Título ponencia: RNP APCH Implementation



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Título ponencia: RNP APCH Implementation Organizado por:

Index Introduction RNP APCH implementation process PBN Europe plans

Introduction RNP APCH Without vertical guidance With vertical guidance LNAV LP LNAV / VNAV LPV NPA SBAS-based NPA APV Baro-VNAV APV SBAS

Index Introduction RNP APCH implementation process PBN Europe plans

Implementation process: Overview This presentation aims to provide a guidance on the RNP APCH implementation process to the States and ANSPs as the natural leaders of such activities but also to all the stakeholders concerned by RNP APCH. This presentation is based on: The most recent ICAO PBN implementation methodology included in Doc 9613- the PBN Manual The applicable and available ICAO, EASA and EUROCONTROL documents Lessons learned from pioneer implementation projects Implementation Methodology: Process 1 Deciding what to implement and where Process 2 Validation of assumptions and expectations and the implementation itself

Implementation process: Overview Key aspects for a successful implementation of RNP APRCH 1. Team must include all stakeholders 2. Reasons for implementing RNP APCH 3. Define a realistic and reachable project plan 4. Start with one procedure in one easy airport and focus all efforts on it 5. Flexibility to introduce modifications as project evolves 6. Keep informed to the extended team about the project evolution

Implementation process: Overview Process 1 Deciding what to implement and where Process 2 Validation of assumptions and expectations and the implementation itself Decision Analiseand Plan Design & Implementation

Implementation process: Decision (detailed) Background of RNP APCH Implementation Create Implementation Project Team Agree project objectives, scope and timescale

Implementation process: Decision (detailed) Background of RNP APCH Implementation 1. ICAO Assembly Resolutions A36-23 and A37-11 2. Strategic objectives Better airport accessibility Improve safety (better situational awareness + estabilisedapp.) 3. Airport operator requests 4. PBN Implementation plan 5. Environmental policy directives

Implementation process: Decision (detailed) Create implementation Project Team

Implementation process: Decision (detailed) Agree project objectives, scope and timescale 1. Once the implementation team has been established it needs to define the objectives, scope and resources for the team to build the implementation plan 2. Priority should be put into enabling the first implementation in order to gain the necessary experience

Implementation process: Analise and Plan Survey of candidate airports Evaluation of airport capabilities CNS/ATM considerations Survey of aircraft operators Business Case

Implementation process: Analise and Plan Survey of candidate airports 1. According to Assembly resolution A37-11, RNP APCH should be implemented to all instrument runway ends serving aircraft with a maximum certificated take-off mass of 5 700 kg or more 2. As a first step, one or two candidate airports can be identified to be the first implementation locations 3. Implementation at non-instrument runway ends is not currently envisaged by the international standards. First implementations should therefore take place at runways that already have an instrument approach procedure.

Implementation process: Analise and Plan Evaluation of airport capabilities 1. Aerodrome infrastructure assessment 2. Meteo data 3. GNSS Infraestructure 4. Other Infraestructure 5. Achievable minima estimation 6. Integration of the new procedure into de terminal area

Implementation process: Analise and Plan Evaluation of airport capabilities Altitude Latitude, Longitude Orientation True axis Threshold characteri stics MET Tool Category Main sizes Aircraft dimension s LNAV LNAV / VNAV LP LPV ILS Approach Option MET - OCH/OCA - Critical obstacle - Surface s planes Local (x,y) geographic coordinates Altitude or height Airport s obstacles It allows a rapid assessment of the straight-in final approach and the initial and intermediate missed approach segments

Implementation process: Analise and Plan Survey of aircraft operators 1. Not all RNP APCH types are of interest of all categories of airspace users. In general terms: Baro-VNAV is the preferred option of Commercial Air Transport SBAS is the preferred option for Regional operators and general aviation 2. Information should be collected regarding the following: Aircraft equipment and navigation capabilities Airworthiness and operational approval Current experience with RNP APCH procedures Operator requirements and preferences for RNP APCH procedures Plans in terms of future equipage and operational approval

Implementation process: Analise and Plan Business Case The BC can address the costs for ANSPs and/or airports or the costs for aircraft operators Costs for ANSPs/Airports Costs for aircraft operators Procedure design Equipment acquisition Flight validation Safety assessment RWY upgrades Equipment installation Airworthiness and operational approval Crew training Others: training, approval

Implementation process: Analise and Plan Business Case Airport-oriented BC overview Purpose: to make a comparison between the RNP APCH implementation costs and the benefits derived from quantifiable operational improvements The main quantifiable operational improvements from APV are those associated with avoidance of delays and diversions thanks to: Reduced operational minima Back-up alternative to ILS GNSS based APV procedures are also beneficial in terms of: No reliance on ground navaid infrastructure Environmental benefits More landing fees More handling fees More PAX fees Less disrupted operations means a higher number of landings for the airport

Implementation process: Analise and Plan Business Case 1 2 3 4 5 6 Airport-oriented BC in detail Review of total aircraft landings Review of non-ils aircraft landings Disruption probability per approach type Aircraft NPA disruptions Reduction in disruptions Total benefits in airport fees

Implementation process: Analise and Plan Business Case Airport-oriented BC in detail Number of landings per year Traffic prevision for the next 5 years Number of landings per category per year % Cat A % Cat B % Cat C % Cat D Non-ILS aircraft landings per category per year

Implementation process: Analise and Plan Business Case Airport-oriented BC in detail The main quantifiable benefit of APV is reducing diversion when: ILS is unavailable for landings(maintenance) Weather conditions affect landings in a NPA THR ForNPAlandings,itisconsideredthatdisruptionsmaybecausedby: Poor runway visibility (M)DA/DH Low cloud ceiling NPAlandingsarenotpossibleif: Recorded Cloud Ceiling <(M),DH Recorded Visibility(km) < RVR Required visibility Recorded visibility Required cloud ceiling Recorded cloud ceiling Threshold (50ft) Runway

Implementation process: Analise and Plan Business Case Airport-oriented BC in detail The reduced number of disruptions with regards to NPA landings will be considered as a percentage of gain in operations due to APV SBAS landings The monetary conversion of operation gain is based on landing charges and consequent additional airport incoming fees

Implementation process: Analise and Plan Business Case Operator-oriented BC in detail Purpose: to make a comparison between the a/c (or fleet) retrofitting costs and the benefits derived from quantifiable operational improvements The main quantifiable operational improvements from APV are those associated with avoidance of delays and diversions thanks to: Improved airport s accessibility thanks to reduced operational minima Back-up alternative to ILS For operators, less diversions mean less fuel consumption

Implementation process: Analise and Plan Business Case Operator-oriented BC in detail 1 2 3 4 5 6 Total costs derived from a/c retrofit Review of non-ils aircraft landings Disruption probability per approach type Aircraft NPA disruptions Reduction in disruptions Total benefits due to this reduction

Implementation process: Analise and Plan Business Case Operator-oriented BC in detail Possible costs to be avoided: Diversion(fuel) Destination Airport A Alternate Airport B PAX transportand others

Implementation process: Analise and Plan Business Case Examples of results of BC regarding RNP APCH: International Airport: Benefits after 4 or 3 years (depending on pessimistic or optimistic case) Mediterranean small airports (two): APV implementation is cheaper than ILS and it has similar performance, so it s the recommended option. Regional operator: For a fleet of 63 aircrafts, the benefits of APVsgiveanetbenefitof 9Min10years General Aviation operator: Pay back for upgrading the fleet is 5years

Implementation process: Design & Impl. Procedure design ATC/CNS system integration AIS requirements Training Requirements Installation and Opp. Approval req.

Implementation process: Design & Impl. Procedure Design The validation of RNAV Instrument Flight Procedures shall be based on ICAO and Eurocontrol references ICAO Doc 8168, PANS-OPS, Vol II, Part I, Section 2, Chapter 4 Quality Assurance ICAO Doc 8071, Manual on Testing of Radio Navigation Aids, Vol II Testing of Satellite-based Radio Navigation Systems ICAO Doc 9906, Quality Assurance Manual for Flight Procedure Design, Vol 5 Validation of Instrument Flight Procedures Eurocontrol Guidance Material for the Flight Inspection of RNAV Procedures, May 2005

Implementation process: Design & Impl. Procedure Design PD1 PD2 PD1 FVP PD1 FVP PD1 FVP FE Procedure design package Validate used data Validate intended use Conduct inventory and review package Evaluate data & coding Assess flyability and human factor Database coding Verify data Assess obstacles Verify proper criteria applicability Review special requirements Assess mitigation measures Assess flyability and human factors Procedure design package Document results Coordinate op issues Document results Verify chart depiction Record FV & FI and document INSTRUMENT FLIGHT PROCEDURE DESIGN INDEPENDENT PROCEDURE DESIGN REVIEW PRE-FLIGHT VALIDATION SIMULATOR EVALUATION INSPECTION REPORT FLIGHT EVALUATION

Implementation process: Design and Implementation

Index Introduction RNP APCH implementation process PBN Europe plans

PBN Europe plans PBN(RNPAPCH)inEurope LNAV implemented approaches LNAV planned approaches In blue: partially implemented operations In green: fully implemented operations In orange: planned operations to be implemented 148 188 LNAV/VNAV implemented approaches LNAV/VNAV planned approaches 65 111

PBN Europe plans PBN(RNPAPCH)inEurope LPV implemented approaches LPV planned approaches In blue: partially implemented operations In green: fully implemented operations In orange: planned operations to be implemented 24 181 German CAA allows flying published LNAV/VNAV approaches using SBAS sensor (maintaining the LNAV/VNAV minima). This is the reason why they not appear in LPV.

PBN Europe plans (end 2016) PBN in Europe LNAV LNAV/VNAV LPV TOTAL Implemented Planned Implemented Planned Implemented Planned Implemented Planned France 45 73 4 44 22 97 71 214 Norway 4 39 22 37 4 98 Great Britain 13 22 5 9 19 18 50 Ireland 10 8 18 Italy 1 9 1 8 2 17 Sweden 2 7 1 8 1 3 16 Germany 40 4 38 3 6 78 13 Switzerland 4 5 1 1 2 6 7 12 The Netherlands 2 6 1 4 1 3 11 Spain 3 3 3 9 Iceland 7 3 2 3 9 6 Czech republic 3 2 2 2 2 5 6 Austria 3 2 3 2 6 4 Portugal 2 3 1 2 4 Finland 22 7 1 1 29 2 TOTAL 148 188 65 111 24 181 237 480 Source: OneSky online: https://extranet.eurocontrol.int/http://prisme-newgis.hq.corp.eurocontrol.int/pbn/

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