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FAA

Legacy ID
8081

Unmanned Aircraft Activities

STATEMENT OF

NICK SABATINI,
ASSOCIATE ADMINISTRATOR FOR
AVIATION SAFETY
FEDERAL AVIATION ADMINISTRATION

BEFORE THE

HOUSE COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE,
SUBCOMMITTEE ON AVIATION

ON

UNMANNED AIRCRAFT ACTIVITIES,

MARCH 29, 2006.

 

Chairman Mica, Congressman Costello, Members of the Subcommittee.

I am pleased to appear before you today to discuss a subject that serves to remind us that the future is now.  The development and use of unmanned aircraft (UAs) is the next great step forward in the evolution of aviation.  As it has throughout its history, FAA is prepared to work with government and industry to ensure that these aircraft are both safe to operate and are operated safely.  The extremely broad range of UAs makes their successful integration into the national airspace system (NAS) a challenge, but certainly one worth meeting.  To meet this vital need, the FAA has established an Unmanned Aircraft Program Office which has the expressed purpose of insuring a safe integration of UAs into the NAS.

 

At the outset, you must understand that UAs cannot be described as a single type of aircraft.  UAs can be vehicles that range from a 12-ounce hand launched model to the size of a 737 aircraft.  They also encompass a broad span of altitude and endurance capabilities.  Obviously, the size of the UA impacts the complexity of its  system design and capability.  Therefore, each different type of UA has to be evaluated separately, with each aircraft’s unique characteristics being considered before its integration into the NAS can be accomplished.  FAA is currently working with both other government agencies and private industry on the development and use of UAs.

 

The number of government agencies that want to use UAs in support of their mandate is increasing.  In addition to the Departments of Defense (DoD) and Homeland Security (DHS), the Department of Interior (DOI), the National Oceanic and Atmospheric Administration (NOAA) and state and local governments are all interested in increasing their use of UAs for a range of very different purposes.  The certification of UAs by government agencies in the NAS is considered a public aircraft operation, the oversight for which falls outside the scope of the FAA.  These public operations are, however, required to be in compliance with certain federal aviation regulations administered by the FAA and the FAA is and must be involved to ensure that the operation of these aircraft do not compromise the safety of the NAS.  FAA’s current role is to ensure that UAs do no harm to other operators in the NAS and, to the maximum extent possible, the public on the ground.

 

In working with government agencies, the FAA issues a certificate of authorization (COA) that permits the agency to operate a particular UA for a particular purpose in a particular area.  In other words, FAA works with the agency to develop conditions and limitations for UA operations to ensure they do not jeopardize the safety of other aviation operations.  The objective is to issue a COA with terms that ensure an equivalent level of safety as manned aircraft.  Usually, this entails making sure that the UA does not operate in a populated area and that the aircraft is observed, either by someone in a manned aircraft or someone on the ground.  In the interest of national security and because ground observers were not possible, the FAA worked with DHS to facilitate UA operations along the Arizona/New Mexico border with Mexico.  In order to permit such operations, the airspace is segregated to ensure system safety so these UA flights can operate without an observer being physically present to observe the operation.  The FAA is working closely with DHS to minimize the impact of the segregation methods on other aviation operations.  Such operations include DoD training missions, general aviation and commercial operations.  In the past two years, the FAA has issued over 50 COAs.  With the steadily expanding purposes for which UAs are used and the eventual stateside redeployment of large numbers of UAs from the theater of war, the FAA expects to issue a record number of COAs this year.

 

FAA’s work with private industry is slightly different.  Companies must obtain an airworthiness certificate by demonstrating that their aircraft can operate safely within an assigned flight test area and cause no harm to the public.  They must be able to describe their unmanned aircraft system, along with how and where they intend to fly.  This is documented by the applicant in what we call a program letter.  An FAA team of subject matter experts reviews the program letter and, if the project is feasible, performs an on-site review of the ground system and unmanned aircraft, if available.  If the results of the on-site review are acceptable, there are negotiations on operating limitations.  After the necessary limitations are accepted, FAA will accept an application for an experimental airworthiness certificate which is ultimately issued by the local FAA Manufacturing Inspection District Office.  The certificate specifies the operating restrictions applicable to that aircraft.  We have received 14 program letters for UAs ranging from 39 to over 10,000 pounds.  We have issued two experimental certificates, one for General Atomics’ Altair, and one for Bell-Textron’s Eagle Eye.  We expect to issue at least two more experimental certificates this year. 

 

Each UA FAA considers, whether it be developed by government or industry, must have numerous fail safes for loss of link and system failures.  Information must be provided to FAA that clearly establishes that the risk of injury to persons on the ground is highly unlikely in the event of failures or loss of link.  Like everything else having to do with UAs, the methods that link the aircraft with ground control can be as simple as frequency line of sight or as complex as multiple ground and satellite paths making up a functional connection.  If the link is lost, it means the aircraft is no longer flying under  control of the pilot.  Because FAA recognizes the seriousness of this situation, we are predominantly limiting UA operations to unpopulated areas.  Should loss of link occur, the pilot must immediately alert air traffic control and inform the controllers of the loss of control link.  Information about what the aircraft is programmed to do and when it is programmed to do it is pre-coordinated with the affected ATC facilities in advance of the flight so that FAA can take the appropriate actions to mitigate the situation and preserve safety.

 

The COA and Experimental Airworthiness Certificate processes are designed to allow a sufficiently restricted operation to ensure a safe environment, while allowing for research and development until such time as pertinent standards are developed.  They also allow the FAA, other government agencies, and private industry to gather valuable data about a largely unknown field of aviation.  The development of standards is crucial to moving forward with UAs integration in the NAS.  FAA has tasked the RTCA, an industry led federal advisory committee to FAA, with the development of a Minimum Aviation System Performance Standard (MASPS) for sense and avoid, and command, control and communication.  These standards will allow manufacturers to begin to build certifiable avionics for UAs.  It is expected that the MASPS for avionics will take three to four years to develop.  Until there are set standards and aircraft meet them, UAs will continue to have appropriate restrictions imposed.  In addition, the FAA is working closely with DoD and DHS to collaborate on the appropriate approach to certification standards.  

 

Because of the extraordinarily broad range of unmanned aircraft types and performance, the challenges of integrating them safely into the NAS continue to evolve.  Urgent future ground surveillance needs must be balanced with the ongoing air transportation operations.  The certification and operational issues described herein highlight the fact that there is a missing link in terms of technology today that prevents these aircraft from getting unrestricted access to the NAS.  Currently there is no recognized technology solution that could make these aircraft capable of meeting regulatory requirements for see and avoid, and command and control.  Further, some unmanned aircraft will likely never receive unrestricted access to the NAS due to the limited amount of avionics it can carry because of weight, such as transponders, that can be installed in a vehicle itself weighing just a few ounces.  Likewise, the performance difference with surrounding air traffic can present challenges.  Some UA operate in airspace used primarily by jet aircraft that can fly at twice their speed, thus complicating the control of the airspace.

 

FAA is fully cognizant that UAs are becoming more and more important to more and more government agencies and private industry.  The full extent of how they can be used and what benefits they can provide are still being explored.  Over the next several years, when RTCA has provided recommended standards to the FAA, we will be in a position to provide more exact certification and operational requirements to UA operators.  As the technology gap closes, we expect some UAs will be shown to be safer and have more access to the NAS.  The future of avionics and air traffic control contemplates aircraft communicating directly with one another to share flight information to maximize the efficiency of the airspace.  This could certainly include some models of UA.  Just as there is a broad range of UA, there will be a broad range of ways to safely provide them access to the NAS.  Our commitment is to make sure that when they operate in the NAS, they do so with no denigration of system safety

 

In our history, FAA and its predecessor agencies have successfully transitioned many new and revolutionary aircraft types and systems into the NAS.  Beginning in 1937, we completed the U.S. certification for the first large scale production airliner (the DC-3), then went on to certify the first pressurized airliner (the Boeing B-307 in 1940), civil helicopter (Bell 47 in 1946), turboprop (Vickers Viscount in 1955), turbojet (Boeing 707 in 1958), as well as the supersonic transport (Concorde in 1979), and the advance wide-body jets of today (Boeing 747-400 in 1989).  It seems appropriate that, as we begin a new century and new millennium, advances in aviation technology present us with another addition to the fleet with great potential - unmanned aircraft.

 

Mr. Chairman, FAA is prepared to meet the challenge.  We will continue to work closely with our partners in government, industry and Congress to ensure that the National Airspace System has the ability to take maximum advantage of the unique capabilities of unmanned aircraft.

 

This concludes my prepared remarks.  I will be happy to answer your questions at this time.

 

NEW AIRCRAFT IN THE US AVIATION SYSTEM

JOINT STATEMENT OF

NICHOLAS A. SABATINI,
ASSOCIATE ADMINISTRATOR FOR AVIATION SAFETY,
AND
MICHAEL A. CIRILLO,
VICE PRESIDENT, SYSTEMS OPERATION SERVICES,
AIR TRAFFIC ORGANIZATION,
FEDERAL AVIATION ADMINISTRATION

BEFORE THE

SENATE COMMITTEE ON COMMERCE, SCIENCE, AND TRANSPORTATION,
SUBCOMMITTEE ON AVIATION

ON

NEW AIRCRAFT IN THE US AVIATION SYSTEM

SEPTEMBER 28, 2006

 

Good morning, Chairman Burns, Senator Rockefeller, and Members of the Subcommittee.  It is our pleasure to be here today to discuss with you the introduction of new aircraft in our nation’s air traffic system.  The Federal Aviation Administration is preparing to deal with the challenges presented by these and other new types of aircraft.  Very Light Jets (VLJs) and Unmanned Aircraft (UAs) are examples of the on-going evolution of the aviation industry, and the FAA, working closely with the aviation industry, will develop safety standards and operating procedures to ensure their safe integration into the NAS.

 

VLJs and UAs are part of the future of aviation, and that future is on our doorstep right now.  The system is in place TODAY to accommodate the entry of new aircraft into the National Airspace System . . . this is nothing new for the FAA.  It is our day-to-day business.  From when FAA’s predecessor agency certified the Buhl Airster in 1927, to the introduction of the Boeing 707 and the dawning of the jet age in the late 1950’s, FAA has always been able to successfully assimilate new aircraft into the NAS.  When the Boeing 707 began its transcontinental flights, the average airspeed of passenger aircraft more than doubled overnight, from about 220 knots to over 500 knots.  And this transition into the jet age took place within an infrastructure that was 50 years old at the time.  The system is more robust today, with better technology, more precision, and greater flexibility, than at any time in our history.  FAA has long established operating procedures that ensure different types and vintages of aircraft are operated at compatible airspeeds in congested airspace or while en-route to and from the high altitude airspace.  From beginning to end, nothing is left to chance.

 

Relatively inexpensive twin-engine VLJs are believed by many to have the potential to redefine the business jet segment by significantly expanding business jet flying and offering performance that could support a true on-demand air-taxi business service.  FAA forecasters project that up to 5,000 of these jets will be in operation by 2017.

 

The FAA has established a cross-organizational group to address the issues of safety and system capacity created by the anticipated introduction of thousands of VLJs within the next ten years.  This group includes elements from our Air Traffic Organization (ATO), Flight Standards Service (AFS), Aircraft Evaluation Group (AEG) and Aircraft Certification Office (ACO).  The group has organized its work under separate committees that focus on specific issues:  Pilot Training and checking; Flight Operations; Maintenance; Inspector Training; and Air Traffic. 

 

Also, to address UAs, we have established an Unmanned Aircraft Program Office to develop guidance and regulations for certification and integration of UAs.  Interest in using Unmanned Aircraft (UAs) for a broad range of purposes is increasing, not only by U.S. governmental agencies, but also by the civil aviation community.  Integrating UAs with manned aircraft in the NAS presents significant challenges for the FAA, and both the public and private sectors.  At the outset, it is helpful to understand that UAs cannot be described as a single type of aircraft.  UAs can be vehicles that range from a 12-ounce hand-launched model to one the size of a 737 aircraft.  They also encompass a broad span of altitude and endurance capabilities.  Obviously, the size of the UA impacts the complexity of its system design and capability.  Therefore, each different type of UA has to be evaluated separately, with each aircraft’s unique characteristics being considered before its integration into the NAS can be safely accomplished. 

 

The certification of all government agency aircraft, including UAs, in the NAS is considered a public aircraft operation, the oversight for which falls outside the scope of the FAA.  These public operations are, however, required to be in compliance with certain federal aviation regulations administered by the FAA and the FAA is and must be involved to ensure that the operation of these aircraft does not compromise the safety of the NAS.  FAA’s current role is to ensure that UAs do no harm to other operators in the NAS and, to the maximum extent possible, the public on the ground.

 

In working with government agencies, the FAA issues a certificate of authorization (COA) that permits the various public agencies to operate a particular UA for a particular purpose in a particular area.  In other words, FAA works with the agency to develop conditions and limitations for UA operations to ensure they do not jeopardize the safety of other aviation operations.  The objective is to issue a COA with terms that ensure an equivalent level of safety as manned aircraft.  Usually, this entails making sure that the UA does not operate in a populated area and that the aircraft is observed, either by someone in a manned aircraft or someone on the ground.  For example, in the interest of national security and because ground observers were not possible, the FAA worked with the Department of Homeland Security (DHS) to facilitate UA operations along the Arizona/New Mexico border with Mexico.  In order to permit such operations, the airspace was segregated to ensure system safety so these UA flights can operate without an observer being physically present to observe the operation.  With the steadily expanding purposes for which UAs are used and the eventual stateside redeployment of large numbers of UAs from the theater of war, the FAA expects to issue a record number of COAs.  In fact, the FAA has issued more than 75 COAs this year, compared with a total of 50 for the two previous years combined.

 

FAA’s work with private industry is slightly different than with government agencies.  The development of guidance and regulations for UAs for civil aviation use will be an evolving process.  Standards development is required for all areas of UAS technology, including the airframe, maintenance procedures, pilot and controller training, powerplant and other areas.  The FAA is working with industry, under the auspices of RTCA, Inc. to develop consensus standards for detect, sense and avoid systems; and command, control and communication systems.  Until standards and minimum requirements are established, the FAA is working closely with companies that wish to operate UAs in the NAS today by applying the Experimental Airworthiness Certificate process.

 

Today, for civil operation, companies may obtain an Experimental Airworthiness Certificate by demonstrating that their aircraft can operate safely within an assigned flight test area and cause no harm to the public.  They must be able to describe their unmanned aircraft system, along with how and where they intend to fly.  This is documented by the applicant in what we call a program letter.  An FAA team of subject matter experts reviews the program letter and, if the project is feasible, performs an on-site review of the ground system and unmanned aircraft, if available.  If the results of the on-site review are acceptable, there are negotiations on operating limitations.  After the necessary limitations are accepted, FAA will accept an application for an experimental airworthiness certificate which is ultimately issued by the local FAA Manufacturing Inspection District Office.  The certificate specifies the operating restrictions applicable to that aircraft.  To date, we have received several program letters for UAs ranging from 39 to more than 10,000 pounds.  We have issued two experimental certificates, one for General Atomics’ Altair, and one for Bell-Textron’s Eagle Eye.  We expect to issue at least one more experimental certificate this year. 

 

The COA and Experimental Airworthiness Certificate processes are designed to allow a sufficiently restricted operation to ensure a safe environment, while allowing for research and development until such time as pertinent standards are developed.  They also allow the FAA, other government agencies, and private industry to gather valuable data about a largely unknown field of aviation.  The development of standards is crucial to moving forward with UA integration into the NAS.  Because of the extraordinarily broad range of unmanned aircraft types and performance, the challenges of integrating them safely into the NAS continue to evolve.  The certification and operational issues described herein highlight the fact that there is a missing link in terms of technology today that prevents these aircraft from getting unrestricted access to the NAS. 

 

So far we have discussed FAA’s current efforts regarding certification and regulation of VLJs and UAs as we enable the safe introduction of these new aircraft into the NAS.  There are still many challenges to be met in these areas before the procedures for certification, licensing, training, inspection, maintenance and operation of these aircraft are standardized and routine.  The question many have is how FAA is going to integrate these new aircraft into the NAS, without adversely affecting safety, or increasing congestion and delays.  The ATO is producing results today that are already improving capacity and efficiency, and in conjunction with the Joint Planning and Development Office (JPDO), laying the foundation for the Next Generation Air Transportation System (NextGen).

In 2005, the ATO implemented a new procedure, known as Domestic Reduced Vertical Separation Minima or DRVSM, which is truly exciting.  DRVSM has significantly increased capacity in the en route airspace by doubling the number of usable altitudes between 29,000 and 41,000 feet.  The procedure permits controllers to reduce minimum vertical separation at altitudes between 29,000 and 41,000 feet from 2,000 feet to 1,000 feet for properly equipped aircraft. 

The User Request Evaluation Tool (URET) is a tool used by the controller to predict potential aircraft to aircraft, and aircraft to airspace conflicts earlier, allowing them to construct alternative flight paths.  URET allows these conflicts to be addressed in a strategic sense rather than a tactical sense, with fewer deviations to the route or altitude.

In August, the FAA approved the update to the Roadmap for Performance-Based Navigation, developed in cooperation with the aviation industry.  The 2006 Roadmap focuses on addressing future efficiency and capacity needs while maintaining or improving the safety of flight operations by leveraging advances in navigation capabilities on the flight deck.  This revision updates the FAA and industry strategy for evolution toward performance-based navigation.  The Roadmap is intended to help aviation community stakeholders plan their future transition and investment strategies.  The stakeholders who will benefit from the concepts in the Roadmap include airspace operators, air traffic service providers, regulators and standards organizations, and airframe and avionics manufacturers.  As driven by business needs, airlines and operators can use the Roadmap to plan future equipage and capability investments.  The strategy rests upon two key navigation concepts: Area Navigation (RNAV) and Required Navigation Performance (RNP).

The ATO is focused on expanding the implementation of advanced RNAV procedures to additional airports.  These RNAV procedures provide flight path guidance that is incorporated into onboard aircraft avionics systems, requiring only minimal air traffic instructions.  This significantly reduces routine controller-pilot communications, allowing more time for pilots and controllers to handle other safety-critical flight activities.  Also, RNAV procedures use more precise routes for departures and arrivals, reducing time intervals between aircraft on the runways, and allowing for increases in traffic, while enhancing safety.  In 2004, thirteen RNAV departure procedures and four RNAV arrival procedures went into full operation at Atlanta Hartsfield-Jackson International Airport – the world’s busiest airport.  Additionally, sixteen RNAV departures were implemented at Dallas/Fort Worth International Airport in 2005.  The FAA published 53 of these procedures in FY2006, and plans to publish at least 50 procedures in FY2007.

FAA is currently implementing additional technological innovations, including a capability known as RNP.  RNP uses on-board technology that allows pilots to fly direct point-to-point routes more reliably and accurately.  RNP is extremely accurate, and gives pilots not only lateral guidance, but vertical precision as well.  RNP potentially reaches all aspects of the flight – departure, en route, arrival, and approach.  As of today, the FAA has published 28 RNP approach procedures this year, and plans to publish at least 25 more in FY2007.

We must also make sure we are using the best technology to maintain a safe and efficient air traffic system.  The en route air traffic control computer system is considered the heart of the NAS.  En Route Automation Modernization (ERAM) provides the basic foundation upon which many of the transforming technologies moving us from the current NAS to NGATS needs.  ERAM replaces the software for the Host Computer System and its backup.  It will enable the FAA to increase capacity and improve efficiency in a way that cannot be realized with the current system, which is a mix of different technologies that evolved over the years and is extremely difficult to expand or upgrade.  In addition to supporting new transformational technologies, ERAM itself can process more than double the number of flight plans, and use almost triple the number of surveillance sources as the current system.  The ERAM system is scheduled to be deployed and operational at all 20 Air Route Traffic Control Centers by 2010. 

Traffic Flow Management (TFM) is the “brain” of the NAS, and is the reason that we could handle more traffic at our major airports in 2005 than in 2000, without the long delays that made the summer of 2000 the worst on record.  The TFM system is the mechanism by which traffic flows across the NAS are orchestrated.  As the NAS is impacted by severe weather, congestion and/or outages, the TFM system provides timely information to our customers to expedite traffic and minimize system delays.  The FAA is currently in the process of modernizing the TFM infrastructure through its TFM Modernization program.  We are currently introducing new Airspace Flow Management technology to reduce the impact of delays incurred during the severe weather season.  FAA estimates show that TFM provides roughly $340 million in benefits to our customers on a yearly basis in reduced direct operating costs through delay reductions.  ERAM and TFM together will enable flexible routing around congestion, weather, and flight restrictions, and help controllers to automatically coordinate flights, during periods of increased workload. 

 

The JPDO and ATO will work together to analyze the changes that will be needed to both ERAM and TFM so they meet the needs of the Next Generation System.  Today’s flight planning and air traffic paradigms will be transformed into a system that manages operations based on aircraft trajectories, regularly adjusts the airspace structure to best meet customer and security/defense needs and relies on automation for trajectory analysis and separation assurance.

 

The JPDO serves as a focal point for coordinating the research related to air transportation modernization for agencies across the Federal government, including the Departments of Transportation, Commerce, Defense and Homeland Security, as well as NASA and the Office of Science and Technology Policy. 

 

At the FAA, our eyes are focused on the NextGen Vision while using existing technology to provide important and tangible operational benefits now.  We are finding ways to make existing capacity work more efficiently through advanced technology and operational improvements.  Research is underway to explore ways of safely achieving reductions in separation standards, allowing for greater density of operations, which the anticipated increase in these vehicles will demand.  We are also examining the Human Factors implications of super density operations and traffic control automation.  Moreover, as-yet unexplored concepts may be expected to play a role.

 

These innovations provide relief today as well as help to lay the foundation for the Next Generation System.  Successful integration of VLJs and UAs into the NAS will represent a significant step in the process of evolution from the current NAS to the NextGen system.  In order to fulfill the NextGen 2025 vision of handling significant increases in today’s traffic, with improved safety, capacity, and efficiency, we must competently manage the introduction of VLJs and UAs into the NAS.   The impact of these new vehicles on the NAS is addressed in the JPDO Concept of Operations (CONOPS).  One overarching goal of the NextGen initiative is to develop a system that will be flexible enough to accommodate a wide range of users -- very light jets and large commercial aircraft, manned and unmanned aircraft, small airports and large, business and vacation travelers alike, while handling a significantly increased number of operations with a commensurate improvement in safety, security and efficiency.

 

In 2005, the JPDO moved ahead with plans to accelerate the development of key NGATS projects, such as Automatic Dependent Surveillance-Broadcast (ADS-B), and System Wide Information Management (SWIM).  In FAA’s Fiscal Year 2007 budget request, the Administration proposed several targeted investment areas, to promote early implementation of elements of the NGATS system.  One of these very promising initiatives, with potential for broad operational applications, is the Automatic Dependent Surveillance-Broadcast (ADS-B) system, a technology that will replace ground-based radar systems and revolutionize air navigation and surveillance.  For FY 2007, the President’s budget includes $80 million for the FAA for the ADS-B program. 

 

Given its fundamental importance to the success of the NGATS System, establishing an initial Network-Enabled Operations (NEO) capability is a high priority for JPDO and its member agencies.  Current efforts focus on identifying the network architecture and enacting standards for information and safety data sharing.  In 2005, the JPDO, FAA and an industry team demonstrated how network-enabled concepts developed for the military customers can be applied to Air Traffic Management.  The FAA’s System Wide Information Management (SWIM) program – the beginning of network-centric operation in the National Airspace System – will continue developing this capability.  The President’s budget proposal for FY 2007 requests $24 million for FAA’s SWIM program.

 

The FAA has already been working with industry to identify the near-term operational requirements of VLJs in the NAS.  Dayjet, a large Part 135 operation, expects to be operating 100 Eclipse EA-500s by the end of 2007.  Its business plan calls for utilizing regional airports in the southeastern U.S., and Dayjet is working in close cooperation with FAA so we can establish appropriate flight procedures as these jets are introduced.  FAA is also currently working with Eclipse to contract for training for both FAA operations and maintenance inspectors for FY07.  The EA-500 is unlike any other aircraft currently in production, and is unique in that it has highly integrated avionics systems. 

 

Performance characteristics of VLJs are similar to some other business class aircraft that have operated in the NAS for many years.  VLJs can operate from shorter runways than commercial airliners, and can utilize the 5000+ satellite airports around the United States.  In fact, the advertised business models for the first companies state that they will fly point-to-point among the nation’s smaller regional airports that are situated within a half-hour’s drive of over 90 percent of Americans.  These jets are expected to be delivered from the manufacturers with state-of-the-art avionics, capable of taking advantage of RNAV and RNP procedures and routes.  Manufacturers state that VLJs will be IFR-certified, with glass cockpits, with full RVSM and ADS-B equipage.  They will be capable of flying with single or dual pilots, with 4-10 passenger seats, and will typically operate at intermediate flight levels between 15,000 and 28,000 feet, but capable of 38,000 to 45,000 feet.  Cruising speeds will be between 315 and 450 KIAS or Knots Indicated Air Speed, with a range of 900-1750 nautical miles, although typical legs will be 200-600 nautical miles.

 

The FAA is conducting training throughout the ATO regarding performance capabilities of these aircraft to help mitigate any problems with blending VLJs with faster jets. 

The FAA’s Cross Organizational Group will continue to work to monitor the safety and impact of these new aircraft, and address any unanticipated problems as they arise. 

 

These technological and operational improvements are positive steps down the road to building the Next Generation Air Transportation System.  The FAA and the JPDO are continuing to explore near and far term innovations that will enable accommodation of increasing numbers of VLJs and UAs in the NAS.  We know, however, that we continue to face many challenges.  Over the next few years we will work to achieve better cost management; determine the best solution for our aging and deteriorating facilities; plan more effectively for catastrophic events, like hurricanes or terrorist attacks; and, conduct research on convective weather to reduce flight delays associated with summer storms.  Everything in our business – pay, job performance, future technology, the nation’s economy – is linked together.  We strive to improve efficiency, while searching for innovative ways to provide safer services even more efficiently.  As we decide how to wisely invest in our future, we will continue to work closely with our customers, our employees, and of course, Members of Congress. 

 

Mr. Chairman, this concludes our testimony, and we would be happy to answer any questions the Committee may have.

 

FAA Safety Oversight

STATEMENT OF

NICHOLAS A. SABATINI,
ASSOCIATE ADMINISTRATOR FOR AVIATION SAFETY,
FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE,
SUBCOMMITTEE ON AVIATION,

ON

FAA SAFETY OVERSIGHT,

SEPTEMBER 20, 2006.

 

Chairman Mica, Congressman Costello, Members of the Subcommittee:

I am pleased to appear before you today to discuss the current state of Federal Aviation Administration (FAA) aviation safety oversight.  My primary message to you today is that despite the tragic accident that took place in Lexington, Kentucky last month, the safety record of aviation in the United States (U.S.) is extraordinary.  And while the Kentucky accident serves as an important reminder that our work as safety professionals is never done, we remain in the midst of the safest period in aviation history.  Since 2001, U.S. scheduled air carriers have transported approximately 2.2 billion passengers, or seven times the population of our country.  Over that time period we have had a total of seventy-eight passenger fatalities.

 

All of us who work for or with aviation professionals can take pride in the results of our collective efforts, especially given the economic turbulence that has been experienced by U.S. carriers in recent years.  I am here today to commit to you that, while I take great pride in the current state of aviation safety, the FAA has no intention of becoming complacent.  Aviation is extremely dynamic and FAA must be prepared to not only keep pace with, but stay ahead of changes in the industry.  It is in that context that I would like to share with you where we are in terms of aviation safety today, the challenges we face now and in the future, and how we intend to address them. 

 

In the early 1990’s, the Boeing Company projected that if the aviation industry did not take strong preventive measures in safety initiatives in commercial aviation, the projected growth in operations over the next 20 years would increase the number of hull loss accidents worldwide to approximately one every week.  This was a wake up call to all who worked in and cared about aviation.  Because of work done collectively by government, industry, and operators, today a fatal accident occurs about every 15 to 16 commercial million flights.  This is a far cry from what Boeing predicted, and is an accomplishment for which we can all be proud.  Today, commercial airline accidents are so rare that when they do occur, they are big news, as we recently experienced.  In the glare of all the media, it is sometimes hard to fully appreciate the magnitude of the achievement that our safety record reflects.  By no means do I want to downplay the Kentucky accident, but it must be put into context so the flying public understands that our system is extremely safe.  In fact, pilots are actually safer on the job than when they are not at work.

 

It is also important to understand that FAA’s commitment to aviation safety is not limited to commercial operations, and that we are meeting our safety goals in general aviation as well.  We are in the midst of a major revitalization in that segment of the industry that is due, in large part, to legislation Congress passed in 1994 - the General Aviation Revitalization Act.  The General Aviation Manufacturers Association (GAMA) recently announced record breaking shipment and billing figures.  Over the past year, FAA issued approvals for new general aviation airplane designs, such as Sino Swearingen’s SJ-30, Cessna’s Mustang, and Eclipse’s 500 model.  These new aircraft, and the introduction of the light sport classification of aircraft and pilots last year, represent growing segments of general aviation and the continued evolution of our system.  FAA sets tough safety improvement targets for general aviation expressed as a “not-to-exceed” number of fatal accidents, which decreases every year.  With 10 days left in the fiscal year, we are on target to come in about 10% below our not-to-exceed number.  Put more simply, this has been the safest year in general aviation since we started keeping records.  General aviation is a vital part of the industry and we are pleased to report that it is so robust and safer than ever.

 

Turning to the area of air cargo, there are two primary operational federal aviation regulations (FAR) overseeing air cargo, FAR part 121 for operators of larger aircraft, and FAR part 135 for non-scheduled operators using smaller aircraft.  The part 121 cargo operation per departure hull loss accident rate has consistently improved, and now stands at about one-third of where it was in 1990.  Without precise data on the number of departures for the part 135 operators, we track the total number of accidents.  A consistent downward trend is also shown for the 135 operators with the number of accidents in 2005 at about half of what they were in 1990. 

 

A review of the accident data indicates that in both types of operations, the accident rates are declining.  The trends are coming down.  The FAA implemented a number of safety initiatives after the Fine Air accident in 1998, which involved improper loading of cargo.  We issued several guidance documents including an Advisory Circular AC 120-85 titled “Air Cargo Operations.”  This AC focuses on cargo loading procedures, cargo handling systems, and weight and balance. 

 

Another area of focus for the FAA is in the Helicopter Emergency Medical Service (HEMS) operations, an industry that has grown rapidly in recent years.  These operations are unique due to the emergency nature of the mission.  The number of accidents nearly doubled between the mid-1990s and 2004.  There were 9 accidents in 1998, compared with 15 in 2004, with a total of 83 accidents from 1998 through mid-2004.  The main causes were controlled flight into terrain (CFIT), inadvertent operation into instrument meteorological conditions, and pilot spatial disorientation/lack of situational awareness in night operations.  

 

Safety improvements were clearly needed.  That is why in August 2004 the FAA initiated a new government and industry partnership to address these concerns and improve the safety culture of HEMS operators.  Working with industry, the FAA developed several short and long-term strategies for reducing accidents.  An example was the development of Risk Assessment Program guidance for HEMS operations.  Another example was the development and implementation of Air Medical Resource Management Training.  As a result of the efforts of the FAA and industry, there has been a marked decrease in accidents in this area. 

 

As I stated at the outset, we recognize that we cannot rest on our laurels.  We are constantly looking ahead and working with people in both government and industry to find ways to make this very safe system even safer.  It is not acceptable for FAA to react to changes in the system, we must anticipate them. 

 

With that in mind, what are we anticipating in the years ahead?  What are the challenges we will face, and how will we face them?  The legacy carriers are undergoing fundamental shifts and changes in their business models.  There are significant pressures to reduce costs which have resulted in more and more production and maintenance being outsourced, something I know this Committee has long been interested in.  At the same time, commercial airline traffic is rebounding.  FAA forecasts commercial airline traffic will triple over the next ten years.  In addition to the new large commercial aircraft we expect, such as the Boeing 787 and the Airbus 380, there are many more types of aircraft we know will be introduced into the system.  We can expect everything from light sport aircraft to commercial space vehicles; from very light jets (VLJs) to unmanned aircraft systems (UAS).  In fact, there are some 20 models of VLJs in various stages of design and production.  FAA forecasters predict 4,000 VLJs could be in operation in 10 years.

 

The growing presence of UAS introduces a number of safety concerns about which I know this Committee is aware.  We need to know about the mission, characteristics, requirements, and performance of the many, many different models of UAS.  For safety’s sake, we need UAS operations to be transparent and seamless.  But first and foremost, we must ensure that UAS operating in civil airspace will have no adverse impact to the thousands of aircraft already operating in the national airspace system (NAS).  As I testified before you earlier this year, we are currently working with government and industry to establish standards and metrics to enable us to move forward in this area.

 

In short, from my perspective we are experiencing the greatest change in the history of civil aviation, yet at the same time U.S. travelers are enjoying unprecedented safety.  FAA is committed to maintaining and improving upon this record of performance.

 

In 1998, FAA began overseeing the ten largest part 121 carriers using the Air Transportation Oversight System (ATOS) model, which goes beyond simply ensuring regulatory compliance.  The goal of the ATOS model is to foster a higher level of air carrier safety using a systemic, risk-management-based process to identify safety trends and prevent accidents.  ATOS has improved safety because it identifies and manages risks before they cause problems with safety, thus ensuring that carriers have safety adequately built into their operating systems. 

 

To continue to improve aviation safety we must use every tool at our disposal.  The most effective way to improve safety is through Safety Management Systems (SMS).  Safety Management Systems enable organizations to identify and manage risk far better than before.  With this formalized approach, we can identify issues, fix them, and ensure they stay fixed.  

 

Operating under a Safety Management System assures a disciplined and standardized approach to managing risk.  The best part is we can review past experience and address known hazards, and at the same time we can look ahead and rigorously apply Safety Risk Management principles to any changes or introduction of new elements.

 

Furthermore, under an SMS, the whole process — identifying potential problems and putting corrections in place — is ongoing and the procedure is continuously assessed to make sure it is working. 

 

In short, SMS formalizes risk management, which is imperative as we move from a forensic, or after-the-fact accident investigation approach, to a diagnostic and more prognostic, or predictive, approach.  With the accident rate as low as it is, we must get in front of information, analyze trends, and anticipate problems if we are to continue to improve on an already remarkable record of achievement.  Operating under a Safety Management System will allow airlines, manufacturers, and the FAA to do this better than before.  So that we are all operating from the same approach, FAA must apply the same high standards to ourselves that we require of the entities that we regulate. 

 

We are no longer dealing with “common causes” of accidents.  To meet tomorrow’s challenges, we need more data points and the analytical expertise to discern trends and identify precursors.  And we need to share what we learn.  We have an effort underway called the Aviation Safety Information Analysis System that begins to address this challenge by integrating multiple data bases for a more comprehensive analysis.  To keep the pressure on reducing the accident rate, we will need far more information about trends, about precursors, and about what is going on every day in the manufacturing and operating and maintenance environments.

 

Turning to a new and slightly different oversight function in my organization, I would like to discuss the Air Traffic Safety Oversight Service.  As you know, the Air Traffic Organization (ATO) is a performance-based organization and has the responsibility for internal safety monitoring and compliance with safety standards.  Like an airline or other certificate holder, it is important to have an independent safety oversight function of the ATO to ensure the highest level of compliance with established safety standards.  We formally established the safety oversight office in March 2005 with 15 Air Traffic Safety Inspectors; currently there are 37 personnel on board.  Oversight of the ATO follows the model of our long history of regulating the airlines and service providers such as manufacturers and repair stations. 

 

We have the responsibility to oversee, audit and apply a risk-management based approach to ensure continued safety of air traffic operations.  To this end, we have granted approval of an interim Safety Management System (SMS) which will be implemented throughout the ATO.  In addition to the monitoring, audits and surveillance of the NAS, we have recently implemented a program to issue credentials to ATO safety personnel modeled on the successful oversight of the aviation industry and airmen.  Credentialing will help assure continuous operational safety by providing standards for training, testing, and competency, as well as compliance with the ATO’s policies and directives.  Our oversight of the ATO has already yielded important safety benefits such as changes to taxi into position and hold procedures that were based on safety risk management principles.  Essentially, our vision is to regulate the ATO in the same way that we would regulate any other certificate holder.

 

Finally, although it is not a function under my organization, let me summarize where we stand with our efforts on runway incursions.  As you know, the FAA, along with pilot groups and industry, has invested a great deal of time and effort to reduce the number and severity of runway incursions in the past several years.  Today, the United States National Airspace System (NAS) has nearly 500 FAA and contract tower-staffed airports that handle more than 173,000 aircraft operations — takeoffs and landings — a day, averaging approximately 63 million airport operations per year. Of the approximately 254 million aircraft operations at U.S. towered airports from FY 2002-2005, there were 1,311 reported runway incursions.  This translates into approximately 5.1 runway incursions for every one million operations and less than one serious runway incursion for every one million operations.  There were six collisions during this period, none of which resulted in a fatality.  When viewed in the context of the total number of operations, the number of incursions is low.  This tells us that further reducing the rate will be quite a challenge, but a challenge we are embracing.

 

We have made important progress over the last few years, especially in reducing serious Category A and B runway incursions by more than 40 percent since FY 2001.  In FY 2006, we have had a total of 313 runway incursions.  Twenty-seven of those were Category A and B incursions, which is fewer than 10 percent of the total. Pilot deviations are the most common type of runway incursion, they accounted for 55 percent of serious incursions in the past fiscal year.  Operational errors/deviations, on the other hand, accounted for only 28 percent of total incursions, but 33 percent of serious incursions which represents a notable change in the distribution of runway incursion types with respect to severity.  Unfortunately, in the last fiscal year we had three Category A runway incursions between two commercial jets as a result of operational errors.  These are the types of statistics our runway incursion safety team continuously analyzes in order to understand where our efforts will have the greatest impact in reducing risk. 

 

As presented in the FAA Flight Plan 2006-2010, the FAA’s performance target is to reduce the number of Category A and B runway incursions to an annual rate of no more than 0.450 per million operations by FY 2010.  Analysis of the trend of runway incursions from 2001 through 2005 shows that the rate of reduction flattened, suggesting that the runway safety management strategies that have been implemented early in that period had achieved their maximum effect.  Therefore, in order to achieve our stated targets, the FAA must identify new strategies and re-prioritize their application.  We are currently deploying and evaluating new technologies that will improve “error tolerance” in the system – as we understand only too well that human error is inevitable.

 

Mr. Chairman, I recognize that I have just touched on a few of the very many important safety initiatives ongoing at the FAA.  I will be happy to talk to you about these or any other safety programs.  We are at a critical time in aviation and I want to leave you with a clear understanding of the strength of the commitment that exists within FAA at all levels of the agency.  We are proud of our record, but we recognize that many challenges still await us.  I know we have the support of this Committee and that of a dedicated industry as we move forward.  This concludes my prepared statement.  I’ll be happy to answer your questions at this time.

* * *

UNMANNED AIRCRAFT SYSTEMS IN ALASKA AND THE PACIFIC REGION: A FRAMEWORK FOR THE NATION

STATEMENT OF

NICK SABATINI,
ASSOCIATE ADMINISTRATOR FOR
AVIATION SAFETY,
FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

COMMITTEE ON COMMERCE, SCIENCE AND TRANSPORTATION,

ON

UNMANNED AIRCRAFT SYSTEMS IN ALASKA
AND THE PACIFIC REGION: A FRAMEWORK FOR THE NATION.

July 13, 2006

 

Chairman Stevens, Co-Chairman Inouye, Members of the Committee.

I am pleased to appear before you today to discuss a subject that serves to remind us that the future is now.  The development and use of unmanned aircraft systems (UAS) is the next great step forward in the evolution of aviation.  As it has throughout its history, FAA is prepared to work with other government agencies and industry to ensure that these aircraft are both safe to operate and are operated safely.  The extremely broad range of UAS makes their successful integration into the national airspace system (NAS) a challenge, but certainly one worth meeting.  To meet this vital need, the FAA has established an Unmanned Aircraft Program Office which has the expressed purpose of insuring a safe integration of UAS into the NAS.

 

At the outset, you must understand that UAS cannot be described as a single type of aircraft.  UAS can be vehicles that range from a 12-ounce hand launched model to the size of a 737 aircraft.  They also encompass a broad span of altitude and endurance capabilities.  Obviously, the size of the UAS impacts the complexity of its system design and capability.  Therefore, each different type of UAS has to be evaluated separately, with each aircraft’s unique characteristics being considered before its integration into the NAS can be accomplished.  FAA is currently working with both other government agencies and private industry on the development and use of UAS.

 

Today’s hearing is another indicator that the number of government agencies wanting to explore the use of UAS in support of their mandate is on the rise.  In addition to the Departments of Defense (DoD) and Homeland Security (DHS), the Department of the Interior (DOI), the National Oceanic and Atmospheric Administration (NOAA), the National Aeronautics and Space Administration (NASA) and state and local governments are all interested in increasing their use of UAS for a range of very different purposes.  Any aircraft operated by government agencies in the NAS, including a UAS, is considered a public aircraft operation and the oversight and certification of that aircraft is the responsibility of the relevant Federal agency.  These public operations are, however, required to be in compliance with certain federal aviation regulations administered by the FAA, especially those that ensure that the operation of these aircraft do not compromise the safety of the NAS.  FAA’s current role is to ensure that UAS do no harm to other operators in the NAS and, to the maximum extent possible, the public on the ground.

 

In working with government agencies, the FAA issues a Certificate of Authorization (COA) that permits the agency to operate a particular UAS for a particular purpose in a particular area.  In other words, FAA works with the agency to develop conditions and limitations for UAS operations to ensure they do not jeopardize the safety of other aviation operations.  The objective is to issue a COA with terms that ensure an equivalent level of safety as manned aircraft.  Usually, this entails making sure that the UAS does not operate in a populated area and that the aircraft is observed, either by someone in a manned aircraft or someone on the ground.  In the interest of national security the FAA worked with DHS to facilitate UAS operations along the Arizona/New Mexico border with Mexico.  In order to permit such operations, the airspace was segregated to ensure system safety so these UAS flights can operate without an observer being physically present to observe the operation.  In addition, the FAA worked with NOAA in 2005 to approve a COA that allowed atmospheric testing using a UAS to take place over the Channel Islands, off of the coast of California.  It was a unique operation that required the flexibility to climb and descend randomly between 1,000 feet and 12,000 feet as needed for mission success.  In June, 2004, FAA issued a COA to the United States Coast Guard for a UAS mission that operated from King Salmon, AK.  This mission consisted of flights along the United States and Russia Maritime Boundary Line, the 100 fathom curve in the Bering Sea, and in the High Sea Driftnet Area south of the Aleutian Island chain.  There was also a provision to conduct a fly-over of the Alaska pipeline.  Each of these operations required extensive coordination and effort.  With the steadily expanding purposes for which UAS are used and the eventual stateside redeployment of large numbers of UAS from the theater of war, the FAA expects to issue a record number of COAs.  In fact, the FAA has issued over 55 COAs this year alone, compared with a total of 50 for the two previous years combined.

 

FAA’s work with private industry is slightly different.  Companies must obtain an airworthiness certificate by demonstrating that their aircraft can operate safely within an assigned flight test area and cause no harm to the public.  They must be able to describe their unmanned aircraft system, along with how and where they intend to fly.  This is documented by the applicant in what we call a program letter.  An FAA team of subject matter experts reviews the program letter and, if the project is feasible, performs an on-site review of the ground system and unmanned aircraft, if available.  If the results of the on-site review are acceptable, there are negotiations on operating limitations.  After the necessary limitations are accepted, FAA will accept an application for an experimental airworthiness certificate which is ultimately issued by the local FAA Manufacturing Inspection District Office.  The certificate specifies the operating restrictions applicable to that aircraft.  We have received 14 program letters for UAS ranging from 39 to over 10,000 pounds.  We have issued two experimental certificates, one for General Atomics’ Altair, and one for Bell-Textron’s Eagle Eye.  We expect to issue at least two more experimental certificates this year. 

 

Each UAS FAA considers, whether it be developed by government or industry, must have numerous fail safes for loss of link and system failures.  Information must be provided to FAA that clearly establishes that the risk of injury to persons on the ground is highly unlikely in the event of failures or loss of link.  Like everything else having to do with UAS, the methods that link the aircraft with ground control can be as simple as frequency line of sight or as complex as multiple ground and satellite paths making up a functional connection.  If the link is lost, it means the aircraft is no longer flying under control of the pilot.  Because FAA recognizes the seriousness of this situation, we are predominantly limiting UAS operations to unpopulated areas.  Should loss of link occur, the pilot must immediately alert air traffic control and inform the controllers of the loss of control link.  Information about what the aircraft is programmed to do and when it is programmed to do it is pre-coordinated with the affected air traffic control facilities in advance of the flight so that FAA can take the appropriate actions to mitigate the situation and preserve safety.  

 

The COA and Experimental Airworthiness Certificate processes are designed to allow a sufficiently restricted operation to ensure a safe environment, while allowing for research and development until such time as pertinent standards are developed.  They also allow the FAA, other government agencies, and private industry to gather valuable data about a largely unknown field of aviation.  The development of standards is crucial to moving forward with UAS integration in the NAS.  FAA has tasked the Radio Technical Commission for Aeronautics (RTCA), an industry-led federal advisory committee to FAA, with the development of a Minimum Operational Performance Standard (MOPS) for sense and avoid, and command, control and communication.  These standards will allow manufacturers to begin to build certifiable avionics for UAS.  It is expected that the MOPS for avionics will take at least three to four years to develop.  Until there are set standards and aircraft meet them, UAS will continue to have appropriate restrictions imposed.  In addition, the FAA is working closely with DoD and DHS to collaborate on the appropriate approach to certification standards.  

 

Because of the extraordinarily broad range of unmanned aircraft types and performance, the challenges of integrating them safely into the NAS continue to evolve.  Urgent future ground surveillance needs must be balanced with ongoing air transportation operations.  The certification and operational issues described herein highlight the fact that there is a missing link in terms of technology today that prevents these aircraft from getting unrestricted access to the NAS.  Currently there is no recognized technology solution that could make these aircraft capable of meeting regulatory requirements for see and avoid, and command and control.  Further, some unmanned aircraft will likely never receive unrestricted access to the NAS due to the limited amount of avionics it can carry because of weight, such as transponders, that can be installed in a vehicle itself weighing just a few ounces.  Likewise, the performance difference with surrounding air traffic can present challenges.  Some UAS operate in airspace used primarily by jet aircraft that can fly at twice their speed, thus complicating the control of the airspace.

 

FAA is fully cognizant that UAS are becoming more and more important to more and more government agencies and private industry.  The full extent of how they can be used and what benefits they can provide are still being explored.  Over the next several years, when RTCA has provided recommended standards to the FAA, we will be in a position to provide more exact certification and operational requirements to UAS operators.  As the technology gap closes, we expect some UAS will be shown to be safer and have more access to the NAS.  The future of avionics and air traffic control contemplates aircraft communicating directly with one another to share flight information to maximize the efficiency of the airspace.  This could certainly include some models of UAS.  Just as there is a broad range of UAS, there will be a broad range of ways to safely provide them access to the NAS.  Our commitment is to make sure that when they operate in the NAS, they do so with no denigration of system safety.

 

 

The FAA has a long-standing history of working with the State of Alaska in the development of new technologies.  A recent example of this is the Capstone program for which Alaska has been the proving ground of the Automatic Dependent Surveillance – Broadcast technology or ADS-B, a technology I know the Administrator spoke about at the recent field hearing in Alaska.

  

The FAA has other ongoing initiatives in Alaska.  Starting in September 2005, the FAA tasked the University of Alaska, Anchorage and Fairbanks campuses, with participating in a research and development program through the FAA’s Air Transportation Center of Excellence for General Aviation Research (CGAR).  The CGAR is a consortium of academia, industry, and government that is ready to address the critical needs of general aviation through synergistic relationships.  The University of Alaska has been teamed up with two other institutes to evaluate detect, sense and avoid systems, primarily through an extensive library search, that have a benefit to aviation safety.  This project will build on the work already completed by University of Alaska Fairbanks (UAF) at the Poker Flats range located near Fairbanks, Alaska.

 

Another project assigned to the CGAR team involved with the University of Alaska is looking at the potential design and certification criteria of UAS with an emphasis on size, speed and impact energy limits as it relates to the safety of manned aircraft and persons and property on the ground.  This project will again, build on the work already completed by UAF at the Institute of Northern Engineering and the Transportation Research Center. The University of Alaska already has airspace experience gained from UAS work conducted to/from, and within Alaska and will be working on other UAS projects in conjunction with this one.

 

In our history, FAA and its predecessor agencies have successfully transitioned many new and revolutionary aircraft types and systems into the NAS.  Beginning in 1937, we completed the U.S. certification for the first large scale production airliner (the DC-3), then went on to certify the first pressurized airliner (the Boeing B-307 in 1940), civil helicopter (Bell 47 in 1946), turboprop (Vickers Viscount in 1955), turbojet (Boeing 707 in 1958), as well as the supersonic transport (Concorde in 1979), and the advance wide-body jets of today (Boeing 747-400 in 1989).  It seems appropriate that, as we begin a new century and new millennium, advances in aviation technology present us with another addition to the fleet with great potential - unmanned aircraft.

 

Mr. Chairman, FAA is prepared to meet the challenge.  We will continue to work closely with our partners in government, industry and Congress to ensure that the National Airspace System has the ability to take maximum advantage of the unique capabilities of unmanned aircraft.

 

This concludes my prepared remarks.  I will be happy to answer your questions at this time.

 

Reforming the Wright Amendment

STATEMENT OF

MICHAEL A. CIRILLO,
VICE PRESIDENT FOR SYSTEM OPERATIONS SERVICES,
AIR TRAFFIC ORGANIZATION OF THE
FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE,
SUBCOMMITTEE ON AVIATION,

ON

REFORMING THE WRIGHT AMENDMENT,

JULY 12, 2006.

 

Chairman Mica, Congressman Costello, Members of the Subcommittee:

I appear before you today to discuss the unique operational restrictions now in place at Dallas Love Field Airport (Love Field) and whether modifying those restrictions will result in a denigration of air space efficiency in the Dallas-Fort Worth area.

As background, the International Air Transportation Competition Act of 1979 contained a legislative provision that has come to be known as the Wright Amendment.  In an effort to ensure the success of the newly opened Dallas-Fort Worth International Airport (DFW), former Speaker of the House, Jim Wright, wished to included language in the bill limiting interstate service at Love Field.  As a result, the Wright Amendment prohibited non-stop service (and through-ticketing and through-service) between Dallas Love Field and cities other than those in Texas, Arkansas, Louisiana, New Mexico, and Oklahoma, subject to an exception for flights with smaller aircraft.  The Wright Amendment was subsequently modified to permit additional operations between Love Field and points in Alabama, Mississippi, Kansas, and Missouri.

The FAA has been asked if safety would be affected by permitting additional flights into and out of Love Field.  The agency has said consistently and repeatedly what I emphasize today: FAA will never compromise its safety standards to accommodate increased demand.  Our most critical mission is aviation safety, including keeping aircraft safely separated from one another.  Consequently, the only question that should be asked from an airspace perspective, is whether further modification to or elimination of the Wright Amendment would compromise efficient airspace use in the Dallas-Fort Worth area.  Based on a recent MITRE study requested by FAA, of airspace operations if the Wright Amendment is repealed, and based on FAA’s validation of MITRE’s findings, I can tell you FAA does not expect that the efficient use of airspace will be compromised.

Knowing that the debate on the Wright Amendment was ongoing, FAA contacted MITRE and asked them to assess the impact to efficiency of increased operations at both DFW and Love Field.  Results of the analysis indicate there is significant additional capacity in the Dallas–Fort Worth terminal space area.  While additional operations at these airports will make it more complicated to maintain separation between aircraft, many other regions of this country have airspace that is at least this complex.   In each case the potential conflicts are unique to the particular location.  Factors such as the number of airports in the region, the number of runways at each airport, how they are situated, and the number and type of operations conducted there are only some of the considerations that dictate how FAA controls traffic in a given region.  FAA has great flexibility in using a wide range of technologies and procedures to accommodate the air traffic needs of an area.  Some of you may remember that a couple of years ago, the number of operations at Washington Dulles International Airport (Dulles) significantly increased at a time when a new carrier initiated service at the same time airport construction had closed one runway.  FAA was able to implement traffic management initiatives to efficiently accommodate the increase in demand.

Similarly, airspace in the northeast corridor and southern Florida is quite congested, with several major airports in close proximity.  In addition, Chairman Mica recently held a field hearing in California to address his concerns that the operational challenges in that region were being met.  I cite these examples to demonstrate the nature of our business - that FAA is asked on a daily basis to control traffic and maximize airspace efficiency in a highly changeable environment characterized by congested routes, dynamic traffic and volatile weather.  Yet, by tailoring our resources to the unique demands of each situation, we have been able to do what we are asked, safely and effectively.

MITRE’s study assumed a range of operational increases.  Their conclusion, which FAA has validated, is that it would take hundreds of additional daily operations at both airports for there to be reportable volume-related delays.  It would take hundreds of more daily flights on top of that to result in what FAA would consider to be significant delays.  It should be noted that their study did not factor delays that would be attributable to weather.  While MITRE’s study was based on unconstrained operations at Love Field, actual operations under the agreement reached by the parties would in fact be somewhat constrained by a limit on the number of gates that could be used.  Given this limitation, and MITRE’s finding of no significant effect even in unconstrained conditions, we are confident that the operational increases that would result from the proposed modification to the Wright Amendment would not result in efficiency problems for the Dallas-Fort Worth metropolitan area, or the National Airspace System (NAS). 

Even if operations in the area increase beyond what FAA anticipates, we have options to handle a significant increase in flights if necessary.  Last month, Russ Chew testified before you about some of the notable successes of the Air Traffic Organization (ATO), one of which was Area Navigation (RNAV).  RNAV procedures provide flight path guidance that is incorporated into onboard aircraft avionics systems, requiring only minimal air traffic instructions.  This technology significantly reduces routine controller-pilot communications, allowing more time on frequency for pilots and controllers to handle other safety-critical flight activities.  Also, RNAV procedures use more precise routes for take-offs and landings, reducing fuel burn and time intervals between aircraft on the runways.  This creates increased air traffic efficiency, enhances safety, and may allow some increase in air traffic through put.  We currently have RNAV procedures in place for DFW, but not for Love Field.  So establishing RNAV for Love Field is one option available to us should air traffic demand increase substantially.  Should the need arise, we would also look at modifying flows and sector configurations on a larger scale.

In conclusion, I want to reiterate that FAA’s commitment to safety means that we would never consider sacrificing accepted safety standards for the sake of efficiency or anything else.  If Congress decides to modify the existing unique restrictions at Love Field and impose other unique restrictions there, FAA will continue to safely separate aircraft regardless of the operational impact of the legislation.  But having looked at the anticipated impacts of  what we know is under consideration, we have no reason to believe system efficiency will be compromised.

This concludes my prepared statement.  I will be happy to answer your questions at this time.

 

Commercial Jet Fuel Supply: Impact and Cost on the U.S. Airline Industry

STATEMENT OF

MICHAEL A. CIRILLO,
VICE PRESIDENT FOR SYSTEMS
OPERATIONS SERVICES,
AIR TRAFFIC ORGANIZATION OF THE

FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE,
SUBCOMMITTEE ON AVIATION,

ON

COMMERCIAL JET FUEL SUPPLY: IMPACT AND COST ON THE U.S. AIRLINE INDUSTRY

FEBRUARY 15, 2006

Good morning Chairman Mica, Congressman Costello, and Members of the Subcommittee.  I’m happy to be here today, testifying on the commercial jet fuel market and its impact and cost to the U.S. aviation industry; and how we can reduce fuel consumption in the aviation industry.  This is an enormously important issue, not only for commercial carriers, but for business and general aviation, as well.  The Federal Aviation Administration is well aware of the dramatically increasing fuel costs, and we are actively implementing new technologies and procedures to help reduce fuel consumption, while maintaining the highest levels of safety.

Today’s aircraft are on average about 70 percent more fuel efficient than aircraft were 40 years ago.  Modern aircraft achieve fuel efficiencies of 67 passenger-miles per US gallon.  In terms of energy intensity, or the amount of energy consumed to transport one passenger one mile (a useful metric that allows comparisons across transportation modes), an aircraft’s energy intensity has improved dramatically since the mid-1960s, and nearly matches that of automobiles today.

The Department of Transportation has a goal to improve aviation fuel efficiency per revenue plane-mile by 1 percent per year, through Fiscal Year 2009.  In the near term, new technologies and procedures to improve air traffic management will help reduce fuel usage and emissions.  I would like to take a moment to describe some of these technologies and procedures, and how they will help reduce fuel consumption.

One important fuel savings procedure was implemented by the FAA last year.  It is known as Domestic Reduced Vertical Separation Minima or DRVSM.  DRVSM has significantly increased capacity in the en route airspace by doubling the number of usable altitudes between 29,000 and 41,000 feet.  The procedure permits controllers to reduce minimum vertical separation at altitudes between 29,000 and 41,000 feet from 2,000 feet to 1,000 feet for properly equipped aircraft.    DRVSM allows greater access to fuel efficient routes that was previously unavailable due to the increased separation requirements.  We originally estimated DRVSM would save airlines approximately $5 billion through 2016, an estimate that now appears to be conservative in light of the dramatic increase in fuel prices in the last year.

Another major initiative is expanding the implementation of Area Navigation (RNAV) procedures to additional airports.  RNAV procedures are performing successfully at Las Vegas, Philadelphia, and Dulles airports.  Last year, 13 RNAV departure procedures and four RNAV arrival procedures went into full operation at Atlanta Hartsfield-Jackson International Airport – the world’s busiest airport.  These procedures promote reduced fuel usage through more efficient climb and descent gradients; shorter, more predictable, and more repeatable ground tracks, and reduced delays.  RNAV procedures provide flight path guidance that is incorporated into onboard aircraft avionics systems, requiring minimal air traffic instructions.  This significantly reduces routine controller-pilot communications, allowing more time on frequency for pilots and controllers to handle other safety-critical flight activities.  Also, RNAV procedures use more precise routes for take-offs and landings, reducing fuel burn and time intervals between aircraft on the runways, and allowing for increases in traffic, while enhancing safety.  Key benefits of the RNAV procedures include more efficient use of airspace, with improved flight profiles, resulting in significant fuel efficiencies to the airlines.  In post-implementation studies by MITRE/CAASD, the annual operational benefits from RNAV procedures at Atlanta are estimated to be $15 million.  Delta Airlines anticipates potential benefits up to $30 million with refinements to the procedures published in 2005.  Additionally, 16 RNAV departures implemented at Dallas/Fort Worth International Airport in 2005 are expected to provide operators with estimated savings of $10 million annually through reduced delays.  American Airlines anticipates operational benefits up to $20 million with increased throughput and departure capacity gains.  The FAA has over 75 RNAV procedures under development this year.

In the en route environment we plan to publish more than 20 low-altitude and high altitude RNAV routes.  The high altitude routes eliminate the need to over-fly ground-based navigation aids and allow the design of more direct, efficient routes.  Low altitude RNAV routes allow direct routing through terminal airspace for Global Navigation Satellite System (GNSS) equipped aircraft. These routes are especially useful for general aviation flights, which previously would have been vectored around the terminal airspace.  Additionally, last fall nine high altitude off-shore RNAV routes were implemented in Florida as part of airspace optimization efforts which I will address in a moment.

Another technological innovation, known as Required Navigation Performance or RNP, promises to add to capacity and reduce fuel consumption.  RNP uses on-board technology that allows pilots to fly more direct point-to-point routes reliably and accurately.  RNP is extremely accurate, and gives pilots not only lateral guidance, but vertical precision as well.  RNP reaches all aspects of the flight – departure, en route, arrival, and approach.  This not only will allow more efficient airspace management, but also provide savings in fuel costs for the airlines.  For example, in January 2005, in partnership with Alaska Airlines, we implemented new RNP approach procedures at Palm Springs International Airport, which is located in very mountainous terrain.  Under the conventional procedures in use today at Palm Springs, planes cannot land unless the ceiling and visibility are at least 2,300 feet and 3 miles.  With these new RNP procedures, approved air carriers can now operate with a ceiling and visibility as low as 734 feet and one mile.  This lower landing minima has allowed Alaska Airlines to “save” 27 flights between January and November, 2005, flights which would have otherwise had to divert to Ontario, California, an added distance of at least 70 miles.  Additionally, when compared to the conventional procedures at Palm Springs, the RNP approaches will reduce the distance an aircraft has to fly from between 3 miles to nearly 30 miles – which translates into fuel savings for operators.  These RNP procedures also provide laterally and vertically guided flight paths from the initial approach fix to the runway end.  This attribute keeps aircraft safely separated from terrain and obstacles and in stabilized flight until landing, thus adding a critical margin of safety in prevention of the two major causes of commercial-aviation fatalities: controlled flight into terrain (CFIT) and approach-and-landing accidents (ALAs).

RNP procedures were also published in 2005 for Ronald Reagan Washington National Airport; Portland, Oregon; Hailey, Idaho; and San Francisco.  The U.S. is leading the world in RNP.  We are working with the international community to establish global standards.

We must also make sure we are using the best technology to maintain a safe and efficient air traffic system.  The en route air traffic control computer system is considered the heart of the National Airspace System (NAS).  En Route Automation Modernization (ERAM) replaces the software for the Host Computer System and its backup.  The ERAM system will be deployed at all 20 Air Route Traffic Control Centers by Fiscal Year 2009.  ERAM will enable the FAA to increase capacity and improve efficiency in a way that cannot be realized with the current system, which is a mix of different technologies that evolved over the years and is extremely difficult to expand or upgrade.  ERAM will process more than double the number of flight plans, and use almost triple the number of surveillance sources as the current system.

Traffic Flow Management (TFM) is the “brain” of the NAS.  The TFM system is the nation's single source for capturing and disseminating traffic information for the purposes of coordinating traffic across the aviation community. As the NAS is impacted by severe weather, congestion and/or outages, the TFM system provides timely information to our customers to expedite traffic and minimize system delays.   The FAA is currently in the process of modernizing the TFM infrastructure through its TFM Modernization program.  This spring we will introduce the Airspace Flow Management technology to reduce the impact of delays incurred during the severe weather season.  FAA estimates show that TFM provides roughly $340 million in benefits to our customers on a yearly basis in reduced direct operating costs through delay reductions.  ERAM and TFM together will enable flexible routing around congestion, weather, and flight restrictions, and help controllers to automatically coordinate flights, during periods of increased workload. 

Another area where technology has made it possible to increase capacity, and improve fuel efficiency is Advanced Technologies and Oceanic Procedures (ATOP), or Ocean 21.  Ocean 21/ATOP automation adds dependent surveillance, satellite communications, and conflict probe capabilities for oceanic airspace, so that air traffic control can provide more efficient air traffic services, reducing current separation minimums from 100 nautical miles to 50 nautical miles, or 30 nautical miles for appropriately equipped aircraft.  This capability permits more aircraft to have access to more fuel efficient trajectories because routes can be spaced more closely together, and aircraft can operate more closely in trail.  These more efficient trajectories allow aircraft to operate on better time tracks, with less excess fuel reserves, consequently allowing them to carry extra payload.  ATOP went operational at New York last June, and at Oakland last October.  Since implementation, oceanic controllers using ATOP are granting 24 percent more requests for changes in altitudes and controller response time has improved by 30 percent.  This increased efficiency is even more remarkable considering the 20 percent increase in requests for altitude changes observed in the last year.

The Air Traffic Organization of FAA has also implemented a new technology called the User Request Evaluation Tool or URET.  URET permits the controller to predict potential aircraft to aircraft, and aircraft to airspace conflicts earlier, allowing them to construct alternative flight paths or cancel climb or descent restrictions.  URET allows these conflicts to be addressed in a strategic sense rather than a tactical sense, with fewer deviations to the route or altitude and less restrictive climb or descent profiles.  Fewer deviations can result in less fuel burn. The system makes it easier for controllers to respond to pilot requests for more efficient routings, more fuel efficient altitudes, and wind-optimal routes, all of which can lead to fuel savings.  Estimated savings for the aviation industry from URET in FY 2005 are 25 million miles in aircraft travel, and $175 million in operating expenses.

Throughout 2005, a joint team of industry and FAA representatives collaboratively redesigned the airspace in Florida to improve air traffic management efficiency and to reduce airspace complexity.  This project is known as the Florida Airspace Optimization.  The expected benefits of the airspace redesign for customers include:  reduced flight distances on standard arrival and preferential routes into south Florida airports; reduced re-routes into adjoining foreign airspace which cause additional foreign over-flight fees; and reduced departure delays from Boston, New York and Washington, DC metropolitan airports to south Florida destinations.  Pre-deployment estimates indicated a cost savings of nearly $20 million per year for airlines.  Delays at key south Florida airports have been reduced by 50 percent or more.

The Wide Area Augmentation System, known as WAAS, is another example of using new technology to improve fuel efficiency.  WAAS is a satellite-based navigation system that enhances the satellite signals from the Global Positioning System (GPS) to provide increased accuracy and reliability necessary for pilots to rely on satellite navigation during all phases of flight.  Because the system is satellite-based, WAAS procedures cost a lot less to implement and maintain than procedures based on traditional ground-based navigation systems.  WAAS makes more airspace usable to pilots, provides more direct en route paths, and provides new precision-like approach services to runway ends, all of which can result in fuel savings for operators.  The integration of WAAS into the NAS will result in safety and capacity improvements, in addition to reducing fuel consumption.  WAAS was commissioned in July 2003 and as of tomorrow there will be nearly 3,800 instrument approaches available to WAAS users, including nearly 1,200 precision-like approaches that offer vertical guidance.

Lastly, one recent development with the potential for significant improvements in reducing fuel consumption for the aviation industry is successful negotiations with Russia to open additional polar routes over Russian airspace.  Polar routes are used by traffic between the United States, Russian, and Southeast Asian destinations.  These routes significantly reduce fuel burn in comparison to the traditional “Great Circle” routes over the Pacific Ocean.  Increased traffic is expected on these routes in future years.

What steps are being taken to reduce aviation fuel consumption in the future?  The pace of technological change across the aviation industry is increasing.  Aerospace manufacturers continue to develop engine and aircraft designs that are improving fuel efficiency further by reducing weight and improving aerodynamics.  Aircraft design improvements mostly fall into one of three categories:  weight reduction, aerodynamics, and control systems.  New and improved metal alloys and composite materials are being developed to reduce aircraft weight while simultaneously improving structural performance.  Aerodynamic improvements include the design of winglets for wing tips, which reduce turbulence and vortex generation by the wings.  Significant improvement in control systems has come about by replacing mechanical and hydraulic systems with electrical systems, which often reduce weight while providing more precise control.  Improvements of these systems will contribute to improved overall fuel efficiency.  However, aircraft technology development follows relatively long cycles, which limits the pace of fundamental changes in design.  Therefore, in the near term, the FAA and its Air Traffic Organization are undertaking the air traffic technology development, and operations and procedures improvements spelled out above to help the aviation sector reduce fuel consumption.  We take this commitment seriously, and we continuously strive to improve our systems and procedures to provide the safest, most efficient National Airspace System possible. 

Mr. Chairman, this concludes my testimony, and I would be happy to answer any questions you may have.

The Joint Planning and Development Office

STATEMENT OF

MARION C. BLAKEY,
ADMINISTRATOR,
EDERAL AVIATION ADMINISTRATION

BEFORE THE

COMMITTEE ON COMMERCE, SCIENCE AND TRANSPORTATION,
SUBCOMMITTEE ON AVIATION

ON

THE JOINT PLANNING AND DEVELOPMENT OFFICE

JULY 25, 2006

 

Good morning Chairman Burns, Senator Rockefeller, and Members of the Subcommittee.   Thank you for the opportunity to testify today about the multi-agency Joint Planning and Development Office (JPDO) and the work we are doing together to develop and deploy the Next Generation Air Transportation System (NextGen) while providing operational and safety enhancements that deliver benefits to our customers today.

Our nation's air transportation system has become a victim of its own success.  We created the most effective, efficient and safest system in the world.   But we now face a serious and impending problem, one that the FAA and this committee are well aware of.   Demand for air services is rising, and could as much as triple over the next two decades.   While the industry downturn following the attacks of September 11 temporarily slowed the growth in the aviation industry that began in the late 1990's, demand is growing rapidly.   And we have to be ready to meet it.

The warning signs are everywhere.   Flight delays and cancellations have reached unacceptable levels.  Other issues, ranging from environmental concerns to the complexities of homeland security are placing additional stresses on the system.  

If we fail to address issues such as increased capacity in a deliberate and focused way, we will suffocate the great engine of economic growth that civil aviation has become.

The FAA and the JPDO have taken a dual track yet complementary approach, keeping our eyes focused on the NextGen Vision while using existing technology to provide important and tangible operational benefits now and in the future to users of the National Airspace System (NAS).  We are finding ways to make existing capacity work more efficiently through advanced technology and operational improvements, with many of these efficiencies not only providing relief today but helping to lay the foundation for the Next Generation System.

The JPDO now serves as a focal point for coordinating the research related to air transportation for agencies across the Federal government, including the Departments of Transportation, Commerce, Defense and Homeland Security, as well as NASA and the Office of Science and Technology Policy.  The initiative achieved important milestones in 2005 towards designing the NEXTGEN system.  The JPDO completed its internal organization and created eight government/industry Integrated Product Teams (IPTs) to break this large and complex project into manageable strategies.  These strategies focus on those aspects of aviation that hold the keys to capacity and efficiency improvements – airport infrastructure, security, a more agile air traffic system, shared situational awareness, safety, environmental concerns, weather and global harmonization of equipage, and operations.  The Teams work closely with our stakeholders to ensure that they have an early window into the planning process and that we take full advantage of their expertise every step of the way.    Further accomplishments to date are highlighted in the recently published “2005 Progress Report to the NGATS Integrated Plan” that was transmitted to Congress on March 10th as required by Vision 100.

We need the best minds in America across both the public and private sectors working on the task of creating a NEXTGEN system.  To achieve this, we have established a Next Generation Air Transportation System Institute (the NGATS Institute) that allows stakeholders to get directly involved in the transformation process.  And, while the Aerospace Industries Association (AIA) is the host for the Institute, it is co-chaired by the presidents of the Air Line Pilots Association and the Air Transport Association and open for participation by all segments of the industry.

What truly sets this new structure apart is that it minimizes duplication of effort and resources among Federal agencies and maximizes the input of the private sector toward a common goal – the creation of a NextGen system.   

One of the common misconceptions about the NextGen initiative, however, is that we have to wait until 2025 to start seeing the benefits.  FAA is currently implementing a system known as Required Navigation Performance (RNP).  RNP uses on-board technology that allows pilots to fly more direct point-to-point routes reliably and accurately.  RNP is extremely accurate, and gives pilots not only lateral guidance, but vertical precision as well.  RNP reaches all aspects of the flight – departure, en route, arrival, and approach.  For example, in January 2005, in partnership with Alaska Airlines, we implemented new RNP approach procedures at Palm Springs International Airport, which is located in very mountainous terrain.  Under the previous conventional procedures in use at Palm Springs, planes could not land unless the ceiling and visibility were at least 2,300 feet and three miles.  With these new RNP procedures, air carriers with properly equipped aircraft can now operate with a ceiling and visibility as low as 734 feet and one mile.  This lower landing minima has allowed Alaska Airlines to “save” 27 flights between January and November, 2005 - flights which would have otherwise had to divert to Ontario, California—an added distance of at least 70 miles.  Given the current state of fuel prices, savings such as this can mean a great deal to an airline’s bottom line, to say nothing of passengers’ schedules and convenience. 

Establishing an initial Network-Enabled Operations (NEO) capability is a high priority for the JPDO and its member agencies, given its fundamental importance to the success of the NextGen System.  Current efforts focus on identifying the network architecture and enacting standards for information and safety data sharing.  The Department of Defense (DoD) has already invested considerable resources in information technology and telecommunication research focused on NEO and information access and sharing.  FAA, as well as the Departments of Homeland Security (DHS) and Commerce, are committed to developing network-centric information architectures that draw on the lessons learned by DoD.  The opportunity now exists to synchronize these efforts, especially in the areas of data interoperability and compatible network-to-network interface mechanisms, and two on-going DoD initiatives – the synchronization of DoD and DHS classified networks and DoD’s development of its Net-Centric Enterprise Services – will serve as templates for this effort.

The benefits of this technology are clear.  In 2005, the JPDO, FAA and an industry team showed how network-enabled concepts developed for military customers can be applied to Air Traffic Management.  The Joint Network-Enabled Operations Security Demonstration connected seven existing Air Traffic Management and security systems distributed over 12 different locations.  It showed how sharing information in real time across air traffic, air defense, and law enforcement domains could improve coordination and help agencies respond to a security incident more efficiently – thereby lessening the need for evacuations and scrambling fighter jets.  The exciting part of the NEO demonstration is that it enabled communication between agencies’ current networks, eliminating the need to throw out all the individual legacy systems and create a brand new mega-system, which would be prohibitively expensive.  As a part of the “spiral development process” for NEO, an approach to systems development that makes continuous improvements and changes throughout the development process, the JPDO is planning a second joint agency NEO demonstration.  In Fiscal Year 2007, the FAA will participate in the second NEO demonstration under the System Wide Information Management (SWIM) program.  The President’s budget proposal for Fiscal Year 2007 requests $24 million for SWIM.  FAA’s investment in the second NEO demonstration will allow us to apply lessons learned to the acquisition phase of SWIM.   SWIM will provide a secure NAS-wide information web to facilitate a transition toward network-based air traffic operations and allow the FAA to lead and participate system-wide in network-enabled operations with system users, global air navigation service providers and other government agencies.

In its Fiscal Year 2007 budget request, the Administration proposed targeted investments, in addition to SWIM, to promote early implementation of core elements of the NexGen system.  Additional initiatives that will serve as building blocks of the new system will be added to the mix as the Enterprise Architecture is fully developed and system requirements are established. 

One of our most promising initiatives with potential for broad operational applications is Automatic Dependent Surveillance-Broadcast (ADS-B), a technology that could replace ground-based radar systems and revolutionize air navigation and surveillance by providing radar-like separation procedures in remote areas that cannot currently be served by radar; by providing near real-time, in-the-cockpit, aeronautical information such as weather and notices to airmen; by enabling capacity gains by reducing existing separation standards in all domains and airspace classifications; by supporting increased capacity through user-executed airborne spacing, sequencing and separation operations; and by providing improved information for traffic flow management and fleet management – all while reducing our infrastructure costs.  ADS-B uses GPS satellites and ground-based transmitters to allow aircraft to broadcast their positions with greater frequency and accuracy than our legacy radar systems. Moreover, with ADS-B, future pilots will see exactly what the air traffic controller sees.  For FY 2007, the President’s budget includes $80 million for the FAA for the ADS-B program to begin moving toward nationwide deployment. 

The ADS-B system was the key enabling technology for the Capstone demonstration program in Alaska.  Capstone is a technology-focused safety program that seeks near-term safety and efficiency gains in aviation by accelerating implementation and use of modern technology, in both avionics and ground system infrastructure, with the goal of reducing the exceedingly high accident rate in Alaska for small aircraft operations, which was nearly five times greater than the national average.  Through 2005, the program achieved significant safety and efficiency results.  The use of ADS-B information by the Bethel Airport Traffic Control Tower continues to provide benefits to all Bethel operators by enhancing the ability to better balance arrival flows and demand when weather conditions at the airport deteriorate below visual flight rules conditions.  Aircraft equipped with ADS-B have had a consistently lower accident rate than non-equipped aircraft.  From 2000 through 2005, the rate of accidents for ADS-B-equipped aircraft dropped significantly--by 49 percent.  That is real progress, and we will build on this success as we expand the use of ADS-B elsewhere in the country.

One of the first uses of ADS-B technology outside of Alaska will be in the Gulf of Mexico.  We have recently signed a Memorandum of Agreement (MOA) with the Helicopter Association International (HAI), helicopter operators and oil and gas platform owners in the Gulf of Mexico to improve service in the Gulf.  Using ADS-B technology, helicopter operators will transmit critical position information to the Houston Center, enabling unprecedented Air Traffic Control services in the Gulf.  This technology will also develop new air routes with improved separation standards for high altitude airspace.

These new technologies and procedures are vital both to improving our air traffic system today and to building the NEXTGEN system of 2025.  To ensure we deliver these benefits as quickly as possible, FAA is incorporating NEXTGEN goals and targets into the agency’s strategic planning process in a much more comprehensive way.  The draft FAA Flight Plan for 2007-2011, released for public comment just last week, includes several major initiatives that support the transformation to the NextGen system.  And we’ve added the NEXTGEN symbol in the Flight Plan to easily identify each initiative that supports the modernization of the National Airspace System.

As a result, the Flight Plan will now capture explicitly what we must do in the near term through the Integrated Product Teams to achieve the NextGen vision.  In other words, it helps us to identify the pipeline and funding to implement new technologies and incorporate the operational concepts that will serve as the foundation for the NextGen system.  This will provide both an internal process for ensuring commitments are met and an external process for communicating the FAA’s progress to our stakeholders.

We recognize that there are many challenges in converting the JPDO’s vision of the NextGen system into reality.  Because the JPDO is not an implementing or executing agency, the FAA and the other JPDO partner agencies must work closely with the JPDO to develop an implementation schedule for the operational changes required as new technologies are deployed to realize the NEXTGEN vision.  We intend to use the construct of our existing Operational Evolution Plan (OEP) to help us.  However, we will expand the scope of the OEP from a ten-year rolling plan focused exclusively on capacity to a plan that will take us from the configuration of today’s National Airspace System (NAS) to tomorrow’s NextGen system.  In the new Operational Evolution Partnership (OEP),  JPDO transformational operating concepts will be identified, rigorously evaluated, prototyped, and tested so they can be ready for transition into the NAS.  Required operational implementation schedules will be tracked, as well as dates by which initiatives must be funded in order to meet those schedules. 

The NAS and NexGen Enterprise Architectures will provide the backbone of this new OEP by specifying roadmaps for system and certification requirements, operational procedures, program phasing, and prototype demonstrations.  This Operational Evolution Partnership will be the mechanism by which we inform our owners, customers, and aviation community of our plans and progress towards the JPDO vision, while assuring that the JPDO and the FAA are jointly on-track to deliver the NextGen system.

Cost will be a vital factor:  we cannot create a NexGen system that is not affordable.  We are working with the NGATS Institute to hold several workshops with our stakeholders so that the critical assumptions and uncertainties underlying any cost benefit analysis can receive scrutiny and validation for future use.  The first of these workshops, focusing on the commercial aviation sector, was very helpful and has set the stage for a collaborative development of our assumptions on such issues as operations and equipage.   We expect similar such engagement as we meet with representatives from other segments of the industry, such as the General Aviation Community.  Of course, even after we develop the basic assumptions, we will continue to work closely with the industry as we develop the cost models. 

Our vision of the NextGen system is not limited to increased airspace capacity.  Rather, it is one which encompasses the whole air travel experience – from the moment the passenger arrives at the curb of his departure airport to his or her exit from their destination airport.  The NextGen system includes security, safety, and efficiency of passenger, cargo and aircraft operations.  Technology will change the way America flies, and aircraft will be able to use information technology in a more robust way, with enhanced cockpit, navigation and landing capabilities, and far more comprehensive and accurate knowledge of real-time weather and traffic conditions.

The NextGen system will be more flexible, resilient, scalable, adaptive, and highly automated.  The NEXTGEN operational vision is not just related to the air traffic management system alone, but also includes the preservation and growth of airports, heliports, and other future landing and departure facilities to incorporate fully the emerging system’s benefits.  This system will be built on a far more robust information network than anything we have seen to date, ensuring that the right information gets to the right person at the right time, while keeping the nation safe and the flow of traffic running smoothly.  Finally, we will put more information directly into the cockpit of intelligent aircraft through sensors and satellites linked together through network communications.

One of the major products for the JPDO, and indeed, one of the critical elements in defining the NEXTGEN initiative itself, is the development of the Concept of Operations and the Enterprise Architecture.  These documents define each NEXTGEN function, what the requirements will be, and how it will evolve.  They are absolutely essential to the future development of the NextGen system.

The Concept of Operations is a document that provides the basic operational description of how the NextGen system will actually function.  This kind of explanation, offered in one document, will be critical to developing the specific requirements and capabilities that for our national air transportation system in 2025.  In a sense, the Concept of Operations is like an architect’s preliminary drawings - it outlines what the system will look like, how it will function, and what its capabilities will be. 

However, to adequately lay the groundwork and basic plans for the NextGen system requires another step in the process, developed concurrently with the Concept of Operations, and that’s the Enterprise Architecture.  The Enterprise Architecture represents the actual plan for how the NextGen system will be developed, much like a set of blueprints.  This includes the systems that will be needed, the timing for their deployment, and how they will work together.

Both of these documents, the Concept of Operations and the Enterprise Architecture, are essential to defining the NextGen system and will guide the future investment and capabilities, both in terms of research and systems development.  The JPDO has made considerable progress on both products, and I am pleased to say that the first phase of the Concept of Operations was released this week on the JPDO website.  It is now available for review and comment by our stakeholders, and we are anxious to receive their feedback.  Other phases of the Concept of Operations will be released in the next few months, along with the Enterprise Architecture.  We expect the completed versions of each set of documents to be complete by early next year.

The importance of developing this system of the future is also quite clear to policymakers in Europe, where a comparable effort is well underway.  This presents both a challenge and an opportunity to the United States.  Creating a modernized, global system that provides interoperability could serve as a tremendous boost to the aerospace industry, fueling new efficiencies while creating jobs and delivering substantial consumer benefits.  Alternatively, we could also see a patchwork of duplicative systems and technologies develop, which would place additional cost burdens on an industry already struggling to make ends meet. 

We are working to avoid that future by seeking out partnerships with our international counterparts.  This year we have established steering groups with China, Japan, Canada and Mexico to facilitate cooperative activities on the design of the NextGen system.  These groups are moving forward to pursue joint initiatives, such as ADS-B, SWIM, and Enterprise Architecture which are aligned with the required performance-based systems. 

In addition, I just returned from the Farnborough Air Show, where I concluded an agreement with Jacques Barrot, the Vice President of the European Commission, which formalizes cooperation between the NEXTGEN initiative and its European counterpart, the Single European Sky Air Traffic Management Research (SESAR) program.  The FAA and the EC intend to identify opportunities and establish timelines to implement, where appropriate, common, interoperable, performance-based air traffic management systems and technologies.  This coordination will address policy issues and facilitate global agreement within international standards organizations such as ICAO, RTCA and Eurocontrol, and contribute greatly to the success of this critical initiative.

Our overarching goal in the NEXTGEN initiative is to develop a system that will be flexible enough to accommodate a wide range of users -- very light jets and large commercial aircraft, manned and unmanned aircraft, small airports and large, business and vacation travelers alike, while handling a significantly increased number of operations with a commensurate improvement in safety, security and efficiency.  Research will continue to help us find the right balance between a centralized satellite and ground system and a totally distributed system, where aircraft “self-manage” their flight with full knowledge of their environment.

The current technological and operational improvements are positive steps down the road to building the NextGen system.  If we are to see the benefits fully realized, however, it is absolutely imperative that we reform the financing system for the FAA.  Over the next few years we will work to achieve better cost management; determine the best solution for our aging and deteriorating facilities; and, conduct research on convective weather to reduce flight delays associated with summer storms.  We strive to improve efficiency, while searching for innovative ways to provide safer services even more efficiently.  However, we need to establish the financing of our current and future operations based on actual costs and investment requirements that will realize tangible benefits and increasing efficiency.  As we decide how to wisely invest in our future, we will continue to work closely with our customers, our employees, and of course, Members of Congress. 

Mr. Chairman, this concludes my testimony.  I would be happy to answer any questions the Committee may have.

 

FAA’S FY2007 Budget and the Viability of the Airport and Airway Trust Fund

STATEMENT OF

MARION C. BLAKEY,
ADMINISTRATOR OF
THE FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

SENATE COMMERCE, SCIENCE AND TRANSPORTATION COMMITTEE,
SUBCOMMITTEE ON AVIATION,

ON

FAA’S FY2007 BUDGET AND THE VIABILITY OF THE AIRPORT AND AIRWAY TRUST FUND.

MARCH 28, 2006.

Chairman Burns, Senator Rockefeller, Members of the Subcommittee:

I welcome the opportunity to be here today, along with my colleagues from the Inspector General’s Office and the Government Accountability Office (GAO), to discuss the state of the Federal Aviation Administration’s (FAA) financial health, specifically our budget for fiscal year 2007 and the condition of the Airport and Airway Trust Fund (AATF or Trust Fund).  The financial health of the aviation trust fund is closely linked to the stability of the aviation industry.  I understand that today’s hearing will lay the foundation for a hearing in several weeks where future funding options for the FAA will be addressed in detail.  I look forward to returning and discussing the specifics of the Administration’s proposal. 

First let me briefly express appreciation for the dialogue that has begun with our stakeholder community.  Over the past year, under Secretary Mineta’s leadership, we have conducted a broad outreach to the aviation community to explore funding options that would be in the long-term best interest of the traveling public, the aviation industry and the FAA.  We held a public forum last April and have conducted numerous group and individual briefings with our stakeholders.  To inform the dialogue we published detailed industry activity data as well as a set of principles which we thought should underlie and guide the discussion.  In my view the thoughtful comments we have received have greatly informed our decision making.  We at the FAA have listened intently and have benefited from a wide range of expert views. 

As I’ve often stated over the past year during our outreach, our belief in the need for funding reform for the FAA is not fundamentally about generating more money for the FAA.  It is about creating a more rational, equitable and stable system that provides appropriate incentives to users and to the FAA to operate more efficiently and facilitates modernization of the aviation system on an assured and predictable basis. 

Fiscal Year 2007 Budget Proposal

I would like to address the FAA’s budget in the near term.  As you know, the FAA operates 24 hours a day, 7 days a week, 365 days a year.  We run a multi-billion dollar air traffic control system that in FY 2005 served 739 million passengers and over 39 billion cargo revenue ton miles of freight.  We operate and maintain a system comprised of more than 70,000 facilities and pieces of equipment.  There are FAA-operated or contract towers at 500 airports, and we are also responsible for inspection and certification of about 220,000 aircraft and 610,000 pilots.  We have some 43,000 dedicated government employees working to serve the traveling public and the businesses that depend on the air transportation system. 

When Congress mandated the FAA to realign our operations and manage more like a business, we rose to the challenge.  The FAA’s efforts over the past three years have paid real dividends, not just to the flying public but to the taxpayer as well.  By implementing improved management tools, including better cost-accounting systems and instituting a pay-for-performance program, we have been able to make better use of our resources.  The tangible results are reflected in our FY 2007 budget request of $13.7 billion.  The request upholds our commitments to increase the safety, capacity, and efficiency of the national aviation system.

The FY 2007 budget provides $8.4 billion for our Operations account and reflects the rising labor costs and challenges the FAA faces.  This year, we completed the largest A-76 competition in government and will see the first installment of cost savings --$66 million-- in FY 2007.  This contract not only saves money; it also commits the vendor to modernize and improve the flight services we provide to general aviation pilots.  The agency’s emphasis on bottom-line results has not been easy.  The FAA has slashed costs where possible and slowed the rate of growth of our labor costs through productivity improvements.  We also continue to apply effective management and financial principles to our labor negotiations.  The simple fact of the matter is that we cannot and will not sign a contract that the taxpayer cannot afford.  Since 1998, the first year of the current NATCA contract, the increasing imbalance in compensation between NATCA and the rest of the agency has cost the taxpayer $1.8 billion.  Neither the FAA nor the taxpayer can afford a repeat performance.  As a result, future labor agreements will be fair, affordable and protect management’s rights.  We have been negotiating with NATCA for more than eight months, and I am hopeful that we will be able to reach a voluntary agreement, particularly now that both sides have been working with the help of a federal mediator during the last few weeks.  Both sides recently agreed to a short extension of the mediation, and I anticipate this will come to closure shortly, hopefully by a voluntary deal. 

Long-term affordable pay structures are only a part of the equation.  In addition, we are taking steps to achieve savings of 10 percent by FY 2010 in controller staff costs through productivity improvements.  We achieved the first 3 percent of this goal in FY 2005 and, overall we avoided approximately $23 million in costs last year.  This fiscal year and in FY 2007, we project a minimum of a 2 percent productivity improvement each year.

We expect a continuous wave of controller retirements over the next 10 years, as 72 percent of our air traffic controllers become eligible to retire.  Bringing aboard new controllers is a complex process and it takes several years to train a controller.  Our budget request supports our hiring needs for both air traffic controllers and safety inspectors.

For Facilities and Equipment (F&E), we are requesting $2.5 billion to improve and modernize the airspace system.  We are also scrutinizing our capital investments; revisiting business cases and weeding out programs whose benefits no longer justify the costs; and we are increasing our emphasis on programs that will save the agency money.

We are making similar inroads with equipment.  In FY 2005, we removed 177 navigation aids from service, which saved the taxpayer about $2.7 million.  This year, we plan to remove 100 more, followed by another 100 in 2007.  We are taking steps to save wherever possible.  In fact, our five-year strategic plan, the FAA Flight Plan, sets cost savings and productivity improvement goals for all organizations in the agency.

Our resources and activities are closely linked with the dynamic industry we oversee and serve.  The pace and depth of change in aviation is unparalleled.  Business models evolve as rapidly as the technology changes:  markets once dominated by wide body aircraft are now giving way to smaller jets.  Entrepreneurs now are marketing microjets, which may one day become the “personal taxi” of the sky.  Fractional ownership is making it easier for businesses to own and operate aircraft. 

Even with the financial shake-up in the airline industry, all major forecasts project that the demand for air travel will outstrip existing capacity.  After a very slight decline in projected operations at airports with FAA or contract towers, we forecast an average annual growth of two percent and forecast a three percent annual growth for en route operations (from 2005-2017).  Air travel now exceeds pre-September 11 levels and remains on track to carry more than 1 billion passengers by FY 2015. 

The future portends a wide range of aircraft with divergent infrastructure, air traffic management, regulatory, and procedural requirements.  We must be prepared to support a system that includes the A380 and the microjet (and everything in between).  We must be able to support airlines, large and small, national and regional.  Recognizing that aviation represents about nine percent of the America’s Gross Domestic Product, we must provide this infrastructure in time to keep the U.S. economy growing while controlling the costs of that system. 

Safety

Safety remains our number one priority and our number one success story, with the trends in both commercial and general aviation showing consistent improvement.  The safety record we have achieved for air carriers is a remarkable accomplishment, which our entire workforce—inspectors, engineers, technicians, and controllers—shares with the broad aviation community.  Over the past four years, 3 billion people have traveled safely in the air transportation system---that’s ten times the population of the U.S. 

The FY 2007 budget reflects the agency’s steadfast commitment to safety.  Out of a total request of $13.7 billion, about 70 percent, or $9.6 billion, will contribute to our efforts to improve our already historic safety record.  This includes further progress in reducing commercial and general aviation fatality accidents, the numbers of runway incursions, and HAZMAT incidents.  Our overarching goal is to measure and achieve the lowest possible accident rate, while constantly improving safety.

Grants-in-Aid to Airports

In today’s challenging budget environment, we have been forced to take a long hard look at our funding requirements.  Our FY 2007 budget request for Grants-in-Aid to Airports is $2.75 billion which is lower than recent authorized and enacted levels.  Nevertheless, under our proposed budget, FAA will be able to support all high priority safety, capacity, security and environmental projects.  There will be adequate funds to meet all current and anticipated Letter of Intent (LOI) commitments, which relate to high priority, multi-year projects within the national system.  The President’s Budget includes support of major capacity projects such as the Chicago O’Hare redesign, new runway at Washington Dulles International Airport and major projects at Atlanta-Hartsfield International.  We will also be able to fund projects to meet the FAA’s Flight Plan goal for improving runway safety areas (RSAs), help airports meet their Part 1542 security requirements, and continue work on phased projects. 

Technology for the future

We are laying the foundation for our future with a commitment to increasing the system’s capacity to accommodate the air transportation system’s predicted growth.  We will meet these future needs by harvesting new technologies that will support the Integrated National Plan for the Next Generation Air Transportation System (NGATS).  This Plan, submitted to Congress in December 2004, brings together six cabinet-level groups in the Joint Planning and Development Office (JPDO) to eliminate duplication and wasted resources.  The Plan is a roadmap that will leverage federal funds and allow us to provide the national aviation system that can handle the safety, capacity and security needs of the future.

For the FAA, the Plan has already been integrated into our budget.  Our 2007 budget begins to build this new infrastructure by, for example, supporting two promising technologies:  Automatic Dependent Surveillance – Broadcast (ADS-B) and System Wide Information Management (SWIM).  The capabilities of ADS-B are already proven in the field.  ADS-B provides: (1) automatic broadcast of aircraft position, altitude, velocity, and other data; (2) enhanced “visibility” of aircraft and vehicle traffic for pilots and air traffic controllers; and (3) use of Global Positioning Systems, allowing us to reduce our reliance on ground-based infrastructure.  SWIM makes advanced information distribution and sharing capabilities possible.  Every year, FAA builds applications for air traffic management systems that require unique interfaces between the new application and existing systems.  SWIM will replace those unique interfaces with a reusable interface and provides many operational benefits.

The above overview of our FY 2007 budget is how we propose to meet the challenges over the near term for the FAA, and also provide for the long-term with our Integrated National Plan for NGATS.  At the same time, we are also planning for the next reauthorization of our programs and how those programs will be funded.  Critical to that endeavor is an examination of the status and outlook of the Airport and Airway Trust Fund and what that means for the FAA’s long term financial picture. 

The Airport and Airway Trust Fund

The Airport and Airway Trust Fund was created in 1970 to provide a dedicated source of funding for the aviation system.  Before there was a Trust Fund, a 5% tax on passenger airline tickets, a general aviation fuel tax, and a tire and tube tax were deposited in the General Fund.  Today Trust Fund revenues are generated by a combination of taxes that were last authorized in 1997:  a domestic passenger ticket tax of 7.5% of the price of a ticket, a domestic flight segment tax of $3.30 per segment per passenger, an international departure/arrival tax of $14.50 per international passenger, an Alaska/Hawaii departure tax of $7.30 per passenger traveling between these states and the continental U.S., a 6.25% waybill tax on domestic cargo and mail, a general aviation (GA) jet fuel tax of 21.8 cents per gallon, a GA aviation gasoline tax of 19.3 cents per gallon, and a commercial fuel tax of 4.3 cents per gallon.  The domestic segment tax, international departure/arrival tax, and Alaska/Hawaii tax rates are indexed to the Consumer Price Index and have increased each year for the last four years, but the airline ticket tax is a fixed percentage of the ticket price, so it is dependent on changes in airline ticket prices rather than general inflation.  These taxes and fees are scheduled to expire in September 2007, which also coincides with the end of the current authorization for FAA programs under Vision 100. 

Each year, the FAA is funded by annual appropriations drawn both from the aviation Trust Fund and from the General Fund.  There has been a long history of funding a portion of the FAA’s operating costs out of the General Fund due to recognition that aviation provides benefits to the non-traveling public and to our economy as a whole.  However, the ratio of General Fund versus aviation Trust Fund financing has varied over the years.  The General Fund share of total FAA appropriations has been as high as 59 percent (in FY 1984) and as low as zero (in FY 2000).  The trend, however, is not in question.  On average over the last 15 years, the portion of operating costs coming from the General Fund has declined steadily.  In FY 2005, about 20 percent of the FAA’s total budget came from the General Fund and 80 percent from the Trust Fund; this year it’s 18 percent and 82 percent, respectively. 

In recent years, appropriations from the Trust Fund have been funded not only from the annual revenue going into the fund and interest posted to the Trust Fund, but also from drawing down the AATF’s balance, which was over $7 billion as recently as 2001.  A gap exists when you compare the revenue going into the Trust Fund with the level of our costs, and this gap is quickly eroding the Trust Fund.  Since the start of FY02, the uncommitted balance[*] of the Trust Fund has declined by more than $5.4 billion, or an average of 28% per year.  When there is no relationship between the level of revenue being raised to the costs being funded from the Trust Fund, factors such as fluctuating ticket prices that do not raise enough revenue, volatile demand so there are fewer passengers paying for travel, and fundamental changes in the airline industry such as the decreasing size of aircraft being used for commercial transport, lead to a revenue shortfall that has been funded by drawing down the Trust Fund balance.  With the increasing pressures on the budget to fund military and national security needs, the Trust Fund remains a critical necessity in closing the funding gap.  Last year (FY05), the uncommitted balance at the end of the fiscal year was $1.9 billion and, this fiscal year, the President’s budget projects that it will dip to approximately $1.7 billion at the end of the fiscal year. 

The FY2006 projected level of the uncommitted balance is sobering because it leaves only a small “cushion” in the Trust Fund balance.  In addition, our ability to rely on an increased General Fund contribution to bridge any gap is in question due to competing budget pressures as well as the effort to reduce the federal deficit. 

As we look to the future, we see a complicated air traffic control system and workload.  As noted above, scheduled commercial passenger demand, which dipped severely in the wake of 9/11, exceeded pre-9/11 levels last year reaching a record 739 million passengers, up from 690 million in FY 2004.  We expect that domestic passenger totals will continue to grow at approximately three percent per year with the international sector growing five percent per year. 

Low-cost carriers and regional carriers (using smaller jets) are continuing to redefine the market.  Revenue passenger miles(RPM) for the regional carriers are expected to grow almost seven percent per year, and we forecast annual RPM growth of almost eight percent for low-cost carriers.  We forecast that regional carriers will increase their share of the U.S. domestic market from 22 percent last year to more than 25 percent by 2017.  In FY 2005, commercial activity at 23 of our 35 major airports exceeded FY 2000 (peak) activity levels.  Las Vegas (37%); Ft. Lauderdale (33%); Salt Lake City (30%); and Minneapolis (30%) experienced the greatest increases in operations.    

It is of course very good news for the aviation industry that demand is back, but it is back in different ways than before.  While low fares are good news for the passenger, they spell trouble for the Trust Fund with its heavy reliance on the ticket tax as its primary source of revenue.  Approximately 50% of the Trust Fund revenue currently comes from the 7.5% tax on domestic airline tickets.

Industry changes also have implications for the FAA’s workload.  The airlines are trying to control costs by using increasing numbers of smaller aircraft.  This trend adds to the workload of air traffic controllers without increasing tax revenue commensurately.  Regional jets normally carry fewer passengers than the larger airliners, so the movement toward smaller passenger aircraft contributes to the decline in the Trust Fund revenue per flight.  If an airline carries a given number of passengers (paying the same fares) on two regional jets instead of one larger jet, ticket tax revenue does not change, but controller workload approximately doubles.  Our latest forecasts indicate that the growth in the number of smaller aircraft is expected to continue, driving down the average number of seats of a domestic aircraft through 2011.  Plainly, our revenue is not tied to the cost of the service, which means that there is no nexus between actual workload and how it’s paid for. 

Increased air traffic operations are not the only source of increased workload for the FAA.  In recent years the industry has also seen more new entrant carriers.  While this is good news for competition, it also has workload implications for our agency.  Right now, there are 10 applications in the queue awaiting review and certification by our safety staff, and each of these new operators will bring additional pilots and crew into the system.  Also, with regard to our airport grant program, Vision 100’s increase in funding for the Airport Improvement Program (AIP) coupled with a new entitlement formula apportionment for non-primary airports increased our workload in processing grant applications by fifty percent. 

Knowing what is happening with Trust Fund revenues and how the changes in the aviation industry affect our workload is only part of the equation.  We know we must also continually work very hard to control our costs--to make changes and become more efficient, more business like.  We are changing the agency’s structure with a major shift to a performance-based organization, and, as I noted above in discussing our budget proposal, making tough choices with our funding.  We have implemented a cost accounting system in the ATO that provides our managers and executives with the information they need to identify and eliminate wasteful spending, hold or reduce operating costs, and better link financial performance to mission objectives.  That cost accounting system is being extended throughout the FAA this year to help us better assess and control our costs.

I’ve already mentioned our cost savings measures by the ATO, our challenges with our labor negotiations and with future controller hiring.  We are also faced with an aging and deteriorating inventory of facilities and equipment.  The average condition of the FAA’s 21 en route air traffic control centers is poor and getting worse each year.  As this Committee well knows, modernization of the air traffic control system is critical if the agency is to keep up with what aviation brings tomorrow.  The price tag for these facilities and equipment alone is $2 billion per year in capital funds just to maintain current services.

In addition to maintaining the current infrastructure, the JPDO is planning for the emergence of the next generation of the air transportation system out to 2025, charting the course for satellite based navigation, handling new aircraft classes, on-demand services, and the increasing growth in air traffic.  However, the move to a modern, efficient and technology-driven aviation system is going to require sustained, multi-year investments.  We will need to invest resources in order to make the transition to a new system that will significantly reduce operating costs and better serve our customers in the long run.

What I have outlined above—the condition of the aviation Trust Fund in the context of the growth in demand and industry restructuring, and the fact that FAA’s future funding requirements will significantly outpace revenue from aviation taxes--clearly highlights a couple of issues.  During the most recent reauthorization cycle for the current aviation excise taxes (1996-1997), Congress allowed the authority for those taxes to expire twice, which resulted in a $5 billion loss in revenue to the Trust Fund.  We cannot afford to let that happen again.  Two, the FAA needs a stable source of funding that is based both on our costs and the services we provide so that we can meet our mission in an extremely dynamic business environment.  Airline ticket prices are not related to any real measure of productivity for the FAA.  Regardless of how many operations we run through the national airspace system or how quickly we can certify new aircraft products and technologies, or how we continue to drive down the already low accident rate, the primary source of Trust Fund receipts is linked to the price of a ticket.  That approach will not sustain us into the future.

Tying funding to the cost of providing service protects both FAA and the customers who use FAA services by not subjecting our ability to provide a certain level of service to unrelated factors like ticket prices.  A stable, cost-based revenue stream can also ensure funding for long-term capital needs.  We also believe that a cost-based revenue structure would provide incentives to our customers to use limited resources efficiently and to the FAA to operate efficiently, as stakeholder involvement can help us ensure that we are concentrating on services that the customer wants and is willing to pay for.

Conclusion

We believe that the revenue stream that currently funds the FAA is not tied to the cost of the services and that there is a need for funding reform.  FAA’s workload continues to increase.  The current system, largely based on the ticket tax, provides no nexus between the actual workload of controlling flights and providing other services and how they are paid for.  It is time for change.

Mr. Chairman, ten years after the NCARC recommendations, we are tackling probably the hardest part of reform:  how the aviation transportation system will be financed in the next decade and beyond.  Our proposal for funding reform for the FAA is now under review within the Administration.  As I noted at the outset, it is the product of extensive public outreach, analysis, and a lot of creative thinking.  It will propose a cost-based funding structure which will ensure that our costs and revenues are aligned and that our stakeholders are treated equitably.  The details will come soon in the form of a legislative proposal, which I hope will be the basis for ongoing dialogue with this Committee and others in Congress, our colleagues in the aviation community, and the public. 

I look forward to the debate and expect that the discussions will be frank, open and spirited.  We have an opportunity in the near future for positive change, to correct the faults of the current system that threaten our ability to meet future demand.  Change is always unsettling and difficult and requires patience and hard work, but to be ready for tomorrow we must begin today.  It is the only way that we will be able to continue to operate and maintain the world’s safest system with the capacity our economy needs. 

That concludes my testimony.  I would be happy to answer any questions you may have.

 

[*] The uncommitted balance consists of surplus revenues in the Trust Fund against which no commitments, in the form of budget authority, have been made.  This measure provides the most widely-accepted estimates of the amount of money available in the Trust Fund for new appropriations for aviation purposes.

Airspace Redesign and Flight Scheduling Practices at Philadelphia International Airport

STATEMENT OF

ROBERT A. STURGELL,
ACTING ADMINISTRATOR,
FEDERAL AVIATION ADMINISTRATION,

BEFORE THE

SENATE COMMITTEE ON APPROPRIATIONS,
SUBCOMMITTEE ON TRANSPORTATION, HOUSING AND URBAN DEVELOPMENT, AND RELATED AGENCIES,

FIELD HEARING ON

AIRSPACE REDESIGN AND FLIGHT SCHEDULING PRACTICES AT PHILADELPHIA INTERNATIONAL AIRPORT. 

APRIL 25, 2008

Senator Specter and Senator Casey:

Thank you for inviting me to appear here today to discuss the Federal Aviation Administration’s (FAA) New York/New Jersey/Philadelphia Metropolitan Area Airspace Redesign (Airspace Redesign Project), a project that is vital to the safety and efficiency of our national airspace system (NAS).  My colleague, D.J. Gribbin, the General Counsel of the U.S. Department of Transportation, is also here to discuss airline flight scheduling practices at Philadelphia International Airport (PHL).

Congestion and Delays:  Understanding the Problem

Growing congestion and delays in our aviation system are a serious threat to the U.S. economy and our quality of life.  Successfully addressing this threat will require us to embrace new solutions and acknowledge that pursuit of status quo policies will do little, if anything, to reverse the substantial decline in system performance that we have experienced in recent years.  While we are enjoying a record level of safety, we are at a critical point with congestion and delays. 

To give you some perspective, let me draw a national and regional framework.  According to FAA Air Traffic Operations Network (OPSNET) data, in 2007, there were 46,495,785 total air traffic control center operations in the United States.  Approximately one-third of the nation’s flights and one-sixth of the world’s flights either start or traverse the airspace that supports the New York/New Jersey/Philadelphia (NY/NJ/PHL) region. 

During this same time period, we saw record delays in flights across the country.  For calendar year 2007, delays were up approximately 10% nationwide, compared with calendar year 2006.  Eighteen of our nation’s largest airports, including PHL, have returned to their highest pre-9/11 commercial passenger levels.  Throughout all of this, the FAA’s primary goal is one of safety, separating aircraft in the airspace so that they can navigate safely.  In an airspace that is already operating at, or even beyond, capacity, any disruption, be it weather or equipment difficulties, requires the FAA to institute measures that can often translate into delays.  From May 1-August 31, 2007 alone, we saw a total of 210,443 delays totaling 9,808,347 minutes throughout the system.  Of those, 77.6% occurred in the NY/NJ/PHL region.  OPSNET data indicates that 72% of delays were caused by weather, while 14% were caused by volume, with the remaining delays were due to other causes (e.g., equipment outages, runway construction, etc.).  Our aviation system is stretched to the limit. 

As we seek solutions to the problem of congestion and delays, we must recognize that aviation is one of the most complex industries in the world, consisting of an extremely intricate web of infrastructure, technology, and people.  The FAA is addressing the congestion and delays problem in a variety of ways, with new technologies and procedures immediately, and in the long-term with the Next Generation Air Transportation System (NextGen), which will transform the aviation system and how we control air traffic.  We must be able to handle the demands of the future for aviation travel, projected to be one billion passengers by 2015.  The Airspace Redesign Project is a crucial piece of the solution to the congestion and delays problem.

Airspace Redesign Overview

The Airspace Redesign Project is the culmination of over nine years of study and evaluation by the FAA to address congestion and delays at some of our nation’s busiest airports.  The complexity of the airspace in the NY/NJ/PHL area and its importance to the nation cannot be overstated.  There are five major airports (John F. Kennedy International Airport, LaGuardia Airport, Newark Liberty International Airport, Teterboro Airport, and Philadelphia International Airport) and 16 other airports in the region that were studied as part of the Airspace Redesign Project.  There are approximately 15 other commercial service, general aviation, reliever, or military airports that are located in the region, but were not individually studied as part of the Airspace Redesign Project.  From an air traffic control (ATC) perspective, the sky can look like an anthill over each major airport, with hundreds of planes in transit, arriving, or departing at any given moment.  For example, only a few miles separates the streams of arrivals at Newark and La Guardia, southbound La Guardia departures are “climbed over” Newark arrivals, and the approach path to La Guardia can depend in part on runway use at Kennedy; this represents only a fraction of the activity.  This interdependency means that Philadelphia International Airport (PHL) departures are frequently delayed because of volume in New York.  As noted above, one-third of the nation’s flights and one-sixth of the world’s flights either starts or traverses the airspace, making an already intricately choreographed system even more complex.

The goal of the Airspace Redesign Project, then, is to enhance the efficiency and reliability of the airspace structure and the ATC system for pilots, airlines, and the traveling public.  The project modernizes the structure of the NY/NJ/PHL air traffic environment in an environmentally responsible manner, while laying a foundation for NextGen.  Moreover, it will accommodate growth while enhancing safety and reducing delays by 20% in the NY/NJ/PHL Metropolitan Area.  From an environmental standpoint, by 2011, this project is expected to reduce noise levels for 619,023 people who currently experience noise at or above 45 dB DNL, and reduce fuel burn and, in turn, emissions by the airlines.

The FAA’s experience with the 2005 Florida Airspace Redesign emphasizes how these efforts save time and money, by successfully addressing delays.  FAA calculates that in its first year, the redesign has reduced delays, reduced reroutes, and reduced foreign fees attributable to reroutes in the amount of $22.5 million in direct operating costs (e.g., fuel, crew, and hourly maintenance costs) for traffic inbound to South Florida and $11.7 million for traffic outbound from South Florida.  In the Caribbean, a savings of $400,000 has been realized due to reduced reroutes and international user fees.  The benefits of the Florida Airspace Redesign total almost $35 million annually. 

Airspace Redesign Project Implementation

Implementation of the Airspace Redesign Project is estimated to take five years, and will progress along four qualitatively different stages.  Overall, the project represents an innovative approach to airspace design in the NY/NJ/PHL area.  Air traffic rules differ between the “terminal,” or “en route,” or “center” environments.  For example, “terminal” airspace has three nautical mile separation of aircraft criteria, while “en route” airspace uses five mile criteria.  The project expands the terminal airspace over a larger geographical area than is currently designated, and expands it vertically up to 23,000 feet above mean sea level in some areas.  Some airspace sectors that are currently worked in the en route or center environment, upon full implementation of the project, will be worked using terminal rules and terminal equipment.  Expanding the terminal airspace permits ATC to use terminal separation rules as well as the more flexible terminal holding rules over this larger area, providing ATC with more flexibility.  This “terminalization” of the airspace also permits ATC to incorporate expanded departure gates and to separate arrival and departure flows in the NY/NJ/PHL metropolitan areas, increasing the efficiency of the airspace.  Practically speaking, this means that ATC can sequence aircraft further out from the airports, where there is more space to do so.  This makes the flow of air traffic more efficient, even when there’s bad weather.

Reconfiguring the airspace will enable the FAA to take several direct actions to take advantage of improved aircraft performance and emerging ATC technologies.  Leveraging these technologies, the FAA can implement new and modified ATC procedures, including dispersal headings, multiple departure gates and simplified arrival procedures by 2011.  The FAA will also use these technologies to employ noise mitigation measures, such as use of continuous descent approaches (CDA), and raising arrival altitudes. 

Implementation of the Airspace Redesign Project will be able to make use of procedures like Area Navigation (RNAV) and Required Navigation Performance (RNP), which collectively result in improved safety, access, predictability, and operational efficiency, as well as reduced environmental impacts.  RNAV operations remove the requirement for a direct link between aircraft navigation and a ground-based navigational aid (i.e. flying only from radar beacon to radar beacon), thereby allowing aircraft greater access to better routes and permitting flexibility of point-to-point operations.  By using more precise routes for take-offs and landings, RNAV enables reductions in fuel burn and emissions and increases in efficiency. 

RNP is RNAV with the addition of an onboard monitoring and alerting function.  This onboard capability enhances the pilot’s situational awareness providing greater access to airports in challenging terrain.  RNP takes advantage of an airplane’s onboard navigation capability to fly a more precise flight path into an airport.  It increases access during marginal weather, thereby reducing diversions to alternate airports.  While not all of these benefits may apply to every community affected by the Airspace Redesign Project, RNAV and RNP may prove useful in helping to reduce overall noise and aggregate emissions. 

The FAA has explored and will include several mitigation strategies to reduce the impact of the new routings on the underlying communities.  We are instituting several measures in response to the concerns raised at the numerous public meeting that we have had for this project in the Philadelphia area.  These measures include a reduction in the number of dispersal headings (33% in the east configuration and 50% in the west configuration), as well as time of day restrictions to help minimize the impacts on the surrounding residents.  To illustrate, one of the mitigation measures is that during nighttime hours, we return to a one heading departure procedure to minimize the impacts while continuing aviation service to the community.

The Airspace Redesign Project is very large and complex and the implementation will take several years.  There will be four stages of the implementation, distinguished by the degree of airspace realignment and facility changes required to support each of the overlying operational enhancements.  As noted above, implementation is estimated to take at least five years, with each stage taking approximately 12-18 months to complete.

Complementary Solutions:  Enhancing Capacity

Rest assured, however, that we are not simply relying upon redesigning the airspace to address the congestion in this region.  Our preference is to expand capacity in order to meet demand.  Philadelphia currently has two projects underway that would address this issue.

On April 29, 2005, the Record of Decision (ROD) for the Runway 17-35 Extension Project was signed.  The ROD provided environmental clearance to extend Runway 17-35 by 640 feet to the north and 400 feet to the south to a new length of 6,500 feet.  This project will include standard runway safety areas and will maintain the existing ship notification procedure with regard to ships in the Delaware River.  The project also includes extension of the parallel taxiways to the east and west of Runway 17-35, a new high-speed exit taxiway, a new holding apron, and relocation of 1,000 parking spaces.

The Capacity Enhancement Program (CEP) is a major airfield redevelopment project aimed at enhancing airport capacity in order to accommodate current and future aviation demand in the Philadelphia Metropolitan Area during all weather conditions.  It is a more comprehensive, long-term solution.  Two on-airport construction alternatives have been determined to be reasonable and feasible and will meet the project purpose and need.  Both alternatives are in a parallel configuration with an additional southern runway.  Each will provide for the capability of simultaneous aircraft arrivals or departures in bad weather conditions.  Both alternatives are being examined as part of the ongoing EIS being prepared by the FAA.  A Draft EIS is tentatively scheduled to be released in late Summer 2008.

Complementary Solutions:  NextGen

Additionally, our NextGen efforts will help with congestion relief in the long-term.  To maximize the benefits as soon as possible, we have expedited implementation of some of the latest air traffic control technology at airports in the Philadelphia and New York region.  With Philadelphia and New York airspace so interdependent, technologies deployed in one airport in the region will have a beneficial “cascade” effect on the others.  Thus, deployment of technology and other solutions at JFK that reduce congestion means fewer delays at PHL.

Automatic Dependent Surveillance – Broadcast (ADS-B), the backbone of NextGen, is a satellite-based technology that broadcasts aircraft identification, position, and speed with once-per-second updates (as compared to the current five to twelve second refresh from today’s radar).  While a time savings of four to eleven seconds may seem brief to some, this savings actually allows for far greater accuracy in determining aircraft position.  Philadelphia has been selected as an initial key site for the installation of ADS-B.  Philadelphia is scheduled to have coverage both in terminal airspace and on the airport surface by February 2010.

Improvements at PHL can come from NextGen technologies at neighboring airports.  At JFK, we have accelerated the installation of the Airport Surface Detection Equipment – Model X (ASDE-X) system, which provides the surface surveillance necessary to reduce runway incursions and can allow airport users and operators collaborative surveillance of aircraft so that everyone has the same picture of the airport and aircraft.  The schedule for ASDE-X has been accelerated by one year, and the additional surface surveillance planned for collaborative decision making is being developed and installed at the same time.  It is anticipated that the ASDE-X installation and additional surveillance tools will be operational by August 2008, with PHL scheduled for installation in 2009. 

The Traffic Management Advisor (TMA) aids controllers sequencing aircraft through en route airspace into major terminals.  This system calculates a specific time for each aircraft to cross a fixed point in the airport landing route and also considers minimum safe distances between aircraft.  Appropriate direction to pilots are then provided using that data, allowing arrival streams to take better advantage of available landing slots.  The FAA plans to expand deployment of this tool and integrate arrivals and departures in the New York area in July 2008, and plan to include a demonstration of the incorporation of enhanced weather detection and prediction into TMA in 2008.

Complementary Solutions:  New York ARC

Further, in response to the growing delays in the NY/NJ/PHL area, the President, Secretary Peters, and I met to discuss the unacceptable impact these delays were having on the Nation’s airspace.  We formed a New York Aviation Rulemaking Committee (ARC) to work with industry and community stakeholders to come up with a list of potential solutions.  My colleague, D.J. Gribbin, will provide more detail on this, but I would like to touch briefly here on some of those results.

On December 19, the Secretary announced a number of steps being taken in New York as a result.  These steps include a cap on scheduled operations at JFK, planned caps on scheduled operations at Newark, a list of 77 operational improvements to reduce congestion in the region, and establishment of a New York airspace czar.  Many of these solutions can be implemented in the short-term, but longer-term efforts such as airspace redesign and NextGen will also be required in order to address the problems in this congested airspace.  To date, we have completed eight of the 77 identified operational improvements, and we expect to complete an additional nine by this summer.  We are working closely with the Port Authority of New York and New Jersey and the stakeholders to prioritize the remaining 60 items, which are either long-term projects or items that are under review for feasibility, and expect to finalize the priority list this summer.  Because the NY/NJ airports share common routes with Philadelphia, and are in many ways interdependent, there will be direct benefits to Philadelphia as operational improvements are put into place in NY and NJ.

Beginning March 30, as a short-term solution, airlines agreed to cap operations at JFK at either 82 or 83 operations per hour, depending on the time of day.  These caps will be in place through October 2009 and follow the conclusion of a schedule reduction meeting we held with the air carriers and airport authority.  Hourly limits are also planned for Newark.  On March 18, FAA published a proposed order limiting total operations at that airport at an average of 83 per hour.  We propose to implement those caps on June 1.  Additionally, on April 16 the Secretary announced a Supplemental Notice of Proposed Rulemaking (SNPRM) for LaGuardia Airport.  This proposed rule follows the FAA’s original congestion management proposal, dated August 29, 2006.  Like the NPRM, the SNPRM would maintain an hourly cap at the airport and “grandfather” a majority of the existing Operating Authorizations to the carriers serving the airport today.  However, we have decided to withdraw that part of the proposal that would require aircraft upgauging, which was not favorably received by most commenters.

The SNPRM incorporates the use of auctions at the airport.  Under the proposal, up to 36 slots would be auctioned each year, for the first five years of the rule.  We believe that auctioning off a portion of the existing capacity will create a monetary value for this scarce resource, which will encourage carriers to use the limited number of slots in the most productive manner.  The FAA is inviting the public to comment on the proposal.  The comment period will be open for 60-days. 

In addition to the regulatory initiatives proposed and in place for the New York metro area, implementation of the latest air traffic control technology at airports in the Philadelphia and New York region is being expedited, and a permanent aviation “czar” has been appointed to serve as director of the newly-created New York Integration Office. 

Nevertheless, expanding capacity is not always possible; neither is it an immediate solution, nor can physical expansion be limitless.  As I have noted, the aviation industry is a major economic engine, providing support and jobs both for the country as a whole and for local communities.  We need to continue to find ways to address congestion and allocate limited space efficiently and fairly.  We believe that a market-based approach provides the best outcome because it sets the right incentives for efficient use of the system.  That is why we are also looking at market-based measures for solutions to congestion.

On January 14, Secretary Peters announced one of these solutions--a proposal for comprehensive market-based changes to the FAA’s Policy on Airport Rates and Charges.  The amendments, if adopted, will provide airports with more tools to finance projects that reduce congestion and to encourage more efficient use of existing facilities.  The amendments will allow a congested airport to raise the price of using its runways.  This in turn could provide a financial incentive to aircraft operators to consider alternatives, such as scheduling flights outside of peak demand times, increasing aircraft size to use the congested runways more efficiently, or meeting regional air service needs through alternative, less congested facilities.

Environmental Stewardship

The FAA is ever-mindful of our environmental responsibilities.  NextGen must be more efficient than the current system, but it must also be quieter and cleaner.  Our goal for NextGen is to meet growing demand by developing a system capable of handling two to three times the operations in the nation's airspace while reducing significant environmental impacts.  We want to ensure that the number of people in the United States who are exposed to aircraft noise continues to decline, and that we are reducing air and water quality impacts, addressing the impact of aviation’s greenhouse gas emissions on the global climate, and supporting the development of alternative aviation fuels.  Additionally, it is our goal to provide expertise and funding to assist in abating the impacts of aircraft noise in neighborhoods surrounding airports by purchasing land, relocating persons and businesses, soundproofing residential homes or buildings used for educational and medical purposes, purchasing noise barriers and monitors, and researching new noise projection and abatement models and new technologies.

For example, the City of Philadelphia has an approved noise compatibility program for PHL that includes residential sound insulation.  The city is just beginning to update that program, which is based upon a study completed in 2002.  In the meantime, the city can continue to mitigate in areas that are known to be still impacted by significant noise levels and for which mitigation was approved.  The FAA intends to support this program to the extent possible.

Conclusion

Congestion and delays throughout our aviation system are at a critical point.  The FAA has spent years considering the alternatives and determining the most effective solutions to relieving the problems in the NY/NJ/PHL airspace, without compromising our environmental stewardship.  The Airspace Redesign Project is one which will enhance efficiency and reliability of the airspace, while also accommodating the projected growth.  The project plays a crucial role in our overall solutions in the region, which include upgrades in technology and other short-term scheduling solutions.

Senator Specter, Senator Casey, this concludes my prepared remarks.  Thank you again for this opportunity to testify.  I will be pleased to answer any questions you may have.

FAA Aircraft Certification: Alleged Regulatory Relapses in the Certification and Manufacture of the Eclipse EA-500

STATEMENT OF

NICHOLAS A. SABATINI,
ASSOCIATE ADMINISTRATOR FOR SAFETY,
AND
JOHN J. HICKEY,
DIRECTOR OF THE AIRCRAFT CERTIFICATION SERVICE,

ON

“FAA AIRCRAFT CERTIFICATION: ALLEGED REGULATORY LAPSES IN THE CERTIFICATION AND MANUFACTURE OF THE ECLIPSE EA-500,”

BEFORE THE

HOUSE COMMITTEE ON TRANSPORTATION AND INFRASTRUCTURE,
SUBCOMMITTEE ON AVIATION,

SEPTEMBER 17, 2008.

 

Chairman Costello, Congressman Petri, Members of the Subcommittee:

I appear before you today to discuss the procedures, policies and decisions leading to the certification of the Eclipse EA-500 (Eclipse aircraft), a very light jet (VLJ) that received Federal Aviation Administration (FAA) certification on September 30, 2006.  There have been numerous assertions by heretofore unnamed sources that the certification of this aircraft was rushed, achieved despite it not meeting appropriate standards, and accomplished due to extreme pressure placed on the FAA employees responsible for certification.  While I am prepared to discuss the details of the Eclipse certification, I must state unequivocally at the outset what goes without saying:   that FAA professionals would never and, in this case, did not, certify an aircraft that they knew to be unsafe or one that did not meet standards.  I am unaware of any FAA safety professional who would choose to put the safety of the flying public at risk by certifying an unsafe product for introduction to the NAS.  Signing his or her name to the certification of an aircraft or component only if it meets detailed technical standards is fundamental to the continued safety of the national airspace system (NAS).

Because of the growing interest and alleged skepticism about the airworthiness of the Eclipse aircraft, I assembled a team of experts to review data compiled in connection with the certification of the aircraft, a Special Certification Review team (SCR).  I felt it was important to have the SCR headed by a highly respected individual whose personal and professional integrity are above question.  That’s why I was so pleased when Jerry Mack, a former Boeing executive who has extensive certification experience from the manufacturer’s perspective, agreed to head the team.  The charter of the SCR directed them to conduct an independent analysis and evaluation of the aspects of the type certification of the Eclipse aircraft that we understood were the subject of concern.  All of them are highly respected professionals with technical expertise in different areas critical to type certification.

The job of the review team was not an easy one but everyone pulled together and dedicated themselves, traveling around the country to meet with the key people and review the voluminous documents involved.  Last Friday, the SCR announced its findings.  The team’s bottom line was critical:  FAA’s certification of the Eclipse aircraft was appropriate because it did meet the required standards.  In addition, the team did not find any unsafe condition needing immediate attention.  This is good news--that, in the opinion of some of the best technical experts in this country, the Eclipse aircraft meets the required standards and was, therefore, legally entitled to receive certification.  Their report will be available to the Committee for your review.

But also important to me and my team was learning of the deficiencies the SCR identified with regard to communication within the certification team and with regard to the documentation of decisions.  I take seriously the criticism that the teams we assigned to this project did not communicate well with one another or with Eclipse.  We fully accept the SCR’s criticisms of the process and agree that changes need to be made.  I believe that if our type certification team had documented its various concerns in issue papers, as required, and had followed that process to resolution, all FAA staff involved in the project would have better understood and accepted the certification approach that was used in this project.  I assure you that we will take every opportunity to improve communication at all levels of our organization and to ensure that our staff are accountable and follow national processes to appropriately document certification decisions.

The Certification Process:  An Overview

One of the challenges of this hearing is that the FAA’s aircraft certification process is highly complex and technical.  It is an extremely dynamic process, which means that no two certifications are identical.  Fundamental to any certification is to have FAA staff and the Applicant working closely together to establish general timelines and expectations, and to identify deliverables.  The specifics of how the project should proceed are detailed in two planning documents, the Partnership for Safety Plan (PSP) and the Project Specific Certification Plan (PSCP).  In these documents, the FAA and the Applicant agree to operating practices for a certification project.  Each phase of the project is built on early mutual awareness of key certification issues, commitment to planning and managing the project, early identification and resolution of issues, and other elements to achieve the vision of the project.  All phases of the project are designed to contribute to improving safety and assisting with the mitigation of cost and project risk.  It’s an extremely interactive process with both FAA staff and the Applicant agreeing to specific goals and responsibilities.

During type certification the FAA determines whether the design of the aircraft meets all the applicable regulatory requirements.  At this stage, the approval is of the type design, not subsequently produced aircraft (approval of which is authorized under a production certificate, described below).  FAA regulations specify the safety requirements, but the Applicant is free to propose the method they will use to demonstrate compliance.  In the type certification process, it is the normal and preferred method for an Applicant to propose methods of compliance and then document such methods in their certification plans.  Most frequently, the Applicant will use the methods of compliance published in FAA general guidance material, because they are known to be acceptable and the results are more predictable.  However, it is important to understand that while the regulatory requirements are mandatory, the specific methods of compliance are not. 

It is also important to understand that the law requires the Applicant to achieve defined, minimum standards.  If those standards are met, the Applicant is legally entitled to a type certificate.[1]  Do not mistake the term “minimum standards” for “minimal standards.”  It is unworkable to require anything other than the “minimum standards” prescribed in the regulations in order for the Applicant to know exactly what it has to demonstrate.  Moreover, the FAA is required by law to establish clear regulations for these applicants to follow,[2] and is likewise obligated not to act arbitrarily or capriciously.[3]  For an FAA professional to require something other than what is outlined in the regulations is not only inappropriate, it is illegal.

Once an Applicant receives its type certificate, it has six months to obtain a production certificate or an approved production inspection system.  The production certificate is issued when the Applicant demonstrates that it can reliably reproduce aircraft that meet the approved type design.[4]  Obtaining a production certificate is extremely challenging for a new company entering the industry because they must establish the physical and procedural infrastructure to develop the capability to consistently reproduce aircraft that conforms to the type certificate.  Until a production certificate is issued, the FAA must inspect each aircraft the Applicant produces as it is being built in order for us to ensure that the aircraft meets the approved type design.  This is why we require that the Applicant obtain the production certificate within six months of the type certificate.  FAA cannot indefinitely dedicate resources to inspect every aspect of every aircraft built by the Applicant.

In addition, an FAA Flight Standardization Board (FSB), composed of FAA pilots and other experts in flight operations, usually begins work near the end of the Type Certificate activities and is required to address any unique aspects of a new airplane.  It determines operational suitability of the aircraft and its systems, requirements for flight crew training aids, type rating requirements for pilots, and any unique or special training requirements.  These are determined through flight tests, meetings with the Applicant, review of documents, etc.  Setting these standards and demanding that the Applicant meets them are regulatory obligations of the FAA.[5]  The FSB also determines emergency evacuation capability, the resolution of flight standards issues, and other tasks as appropriate.  The Board’s membership includes operations inspectors from FAA district field offices or representatives from the FAA headquarters as appropriate, a board chairperson from the FAA’s Airplane Evaluation Group (AEG), and an alternate chairperson.  While the FSB evaluation is not part of the certification process of the physical aircraft, it is an essential part of the evaluation of the aircraft because it determines how the aircraft may be operated.

We cannot stress enough that this brief description of FAA’s certification of an Applicant’s product is an extreme oversimplification of the complexity and pressures associated with the process.  In turning to the specifics of the Eclipse certification, more of those complexities and pressures will become apparent.  While the Eclipse certification process was fairly typical in terms of encountering those complexities and pressures, it was unusual in some other respects.  The Eclipse certification process involved an Applicant that had never before attempted to obtain FAA certification of its product.  The process also involved an FAA field office that—though very competent in certifying aircraft products—had never before been responsible for a high profile, highly anticipated product.  This situation resulted in FAA headquarters carefully monitoring both the type and production certification of the Eclipse aircraft. 

During the process, some differences of opinion or questions of regulatory policy that arose during the Eclipse certification were raised to FAA headquarters level for resolution.  In this instance, I believe raising the conflicts or questions to headquarters was the appropriate and right thing to do.  This Committee has been justifiably critical of the FAA when headquarters failed to step in when problematic issues arose in the FAA regional and district offices.  This is a case where headquarters management properly intervened to support and guide our field staff in working through problems that arose.

Type Certification Issues

Some of the problems that were a focus of concern during the type certification process involved the aircraft flaps, stall warnings, screens blanking, and most significantly, how and whether the avionics should have been approved.  As I briefly review each of these issues and why I believed they were properly addressed, I would ask that you focus on the standard that had to be met and remember that if the standard was met, the law requires FAA to issue the certificate.

For an aircraft to fly safely, it is important that the flaps on the wings operate properly.  Consequently, there is a certification requirement that the aircraft have a system to prevent the flaps from moving to an unsafe, asymmetrical position.  This problem was recorded only once during certification.  However, test pilots did cite a more frequent problem of receiving flap failure messages.  Most flap failure messages were caused by system errors.  The problem identified by the test pilots was mitigated by improving the flight manual procedures to assure operational safety.  The problem experienced by the pilots was not the result of the certification standard not being met.

A second area of concern involved what were viewed as too frequent stall warnings experienced by FAA pilots.  The dialogue on this issue has often been referred to as “false stall warnings,” which is very misleading.  The certification requirement is that the warning system activate as the aircraft approaches the stall speed.  During testing, the stall warning system activated appropriately.  There were no “false warnings.”  What was ultimately determined was that the maneuvering speeds and abnormal flap landing approach speeds that the manufacturer provided to the FAA pilots in the flight training manual and the airplane flight manual, respectively, were slower than they should have been.  Consequently, operating at those speeds meant the FAA pilots were flying closer to the stall speed than they should have been, thus resulting in a more frequent activation of the warning system than pilots expected.  The pilots assumed the stall warning system was activating inappropriately and referred to the activation as false warnings.  The fact was that the system worked properly, but some of the speeds the pilots relied on were inaccurate and, ultimately, changed by the manufacturer.  Again, the certification standard, that the stall warning system notify the pilot that he or she was approaching stall speed, was met.  The training manual and flight manual speeds were changed before the first airplane was ever delivered to a customer.

The next area we reviewed was blanking of the screens of the Electronic Flight Information System (EFIS).  The EFIS provides many required controls and displays for the pilot.  It consists of two Primary Flight Displays, a Multifunction Display, an Autopilot Control Panel, a Center Switch Panel, and a keyboard.  There were a total of three screens on the control panel.  Although there were times when a screen blanked out, the bottom line is that never more than one screen blanked out at any given time.  The required standard is that one display of information, essential for continued safe flight, be available to the crew.  In the case of Eclipse, the pilot always had the requisite information available to continue safe flight.  Consequently, the required standard was met.

Finally, and perhaps most importantly, were the allegations that a portion of the aircraft’s avionics system was certified to less than the applicable standards.  I say that this is perhaps the most significant area of concern during the certification process because it is this issue that ultimately resulted in the Director of the Aircraft Certification Service, John Hickey, getting involved in the type certification.

Fundamental to understanding this matter is to understand how the FAA certifies avionics.  The manufacturer of any avionics component can apply to the FAA for a Technical Standard Order Authorization (TSOA).  A TSOA allows a component manufacturer to certify its product for a broader use—i.e. to enable it to sell its product to a range of aircraft manufacturers, not just to Eclipse who was applying for the type certificate in this case.  A TSOA is not required to obtain a type certificate.  In this case, Avidyne, the avionics manufacturer received its TSOA after Eclipse received its type certification.  When an airplane is certified and contains components without TSOAs, the aircraft manufacturer becomes responsible for the component, both in the design and in the production. 

During the Eclipse certification, as the negotiated target date for the issuance of Eclipse’s type certification came closer, it became clear that Avidyne, the manufacturer of the avionics system, would not qualify for a TSOA by the target date.  In order not to delay the timely issuance of the type certificate, Avidyne and Eclipse decided to have the avionics certified as part of Eclipse’s type certification, while Avidyne continued its separate, parallel work on getting its TSOA.  The FAA could certify that the Avidyne product met standards on the Eclipse aircraft, without making the determination that it met requirements for a TSOA.  This certification approach is common for components of an aircraft.

Because of the change in approach, a disagreement arose between Eclipse personnel and our staff in our Aircraft Certification Office (ACO).  Specifically, the issue centered around a dispute as to what actions were necessary to achieve compliance with the standards.  To receive TSOA approval for certain types of software-driven avionics such as the one Avidyne was developing, an applicant is explicitly required to demonstrate satisfactory completion of the industry standard, referred to as “DO-178B.  However, to receive a type certificate, there is no explicit requirement to meet DO-178B.  In fact, the regulation governing this lists multiple ways to meet the requirements.[6]  Consequently, Eclipse submitted a plan to meet the type certification requirements through a combination of ground tests, flight tests, laboratory tests, and other activities.

It was the belief of the ACO staff that Eclipse needed to complete DO-178B testing anyway in order to achieve the type certification, and informed Eclipse of that requirement.  Eclipse officials notified FAA headquarters officials that they considered the ACO’s requirement to meet DO-178B to be incorrect when seeking a type certification.  Rather, Eclipse argued, the type certification standards allowed for its proposed plan for compliance.

John Hickey was concerned that FAA policies and procedures were not being followed and traveled to Albuquerque, accompanied by the headquarters officials tasked with ensuring the development and implementation of national certification policy.  John and these headquarters staff met with the FAA certification team to discuss whether the appropriate standards were being required, given the request that the component be evaluated only as part of the Eclipse type certification. 

I support John’s decision to elevate this matter by bringing in the headquarters certification policy staff.  As I mentioned, this was a situation where there was an FAA field office that had not previously been responsible for the certification of a high profile, complex project and an Applicant that had never been through the certification process.  The change in Eclipse’s compliance strategy came relatively late in the program and left little time for the FAA to develop a response strategy.  It was entirely appropriate that headquarters evaluate the differences of opinion about how the matter should proceed.  In the end, John left it to the headquarters policy officials to determine whether the Eclipse proposal that Avidyne’s product had already met the requisite standards for type certification, was appropriate.  They ultimately agreed with the Eclipse position. 

I realize that this decision created resentment and raised questions for some people.  No one likes to be second guessed or overruled.  I know that.  It takes a strong manager to intervene in a process when he knows his input will be unpopular.  But making difficult decisions that are the right decisions is what leadership is all about.

As a final comment on the issuance of the type certificate, much has been made of the fact that the certificate was signed on a Saturday.  I want to reiterate the complexity and pressure involved in the certification process.  High profile projects always involve a strong and dedicated push at the end to meet the negotiated deadline, if possible.  The pressure is always to reach a decision.  It is never to reach a particular outcome.  The deadline is always negotiated for a reason.  The Applicant needs to know whether it can be certified by that date—in this case, September 30, 2006--for its own business reasons.  The FAA has agreed to provide the resources necessary to assist the Applicant and do the necessary evaluations by the target date.  It is a shared goal.  If FAA agreed to a date that fell on a Saturday, then it was because the office believed the goal could be met by that date.  Certification on that date, regardless of the day of the week, should not receive undue attention.

Production Certificate Issues

Turning to the production certificate, Eclipse had six months from receiving its type certificate, or until the end of March 2007, to obtain its production certificate or an approved production inspection system.  Until it received a production certificate, Eclipse could only produce airplanes with very close FAA supervision of its production system and of the inspection and airworthiness certification of each airplane produced.  Once again, the deadline created pressure for those individuals working on this stage of the process. 

Eclipse faced some challenges during this phase.  The first Eclipse airplane was delivered to a customer at the end of December 2006.  Subsequently, Eclipse fell behind in its delivery schedule and was unable to deliver airplanes to customers as promised.  This may have been attributable to a number of factors, including that the company suffered from frequent changes in key personnel and an overall lack of awareness of aircraft production best practices.  The company was frustrated that its production schedule was in disarray and believed FAA was part of the problem.  FAA employees were frustrated at Eclipse’s inability to consistently reproduce a product that met the approved design standard, thus requiring continued heightened FAA supervision of the production process. 

All the while, the March 30th deadline for production certification loomed large.  The increasing pressures on both sides resulted in a degradation of the personal and professional relationships necessary to achieve success and led to a number of unprofessional encounters that once more came to the attention of headquarters and John Hickey.  There were allegations by Eclipse that the standards being applied were inappropriate and allegations by FAA staff that the regulations were not being followed.

With this backdrop, in early March, John established an independent team to oversee completion of the production certificate and, in the interim, the airworthiness certification of individual airplanes.  The team was made up of highly respected FAA professionals from across the country and led by Ron Wojnar, who is a senior advisor in the Flight Standards Service.  The independent team found that some FAA policy and procedures for airworthiness and production certification were not being followed, and that there was no effective FAA management plan in place to provide a roadmap for the parties to understand how to achieve a production certificate in the requisite time.

Consequently, the first action directed by the team was to jointly develop and implement a revised, more detailed PSCP, one of the planning documents I described earlier.  This management tool defines the roles, responsibilities and expectations for both the FAA and the Applicant in order to meet the desired milestones and ensure compliance with regulations and policies.  It does not change any regulatory requirements.  It just provides specific steps for how to meet those requirements taking into consideration FAA’s past experience with the Applicant and our knowledge of best practices.  In this instance, it amplified a less detailed plan that had previously been developed.

As a result of the PSCP and weekly meetings or telephone conferences to hold everyone accountable for meeting the PSCP goals, the production certificate was issued on April 26, 2007.  (The FAA granted Eclipse an extension of the six-month deadline for issuing the production certificate on March 29, 2007, as permitted by the regulation.[7])  A total of 11 Eclipse aircraft had been delivered prior to the issuance of the production certificate, with the FAA inspecting and certifying each individual airplane.

During the production certification process, two FAA professionals were removed from the production certification team, at the direction of the FAA Manager of the local Manufacturing Inspection Office.  Their removal was endorsed by Ron Wojnar, the head of the independent team. The management officials concluded that these FAA professionals were frustrated with their interaction with their Eclipse counterparts.  Understandably, their frustration may have led to a lack of objectivity—a factor that FAA management appropriately considered.

Once again, a headquarters action resulted in some local FAA officials being challenged about the way they had conducted the production certification process.  Once again, it is understandable that those individuals, whose judgments and decisions were questioned, would be offended.  And, once again, our leadership and the difficult decisions we’ve made have been challenged as inappropriately deferential to the Applicant.  But the fact is that we sent in the best and the brightest to ensure the most appropriate outcome based on the legal requirements.  That additional review by FAA should be commended and not condemned.  The attention and interest of FAA headquarters staff should not be viewed as inappropriate.  It should be viewed as a government doing its job to make the system safer and working to introduce ever safer products into the NAS. 

Flight Standardization Board Issues

As the production certificate team was performing its duties, FAA’s Flight Standards Service began its review with the FSB.  The FSB team is required to evaluate the manufacturer’s training programs, aircraft manuals, checklists, aircraft system performance, and equipment functionality to determine the aircraft’s suitability, training and flight checking requirements, and crew configuration for operation in accordance with FAA regulations.  Because of the aircraft’s design and performance, the FSB was also required to determine the pilot type rating for the aircraft.  Eclipse requested that the aircraft be certified for Single Pilot Instrument Flight Rules (SIFR) operations, and the FSB evaluated the aircraft in accordance with these standards.

For a new airplane requiring a type rating under FAA regulations,[8] the FSB uses the broad guidance specified in FAA Advisory Circular 120-53, for a type rating determination and to evaluate the manufacturer’s training program for a new aircraft.  Additionally, FSB pilots/safety inspectors are required to complete the training program and operate the airplane to the standards required by the Airline Transport Pilot/Type Rating Practical Test Standards, and in accordance with the Airplane Flight Manual normal, abnormal, and emergency procedures and operating limitations.  When it becomes difficult for the majority of FSB pilots to complete the manufacturer’s training program and be able to operate the airplane at the required standards, an aircraft’s training program could be deficient, its operational workload could be too high for the average pilot, or it could be a combination of both.  If the FSB determines that the workload is too high, it will not issue a type rating for a single pilot.

The FSB met at the Applicant’s headquarters on September 23, 2006 and adjourned on October 6, 2006 without issuing a type rating for the operation of the aircraft.  During this evaluation period or “Phase I,” the FSB found numerous problems with the aircraft, including screen blanking of the flight displays, nuisance stall warnings, flap failures, unavailable autopilot functions necessary for SIFR operations, etc.  Because these issues led to an extremely high cockpit workload during IFR operations, it would have necessitated two pilots to fly the aircraft.  At that time, the FSB was unable to issue a single pilot type rating for this aircraft as requested by the Applicant, and made recommendations to Eclipse that the problems be resolved before presenting the aircraft for another FSB review.  The FSB process worked – our team evaluated the product according to our standards, and when the product could not meet those standards, the FSB refused to issue the type rating.

The FSB reconvened on December 6, 2006 (“Phase II”), after Eclipse indicated that the Phase I problems had been addressed.  While many of the 15 original issues had been resolved, some were still outstanding.  Additionally, the FSB found three other issues that needed resolution before a type rating could be issued.  The FSB adjourned on December 14, 2006.  Once again, the standards were not compromised, our rules were followed, and the process worked.

Finally, the FSB reconvened for a third evaluation (“Phase III”) in January 2007.  The FSB found that most of the previous outstanding issues had been resolved, but identified four issues with the aircraft, some of which had previously occurred.  Once again, the team required the Applicant to take corrective measures in order to bring the aircraft in compliance with the standards for a SIFR operations type rating.  Eclipse did resolve all the problems during Phase III, and the FSB issued the SIFR operations type rating on January 26, 2007.

During and after every phase of the FSB’s evaluations, all the problems that came to light were briefed fully to Eclipse staff and management for them to address and resolve.  A number of them were resolved while the FSB was present; others were resolved during the time between the phases.  Management in both the Aircraft Certification Service and the Flight Standards Service were also info

In short, the FSB process worked exactly as it should have.  The Applicant presented their aircraft to the FSB for evaluation and a type rating determination.  The FSB tested the aircraft and found it lacking in certain respects.  The team required that the Applicant resolve the problems before proceeding further, and the Applicant did.  While it was an undoubtedly frustrating process on both sides, all the issues were in fact resolved, and the FSB, in accordance with the law and FAA policy, issued the appropriate SIFR type rating.

Conclusion

The certification of Eclipse was a challenging project.  It is impossible to convey in a single overview the complexities and thousands and thousands of decisions that went into the aircraft’s certification.  I know that this Committee understands the process is demanding one.  Tough decisions were made and people were pushed to work hard.  Could certain things have been done differently? Absolutely, but that would be the case with any lengthy, complicated process that receives this level of investigation and scrutiny after the fact.

Our bottom line is that FAA has a vested safety interest in the certification of new aircraft.  Each new generation of aircraft tends to be safer than the ones that preceded them.  Our regulatory standards continue to raise the safety bar as new technologies are introduced.  For this reason, FAA wants new airplane programs to succeed.  But by succeed, I mean we want to help manufacturers meet all the regulatory requirements for their product.  But helping them succeed never means giving them a pass on regulatory safety requirements so they can meet delivery schedules.

A good government is a government that is dedicated to its mission, accountable to the public and responsive to the needs of its citizens.  I understand and appreciate that this Committee wants to ensure that responsiveness does not result in less than vigilant regulatory oversight.  I am keenly aware of your concerns because they are my concerns as well.  As always, you have my commitment to holding my organization and the industry we regulate to the highest aviation safety standards in the world.

Mr. Chairman, this concludes my statement.  I will be happy to answer your questions at this time.

 

[1] 14 C.F.R. § 21.21.

[2] 5 U.S.C. §§ 551 et seq.

[3] See, e.g., National Ass'n of Home Builders v. Defenders of Wildlife, 127 S. Ct. 2518 (2007).

[4] 14 C.F.R. § 21.135.

[5] 14 C.F.R. Parts 91, 121, 135.

[6] 14 C.F.R. § 21.305.

[7] 14 C.F.R. §21.123.

[8] 14 C.F.R. § 61.31.