Instrument Procedure Design and Operational Differences

Slides:



Advertisements
Similar presentations
Course Schedule three Assessment Scenarios Discussion Groups Discussion Groups.
Advertisements

Stabilized Constant Descent Angle NPA’s
CPL Air Law ATC Chapters 3.
CPL Air Law ATC Chapters 8.
Air Traffic Management
Instrument Approach Charts
Contact Maneuvers.
Instrument Ground Training Module 6
1 #4295. Which frequency should you expect to use for Regional Approach Control, control tower, and ground control respectively at DFW when coming from.
Downloaded from Tampa FAASTeam Welcome Tonight’s Presentation IFR Refresher Downloaded from
Normal Procedures Cirrus SR-22 Transition Training 8/16/04.
O/Cdt. Darcel “I picked the wrong day to stop teaching Air Law”
Federal Aviation Administration The Benefits and Challenges of Implementing Performance Based Navigation (PBN) Instrument Flight Procedures By: Presented.
Instrument Ground Training Module 4 & 5
Approach Charts and Procedures
ENROUTE Chapter 5 Review. Enroute Charts §High Altitude l Above 18000’ l jet routes §Low Altitude l Below 18000’ l Victor airways.
Airport Approach Simulation
“Teaching the Science, Inspiring the Art, Producing Aviation Candidates!” Instrument Flying A Brief Overview Written for the Notre Dame Pilot Initiative.
References: FAR Part 61, Part 91, AIM
Localizer Approaches This presentation assumes you have reviewed the ILS presentation first.
September 2002-MoroccoARAB INSTRUMENT PROCEDURE DESIGN SEMINAR Instrument Procedure Designer Training and continuous training How to get, improve.
Letting Time Pass By - How to Hold.
AIR LAW – FLIGHT RULES Airspace classification -1 A.Above ft (FL200) Instrument (IFR) flights only B Visual (VFR) and Instrument (IFR) flights* C.All.
ELEC 4600 RADAR & NAVIGATION
1. A man flies a kite with a 100 foot string
Circle to Land.
IFR Departures and Arrivals: Tips, Tricks, and Avoiding Common Errors
Flight Mission AREA 1 COURSE RULES GOUGE. FAM-08 AREA 1.
“Single-Engine Failure After Takeoff: The Anatomy of a Turn-back Maneuver” Part 3 Les Glatt, Ph.D. ATP/CFI-AI VNY FSDO FAASTeam Representative
Stabilized Constant Descent Angle NPA’s
GERMAN AIRSPACE For Fixed Wing Aviators 7th ATC Flight Detachment.
AIRSPACE What’s old –What’s new!.
Aeronautical information
OPERATIONAL SUPPORT AIRLIFT AGENCY DEPARTURE & CONTINGENCY PROCEDURES CW3 MICHAEL R. JEWETT OSAA FLIGHT STANDARDS CW3 MICHAEL R. JEWETT OSAA FLIGHT STANDARDS.
Rob Eagles Director ASIA PACIFIC Safety, Operations & Infrastructure.
NATOPS IC Mandatory Callouts Current as of February 2010.
VDA – Vertical Descent Angle
Chapter 8 Differences Between Jeppesen Database & Charts
READY OR NOT THE FLIGHT REVIEW. FLIGHT REVIEW A FLIGHT REVIEW IS REQUIRED WITHIN THE PREVIOUS 24 CALENDAR MONTHS TO ACT AS PIC.
6-1 Design of UAV Systems UAV operating environmentsc 2002 LM Corporation Lesson objective - to discuss UAV Operating Environments including … National.
Leading Cadet Training
RECITE A PRAYER…(15 SECONDS). ATM TOPIC 1. INTRODUCTION TO AIR TRAFFIC MANAGEMENT,TYPE OF CONTROL AREAS & FLIGHT PLAN 2. AERODROME CONTROL 3. AREA CONTROL.
AIR FORCE ADVANCED INSTRUMENT SCHOOL Procedures & Techniques I n t e g r i t y - S e r v i c e - E x c e l l e n c e.
AIR TRAFFIC CONTROL.
National Airspace System
INSTRUMENT INSTRUMENT FLIGHT APPROACH RULES CHART APPROACH PROCEDURE
Review Chapter 4-8. Departure and Arrival Charts DPs, STARs and visual approaches are routinely assigned by ATC DPs and STARs are issued to simplify clearance.
Arrival Charts and Procedures
REGULATIONS FOR ARMY AIRCRAFT CW2 ROBERT GOEBEL. Administrative Please turn off all: –Cell phones –Beepers –Palm Pilots –Gameboys –Stereos –Watch alarms.
Overview of TP312 5th (draft) Structure Definitions
99-11 UH-60 IPC IFR PUBLICATIONS & REGULATIONS WOPA.
Tampa FAASTeam Welcome Tonight’s Presentation IFR Refresher.
PO 401 General Criteria EO Common Information
Holding Procedures.
INSTRUMENT DEPARTURE PROCEDURES JAN MAR 2003
AIR TRAFFIC ONTROL.
U.S. AIRSPACE.
OPERATIONS ON PARALLEL OR NEAR-PARALLEL RUNWAYS
PO 401 General Criteria EO Missed Approaches
PO 402 Take Off and Landing Minima EO Altitudes
BWI Roundtable Presentation
Association of California Airports Instrument Flight Procedures
SEPARATION Module 1, Topic 1.
Oceanic and International Operations
Welcome to the IMC Club Meeting
Welcome Tampa FAASTeam Ye Mystic AirKrewe Tonight’s Presentation
  (1.5 hours) (2.0 hours) Monday (14/07) Registration Welcome ( M/FPP)
Magesh Mani BSACIST.
ATC Clearances Chapter 3 Section C.
RNAV – process in Tartu How EAVA can co-operate with service providers ONE example - still in progress,,
Presentation transcript:

Instrument Procedure Design and Operational Differences TERPS vs. PANS-Ops Instrument Procedure Design and Operational Differences Presented By Mr. Guy Gribble General Manager, International Flight Resources, LLC Current as of APR 2013

TERPS vs. PANS-Ops They Are The Same, Only Different Departures Holding Arrival Maneuvering Approaches Missed Approaches PANS-Ops Volume II, Part 1, Section 1, Chapter 3, “Units of Measurement” TERPS Volume 1, Chapter 2, Paragraph 210, “Units of Measurement”

TERPS vs. PANS-Ops They Are The Same, Only Different Physics, Aerodynamics, Mathematics Units of Measure US Customary Units vs. Meters Conversions ? Rounding of Numbers Fix Tolerances and Accuracy Flight Technical Errors PANS-Ops Volume II, Part 1, Section 1, Chapter 3, “Units of Measurement” TERPS Volume 1, Chapter 2, Paragraph 210, “Units of Measurement”

TERPS vs. PANS-Ops Who is In Charge Here ? State (Country) Aeronautical Information Publication, AIP Flight Check, Maintain Publish, Revise Design Criteria Standard design development Role of the Procedure Designer Pilot operational procedures ICAO, International Civil Aviation Organization SARPS vs. Documents

TERPS vs. PANS-Ops Where Does This Data Come From ? State (Country) Commercial Provider WGS-84 Compliant ? Airport Country Somewhere ? ICAO Annex 11, Paragraph 2.28, “Common Reference System” ICAO Annex 14, Paragraph 1.3, Common Reference System” NOAA FAQ’s on WGS-84, http://www.ngs.noaa.gov/faq.shtml

NAD 83 datum system is acceptable for GPS positioning Russia China India NAD 83 datum system is acceptable for GPS positioning Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

TERPS vs. PANS-Ops Standard Instrument Departure “Normal” Operations Maintain the Ground Track Maintain the Required Climb Gradient X X TERPS, Volume 1, Chapter 2, Paragraph 2e  PANS-Ops Volume 1, Part 1, Section 2, Chapter 1, Paragraph 1.1.2 PANS-Ops Volume 2, Part 1, Section 3, Chapter 1, Paragraph 1.7 “Abnormal and Emergency Operations” 14 CFR 25.121, FAA Airworthiness Standards, Transport Category Airplanes CS 25.121, EASA Certification Specifications for Large Aeroplanes

TERPS vs. Pans-Ops vs. FAR 25 Standard Instrument Departure Vertically Speaking 5 M MSA 35 Ft ? MSA 15? 1,500 Feet AFL Departure End Of Runway DER Country survey of obstructions, BGBW, Narsarsuaq, Greenland 14 CFR 25.121, FAA Airworthiness Standards, Transport Category Airplanes CS 25.121, EASA Certification Specifications for Large Aeroplanes

TERPS vs. PANS-Ops Standard Instrument Departure If straight out will not work… Climb faster over obstacle Turn away from obstacle Keep in sight, “See and avoid” Climb in a safe sector away from obstacle Speed limiting Combinations of any of the above X X PANS-Ops Volume 2, Part 1, Section 3, Chapter 2, Para. 2.7, “Procedure Design Gradient” TERPS Volume 4, Chapter 1, Paragraph 1.4.4 “Multiple Climb Gradient Application” PANS-Ops Volume 2, Part 1, Section 3, Chapter 3, Paragraph 3.3, “Turning Departures” TERPS Volume 4, Chapter 3, “Departure Routes”

TERPS vs. PANS-Ops Standard Instrument Departure Climb Faster Over Obstacle MSA 35 Ft ? .8% MOC 3.3% 2.5% OIS MSA 5 M 152 Feet per NM OCS 48 Feet per NM ROC 200 FEET PER NM Requires 350'/NM Until Reaching MSA PANS-Ops Volume 2, Part 1, Section 3, Chapter 2, Para. 2.7, “Procedure Design Gradient” TERPS Volume 4, Chapter 1, Paragraph 1.4.4 “Multiple Climb Gradient Application” PANS-Ops Volume 2, Part 1, Section 3, Chapter 3, Paragraph 3.3, “Turning Departures” TERPS Volume 4, Chapter 3, “Departure Routes” Maintain 4.3% Until Reaching 1700MSL DER

TERPS vs. PANS-Ops Standard Instrument Departure Turn Away From Obstacle ≈ 2 NM Initial Climb Area ≈ 3.5 KM Area 1 500' 500' 15˚ Splay Take-Off Run Available= Runway available for ground run (No clearway) Rule of Thumb: 10%increase in TOGW= 20%increase in TO Distance PANS-Ops Volume 2, Part 1, Section 3, Chapter 3, “Departure Routes” TERPS Volume 4, Chapter 1, Paragraph 1.6, “Initial Climb Area” 14 CFR 121.189, 135.379, EU-Ops 1.495 ICAO Annex 6, Part 1, Attachment C, Para. 5, “Take-off Obstacle Clearance Limitations”

TERPS vs. PANS-Ops Standard Instrument Departure Turn Away From Obstacle ≈ 2 NM Initial Climb Area ≈ 3.5 KM Area 1 500' 500' 15˚ Splay Take-Off Run Available= Runway available for ground run (No clearway) Rule of Thumb: 10%increase in TOGW= 20%increase in TO Distance PANS-Ops Volume 2, Part 1, Section 3, Chapter 3, “Departure Routes” TERPS Volume 4, Chapter 1, Paragraph 1.6, “Initial Climb Area” 14 CFR 121.189, 135.379, EU-Ops 1.495 ICAO Annex 6, Part 1, Attachment C, Para. 5, “Take-off Obstacle Clearance Limitations”

X TERPS vs. PANS-Ops Standard Instrument Departure, TERPS Keep in Sight and Tell Pilot to "See and Avoid" X Visual Climb Over Airport PANS-Ops Volume 2, Part 1, Section 3, Chapter 5, “Published Information for Departures” TERPS Volume 4, Chapter 4, “Visual Climb Over Airport” PANS-Ops Volume 2, Part 1, Section 3, Chapter 4, “Omnidirectional Departures” TERPS Volume 4, Chapter 2, “Diverse Departures” 15˚ MAX Hazard Beacons on top of hill to the east clearly visible or Take Off Minimums 600/1 Take Off Minimums 800/2

No Departure Turns East TERPS vs. PANS-Ops Standard Instrument Departure, TERPS Climb in a Safe Sector 25 or 46 NM X Diverse Departure Evaluation Take-Off Run Available= Runway available for ground run (No clearway) Rule of Thumb: 10%increase in TOGW= 20%increase in TO Distance 15˚ MAX No Departure Turns East

X TERPS vs. PANS-Ops Standard Instrument Departure, PANS-Ops Climb in a Safe Sector PANS-Ops Volume 2, Part 1, Section 3, Chapter 5, “Published Information for Departures” TERPS Volume 4, Chapter 4, “Visual Climb Over Airport”   PANS-Ops Volume 2, Part 1, Section 3, Chapter 4, “Omnidirectional Departures” TERPS Volume 4, Chapter 2, “Diverse Departures" X

X TERPS vs. PANS-Ops Standard Instrument Departure, PANS-Ops Climb in a Safe Sector No Turns Eastbound X PANS-Ops Volume 2, Part 1, Section 3, Chapter 5, “Published Information for Departures” TERPS Volume 4, Chapter 4, “Visual Climb Over Airport”   PANS-Ops Volume 2, Part 1, Section 3, Chapter 4, “Omnidirectional Departures” TERPS Volume 4, Chapter 2, “Diverse Departures”

TERPS vs. PANS-Ops Standard Instrument Departure “Minimum Safe Altitude”, MSA TERPS 25NM terrain only, no guarantee of navaid reception TERPS Volume 1, Chapter 2, Paragraph 221, “Minimum Safe/Sector Altitudes” Aeronautical Information Manual, Paragraph 5-4-5c “Minimum Safe/Sector Altitude” Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

TERPS vs. PANS-Ops Standard Instrument Departure “Minimum Sector Altitude”, MSA PANS-Ops TERPS Volume 1, Chapter 2, Paragraph 221, “Minimum Safe/Sector Altitudes” Aeronautical Information Manual, Paragraph 5-4-5c “Minimum Safe/Sector Altitude” PANS-Ops Volume 1, Part 1, Section 1, Chapter 1, “Definitions: Minimum Sector Altitudes” PANS-Ops Volume 2, Part 1, Section 4, Chapter 8, “Minimum Sector Altitudes (MSA)” ICAO Annex 4, "Definitions" and Appendix 2 Item #171, 172 Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

TERPS vs. PANS-Ops Standard Instrument Departure “Minimum Safe Altitude”, MSA PANS-Ops TERPS Volume 1, Chapter 2, Paragraph 221, “Minimum Safe/Sector Altitudes” Aeronautical Information Manual, Paragraph 5-4-5c “Minimum Safe/Sector Altitude” PANS-Ops Volume 1, Part 1, Section 1, Chapter 1, “Definitions: Minimum Sector Altitudes” PANS-Ops Volume 2, Part 1, Section 4, Chapter 8, “Minimum Sector Altitudes (MSA)” ICAO Annex 4, "Definitions" and Appendix 2 Item #171, 172 Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

TERPS vs. PANS-Ops TERPS vs. PANS-Ops Holding Timing PANS-Ops >14,000 = 1.5 Minute ≤ 14,000 = 1 Minute PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, Paragraph 3.3 “Flight Procedures for Racetrack and Reversal Procedures” FAA’s Instrument Procedures Handbook, FAA-H-8261-1A Chapter 3, Page 3-25, “High Performance Holding” PANS-Ops Volume 1, Part 1, Section 6, Chapter 1, Paragraph 1.4.9 “Time/Distance Outbound” FAA’s Aeronautical Information Manual, Chapter 5, Section 3, Para. 5-3-7 “Holding”   TERPS

TERPS vs. PANS-Ops TERPS vs. PANS-Ops Holding Speeds PANS-Ops >34,000 = IMN.83 >20,000 ≤ 34,000 = 265 KIAS >14,000 ≤ 20,000 = 240 KIAS ≤ 14,000 = 230 KIAS >14,000 = 240 >6,000≤ 14,000 = 220 KIAS ≤ 6,000 = 210 265 230/210KIAS 200 KIAS PANS-Ops Volume 2, Part 2, Section 4, Chapter 1, “Conventional Holding Criteria” FAA Order 7130.3A, “Holding Pattern Criteria”, Chapter 1, Chapter 3 PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, Para. 3.3.8, “Shuttle” Transport Canada, AIM RAC 10.0, Paragraph 10.9 “Shuttle Procedure” NATS UK, AIP Enroute 1.5 “Holding, Approach and Departure Procedures” Chapter 3, Paragraph 3.6 “Shuttle Procedure” TERPS

TERPS vs. PANS-Ops Holding Evaluated Airspace PANS-Ops Volume 2, Part 2, Section 4, Chapter 1, “Conventional Holding Criteria” PANS-Ops Volume 2, Part 3, Section 3, Chapter 7, “RNAV Holding Criteria” FAA Order 7130.3A, “Holding Pattern Criteria”, Chapter 1

TERPS vs. PANS-Ops X X XX XX Arrivals and Maneuvering Procedures Definitions and Use of Entry Procedures Evaluated Airspace Obstacle Clearance Speeds Selection of Turn X XX PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-2, “Speeds for Procedure Calculation in Knots”, Category C/D Speeds for Initial Approach PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-3, “Rate of Descent in the Final Approach Segment, w/o FAF” TERPS Volume 1, Chapter 2, Paragraph #234, “Initial Approach Segment Based on a PT” FAA’s AIM Chapter 5, Paragraph 5-4-9, “Procedure Turn and Hold-in-lieu of Procedure Turn”

TERPS vs. PANS-Ops 45/180 45/180 80/260 80/260 Base Turn Teardrop Arrivals and Maneuvering Procedures Racetrack Base Turn Turn point Entry Sector 80/260 45/180 Holding In lieu of Teardrop 10 NM Limit 80/260 45/180 PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, “Initial Approach Segment” FAA’s AIM Chapter 5, Paragraph 5-4-9, “Procedure Turn and Hold-in-lieu of Procedure Turn” FAA’s Instrument Procedures Handbook, FAA-H-8261-1A Chapter 5, Page 5-39, “Course Reversals” TERPS Volume 1, Chapter 2, Paragraph #235, “Initial Approach Segment Based on a PT”

TERPS vs. PANS-Ops Arrivals and Maneuvering Procedures, TERPS Entry Procedure PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, Para. 3.3 “Flight Procedures for Racetrack and Reversal Procedures” TERPS Volume 1, Chapter 2, Paragraph #234, “Initial Approach Segment Based on a PT”

TERPS vs. PANS-Ops Arrivals and Maneuvering Procedures, PANS-Ops Entry Sector Defined PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, Para. 3.3 “Flight Procedures for Racetrack and Reversal Procedures”

TERPS vs. PANS-Ops Arrivals and Maneuvering Procedures, PANS-Ops "Omni-Directional" Defined PANS-Ops Volume 1, Part 1, Section 4, Chapter 3, Para. 3.3.1 “Entry”

TERPS vs. PANS-Ops Evaluated Airspace Intermediate Segment, TERPS 31 different templates PANS-Ops Volume 2, Part 2, Section 4, Chapter 1, “Conventional Holding Criteria” PANS-Ops Volume 2, Part 3, Section 3, Chapter 7, “RNAV Holding Criteria”  FAA Order 7130.3A, “Holding Pattern Criteria”, Chapter 1 FAA Order 7130.3A, “Holding Pattern Criteria”, Chapter 1, Chapter 3

TERPS vs. PANS-Ops Evaluated Airspace Intermediate Segment, PANS-Ops 4.6 km (2.5 NM) 1 min./45-180 Procedure turn area Secondary area 4.6 km (2.5 NM) PANS-Ops Volume 2, Part 1, Section 4 Chapter 5 Paragraph 5.4.3, “OCA/H for Non-precision Approach (Straight In)” and Figure I-4-5-3b PANS-Ops Volume 2, Section 2, Chapter 3, Paragraph 3.4.3 “Area” PANS-Ops Volume 2, Section 2, Chapter 4, Paragraph 4.4.4 “Area”

TERPS vs. PANS-Ops Evaluated Airspace Final Segment, Non-Precision All = 14.29˚ SPLAY VOR = 7.8˚ SPLAY NDB = 10.3˚ SPLAY PANS-Ops Volume 2, Section 2, Chapter 3, Paragraph 3.4.3 “Area” PANS-Ops Volume 2, Section 2, Chapter 4, Paragraph 4.4.4 “Area”

TERPS vs. PANS-Ops Approach Procedures 350 No Final Approach Fix 300 200 Precision Approach 200 TERPS Volume 1, Chapters 4, 5, 6, 7, VOR's= additional 50' lower. PANS-Ops Volume 2, Part 2, Section 1, Chapter 1, Paragraph 1.4.7 “Obstacle Clearance on the precision Segment Application of Basic ILS Surfaces” PANS-ATM, Chapter 6, Paragraph 6.5.3

TERPS vs. PANS-Ops Arrivals and Maneuvering Procedures Speeds PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-2, “Speeds for Procedure Calculation in Knots”, Category C/D Speeds for Initial Approach PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-3, “Rate of Descent in the Final Approach Segment, w/o FAF” TERPS Volume 1, Chapter 2, Paragraph #234, “Initial Approach Segment Based on a PT” FAA’s AIM Chapter 5, Paragraph 5-4-9, “Procedure Turn and Hold-in-lieu of Procedure Turn”

TERPS vs. PANS-Ops Arrivals and Maneuvering Procedures Speeds PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-2, “Speeds for Procedure Calculation in Knots”, Category C/D Speeds for Initial Approach PANS-Ops Volume 1, Part 1, Section 4, Table I-4-1-3, “Rate of Descent in the Final Approach Segment, w/o FAF" TERPS Volume 1, Chapter 2, Paragraph #234, “Initial Approach Segment Based on a PT” FAA’s AIM Chapter 5, Paragraph 5-4-9, “Procedure Turn and Hold-in-lieu of Procedure Turn”

TERPS vs. PANS-Ops X X XX XX Visual Approaches and Visual Maneuvering Definition of Use for Evaluated Airspace OCA/ROC Speeds Visual Aids and Cues X XX X XX ICAO Document #9157, “Aerodrome Standards” Chapter 5, Paragraph 5.3.6, “Circling Guidance Lights” FAA Order JO 6850.2B, 08/20/10 Visual Guidance Lighting Systems” Definitions#18, “Lead-in Lighting System” FAA Information for Operators #11003 01/25/11 “Pilots Roles and Responsibilities During Visual Approaches”

TERPS vs. PANS-Ops X X "Visual" vs. Circle-to-Land Definition of Use for Evaluated Airspace OCA/ROC Speeds Visual Aids and Cues MDA vs. Descent Point X X PANS-Ops Volume 2, Part 1, Section 4, Chapter 7, Appendix “Visual Manoeuvering Using Prescribed Track” TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” AIM Chapter 5, Paragraph 5-4-24 “Charted Visual Flight Procedures”

TERPS vs. PANS-Ops Circling Approaches and Maneuvering 300‘AFL 1.7 NM “C” 2.68 NM “D” 3.49 NM 1.7 NM 2.3 NM 14 CFR 91.175, 135.225, 121.651, 125.381 TERPS Volume 1, Chapter 2, Section 6, “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9 PANS-Ops Volume 2, Part 1, Section 4, Chapter 5, Paragraph 5.4.6, “Protection of Visual Segment of the Approach Procedure” TERPS Volume 1, Chapter 2, Section 5, Paragraph #253, “Visual Descent Point” “C” 4.2 NM “D” 5.28 NM

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9 PANS-Ops Volume 2, Part 1, Section 4, Chapter 7 PANS-Ops Volume I, Part I, Chapter 1, Definitions

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9  PANS-Ops Volume 2, Part 1, Section 4, Chapter 7 PANS-Ops Volume I, Part I, Chapter 1, Definitions

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9  

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9  

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9  

TERPS vs. PANS-Ops Circling Approaches and Maneuvering Pans-Ops TERPS Acft Cat Min Vis MOC/HAA Max Speed/ºAOB 2 x Radius + Straight C 2.0 NM 394/ 591 ft 180 KIAS/20º 3.70+.5 = 4.20 NM D 2.5 NM 394/ 689 ft 205 KIAS/20º 4.68+.6 = 5.28 NM TERPS OEA Radius + Acft Cat Min Vis ROC/HAA Max Speed/ºAOB Straight=CAR* C 1 ½ SM 300/ 450 ft 145 KIAS/20º 2.18+.5 = 2.68 NM D 2.0 SM 300/ 550 ft 165 KIAS/20º 2.89+.6 = 3.49 NM With Change #21 and later, At 1000’MSL, ISA Standard and 25KTS of added wind. Visibility in Statue Miles OEA= Obstacle Evaluated Area, CAR= Circling Area Radius (1.3NM Minimum) TERPS Volume 1, Chapter 2, Section 6 “Circling Approach” 1.5SM =1.3NM, 2.0SM=1.74NM TERPS Volume 1, Chapter 3, Paragraph 3.3.3 and Table 3-9  

Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation.

Greece South Korea Japan Canada Mexico Venezuela Azores Germany Reproduced with permission of Jeppesen Sanderson, Inc. Not to be used for navigation. Azores Germany Saudi Arabia

TERPS vs. PANS-Ops Missed Approach Procedures Missed Approach Requires 3.7% Climb TERPS Volume 3, Chapter 2, Paragraph 2.4 and Appendix 2, Paragraph 4 PANS-Ops Volume 2, Part 1, Section 4, Chapter 6, “Missed Approach” Intermediate Missed Approach

TERPS vs. PANS-Ops Missed Approach Procedures TERPS Volume 3, Chapter 2, Paragraph 2.4 and Appendix 2, Paragraph 4 PANS-Ops Volume 2, Part 1, Section 4, Chapter 6, “Missed Approach” Intermediate Missed Approach

Instrument Procedure Design and Operational Differences TERPS vs. PANS-Ops Instrument Procedure Design and Operational Differences Presented By Mr. Guy Gribble General Manager, International Flight Resources, LLC www.InternationalFlightResources.com