048/International Aviation
• LOA Issue for Part 91 Operators Conducting International Operations
• EFVS/SVS Research Requirements –
– EFVS to Touchdown and SVS on SA CAT I – develop research requirements and test points with NASA Langley for simulator study (crewed operations)
– SMGCS credit for EFVS/EVS – developing research requirements and test points with NASA Langley and Volpe to address symbology, charting, parallax and display placement evaluation for EVS HDD, and other operational considerations. (AJP-61 funding)
• SVS Proof of Concept –
– One submitted by an OEM. Coordinate with AIR-130, AFS-410, TAD, SAD, and cognizant ACO on a proof of concept for SVS on a SA CAT I approach
• New Initiatives: EVS/EFVS Low Vis Taxi/Takeoff Credit
AFS-410: Flight Operations Branch
Today
Emerging EFVS
Capabilities
SVS Primary
Flight Displays Combined
EFVS/SVS
Apr 1 - June 1, 2011 WAAS Quarterly PAN Report
Parameter CONUS
Site/Maximum
CONUS
Site/Minimum
Alaska
Site/Maximum
Alaska
Site/Minimum
95% Horizontal
Accuracy
Grand Forks
1.797 meters
Denver
0.527 meters
Barrow
0.612 meters
Juneau
.708 meters
95% Vertical
Accuracy
Grand Forks
2.2069 meters
Billings
0.822 meters
Kotzebue
1.45 meters
Juneau
1.094 meters
Implementation Status March 2012
http://www.faa.gov/nextgen/flashma
p/
Fiscal Year-End Plan for 2012 – 500 Radio Stations (467 in CONUS; 33
AK)
424 Radio Stations Constructed (391 in CONUS; 33 in Alaska)
418 Radio Stations Reporting on the SBS Network (385 in CONUS; 33 in
AK)
75 Radio Stations Under Construction or in Final Design (75 in CONUS; 0
in AK)
371 Operational Radio Stations
Ground-Based Interval Management - Spacing
Purpose: Minimize vectoring during arrival
sequence and maximize the
opportunities for OPDs and FIM-S
operations
Goal: Achieve optimal spacing intervals
between arriving aircraft using an
ATC based spacing/metering tool
Objective: Ensure NAS implementation of GIM-S
functionality to begin benefits accrual
(GIM-S IOC)
Partners: TBFM, ERAM, ATO-E/T SOS, STARS
GIM-S System
Test Plan
Dec 2013
ERAM S/W
Delivery –
R4
Jan 2014
GIM-S IOC
Sep 2014
Complete
In Progress
Not Yet Started
Unfunded
Arrival IM-S
CONOPS
v1.5.1
Mar 2011
GIM-S
Req Docmt
v2.0
Nov 2011
TBFM
System
Design
Review
Nov 2011
Flight Deck Based Interval Management
Purpose: Reduce fuel burn, noise and emissions, while
maintaining high throughput and efficient flight
operations throughout the NAS
Goals: Develop and validate flight deck technology
to enable FIM-S Operations
Objective: Produce a FIM MOPS
Assist in certification of avionics
Assist one airline in obtaining Operational
approval with benefits accrual
Partners - US Airways, ACSS, UPS
FIM-S SPR
Mar 2011
3rd Party
Flight ID
(TFID)
Final Report
Feb 2013
ARC
Final Report
Nov 2011
Complete
In Progress
Not Yet Started
Unfunded
IM CONOPS
v3.0
June 2012
FIM
MOPS
Sept 2013
ITP Application Overview Purpose: Provide operational benefits in non-surveillance airspace by
enabling “in-trail” climbs/descents at reduced separation distances
Goal: Employ ITP in oceanic air carrier operations (revenue service)
Objectives: Validate operational performance and economic benefits of ITP
Develop and validate ADS-B ITP MOPS material
Partners: United Airlines,
Honeywell, Goodrich,
Airservices Australia,
Airways Corp NZ
FL360
FL340
FL350
Desired Altitude
Standard Separation
ITP Separation
Standard
Operational
Approval
August 2011
Begin Flight
Evaluation
August 2011
Expand into
PACOTS
Dec 2011
ITP MOPS
Approval
Dec 2011
Complete
In Progress
Not Yet Started
ITP Operational
Evaluation Completed
August 2012
Data Analysis
Results
(Interim)
March 2012
Next Steps • Develop Business Case for Next Useful Segment 2014 to 2020
• Continue Requirements Development / Validation for ADS-B Airborne Applications (i.e. In Trail Procedures, Traffic Situation Awareness with Alerts, and Flight Deck Interval Management)
• Incentivize Aircraft Retrofits and Forward Fit with MOA’s
• Review Alliances and Private – Public Partnerships
– Virginia Department of Transportation (Leesburg)
– Colorado Department of Transportation (Blended Airspace Concept)
– Boeing / United Airlines / Rockwell Collins
• Begin to transition work funded through the F&E Account to Operations:
– SBS Monitor by FY2014
– WAM Phase I (Juneau and Colorado) by FY2014
– Subscription charges on an incremental basis from FY2016 through FY2020
26
Current Status of PBN Projects
PBN Inventory: 483 RNAV SIDs/STARs; 305 RNP ARs; 297 RNAV
routes include 91 En route (Q), 77 Low Altitude (T) and 2 helicopter
(TK)
Over 9,000 LPV’s, LNAV/VNAV and GPS procedures
Q-Routes Status
Q-routes inventory (light blue) – 91 – including recently developed ZNY
routes
ZSE and ZAU routes under development
Streamlined naming/numbering allocation
RNAV STAR – RNP AR Merge
Increases efficiency and shortens initial segments
Allows continuous flight path to runway
Reduces ATC and Pilot workload
Eliminates crossing of parallel runways and runway transition branches
De-conflicts airspace (over-flight corridor)
Suitably equipped and authorized operators will reap significant benefits from the vertical profiles and reduced track miles of these integrated PBN flight procedures
Projects underway at SEA, RDU, MCO, IND, ELP, PBI, BHM, MSP, JAX, SAV, ABQ and OKC
RNP SID Prototype Projects • RNP departure procedures and
operations are not available today
• PBN P&S Group is developing pilot projects for five airports (ATL, BOS, PSP, CLT & LAS) to evaluate RNP standard instrument departure prototypes
• RNP SIDs will enhance path predictability and de-conflicting capability – RF legs featured
• CPARK RNP SID at ATL under development - will keep heavy jets away from noise sensitive areas – November 2012
CPARK RNP SID at ATL
Optimization of Airspace and Procedures in the Metroplex (OAPM)
• Takes a systems approach to PBN initiatives and airspace design
• Provides a geographic focus to problem solving
• Delivers an expedited process for integrated airspace and procedures efforts
• Uses collaborative FAA and Industry teams
• Uses an educated prioritization process
• Enables predictable and repeatable flight paths
• Reduces task complexity while maximizing safety and efficiency
31
OAPM: Current Timeline
3 6-9 months 12-18 months for EA 9-15 months 3-6
Scope of effort defined
Alternative designs
developed
Design and Procedure
Development
Operational and Environmental
Review
Implementation and
Training
Post-Implementation Review and Modifications
Study and
Scoping
Preferred design determined
Implementation completed
Study Design and Implementation
Key Decision Points
Time associated with decision points may be several weeks to months Total elapsed time averaging approximately 3 years
Note: Environmental involvement required at all stages of the process
32
Proposed OAPM Schedule
• Proposed plan meets commitment to implement changes and provide benefits at all sites by 2017
• Streamlining techniques from Houston Pilot may be applied to future sites to further accelerate benefits
DC D D D D E E E E E I I I I P P
No Tex D D D E E E E E I I I I P P
Charlotte S D D D E E E E E I I I I P P
No Cal S D D D E E E E E E I I I I P P
Houston S S D D E E I I I I P P
Atlanta S S D D D E E E E E I I I I P P
So Cal S S D D D E E E E E I I I I P P
Florida S S D D D E E E E E I I I I P P
Chicago S S D D D E E E E E I I I I P P P
Phoenix S S D D D E E E E E I I I I P P P
Memphis S S D D D D E E E E I I I I P P P
Cleveland /Detroit S S D D D E E E E E I I I I P P P
Boston S S D D D E E E E E I I I I P P P
Key
S Study
D Design
E Evaluate
I Implement
P Post Eval
33
Supporting OAPM Projects
OAPM Project PBN or Legacy Airspace Project
OAPM projects implement Integrated PBN procedures at major airports
Washington, North Texas, Charlotte and Northern California, Houston studies are complete – Design work initiated
Study Team work underway at Atlanta and Southern California
disclaimer
• PDCs were designed by engineers without pilot input
• PDCs work as engineered
• PDCs display routing information as they are contained in the HOST automation
• PDCs are not in parallel with voice communicated clearances
• SID does not always first item on clearance
• En route transitions are not clearly identified
TERPZ2 RNAV SID - KBWI
• More than a dozen aircraft have departed on the TERPZ2 and have failed to program the en route transition on the SID
• This results in bypassing several waypoints, followed by a pilot deviation
• Historically, this has been an issue in Boeing and MD FMS’s
• Several similar issues reported on the NOBLY DP in DFW
Most common PDC Departure Issue
The SID is buried at the bottom of the PDC
But are you
“cleared as
filed?”
LAS Mitigations
• Delta Air Lines does not file the SID
• SID is not contained on pilot’s flight release
• PDC becomes soul source for SID reference
• LAS ATCT reached out to operators to file STAAV DP as the default for the appropriate transitions
• Results
• 10 – 15 deviations per month reduced to 1 in 120 days
Canadian RNAV Phraseology
restric
New Canadian SID and STAR Phraseology
On February 9, 2012, Canada will implement SID / STAR phraseology requiring aircraft to comply with published SID / STAR
altitude restrictions unless specifically cancelled by ATC. This change differs from FAA procedures outlined in AIM 4-4-10g
which states that any new altitude clearance cancels any previous altitude restriction unless that restriction is restated. To
summarize:
In Canada, an aircraft assigned a new altitude on a SID / STAR is still expected to comply with all altitude restrictions.
In the US, an aircraft assigned a new altitude on a SID / STAR deletes all published altitude restrictions.
Canadian and US phraseology differences that are summarized in the tables below:
ATC Instructions - FAA FAA Requirements DESCEND VIA (STAR Designation) Requires the aircraft to navigate laterally and vertically to meet all published
restrictions depicted on the STAR.
(Aircraft already on a STAR) DESCEND
AND MAINTAIN (altitude)
Aircraft may descend unrestricted to the assigned altitude unless published
restrictions are reissued.
COMPLY WITH RESTRICTIONS Aircraft must comply with all published restrictions. May be used in lieu of
re-issuing individual restrictions.
There is no “DESCEND VIA” in Canada.
ATC Instructions – Canada Canada/ICAO Requirements
VIA (STAR designator) DESCEND TO
(altitude) or CLEARED (approach
procedure)
Clearance via a STAR authorizes the aircraft to follow the STAR
lateral track only. Once ATC issues descent or approach clearance,
published altitude restrictions above the assigned altitude remain
mandatory unless specifically cancelled by ATC.
(Aircraft already on a STAR) DESCEND TO
(altitude)
Published altitudes above the assigned altitude remain mandatory
unless specifically cancelled by ATC.
DESCEND TO (altitude), ALL STAR
ALTITUDE RESTRICTIONS CANCELLED
or
DESCEND TO (altitude), ALTITUDE
RESTRICTION AT (fix) CANCELLED
Examples of ATC phraseology for cancelling altitude restrictions.
RECOMMENDATIONS:
Follow company guidance, SOP, and flight manual procedures.
If the FAA is providing ATC services, follow FAA procedures, even if over Canadian airspace.
If Canada is providing ATC services, follow Canadian procedures, even if over US airspace.
When in doubt, ask ATC!
While Canada is making this change to better align with ICAO standards, ALPA is continuing to work with FAA and NAV
CANADA to better align US and Canadian procedures going forward.
Please provide any feedback to your Central Air Safety Committee and to [email protected].
Captain Chuck Hogeman
Aviation Safety Chairman
Feb 1, 2012
2012- 1
Altitude Restriction or NOT
•Altitude Restrictions Required:
“Climb On SID to 10,000”
•Altitude Restrictions Cancelled:
“Open Climb 10,000”
CY 12 14 16 18 20 22 24 26 28 30
Segment 1 Phase 1
- Tower Service
Segment 1 Phase 2
- Initial En Route
Services
Departure Clearances (DCL)
Best Equipped Best Served DCL Tower IOC
Avionics
En Route
IOC Initial Services
& Infrastructure
Subsequent En
Route Capabilities
Transfer of Communications
Initial Check-In
Altitudes / Altimeter Settings
Go Button / Airborne Reroutes
Tailored Arrivals
Controller Initiated Routes
Direct-to-Fix
Crossing Restrictions
Advisory Messages
Speed and Headings
Beacon Codes
Stuck Microphone
Services Strategy Roadmap
TFM Data Comm (OI#44)
RTCA TF5 Operation
Data Comm Routine
Communications (OI#17)
Reroutes (OI#16)
Departure Clearance (OI#39)
Ground System FANS
FANS 1/A+ over VDL-2 transitioning to 214/78 Baseline 2
214/78 Baseline 2
Range for start of deployment based upon funding and Baseline 2 availability
Segment 2
- Advanced Services
4D Trajectories
D-TAXI Segment 2
IOC
Tailored Arrivals (OI#42)
Data Comm Routine
Communications (OI#17)
Segment 1 Phase 3
- Additional En
Route Services
DCL Trials Overview
• DCL – Data Communications Departure Clearance Service:
- Pre-Departure Clearance (PDC) suppressed for DCL flights
- Initial and revised clearances to participating FANS aircraft
- Pilot logs into Trials automation via commercial VHF links
- Route information auto-loadable into FMS
- Expected to reduce disrupted out / off delays
- Industry tactical utilization of DCL revised clearances expressed
• Data Comm Trials Automation Platform (DTAP) independent of current TDLS
• It’s REAL, Contract Awarded 1248P 4/4/12
• Trials expected to run for 1 year/site under Test NCP’s
47
DCL Trials Overview (cont’d)
• Data Comm Implementation Team (DCIT) solicited for potential trials sites - 21 sites reduced to 14, then 9
- Regional / Site visits conducted to determine site viability
- Collected Data fed into Decision Lens Tool - FAA, NATCA and industry participation on panel
• MEM, EWR & ATL selected to host DCL Trials
48