SAE ARP6467
Current
The latest, up-to-date edition.
Human Factors Minimum Requirements and Recommendations for the Flight Deck Display of Data Linked Notices to Airmen (NOTAMs)
Hardcopy , PDF
English
13-02-2014
1. SCOPE
2. APPLICABLE DOCUMENTS
3. BACKGROUND AND ASSUMPTIONS
4. HUMAN FACTORS GUIDANCE FOR ALL NOTAM CATEGORIES
5. SPECIFIC REQUIREMENTS/RECOMMENDATIONS
6. LIST OF ACRONYMS AND ABBREVIATIONS
7. NOTES
APPENDIX A - LIST OF ARP REQUIREMENTS
APPENDIX B - LIST OF ARP RECOMMENDATIONS
APPENDIX C - GRAPHIC NOTAM EXAMPLES
APPENDIX D - COLLECTION OF NOTAM CATEGORIES
APPENDIX E - ADDITIONAL REFERENCES
Covers the minimum human factors requirements and recommendations for the flight deck display of data linked Aeronautical Information (AI), specifically Notices to Airmen (NOTAMs).
DocumentType |
Standard
|
Pages |
65
|
PublisherName |
SAE International
|
Status |
Current
|
This SAE Aerospace Recommended Practice (ARP) includes the minimum human factors requirements and recommendations for the flight deck display of data linked Aeronautical Information (AI), specifically Notices to Airmen (NOTAMs). The goal of human factors is to make it easy for users to do things right and hard to do them wrong. The guidance in this ARP supports this goal by defining minimum requirements and recommendations that focus on the text and potential graphics for NOTAMs as well as the human’s interaction with these on the flight deck. In this ARP “flight deck” includes both single pilot flight decks as well as multi-pilot flight decks.The FAA defines NOTAMs2x as any information concerning the establishment, condition, or change in any component of, or hazard to, the National Airspace System. ICAO Annex 15 defines a NOTAM as “a notice distributed by means of telecommunication containing information concerning the establishment, condition, or change in any aeronautical facility, service, procedure or hazard, the timely knowledge of which is essential to personnel concerned with flight operations.”2xThe minimum requirements and recommendations in this ARP do not replace guidelines or requirements for existing airborne applications or displays on the flight deck. It does not replace existing general human factors design standards. It also does not address every specific NOTAM category, series or type, but focuses on a subset, which includes the most safety critical NOTAMs (such as closed runways), most common NOTAMs, or ones which may affect the efficiency of the airspace such as Temporary Flight Restrictions (TFRs). This ARP also does not reference other aeronautical information such as private provider updates, such as Company NOTAMs and/or private sector charting notices or advisories such as charting errors or omissions, which might be sent to pilots via data link. Finally, this ARP does not address data integrity as the NOTAM moves from its originator to the flight deck and all the steps in between. This is addressed by the aeronautical information services data link standards developed by the RTCA Special Committee 206 while the quality of the aeronautical information is addressed by the RTCA 217 Special Committee.There may come a time in the future when data linked NOTAMs presented in graphical format (gNOTAMs) are the primary source for NOTAMs on the flight deck. However, standardization and data quality issues must be addressed before gNOTAMs can be considered anything other than a visual supplement or an additional safety layer to text-based NOTAMs. Data quality at the origination point will be handled by quality control/quality assurance programs for each State producing NOTAMs. The aviation industry is still years away from complete standardization of all NOTAMs, but progress is being made. For example, regulators and others are working to develop geo-referenced data for airport and airspace subjects (e.g., navigation aids, obstructions, runways, taxiways, temporary flight restrictions and airspace). Similarly, regulators are creating new tools for the origination of NOTAMs that result in digital NOTAMs that are comprised of standardized elements. Such standardization allows automation (machines or software) to check accuracy, apply various sorting or filtering choices to the NOTAMs, or add other data to them such as displaying their shapes or locations over maps or other baseline data. Unfortunately, the current lack of standardization means that not every NOTAM created today is machine-readable, thus accuracy is dependent upon human analysis which is very labor intensive and costly. In the U.S. alone, approximately one (1) million NOTAMs are issued each year and the number is growing. As a result, for the foreseeable future, we remain in a mixed use environment where some NOTAMs are standardized and machine-readable but many are not. As a consequence, not every NOTAM created can be sorted, filtered, or converted to its graphical form with the accuracy that pilots and aviation regulators require.There are advantages to having standardized gNOTAMs among every manufacturer. This increases the ability of the pilot to see, comprehend and project into the future the applicability of the NOTAM to their flight, reduces training costs, and improves pilot performance. Consistent depictions of gNOTAMs across different flight deck display manufacturers would enable pilots to move from display to display within an aircraft, and from aircraft to aircraft with more ease and would likely result in a reduction of errors. However, it is not the mandate of this Committee to stifle innovation by dictating specific symbols or graphics. Consequently, this ARP is geared toward identifying minimum human factors requirements and recommendations that will help ensure that all products meet some basic minimum standards for usability. Many choices have been left for the designer, after working with users, to determine what their highest priorities are and to find the most intuitive and efficient way to present the information.While this ARP focuses solely on the flight deck of aircraft, the guidance may be expanded in the future to apply to displays for dispatchers, air traffic controllers, and other NOTAM users.
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FAA AC 00-63 : 2014 | USE OF COCKPIT DISPLAYS OF DIGITAL WEATHER AND AERONAUTICAL INFORMATION |
RTCA DO 342 : 2013 | GUIDELINES FOR VERIFICATION AND VALIDATION OF AERODROME MAPPING DATABASES (AMDB) AERODROME SURFACE ROUTING NETWORKS (ASRN) FOR ROUTING APPLICATIONS |
FAA AC 20-149 : 2015 | INSTALLATION GUIDANCE FOR DOMESTIC FLIGHT INFORMATION SERVICE - BROADCAST |
FAA AC 20-172 : 2015 | AIRWORTHINESS APPROVAL FOR ADS-B IN SYSTEMS AND APPLICATIONS |
FAA AC 25-11 : 2014 | ELECTRONIC FLIGHT DISPLAYS |
SAE ARP 1068 : 1994 | FLIGHT DECK INSTRUMENTATION, DISPLAY CRITERIA AND ASSOCIATED CONTROLS FOR TRANSPORT AIRCRAFT |
SAE ARP 5621 : 2004 | ELECTRONIC DISPLAY OF AERONAUTICAL INFORMATION (CHARTS) |
FAA AC 90-106 : 2017 | ENHANCED FLIGHT VISION SYSTEMS |
FAA AC 20-167 : 2016 | AIRWORTHINESS APPROVAL OF ENHANCED VISION SYSTEM, SYNTHETIC VISION SYSTEM, COMBINED VISION SYSTEM, AND ENHANCED FLIGHT VISION SYSTEM EQUIPMENT |
MIL-STD-1787 Revision B:1996 | AIRCRAFT DISPLAY SYMBOLOGY |
ICAO 7300 ANNEX 11 : 2001 | ANNEX 11 TO THE CONVENTION ON INTERNATIONAL CIVIL AVIATION (ICAO 7300) - AIR TRAFFIC SERVICES |
SAE ARP4032B | Human Engineering Considerations in the Application of Color to Electronic Aircraft Displays |
RTCA DO 340 : 2012 | CONCEPT OF USE FOR AERONAUTICAL INFORMATION SERVICES (AIS) AND METEOROLOGICAL (MET) DATA LINK SERVICES |
SAE ARP 4102/4 : 1988 | FLIGHT DECK ALERTING SYSTEM (FAS) |
RTCA DO 324 : 2010 | SAFETY AND PERFORMANCE REQUIREMENTS (SPR) FOR AERONAUTICAL INFORMATION SERVICES (AIS) AND METEOROLOGICAL (MET) DATA LINK SERVICES |
RTCA DO 256 : 2000 | MINIMUM HUMAN FACTORS STANDARDS FOR AIR TRAFFIC SERVICES PROVIDED VIA DATA COMMUNICATIONS UTILIZING THE ATN, BUILDS 1 AND 1A |
RTCA DO 272 : D2015 | USER REQUIREMENTS FOR AERODROME MAPPING INFORMATION |
RTCA DO 267 : A2004 | MINIMUM AVIATION SYSTEM PERFORMANCE STANDARDS (MASPS) FOR FLIGHT INFORMATION SERVICES-BROADCAST (FIS-B) DATA LINK |
FAA AC 25.1302-1 : 2013 | INSTALLED SYSTEMS AND EQUIPMENT FOR USE BY THE FLIGHTCREW |
SAE ARP 4155 : 1997 | HUMAN INTERFACE DESIGN METHODOLOGY FOR INTEGRATED DISPLAY SYMBOLOGY |
ICAO 9855 : 2005 | GUIDELINES ON THE USE OF THE PUBLIC INTERNET FOR AERONAUTICAL APPLICATIONS |
FAA AC 120-76 : 2017 | AUTHORIZATION FOR USE OF ELECTRONIC FLIGHT BAGS |
ICAO 8697 : 2ED 1987 | AERONAUTICAL CHART MANUAL |
RTCA DO 308 : 2007 | OPERATIONAL SERVICES AND ENVIRONMENT DEFINITION (OSED) FOR AERONAUTICAL INFORMATION SERVICES (AIS) AND METEOROLOGICAL (MET) DATA LINK SERVICES |
RTCA DO 229 : E2016 | MINIMUM OPERATIONAL PERFORMANCE STANDARDS FOR GLOBAL POSITIONING SYSTEM/SATELLITE-BASED AUGMENTATION SYSTEM AIRBORNE EQUIPMENT |
SAE ARP 4033 : 1995 | PILOT-SYSTEM INTEGRATION |
ICAO 8400 ed 8 : 2010 | PROCEDURES FOR AIR NAVIGATION SERVICES - ICAO ABBREVIATIONS AND CODES (PANS-ABC) |
RTCA DO 276 : C2015 | USER REQUIREMENTS FOR TERRAIN AND OBSTACLE DATA |
MIL-STD-1472 Revision G:2012 | HUMAN ENGINEERING |
FAA AC 00-62 : 0 | INTERNET COMMUNICATIONS OF AVIATION WEATHER AND NOTAMS |
FAA AC 25.1309-1 : 0 | SYSTEM DESIGN AND ANALYSIS |
SAE ARP5289A | Electronic Aeronautical Symbols |
ICAO 7300 ANNEX 4EDT 11 : 2009 | ANNEX 4 TO THE CONVENTION ON INTERNATIONAL CIVIL AVIATION (ICAO 7300) - AERONAUTICAL CHARTS |
SAE ARP 4102/7 : 1988 | ELECTRONIC DISPLAYS |
SAE AS8034B | Minimum Performance Standard for Airborne Multipurpose Electronic Displays |
ICAO 8126 : 2003 | AERONAUTICAL INFORMATION SERVICES MANUAL |
ICAO 9613 : 2013 | PERFORMANCE-BASED NAVIGATION (PBN) MANUAL |
SAE ARP 4102 : 1988 | FLIGHT DECK PANELS, CONTROLS, AND DISPLAYS |
FAA AC 120-70 : 2015 | OPERATIONAL AUTHORIZATION PROCESS FOR USE OF DATA LINK COMMUNICATION SYSTEM |
FAA AC 25.1322-1 : 2010 | FLIGHTCREW ALERTING |
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