OBSTACLE IDENTIFICATION SURFACE CALCULATION TOOL (OIS CT) FOR AIRPORT AIRSPACE OBSTRUCTION ANALYSES AT CIVIL AIRPORTS IN THE UNITED STATES

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OBSTACLEIDENTIFICATIONSURFACECALCULATIONTOOL(OISCT) FORAIRPORTAIRSPACEOBSTRUCTIONANALYSESATCIVILAIRPORTS INTHEUNITEDSTATES ApostolPanayotov,PhD,Mr.MarkGibbs,M.S.A,A.A.E,Mr.BradKetel IntroductiontotheObstacleIdentificationSurfaceAnalyses Thisresearchpaperisfocusedon developmentofanobstacleidentificationsurface CalculationToolforESRIArcGISv10thatprovidesanairportplannerwithAirportAirspace ObstructionAnalysiscapabilityina3DGISenvironmentandpresentationofanalysisresults. This is a continuation of Dr. Panayotov s research in Airport Airspace Obstruction AnalysespreviouslypresentedatESRIUC2009.Thisresearcharticlewillcoverthebasicsofa newobstructionidentificationsurfacecalculationtool(oisct)tooldevelopedtohelpairport plannersandconsultantsfulfillrunwayendsitingrequirementsin(ac150/530013chg.18, Airport Design Appendix 2. Runway End Siting Requirements) for creating new runways, protectingexistingrunwayproceduresand/oridentifyingairspaceissuesthatreducerunway capacity for air carrier certificated airports in the United States. The OISCT tool was developed to work within the data schema required for all U.S. obligated National Plan of Integrated Airport System (NPIAS) airports who must comply with Federal Aviation Administration airport geospatial data survey requirements for Geographical Information Systems. RunwayEndSittingSurfacescreatedbyOISCTtool: FARCivilPART77Surfaces(Visual,NonPrecisionandPrecision), GlideSlopeQualificationSurface(GQS)forScreeningApproachProcedurewithVertical Guidance(APV), Straight In Instrument Landing System (ILS) CAT I, II & III Straight In Approach and MissedApproachSurfaces WObstacleClearanceSurface XObstacleClearanceSurface YObstacleClearanceSurface MissedApproachSections1a,b,c&Section2 ClearwaySurface RunwayObstacleFreeZoneSurfaces(CATI,II&III)(ROFZ) StraightOutInstrumentDepartureSurface40:1TerminalInstrumentProcedures StraightOutAirCarrierDepartureOneEngineInoperative(OEI)ObstacleIdentification Surface(OIS)62.5:1 PrecisionRunwayObstacleFreeZone(POFZ) By harnessing the capabilities of ESRI Arc Map and Arc Scene Version 10.0, the Obstruction Identification Surface Calculation Tool (OISCT) creates Runway Siting Surfaces that can be screened against any known manmade and natural objects surrounding the

runway environment. The primary purpose for this airspace screening is to protect the airport s current and future runway capacity by identifying what local conditions restrict optimalproceduredevelopment.byidentifyingwhatobjectsreducerunwaycapacity,airports working in sync with local planning agencies can take steps to improve future or current runwaycapacity.anotheroftenhiddenbenefittoaeronauticalusersisalsoanimprovement to safety by reducing the complexity of Standard Terminal Arrival Routes (STARS) and Standard Instrument Departures (SIDS) by identifying and taking corrective steps whenever feasibletoeliminatecontrollingobjectsfromtheairportterminalairspaceenvironment. TheOISCTwasdesignedtoleverageFederalAviationAdministration(FAA)mandated airport geospatial data based on AC150/530018b, General Guidance and Specifications for SubmissionofAeronauticalSurveystoNGS:FieldDataCollectionandGeographicInformation System (GIS) Standards).Airport runway spatial data conforming to FAA Mandated Airport Surveys provide compliant data required for OISCT tool (Table 21. Survey Requirements MatrixAC150/530018b): CategoryII/IIIPrecisionApproachOperationsDevelopment NavigationalAidSitingPrecision AirportLayoutPlan AirportObstructionChart InstrumentProcedureDevelopment AirportMappingDatabase IfanairporthasnotcompletedanyairportspatialsurveyfollowingAC150/530018b, then the OISCT tool provides a list of what spatial data is necessary for input. It is highly recommendedthatalicensedprofessionalsurveyorcollectsorverifiesanyairportgeospatial data used in the OISCT. The airport surveyor should follow standards contained in AC150/530016GeneralGuidanceandSpecificationsforAeronauticalSurveys:Establishment ofgeodeticcontrolandsubmissiontothenationalgeodeticsurveyasthishasbecomethe airport survey standard replacing National Geodetic Survey (NGS) Airport 405 Survey Requirements.Spatialdataconcerningtherunwayenvironmentisconsideredasafetycritical tothefaaandatminimumanairportshouldsubmitanyrunwaysurveydatawiththefaa Airports GIS program (https://airportsgis.faa.gov/public/index.html) before using it for any runwaysitinganalysis. BackgroundondevelopingtheOISCT America'sairtransportationsystemhasgrownsignificantlyoverthepast30years.In 1980,thesystemcarried281millionpassengers.In2010,theUShandlednearly713.6million passengers, and the number of passengers carried annually is expected to grow over time despite recent short term declines in traffic capacity issues in our nation s airspace are the drivingprinciplebehindanationalairspacesystemredesign (http://www.faa.gov/airports/planning_capacity/passenger_allcargo_stats/passenger/). However,aviationneedsforenvironmentalstewardship,security,safety,andopenaccessare alsosubstantialsecondarydrivers.

PassageofVision100 CenturyofAviationReauthorizationActin2003,instructed thefederalaviationadministrationtoworkwithinthedepartmentoftransportation smulti agencyframeworktodevelopanewsystemofairtrafficmanagementsystemthatwouldtake aviation through 2025. The Federal Aviation Administration Next Generation Air Transportation System (NextGen) is a series of interlinked programs, systems, and policies that implement advanced technologies and capabilities to dramatically change the way the currentaviationsystemisoperated.thisisacomprehensiveinitiativethatnotonlyinvolves the development of new technology, but also the leveraging of existing technologies to enhance capacity in the midterm (20102018).NextGen includes satellite navigation and controlofaircraft,advanceddigitalcommunications,andenhancedconnectivitybetweenall components of the national air transportation system. The satellitebased system responds quicklyasthetypesofaircraftchangeandcongestionoccurs.hazardsareidentifiedandtheir associated risk mitigated before they result in incidents or accidents. NextGen combines changestothewayaircraftarerouted,andwithnewtechnology,movescompartmentalized airtrafficcontroltowardsintegratedairtrafficmanagement. NextGenalsomustextendbeyondourdomesticairspaceandbeanintegralpartofthe globalaviationsystem. ThisrequiresongoingcollaborationbetweentheFAA sinternational counterparts, private industry, airports, air traffic organizations, and International Civil AviationOrganization(ICAO).Inthefuture,allaviationusersconnectedtoUSairspacewillbe connectedtonextgen sadvancedinfrastructureandwillcontinuallyshareinformationinreal time to improve air transportation s safety, speed, efficiency, and environmental impacts, whileabsorbingincreaseddemandlevels.therearefivetechnologyinnovationpillarscentral tothefaanexgenprogram: 1. Automatic dependent surveillancebroadcast (ADSB). ADSB will use the Global Positioning System (GPS) satellite signals to provide air traffic controllers and pilots withmuchmoreaccurateinformationthatwillhelptokeepaircraftsafelyseparatedin the sky and on runways. Aircraft transponders receive GPS signals and use them to determinetheaircraft'sprecisepositioninthesky.this,alongwithotherdataisthen broadcast to other aircraft and air traffic control. Once fully established, both pilots andairtrafficcontrollerswill,forthefirsttime,seethesamerealtimedisplayofair traffic,substantiallyimprovingsafety.thefaaisintheprocessoffullymandatingthe avionicsnecessaryforimplementingadsb. 2. System Wide Information Management (SWIM). SWIM will provide a single infrastructureandinformationmanagementsystemtodeliverhighqualityandtimely datatomanyusersandapplications.byreducingthenumberandtypesofinterfaces and systems, SWIM will reduce data redundancy and better facilitate multiuser information sharing. SWIM will also enable new modes of decision making as informationismoreeasilyaccessed. 3. Next Generation Data Communications. Current communications between aircrew andairtrafficcontrol,andbetweenairtrafficcontrollers,arelargelyrealizedthrough voicecommunications.initially,theintroductionofdatacommunicationswillprovide an additional means of twoway communication for air traffic control clearances, instructions,advisories,flightcrewrequestsandreports.withthemajorityofaircraft datalinkequipped,theexchangeofroutinecontrollerpilotmessagesandclearances

viadatalinkwillenablecontrollerstohandlemoretraffic.thiswillimproveairtraffic controllerproductivityandenhancecapacityandsafety. 4. NextGenerationNetworkEnabledWeather(NNEW).SeventypercentofNASdelays are attributed to weather every year. The goal of NNEW is to cut weatherrelated delaysbyatleast50%.tensofthousandsofglobalweatherobservationsandsensor reports from ground, airborne and spacebased sources will fuse into a single national weather information system, updated in real time. NNEW will provide a common weather picture across the national airspace system, and enable better air transportationdecisionmaking. 5. NAS voice switch (NVS). There are currently seventeen different voice switching systemsinthenas,someinuseformorethantwentyyears.nvswillreplacethese systemswithasingleair/groundandground/groundvoicecommunicationssystem. SourceFAANextGenProgram(http://www.faa.gov/nextgen/) NextGen is more complex and more ambitious than any other previous program undertakenbythefederalaviationadministrationinitshistory.itisthetwentyfirstcentury equivalent of landing a man on the moon. Digital airport data collected under NextGen s AirportsGISprogramisusedforobstructionanalyses(AOC),NoticestoAirmen(eNOTAMs), electronicflightbags,airportlayoutplans(ealp)andflightproceduredevelopmentusingthe GPS(LVP,LNAV,/VNAV,RNPRA,RNAV). TheFAAAirportsGeographicInformationSystem(AGIS)isacomponentofNextGen s SWIM Program, improving the management and maintenance of airport information by providing a real time, integrated electronic database over the internet. The FAA s central database for AGIS data enhances sharing of both safetycritical data (such as runway end pointsorthelocationofnavigationalaids)andnonsafetycriticaldata(suchasthelocationof a building on an airfield). In addition to providing users with current airport data, it will

improveairportplanningeffortswithmoreefficientreviewsofairportlayoutplansubmittals inwhichrunwayendsitinganalysisisacomponent. TechnologyDevelopment Accurate3DairportspatialdataoftheAirOperationsAreausingtheNationalSpatial ReferenceSystemisanimportantstepnecessaryforGPSenabledproceduredevelopmentat US airports.gps air navigation capability is slated to replace many existing ground based navigationaids(navaids)forinstrumentflightrules(ifr).hence,itiscriticalthatairports planforandpromotegpsenabledproceduresfortheircurrentandfuturerunway(s)inline withfaanextgengoals. AlmostallcommercialserviceairportsintheUnitedStatesarepublicandcomprisethe National Plan of Integrated Airport Systems (NPIAS). Airports within the NPIAS are deemed important to U.S. national interest and are eligible to receive Federal funding for specific projectswhichservenationalaviationpriorities.publicuseairportswhoacceptfederalfunds areobligatedtofederalairportgrantassurancesunderprovisionsoftitle49,u.s.c.,subtitle VII (http://www.faa.gov/airports/aip/grant_assurances/). Airport Grant Assurances: 5. Preserving Rights and Powers, 19. Operation & Maintenance and 20. Hazard Removal & Mitigationrequiresobligatedairportstotakeaproactiveroleinprotectingtheirairportasits definedroleinthenpias.thisincludes: Protecting visual and instrument operations to the airport including established minimumflightaltitudesfromobjectsthatwouldinterferewithairnavigationinthe terminal airspace.all objects in the airport terminal airspace must be adequately cleared by removing, lowering, relocating, marking, lighting, and or mitigating the restrictivecontrollingobstacle. Thisincludesbothcurrentterminalproceduresaswellasanyfutureproceduresthat mightbedevelopedattheairport.bytakingaproactiveroleinmitigatingconflictsto the airport terminal airspace environment, airports can ensure the least restrictive arrival/departureprocedures,thusmaximizingairportcapacityandrunwayavailability. In order to plan for future airport expansion, development or alteration airport plannersneedtorundifferenttypesofairportairspaceanalysestoweighimpactsearlyonin the process.filing a 74601 notification form to the FAA is required of any NPIAS airport which proposes new construction or alteration of the Airport Layout Plan.74601 filing is required for any changes on airport property regardless of location or height that can be depicted on the ALP. This includes changes to the Airport Layout Plan of future planned construction (both near term and long term).non airport developers are also required to notify the FAA of proposed construction or alteration if certain requirements are met. Requirementsbecomemoreheightrestrictivetheclosertheconstructionistoarunway.CFR Title 14 Part 77.9 states that any person/organization who intends any of the following constructionoralterationsmustnotifythefaa: 1. Anyconstructionoralterationexceeding200ft.abovegroundlevel 2. Anyconstructionoralteration:

3. Within20,000ft.ofapublicuseormilitaryairportwhichexceedsa100:1surfacefrom anypointontherunwayofeachairportwithitslongestrunwaymorethan3,200ft. 4. Within10,000ft.ofapublicuseormilitaryairportwhichexceedsa50:1surfacefrom anypointontherunwayofeachairportwithitslongestrunwaynomorethan3,200ft. 5. Within5,000ft.ofapublicuseheliportwhichexceedsa25:1surface 6. Anyhighway,railroadorothertraversewaywhoseprescribedadjustedheightwould exceedtheabovenotedstandards 7. WhenrequestedbytheFAA TheFAAhasdevelopedascreeningtooltoassistnonairportdevelopersdetermineif theirprojectrequiresfilinga74601notification (https://oeaaa.faa.gov/oeaaa/external/gistools/gisaction.jsp?action=shownonoticerequired ToolForm). The FAA also requires airports report changes to a landing area through Notice of LandingAreaProposal74801form.74801notificationsincludethefollowingchangeswhich canaffectairportterminalairspaceincluding: 1. Constructingorotherwiseestablishinganewairportoractivateanairport. 2. Constructing,realigning,altering,oractivatinganyrunway,orotheraircraftlanding ortakeoffareaofanairport. 3. Constructingrealigning,altering,oractivatingataxiwayassociatedwithalanding ortakeoffareaonapublicuseairport. 4. Deactivating, discontinuing using, or abandoning an airport or any landing or takeoffareaofanairportforaperiodofoneyearormore. 5. Deactivating, abandoning, or discontinuing using a taxiway associated with a landingortakeoffareaonapublicuseairport. 6. Changingthestatusofanairportfromprivateuse(usebytheownerorusebythe ownerandotherpersonsauthorizedbytheowner)toanairportopentothepublic orfrompublicusetoanotherstatus. 7. ChangingthestatusfromIFRtoVFRorVFRtoIFR. 8. Establishingorchanginganytrafficpatternortrafficpatternaltitudeordirection. With significant money invested in any capital development planning, airports can providerunwaysittinganalysespriortopreparingandsubmittingaproposaltothefaafor review.sincefaaairspacereviewcantake34monthstocompleteforeither74601or7480 1notifications;mostdevelopmentprojectsdonothavetheluxuryoftimetowaittofindoutif the initial plans (typically 3060% design plan set) have significant issues with runway end siting requirements.it is prudent, regardless of the development timeline, to have a clear pictureofpotentialrunwaysitingimpactsbeforewaitingforthefaatoflagthem. Airspace analyses are based on the following standards and specifications contained in advisorycircularsissuedbyfederalaviationadministration(faa).thesedocumentsdescribe protective and restrictive surfaces that need to be clear of obstruction in order to keep navigablespacesafe. Title14CodeofFederalRegulations(CFR)PART77 UnitedStatesStandardsforTerminalInstrumentProcedures(TERPS)Order8260.3B

AdvisoryCircular(AC)150/530013AirportDesign AC150/51904Amodelzoningordinancetolimittheheightofobjectsaroundairport Generally speaking most airports and airport consultants still use Computer Aided Design & Drafting (CADD) platforms for obstruction analysis.there are also third party software products available for the CADD environment which assist in completing airspace analysis.thethreedimensionalairspaceanalysisprogrambyplanningtechnology,inc.isan example of one such CADD platform tool.however, the FAA Office of Airport Planning & Programming (APP) disseminated a Policy Guidance Letter (PGL) in 2007 establishing the AirportsGISProgram((https://airportsgis.faa.gov/public/)inwhichGISwould becometheprimaryspatialdataplatformforallfutureairportlayoutplans(ealps)insupport ofthefaa snextgeninitiative. TheFAAAGISprogramsupportsdatasubmittalsin.DGN,.KML,.SHP,.DWGformats; however,theairportdataitselfwillbestoredbythefaaasesrigisfeatureclasses.while CADDwillremainapartofairportdesignengineeringforyearstocome,airportplanningand analysiswillmoveawayfromcaddintogisoverthenextdecade.esri stechnologysuitehas been a major component supporting the FAA s AGIS program from its.according to FAA Airport Safety and Standards (AAS100) presentation made at the 2012 AAAE Airports GIS ConferenceairportGISeALPsurveyswillbecompleteforallU.S.Large&MediumHubairports by2015,allsmall&nonhubairportsby2017andallnonprimaryhubairportsby2020. The emerging of satellite based GPS navigation has forced improvements in data accuracy.allspatialdataonairportpropertyandsurroundingenvironmentmustsatisfythe accuracystandardssetinfaaadvisorycirculars: AC 150/530016 General Guidance and Specifications for Aeronautical Surveys: EstablishmentofGeodeticControlandSubmissiontotheNationalGeodeticSurvey AC150/530017StandardsforUsingRemoteSensingTechnologiesinAirportSurveys AC150/530018GeneralGuidanceandSpecificationsforAeronauticalSurveys:Airport SurveyDataCollectionandGeographicInformationSystemStandards (http://www.faa.gov/airports/resources/advisory_circulars/) AccordingtoFAAAC150/5300 8b,thesurveyorconductingdatacollectionmustalso run AC150/530018b Airport Airspace Analysis Survey as described in Section 2.7 of this document.thissectiondealswithdevelopmentofairportsurveysurfaces.theairportsurvey Surfaces are used to identify the possible hazard to air navigation and critical approach/departure obstructions within the vicinity of the airport 18B.sec2.7.Section 2.7 identifiesnewscreeningsurfacesforidentifyingverticalobjectsofinterestforagis.these AGIS Airport Airspace Analysis Surfaces are not used by airport planners before the implementation of AC150/530018b and does not supersede Runway End Siting Requirements. TorunairspaceanalysesonRunwayEndSitingRequirements,oneneedsatleastthree different data sets: Existing ground terrain, Existing Manmade features, and Imaginary protectivesurfacesdescribedbyfaaregulations. Thegroundsurfaceandmanmadestructuredataalreadyexistsorwillbecollectedas requiredbythefaaagisprogram.itiscollectedaccuratelyandinaccordancewithfaaac

150/530018B,and16A.ThedatabasehasAC150schemastructureanditisacompletedata set needed to develop ealp. Therefore, the only missing part is a GIS database or feature classes for imaginary protective surfaces described Appendix 2 of AC150/530013 chg18 AirportDesign. Therearetwowaysofdevelopingthesesurfaces.Thefirstandthemostcommonway istouserunwayendpointsanddisregardtherestofrunwaycenterlinepointscollectedasitis describedbycurrentindustrymethodology.thesecondwayistouseallthepointsfromthe runwaycenterline.bothwayshavetheiradvantagesanddisadvantages.thefirstmodelusing runway end points is simpler and relatively accurate; moreover, there is no specific requirementfromfaaonwhichwaytobuildrunwayendsitingsurfaces.thesecondway, using the runway centerline profile is very accurate but requires more complicated mathematicalandgisfunctionsincreation. CurrentlyArcGIShasanAEROtoolthatcanbuildallFAAFARPART77andICAOAnnex 14and15imaginarysurfaces.However,otherimportantRunwayEndSitingsurfacesarenot covered by the ESRI tool. In order to fill this gap the OISCT computational software and ArcGISOIStoolboxweredeveloped. The OISCT software tool uses runway centerline points to calculate and describe RunwayEndSitingSurfacesas3Dpolygons.Thetoolusesasimplecommadelimitedfilewith runway centerline points in X,Y,Z,I format as input. The user then needs to select which surfaceorsurfaceswouldliketocompute.somesurfacesrequiremoreinformationwhichis runway specific and should be entered by the user. In order to help users when this extra informationisrequired,apopupwindoworflashwillshowup,askingformoredata.then, OISCTtoolexportssimpletextfilewith3DpolygonsdescriptionintermsofX,Y,Zcoordinates. The tool also has the capability of exporting extra information as runway azimuth and distance,horizontalortransitionalsurfacelengthandelevationsandetc.thenthesepolygons are imported into ArcGIS and custom developed OISCT toolbox which is employed to complete the development of desired restrictive and protective surfaces. The custom designedarcgisoiscttoolboxcreatesapolygon'sfeatureclasscomprisingallpolygonsfrom the output file, a TIN and raster file for each surface and for each runway. The tool also automaticallycombinesthesurfacesifrequired.whenallnecessarysurfacesforeachrunway are developed then they can be combined and blended in desired way to create the most criticalsurfaceforaparticularareaofinterest.thebenefitofoiscttoolandcustomizedarc ToolboxOISCTcanbesummarizedasfollowing: IttakesfewminutestodevelopawiderangeofRunwayEndSittingsurfaceswithgreat accuracyandthisisalreadyavailableforuse;wellaheadoftheoistoolsuiteunder developmentbythefaaagisprogramteam(est.35yrlead) Savestimeandmoney It has a simple workflow, easy to use and does not require a specific skills or knowledge.evenaentrylevelgisusercanrunthetool Allcalculationsarehardcodedavoidingusererror.Theonlypossiblemistakesareto selectwrongsurfaceorenterwrongvaluewhentheusertyperequiredextrarunway data Developedsurfacescanbestoredinoneplace

Thethreecomponentusedforanalysesaredevelopedatonce:Polygon,TINandraster dataforeachsurface FutureResearchDevelopment TheOISCTtooladdressesaninitialstartincreatingagreatmanyprotectivesurfaces required by airport planners in screening potential impacts that changes to the airport can make on aeronautical utility and procedure development.there are a great many other protectivesurfaceswhichhavenot,asofyet,beendevelopedmathematicallyfortheesrigis environment.futureresearchanddevelopmentisplannedforfuturepresentationattheesri UsersConferencein2013.Theseincludefurtherdevelopmentofmorescreeningsurfacesfor developmentevaluation(bothonandoffairportproperty)andtoolenhancementstoinclude butnotlimitedtofollowingones: 1. AC150/530018BAirportAirspaceAnalysisSurfaces, 2. Expand the OISCT tool to create FAR Part 77.21 Department of Defense (DOD) airportimaginarysurfacesaswellasfarpart77.23heliportimaginarysurfacesfor usebyjointuseairportsormixeduseairportsthatsharefacilitieswiththeu.s. Department of Defense.Airports which also serve as a Heliport(s) would also benefitfromanautomatictoolthatwouldcreatescreeningcriteriaforprotecting theapproach/departurepathsofhelicopteroperations. 3. AirportNAVAIDScreeningToolsenhancementforGISOISCTtool.Allowsairport plannerstoascertaintheimpactsofproposedconstructiononsignalinterference on airport NAVAIDS.Not all of the siting or clearance surfaces for all airport NAVAIDs are complex, nor do they require a specialized tool to provide benefit. ResearchhasshowntoincludethesescreeningsurfacesinGISasabenefittosave timeanddecreasecomplexity 4. Further enhancements and development of TERPs screening surfaces to include morenextgencapabilityterminalapproachanddepartureproceduresusinggps. 5. DevelopacompatibleOISCTaddinforArcGIS.Thisaddinwillworkinsynergy withac150andread/writethedatafrom/togisfeatureclassordataset 6. IncreasethecapabilityofOISCTtoolboxtorunmostcommonanalyses 7. Automaticexportfunctionofdevelopedsurfacesindifferentformats REFERENCES(InOrderofAppearance): 1. FAAAdvisoryCircularAirportDesignAC150/530013Chg.18,AirportDesign Appendix2.RunwayEndSitingRequirements). http://www.faa.gov/airports/resources/advisory_circulars/index.cfm/go/documen t.current/documentnumber/150_530013/ 2. AC150/530018b,GeneralGuidanceandSpecificationsforSubmissionof AeronauticalSurveystoNGS:FieldDataCollectionandGeographicInformation System(GIS)Standards. https://airportsgis.faa.gov/public/surveyorsintro.html

3. Table21.SurveyRequirementsMatrixAC150/530018b.https://airports gis.faa.gov/public/surveyorsintro.html 4. PGLGuidanceLetteronpurposeofFAAAirportsGISprogram(https://airports gis.faa.gov/public/index.html) 5. FAAPassengerBoarding(Enplanement)andAllCargoDataforU.S.Airports http://www.faa.gov/airports/planning_capacity/passenger_allcargo_stats/passeng er/ 6. HistoryoftheNextGenLegislation.http://www.faa.gov/nextgen/ 7. FAAAirportGrantAssuranceInformationWebpage. http://www.faa.gov/airports/aip/grant_assurances/ 8. Title14F.A.R.Part77ObjectsAffectingNavigableAirspace. http://ecfr.gpoaccess.gov/cgi/t/text/text idx?c=ecfr&sid=f7780e4d527cd2a76a520fe6606ebc9d&rgn =div5&view=text&node=14:2.0.1.2.9&idno=14 9. FAAAirportsAdvisoryCircularSearchEngine. http://www.faa.gov/airports/resources/advisory_circulars/ 10. USTerminalInstrumentProceduresFAAOrder8260.3B http://www.faa.gov/regulations_policies/orders_notices/index.cfm/go/document.i nformation/documentid/11698 11. FAAAdvisoryCircularAirportDesignAC150/530013chg.18 http://www.faa.gov/airports/resources/advisory_circulars/index.cfm/go/documen t.current/documentnumber/150_530013/