LSA Certification Within Your Reach!

by Tom Briden
Copyright 2021. All rights reserved!
Published in Midwest Flyer Magazine August/September 2021 online issue

Fellow Birdmen and future “Erks” (ref. WWII mechanics), I just returned from a 120-hour, 15-day aviation maintenance course taught by Rainbow Aviation, the Light Sport Specialists, in Kingsville, Missouri (https://rainbowaviation.com/). Our instructors were the owners – husband and wife team, Brian and Carol Carpenter.

Both are flyers, aircraft owners, and mechanics. This event was a jammed packed, fun-filled and challenging curriculum that mirrors the knowledge and practical application of the FAA Aviation Maintenance Handbooks (FAA-H-8083-30A, 31 and 32) and Advisory Circular 43.13-1b/2b, more commonly known as “Aircraft Inspection and Repair.” After completing the course, I left with a Certificate of Completion of Light Sport Repairman Maintenance – Airplane in hand. I will now present this certificate to my local FAA Flight Standards District Office (FSDO) for my license under FAR 65.107. With this repairman certificate and license, I can now work for hire to maintain Special Category Light-Sport Aircraft (SLSA) and Experimental Light-Sport Aircraft (E-LSA). It’s one more step to eventually obtaining my Airframe and Powerplant Certificate (A&P), if I choose to do that.

All mornings start with 4 hours of lecture, lunch, and more talk, followed up by a workshop. Carol specializes in the Federal Aviation Regulations (FARs), repairman eligibility, privileges, limitations, rules and regulations, FAA liaisons, registrations, Light Sport differences, inspections, checklists, service directives, orders and notices, resources, links, logbooks, testing and much more. Her background is in education and she adds excitement and humor to what could be described as mundane.

Brian is the recipient of the 2017 FAA National Aviation Technician of the Year Award. He is the consummate professional. “Van” (i.e. Richard “Van” VanGrunsven, Van’s Aircraft) has him on speed-dial. His exemplary talent and use of training aids is the best I’ve ever seen. I was enamored by his interactive white board, slides, videos, diagrams, demos and handouts. Brian’s explanation of aviation physics, aircraft design and function, troubleshooting, carburetor synchronization, engine mechanics and gearbox harmony, along with his shop supervision, made learning a breeze. He was the spigot… I was the sponge.

All 16 of us students felt more useful, better educated and more competent, based on work performed. Whenever I hear or read about “sport mechanics,” LSAs, moment of inertia, EMG-6, weight shift, 3D modeling, electric powerplants, powered parachutes, Jabiru, sail cloth, LOAs, spark plug analysis, hangar 7, Corrosion X, all things Rotax, flutter, punch testing, pulse wave, Buzz Master, gliders and many more GA topics, I will recall this class and think of my mentors, Brian and Carol. I am excited to enter the field of LSA maintenance.

If you’re looking for a world-class hands-on experience in the heartland of America, you should consider this course provided by Rainbow Aviation! 7,000-plus graduates already have.

Tom Briden, ATP, FE, CFI A&I, USAF, LSRM-A, Repairman A/B.

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LSA Maintenance Training – A Rare Opportunity

Published in Midwest Flyer Magazine August/September 2021 online issue

After training more than 7,000 students from nearly every state in the U.S., and more than 20 different countries, the owners of Rainbow Aviation, Brian and Carol Carpenter, have relocated their business from California to Kingsville, Missouri – about an hour southeast of Kansas City. The new location has been well received for its central location for both Rainbow Aviation’s two-day/16-hour Light Sport Aircraft Repairman Inspection (LSR-I) course, and its 15-day/120-hour Light Sport Aircraft Repairman Maintenance (LSR-M) course. 

There is only one repairman certificate, but two ratings: “LSA-Inspection” (LSR-I), and “LSA-Maintenance” (LSR-M). 

The “Inspection Rating” allows the holder to complete an annual condition inspection on an Experimental Light Sport Aircraft they own. Once they have this rating, it does not need to be renewed. This weekend course is invaluable to the aircraft owner and is especially popular among those who own amateur-built Light Sport Aircraft. Weekend courses are held at various locations throughout the country.

What can an LSA owner gain from taking the 16-hour (two-day) LSR-I Inspection Rating Course?

• Work on Experimental Light Sport Aircraft.
• Annual their own Light Sport Aircraft.
• Improve their safety.
• Reduce their maintenance problems.
• Gain a greater awareness of their aircraft.

The Light Sport Aircraft Repairman Maintenance Rating (LSR-M) is available by attending a 15-day/120-hour Repairman Course.

The LSR-M course runs through the weekends, usually just taking one day off, to get students in and out quickly. The course gives graduates the equivalent privileges of an Airplane and Powerplant (A&P) mechanic with an Inspection Authorization (IA) Certificate but is limited to Light Sport Aircraft. Compare the 120-hour instruction requirement for the LSR-M Rating to the 1900-hour instruction requirement for the A&P Certificate, and the LSR-M Rating is very appealing.

Unlike the simpler, shorter LSR-I course, an individual who completes the longer, more involved LSR-M course may perform maintenance and inspections on anyone’s Special LSA or Experimental LSA and may charge for their services!

No prerequisites are required to take the LSR-M course. A repairman with an LSR-M Rating does not need to be a pilot, and the best kept secret is, after working in the field for 30 months under his or her own supervision, the repairman is qualified to take the A&P test and add that certificate as a rating without ever attending an A&P school. This represents a significant privilege, opportunity and savings for LSR-M repairmen. 

Mike Zidziunas was the first person in the country to acquire an LSR-M Rating and earn his A&P Certificate in 2009 under this rule. He saw the potential in Light Sport Aircraft maintenance and enrolled in one of the first LSR-M courses ever offered. Zidziunas has gone on to leverage the opportunities the certificate provides, and opened a Rotax engine service center, works with manufacturers assembling LSA aircraft, and continued his education to earn his inspection authorization.

In addition, the LSR-M Rating may also serve as a stepping-stone to becoming a Designated Airworthiness Representative (DAR). This FAA designation covers those who inspect new Special LSA before they are sold. Therefore, demand is good, and so is the income potential.

What can you do if you complete the 120-hour (15-day) LSR-M Maintenance Course?

• Operate commercially. Charge other LSA owners for maintenance and repair services.
• Work on Special Light Sport Aircraft (SLSA).
• Work on Experimental Light Sport Aircraft (ELSA).
• Perform annual inspections.
• Perform 100-hour inspections.
• Perform routine maintenance on SLSA and ELSA.
• Perform major repairs on SLSA and ELSA.• Perform avionics installations.

Who are LSR-M course participants? The majority tend to be over 50 but range in age from 17 to 86. Among those who participate are Certified Flight Instructors (CFIs) who take the course so they can reduce their operating costs and perform their own maintenance and inspections with the authorization to perform 100-hour inspections. SLSA manufacturers also sign up for the course so they can perform warranty work and the like. And as previously noted, the LSR-M Rating can be used as a steppingstone to the A&P and DAR Certificate, so the repairman can open a Light Sport Aircraft Service Center, or work for an LSA manufacturer or fixed base operator. Others take the course if they want to make a career change. A&P mechanics will also complete the training as a way to meet the requirements for recent experience and to reactivate their A&P Certificate. Some people take the course to specialize in avionics, or engine specialty services, or to specialize in a certain make of Light Sport Aircraft, such as Flight Design or Remos, or Rotax engines.

The variety of needs in the field of Light Sport Aircraft maintenance seems endless, and aircraft maintenance is constantly among the top 10 to 20 career lists by popular websites, such as MonsterJobs, Yahoo! Jobs, and Forbes. It can be a great career and the Light Sport Aircraft community needs qualified people.

For additional information on Light Sport Aircraft Repairman instruction provided by Rainbow Aviation Services, visit www.rainbowaviation.com and call 530-567-5141 or email carol@rainbowaviation.com. Camping is available at Rainbow Aviation’s Kingsville, Missouri location, and there’s a variety of other affordable lodging options.

Rainbow Aviation is a family-owned and operated company. The principal instructor is Brian Carpenter, who was named “Aviation Maintenance Technician of the Year” in 2017.

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Jet It & JetClub Move Forward With Electric Airplanes

Published in Midwest Flyer Magazine August/September 2021 online issue

The Bye Aerospace all-electric eFlyer 800TM.

DENVER, COLO. – North Carolina-based Jet It and JetClub have announce that they have entered into an agreement to become the launch customers for Bye Aerospace, which developed the 7-passenger, all-electric, twin turboprop aircraft, eFlyer 800™.  Jet It and JetClub, sister companies operating in North America and Europe respectively, have signed a purchase agreement for a fleet of eFlyer 800 and four eFlyer 4™ aircraft. Jet It will operate the first fleet of electric aircraft in North America, eliminating the release of millions of metric tons of CO2 each year.

“The evolution of travel continues with this investment in sustainable aviation. At $1,600 an hour, our fleet of HondaJets is by far the cost leader in private travel and also, given the incredibly low-carbon footprint of the HondaJet, extremely friendly to the environment. The operating efficiency and zero emissions of the eFlyer 800 will allow Jet It and JetClub to deliver more value to travelers by further reducing the cost to travel while driving towards zero net emissions,” says Glenn Gonzales, co-founder and CEO of Jet It.

Slated to be in operation by 2025, the eFlyer seats up to seven passengers and one or two pilots. The eFlyer 800, expected to be the first-to-market all-electric seven-passenger aircraft, boasts cruise speeds of 320 knots, a ceiling of 35,000 feet, and eliminates emissions while reducing operating costs 5x. According to Bye Aerospace CEO, George, E. Bye, “The remarkable economy and flight performance from eFlyer 800 is ideal for Jet It, JetClub and their customers in the United States, Canada, Europe and beyond.”

Adds Gonzales, “Sustainability is a key pillar of our philosophy. We operate highly fuel-efficient HondaJets and use sustainable products in our cabin. While aviation contributes only 3% of global emissions, that is not enough for us. We want to be at 0% and today with this announcement, are investing towards that goal. Together with Bye Aerospace, we will achieve zero emission affordable air travel this decade. This is a momentous leap in aviation sustainability in our industry.”

Jet It utilizes a hybrid-fractional ownership model based on days – not hours – which provides owners with the freedom to use the fleet freely. Jet It can customize a customer’s day as they see fit. A Jet It owner based in Chicago, Illinois, picked up a client in Savannah, Georgia, flew to a meeting in Atlanta, stopped in Hilton Head, S.C. for some fresh seafood, then flew back to Chicago, all in one day. This trip would have been impossible with commercial travel, incredibly expensive to charter, and impactful for an individual using a jet card program. This is one of several examples of how Jet It owners utilize their jet to increase productivity and value (https://www.gojetit.com/). 

JetClub is an innovative private jet usage model that combines the newest jet aircraft with a sharing economy to provide members with an affordable, private, fast and intelligent solution. Client members have the flexibility and convenience of owning a business jet without the traditional administration, concerns and expense. The Club has a dedicated flight operations team to take care of pilot training, maintenance, logistics and international operations, and a concierge desk that manages all travel details and trip support. It was co-founded by Vishal Hiremath and Glenn Gonzales for the Asia, Europe and South American regions (http://www.jetclubgroup.com).

Based at Centennial Airport near Denver, Colorado, Bye Aerospace specializes in the design and manufacture of electric aircraft, including the eFlyer family of aircraft. Bye Aerospace was named “2020 Small Business of the Year” by the Aurora, Colo. Chamber of Commerce and recognized as the “Most Innovative” in the 2020 Made in Colorado awards sponsored by ColoradoBiz magazine. Bye Aeospace was founded by George E. Bye, who is also Chairman and CEO.

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AIAA Statement On The Successful Virgin Galactic Unity 22 Mission

Published in Midwest Flyer Magazine August/September 2021 online issue

RESTON, VA – The American Institute of Aeronautics and Astronautics (AIAA) congratulated its corporate member, Virgin Galactic, on its successful test flight of SpaceShipTwo Unity, July 11, 2021. AIAA Executive Director Dan Dumbacher made the following statement:

“On behalf of the 30,000 professional and student members of AIAA, we are excited to congratulate Sir Richard Branson and the Virgin Galactic team on their accomplishments today! The successful Unity 22 mission marks a major step forward in humanity’s quest to extend the human neighborhood beyond planet Earth. Virgin Galactic is helping move us closer to the day when space travel is widely accessible to people everywhere. 

“We especially congratulate Unity 22 Mission Specialist Sirisha Bandla on her part in this flight. In addition to serving as a Unity 22 crew member, Sirisha is a member of our ASCEND Guiding Coalition. The ASCEND Guiding Coalition is the executive board of advisors for ASCEND, the global community focused on building humanity’s off-world future faster. Sirisha exemplifies the community experience of space because no one goes to space alone.

“We commend the pioneering role of Sir Richard Branson in accelerating the nascent space tourism industry. Today’s mission would not have been possible without his long-term vision and risk taking. He has courageously led the Virgin Galactic team through challenges and tragedies to get here. Their collective perseverance is admirable, reminding us of how we must accelerate innovation in space with the utmost focus on safety and our shared humanity.

“We recognize the countless professionals in the aerospace industry involved in making this mission a success, from design, to fabrication, to testing, and now to operations. We salute and applaud the Virgin Galactic team for pursuing their dreams with determination and making important contributions to shaping the future of aerospace.”

Powered by AIAA, ASCEND promotes the collaborative, interdisciplinary, outcomes-driven community of professionals, students, and serious enthusiasts around the world who are accelerating humanity’s progress toward our off-world future! For more information, visit ascend.events, or follow ASCEND on Twitter, Facebook, or LinkedIn.

The American Institute of Aeronautics and Astronautics (AIAA) is the world’s largest aerospace technical society. With nearly 30,000 individual members from 91 countries, and 100 corporate members, AIAA brings together industry, academia, and government to advance engineering and science in aviation, space, and defense. For more information, visit www.aiaa.org, or follow AIAA on Twitter, Facebook, or LinkedIn.

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First In-Flight Livestream Brings Spaceflight Experience To Audiences Around The World

Published in Midwest Flyer Magazine August/September 2021 online issue

Virgin Galactic’s carrier aircraft, “Virgin MotherShip Eve” (VMS Eve), with “Virgin SpaceShip Unity” (VSS Unity) attached in the middle. Virgin Galactic Photo

Virgin Galactic announced that VSS Unity successfully reached space on July 11, 2021, completing the company’s fourth rocket-powered spaceflight.

The flight was the 22nd test flight of VSS Unity and the first test flight with a full crew in the cabin, including the company’s founder, Sir Richard Branson. The crew fulfilled a number of test objectives related to the cabin and customer experience, including evaluating the commercial customer cabin, the views of Earth from space, the conditions for conducting research and the effectiveness of the five-day pre-flight training program at Spaceport America.

Following the flight, Michael Colglazier, Chief Executive Officer of Virgin Galactic, said: “Today is a landmark achievement for the company and a historic moment for the new commercial space industry. With each successful mission we are paving the way for the next generation of astronauts. I want to thank our talented team, including our pilots and crew, whose dedication and commitment made today possible. They are helping open the door for greater access to space – so it can be for the many and not just for the few.”

VSS Unity achieved a speed of Mach 3 after being released from the mothership, VMS Eve. The vehicle reached space, at an altitude of 53.5 miles, before gliding smoothly to a runway landing at Spaceport America.

This seminal moment for Virgin Galactic and Sir Richard Branson was witnessed by audiences around the world. It gave a glimpse of the journey Virgin Galactic’s future astronauts can expect when the company launches commercial service following the completion of its test flight program. A recording of the livestream can be accessed on Virgin Galactic’s YouTube channel.

Sir Richard Branson said: “I have dreamt about this moment since I was a child, but nothing could have prepared me for the view of Earth from space. We are at the vanguard of a new space age. As Virgin’s founder, I was honored to test the incredible customer experience as part of this remarkable crew of mission specialists and now astronauts. I can’t wait to share this experience with aspiring astronauts around the world.”

Branson continued, “Our mission is to make space more accessible to all. In that spirit, and with today’s successful flight of VSS Unity, I’m thrilled to announce a partnership with Omaze and Space for Humanity to inspire the next generation of dreamers. For so long, we have looked back in wonder at the space pioneers of yesterday. Now, I want the astronauts of tomorrow to look forward and make their own dreams come true.”

The mission specialists in the cabin were Beth Moses, Chief Astronaut Instructor; Colin Bennett, Lead Flight Operations Engineer; Sirisha Bandla, Vice President of Government Affairs and Research Operations; and the company’s founder, Sir Richard Branson. The VSS Unity pilots were Dave Mackay and Michael Masucci, while Kelly Latimer and CJ Sturckow piloted VMS Eve.

VMS Eve is a carrier mothership for Virgin Galactic and launch platform for SpaceShipTwo-based Virgin SpaceShips. VMS Eve was built by Scaled Composites for Virgin Galactic. The “VMS” prefix stands for “Virgin MotherShip.” The aircraft was named after Evette Branson, the mother of Richard Branson. The nose art on the aircraft is of a blonde woman holding a banner with the Virgin Galactic logo. The image is based on how Ms. Branson looked when she was younger and is called “Galactic Girl.” 

Virgin Galactic Holdings, Inc. is a vertically integrated aerospace and space travel company, pioneering human spaceflight for private individuals and researchers, as well as a manufacturer of advanced air and space vehicles. For more information, go to https://www.virgingalactic.com/

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Declared Distances and Displaced Thresholds… When the runway is shorter than published.

by Rick Braunig
Published in Midwest Flyer Magazine August/September online issue

Rick Braunig

There aren’t a lot of runways with displaced thresholds in Minnesota, but they are common enough that pilots should be familiar with them. When a runway has a displaced threshold, the landing distance available (LDA) is shorter than the runway length. The threshold to Runway 30 at Winona Municipal-Max Conrad Field (KONA) is displaced by 480 feet, meaning that aircraft are not supposed to land before that point on the runway. When landing on Runway 30, the pilot does not have the full 5,679 feet to land on, but rather, only 5,199 feet. This information is shown on the top line of approach plates or in the Declared Distance information in the Chart Supplement (Green Book).

Displaced thresholds are usually added to clear obstructions in the approach. There are requirements for approach slopes that are based upon the type of approach to the runway. In this case when we say type, we are talking about whether the approach has to be visual or if there is an instrument approach to the runway end. If an object penetrates the required slope, the FAA allows the use of a displaced threshold to clear the slope. Displaced thresholds are marked and lighted so the pilot can identify them during both day and night operations.

Of course, runways can be used in two directions, so it stands to reason that an approach obstruction to Runway 30 would be a departure obstruction to Runway 12. Departures are normally made with maximum thrust and the climb is normally at best angle of climb (Vx) until the objects are cleared. While an aircraft can legally use the entire runway for takeoff, that does not ensure that they will be able to clear the obstructions on climb out. If you notice on climb out that you are not going to clear the obstruction, the only choice left is to try to turn to avoid it. A good rule of thumb is to always plan to lift off by any displaced threshold on the reciprocal runway, giving you a better chance of clearing the obstructions. Unfortunately, the displaced threshold can be hard to see at night because the displaced threshold is not lighted for aircraft going the opposite direction.

It is interesting to note that the LDA for Runway 12 at Winona is also 5,199 feet. There is no displaced threshold to Runway 12, so why can’t all 5,679 feet be used for landing? The answer is that the usable runway has been shortened by the distance required for the Runway Safety Area (RSA). The RSA is a defined surface surrounding the runway, prepared or suitable, for reducing the risk of damage to airplanes in the event of an undershoot, overshoot, or excursion from the runway. The RSA is also meant to support aircraft rescue and firefighting equipment if needed for an aircraft crash and to support snow removal equipment to help the airport keep the RSA usable year-round. At Winona, both the displaced threshold and the shortened landing distance for Runway 12, are because of the RSA requirement and not because of obstructions.

At Jackson Municipal Airport (KMJQ), the planned Runway 13/31 is 4,142 feet long, but the usable length is really 3,591 feet.  In this case, declared distances are being used to clear the Runway Protection Zone (RPZ). The RPZ is an area at ground level prior to the threshold or beyond the runway end to enhance the safety and protection of people and property on the ground. The RPZ extends out beyond the RSA covering a larger area. The RPZ is causing a displaced threshold on both ends and a shortened LDA, but it is also shortening the Takeoff Runway Available (TORA), which is normally the length of the runway. The only operation that can use more than 3,600 feet in either direction would be the accelerate-stop (ASDA) or rejected takeoff. Pilots are supposed to calculate their takeoff distances and on departure, liftoff prior to the TORA distance, but there are no markings indicating the location of the shortened TORA, making it invisible to the pilot.

If you haven’t heard about this before, you are not alone. The FAA changed their position several years ago on RSA and RPZ and started requiring full compliance at commercial service airports. Those requirements are now being required at all airports that accept federal funds when the airport has a runway project.

Many of the smaller airports in Minnesota do not currently meet RSA or RPZ standards. I believe Winona was the first Minnesota airport to employ declared distances beyond using a displaced threshold to clear obstructions, but they will not be the last. The Minneapolis Crystal Airport is using them on Runway 14/32, and as discussed, there are plans to incorporate them at Jackson, Minnesota when that runway is rebuilt. Others are also in the planning process.

The RPZ and RSA are surfaces defined in the Airport Design Advisory Circular. Though the name implies that compliance is advisory, airports that take federal funds agree to abide by the advisory circulars as part of grant assurances. Airports that don’t take federal funds are not obligated to clear these surfaces and the Minnesota licensing requirements do not include RSAs or RPZs, so airports that only get state or local funding do not have to clear these surfaces.  

The purpose of both the RSA and the RPZ is to improve the safety of the airport by providing room for crashes that leave the runway. When building a new airport, RSA and RPZ requirements should be taken into account in site selection, so that the entire runway is usable. Existing airports have limitations.

For both Crystal and Jackson, they are limited by the development off the ends of the runways. From the pilot’s view, we would like to see the airport buy more property so the runways can be longer and the RPZ and RSA are not impacted using the full length. Unfortunately, that property cannot be easily acquired. At Jackson, without using declared distances, the new runway on the available footprint would be 3,060 feet. As noted, the current runway is 3,591 feet. The airport could not accommodate the current aircraft mix if reduced to 3,060 feet, so declared distances are planned. Other airports will encounter similar issues when applying the RSA and RPZ requirements, and in some cases, the result will be a shortened runway even with declared distances. As a pilot, I would prefer more runway to safely complete the takeoff or landing so that the crash these surfaces address is less likely to occur.

The guidance to pilots on declared distances is confusing. In the Aeronautical Information Manual (AIM), it states that the distances must be calculated based on the information in the aircraft flight manual or operating handbook, and those numbers must be less than the declared distances for the pilot to accept the runway. In the Airport Design Advisory Circular, it states that declared distances are for turbine aircraft. In any case, knowing the declared distances and applying them to your operations can only increase your safety.

Going forward, pilots should be aware that the total runway length might not be available for takeoff or landing and the chart supplement is the place to find that information. The FAA publishes the chart supplements online at: https://www.faa.gov/air_traffic/flight_info/aeronav/digital_products/dafd/

EDITOR’S NOTE: Rick Braunig has a degree in Aerospace Engineering and Mechanics from the University of Minnesota. Upon graduation he accepted a commission in the United States Navy and flew both airplanes and helicopters on active duty for 10 years. Rick continued in the Navy Reserves for another 17 years working in aircraft survivability and battle damage assessment. He retired from the service in 2007 at the rank of Captain.

In 1990, Rick took a position with the Minnesota Department of Transportation (MnDOT) Office of Aeronautics, where he flew a Bonanza and King Air, compiling more than 7,000 hours over his career. He was a part of the FAA safety team that presented pilot safety seminars throughout Minnesota for a number of years starting in the late ‘90s. 

Prior to his retirement from MnDOT in 2021, Rick was the manager of the Aviation Safety and Enforcement Section. In this role, he trained and supervised the team responsible for the inspection and licensing of airports, heliports and seaplane bases in the state.

Rick lives with his wife, Kelly, in Woodbury, Minnesota.

DISCLAIMER: The information contained in this column is the expressed opinion of the author only, and readers are advised to seek the advice of their personal flight instructor, mechanic, attorney and others, and refer to the Federal Aviation Regulations, FAA Aeronautical Information Manual and instructional materials before attempting any procedures or following any advice discussed herein.

Posted in August/September 2021, Columns, Columns, Columns, Flight Safety | Tagged , , , , , , | Leave a comment

Carver Aero Acquires Janesville Jet Center

Published in Midwest Flyer Magazine August/September 2021 online issue

DAVENPORT, IOWA – Carver Aero has announced that it has acquired the fixed-base operation Janesville Jet Center at Southern Wisconsin Regional Airport in Janesville, Wisconsin. Carver Aero is continuing to expand its full-service FBO network throughout the Midwest. In addition to Janesville, the company operates FBOs in Muscatine, Davenport and Council Bluffs, Iowa.

“We have three key initiatives with the Janesville FBO,” said Carver Aero CEO Guy Lieser. “One is to work with existing airfield businesses and tenants to determine what opportunities exist to benefit all. A second is to offer services not currently being offered, such as aircraft maintenance, avionics and charter services with our fleet of turboprops. Finally, we believe smaller airports should be contributors to the local economy and be an integral part of the community.” 

“The Janesville FBO fits into our business strategy to expand into smaller communities throughout the Midwest, and this acquisition expands our footprint into Wisconsin,” said Peter Limberger, Chairman of Carver Aero, and co-founder and Chairman/ CEO of CL Enterprises, the holding company for Carver Aero. “This airfield can accommodate higher volumes and larger planes,” Limberger said. “That means greater opportunity.” 

Greg Cullen, Southern Wisconsin Regional Airport Director, welcomes the new ownership of the FBO. “Carver Aero brings additional capital and resources to expand aviation services on the airfield and has already reached out to existing businesses to determine how they can grow overall operations at the airport. This should be a win for everybody.”  

Based in Peru, Illinois, CL Enterprises (www.cl-enterprises.com) is the family holding company for businesses owned and managed by husband and wife, Peter Limberger and Inga Carus. Both are pilots. CLE invests in a wide variety of businesses ranging from farming, manufacturing, hospitality, real estate development, to aviation, with a focus to participate in the economic development of smaller towns and rural regions. 

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Check that box and fly it to the ground!

The Bell 222UT medivac helicopter being removed from on top of a roof when it made an emergency landing on approach to St. Paul Downtown Airport. Chris Kruse Photo

by Chris Kruse
Published in Midwest Flyer Magazine August/September 2021 online issue

Chris Kruse

Sometimes life comes at you in small drips. At other times, like a fire hose stream. And still at other times, it can resemble a water tower collapse.

Helicopters are some very curious but capable beasts. Unlike our fixed-wing airplane cousins, they need to spin their wing or airfoil to create lift. The airplane relies on forward speed to flow air over its wings, creating that magic lift. Helicopters spin themselves. To do that, there are multitudes of moving parts, all working in concert. With that the main rotor spinning above, a smaller rotor attached to the tail is needed to counteract the torque and keep the fuselage from spinning in the opposite direction. The pilot uses his or her feet to control the tail rotor pitch. The pilot’s left hand controls the pitch of the main rotor above, and his right hand controls the cyclic stick between his legs to steer the direction of the aircraft.

To say all this is a rather “busy” endeavor, is a total understatement. The helicopter demands your complete attention at all times. When things go south, they usually do so in a big hurry.

When the engine or engines fail, we can use the stored energy in those spinning rotors and a rapid decent to keep that rotor spinning adequately to do an emergency landing. That is termed “autorotation.” The only caveat is you have only that one chance to get it right. No going around for a second try. Lose that stored rotor RPM and the lift all goes away. Everything stems from the main and tail rotor spinning at the proper speed to allow controlled flight. 

I had been an EMS helicopter pilot for years, and before that a U.S. Army medivac pilot. All helicopter pilots can be separated into two distinct but very different clubs: those who have had emergencies, and those who still naively think they are immune. 

My prior military service had ended with a medical discharge after injuries sustained in a helicopter rollover sequence, following an engine failure over water. On that sunny “May Day” (May 1, 1997), lady luck had cast no shadows on me. The near perfect autorotation ended with the left skid of our Huey pivoting on a submerged stump in the water, causing the rollover. Take that stump out of the equation, and the helicopter and crew would still be at it today. 

The violence associated with a main rotor striking the ground or water is indescribable. In the Huey, a 1200 hp turbine engine is spinning a driveshaft at 6600 RPM, into a transmission spinning a 48-foot diameter main rotor at 324 RPM. A tremendous amount of kinetic energy is suddenly interrupted, causing mayhem simply beyond words. While I did recover from my injuries, the resulting blood clot in my right subclavian vein disqualified me from further military service. My naivety had been vigorously shaken from me that day. I had joined the club. 

The civilian Bell 222UT seemed like a great alternative to the single-engine military Huey. Instead of one, I now two turbine engines, about 750 hp a piece; two redundant hydraulic systems; a reliable autopilot to allow single-pilot instrument flying; plenty of fuel capacity for a solid 2-3 hours of endurance; and a decent amount of payload to carry everything needed on a typical civilian medivac role. All of that working together would create typical cruise airspeeds of about 130-140 kts, with day, night, visual and instrument flying allowed. We routinely carried a nurse and a paramedic. Along with them, and their associated life-saving equipment, we would still be several hundred pounds below max gross weight. 

So, when I entered the civilian medivac world, flying this machine, I felt I had made a good choice in terms of safety, redundancy and survivability. And of course, my crash was behind me! That box had already been checked. Or so I thought…

On April 14, 2000, fortunately for the little one we transported and the medical team tending to him or her, that second back-to-back neonatal flight from Buffalo, Minnesota went off without any drama. That is, no drama until after they were all dropped off intact and safe at the Minneapolis Children’s Medical Center. The next several minutes would impact us remaining crewmembers for the rest of our lives.

After assisting in the unloading of the baby and the hospital’s team members, paramedic, Bill Yoch, rejoined me, sitting in the left front crew seat. I obviously sat in the pilot’s seat, and after a normal run-up and before takeoff checks, we left the hospital helipad. As we headed back to our home base at St. Paul Downtown Airport (KSTP), all appeared normal as I climbed the Bell 222 helicopter up to 1000 feet above the ground and headed east. Thoughts of a lunch missed, due to the two morning flights, dominated our minds as we flew towards the airport, a short 5-minute flight. Until a sudden, but slight, metal-to-metal “tick sound” was heard and felt, all looked routine. This would be the first and only warning I would receive of the pending mayhem that soon faced us. 

Captain Geoff Presson, an off-duty airline pilot from Rochester, New York, was doing his normal afternoon jog along the walkway of the high-bridge in downtown St. Paul. He heard an approaching helicopter and glanced up to see us just as we turned the downwind leg for the landing at St. Paul. A sudden loud engine surge and the subsequent backwards loop of the helicopter stopped him dead in his tracks. He glanced at his watch and believed he was about to witness a fatal helicopter accident.

After the tick, Bill looked over at me and said, “what the hell was that?” We heard a momentary engine surge simultaneously with the sound. I looked over everything available to me to verify systems and all appeared normal. I saw no indication of trouble on the multitude of gauges and warning lights before me. I momentarily thought of continuing the flight in an attempt to troubleshoot the issue. As I looked over to my right, with St. Paul Downtown Airport so close, I quickly abandoned that plan. Instead, heading back to my waiting mechanic seemed the more prudent idea.

I had already contacted tower for landing clearance and keyed the mike again to announce the state capitol, a routine visual checkpoint that tower had requested us to announce as our arrival in their traffic pattern:

“St. Paul tower, helicopter 225LL is at the state capitol for bravo taxiway.” Tower acknowledged us and cleared us to land. After the right-turn to the downwind, I again keyed the mike, but before I could get the words out to read back their landing clearance, I heard and felt that weird tick sound again. Immediately after that and to my horror, the cyclic stick between my legs suddenly displaced to the full aft position, dead solid and frozen.

St. Paul tower controller, Robert Olson, had glanced my way as I turned downwind after announcing the capitol. Suddenly he heard a person screaming on the radio. He looked back at where he thought we should be and saw nothing. Unable to see us, and after repeated attempts at contacting us went unanswered, he queried a Minnesota State Patrol helicopter in the area, being flown by Captain Geoff Presson, to look for us. The screams continued over their radio frequency. 

I was the scream heard on that radio. The sudden pitch up and inability to move any of the flight controls began the ultimate fight of my life and wouldn’t end for some 90 seconds, according to Captain Presson’s watch. Those next 90 seconds were going to be the longest seconds of my life and I knew we were in serious peril.

The rotor system on the Bell 222, a teetering rotor system, is not designed for aerobatics. Similar in design to a Bell Huey or Cobra, it is known to catastrophically fail when exposed to violent low-g environments. As the helicopter pitched straight up, I remember thinking that if I could somehow just keep it from going over backwards, we might survive. The helicopter then pitched over upside down in an inside loop. 

Captain Presson watched in horror as our out-of-control helicopter went through a series of loops, weird Immelmann turns, partial Split S turns, hammerhead-type stalls and partial rolls. He watched us struggle for control and was convinced it would end in disaster. We then disappeared out of his sight.

I struggled to move the cyclic and regain control of the ship. The initial inside loop resulted in a dive straight towards the ground. The Mississippi River was quickly filling the windshield view as I managed to arrest the dive and begin a climb, only a few hundred feet above the water. Looking right, I saw the tall downtown buildings pass by my side as the fight continued upwards. 

The next 30 seconds gave me that exact view again and again. I was tiring very quickly and remember thinking if you’re going to kill me, just get it over with!! I then thought of my family and friends, and a vivid image suddenly was forefront in my mind. It was a dingy, flat barge anchored on that dark Mississippi River. A crane sat on that damn barge, and at the end of its cable, the destroyed helicopter cabin emerged from the water with the lifeless bodies of Bill and I hanging from our belts. This image reenergized me in a way I have trouble even expressing. A super-human determination to live overwhelmed me again, and I became determined not to ever quit. FLY IT TO THE GROUND!! was the phrase I and every other aviator out there has heard during their training. My military flight instructor would allow his students to get very close to disaster, and then offer the correcting words or actions to save the aircraft. Again, these words flooded my mind, and I fought the continuing battle. 

Bill was watching me struggle from his seat and with a similar will to survive, he tried to assist me in any way he could. He noticed that when I let go of the collective lever to use both hands on the cyclic, it would go to the full up position on its own. The aircraft would then flip upside down. I would recover from the upset, and then use my left hand to reposition the collective again. My hands were bleeding from the collective and cyclic jumping around and me trying to grab them. The collective lever to my left controls the collective pitch of both main rotor blades, and also the engine governors to meet the demands of the system in regards to power. On this model of helicopter, the two-engine throttles protrude out at 90 degrees to the left at the end of this control stick. Pull up on that lever, more pitch in the blades and more engine power to make the helicopter climb. Lower it, and the opposite occurs. What happens next is somewhat of a mystery. I either told Bill to stabilize the collective, or he did this on his own. Regardless, when he did that he grabbed the collective at the point of those throttles.

As Bill lowered the collective, he also rolled both engine throttles mostly off-line, either all the way to flight idle, or at a minimum to partial power. The timing of his lowering the collective lever was paramount. Had he done this action under a low or zero-G environment, the result would have been that rotor system failure I talked of. Mast bumping would have torn the rotor right off the mast and the fight would have been abruptly over. As life goes sometimes, he did this while the helicopter was in a configuration that allowed it. I’ll take a little luck anytime.

What did occur as a result of Bill’s help was a small degree of returned control. I was now able to at least minimally control the attitude of the machine, but I also was now in a power-off autorotation. Power off, falling from the sky in a 7000-pound helicopter with nearly 175 gallons of Jet-A fuel, as well. But, at this point, being upright was a wonderful thing. 

We had drifted south of the river, and now were over Harriet Island. I franticly searched for an area large enough to do a run-on landing. Descending quickly, I scanned and just to our left saw a construction company’s parking lot, with a tall chain-link fence surrounding it. I planned on touching down within that parking lot, and skid the helicopter on the ground into that fence to arrest the ground run. At about 400 or 500 feet above the ground, I managed to turn the helicopter left and back into the wind. As I approached the parking lot, a man suddenly walked out into the exact spot I was aiming for. I remember yelling out loud: “Dude, I can’t do a thing for you…I hope you move!!” I continued the approach. At about 200 feet, as I began to arrest the approach and slow down by adding aft cyclic, I quickly learned that the machine was going to have the last word. The aircraft pitched straight up and appeared to be going over backwards just one last time. 

Very flammable Jet-A fuel. 1100 pounds. 175 gallons. Two very hot and unhappy turbine engines. And we were going to die in a flaming mess. 

As the helicopter approached vertical again, the rotor started bleeding down its speed due to that reduced engine power settings. The familiar “whopp-whopp-whopp” of a slowing rotor filled our ears. This last loop failed at its apex, and slowly the helicopter’s pitch fell forward again. What filled the windshield now were high-tension power lines, never seen before and now looming large and right in front of us.

Every helicopter pilot’s DNA includes a strand dedicated to the avoidance of power lines. It’s inbred in every one of us, and there was no way I was going to go through all this and in the end be blamed for killing us by hitting power lines. I reached over to pull the collective and use the last energy available to jump over these lines and crash to the ground beyond them. 

Just as I was about to pull the collective, Bill yelled: “Hey, a flat roof over here!!!” I looked and right next to that construction company’s building was a mostly flat metal roof, and yes, immediately to our left! I quickly jammed full left pedal and swung the cyclic left. The helicopter used its one remaining breath to make that last 180-degree turn, and then promptly fell the remaining 15-20 feet onto the rooftop. 

The metal roof swayed deeply under the impact load of the helicopter’s fall. I briefly considered the likelihood of the roof failing, and the burning helicopter destroying it and us as well. And then the roof rebounded, damaged but intact. The roof acted like a huge pillow, absorbing the impact load from the helicopter’s fall. We then just sat there at flight idle, the blades turning happily, just like I had intentionally parked it there. 

We stared out the windscreen in utter disbelief. Disbelief of the event. And disbelief of surviving it mostly unscathed. There was no fire. The helicopter’s skids had collapsed. The tail boom was kinked. It otherwise looked intact. 

After shutting down the engines, I managed to crawl up and look inside one of the cowlings on the helicopter. All three hydraulic flight control servos were dangling in space, broken free of their mounts. I looked up at the mast on the helicopter. Numerous “witness marks” consisting of very deep gouges, were all over it, reviling the severe mast bumping that had entailed. Somehow it had all held together just long enough to bring us here…here back to earth! Getting down from that look in the cowling, my knees buckled, and I was unable to walk without help.  

I know literally dozens of professional helicopter pilots who went an entire career, flying 10, 15 or even 20,000-plus hours without a single incident. Who possibly could have predicted that I would have to check that damn box not once, but twice? My measly 5500 hours offered me two chances. I guess lady luck was shining on me after all. 

EDITOR’S NOTE: This true incident occurred on April 14, 2000, and was written by Chris Kruse of St. Paul, Minnesota, who is a retired U.S. Army and civilian medivac pilot.

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Improved Internet Services Coming To Many Minnesota Airports

by Kris Christenson
MnDOT Navigations Systems Radio Engineer
Published in Midwest Flyer Magazine August/September 2021 online issue 

MnDOT’s Office of Aeronautics has been working on several programs to improve communication services at Minnesota’s local general aviation airports. The first of these improvements – improved internet services – will be rolled out in the coming months. 

Currently, most internet connections at Minnesota’s public general aviation airports are conventional DSL lines with max speeds of 1.5Meg down/768k up. When you are used to home speeds of 150 meg down and 30 meg up and faster, it is hard to imagine how slow and clunky this is until you are at the airport competing with a few of your aviation friends for bandwidth! 

Minnesota’s general aviation airport internet service supports two main functions. First, it allows pilots to easily access the AWOS data sent via our National Airspace Data Interchange Network provider, AnyAWOS. AnyAWOS enables our one-minute AWOS Weather updates. You can get those updates over the internet at www.anyawos.com/k###, or access through our online mapping app at mndot.gov/aero/navigationsystems/awos-map-online.html. Second, faster internet supports our public-use internet kiosk MnWAS (Minnesota Weather Access System). The kiosks are available at each arrival-departure building for flight planning, weather updates or other needs a pilot may have to access the internet while traveling about. 

Our vision for the future is to utilize wireless 4G LTE data service providers that deliver typical internet speeds averaging 25Meg down/5Meg up. We have tested this equipment for about 12 months in various spots around the state to make sure it is dependable for all the services MnDOT supports. 

With these upgrades, our equipment will be able to support in-building Wi-Fi service. Pilots and guests of the airport will be able to access this service on their own Wi-Fi enabled devices. We recognize that most of the pilots going through the airports have their own device and may use it for filing flight plans and closing flight plans. We also know that in this new norm of teleworking, many pilots and guests alike will enjoy the access. 

We also recognize that there is a growing need for internet services to be available on the ramp areas. This could be that last-minute weather check or downloading a clearance to your device before departure. We are developing a solution for this, and plan to provide outside Wi-Fi coverage to the ramp area right around the tie-downs and passenger loading and unloading areas. 

Once Wi-Fi to the ramp is installed, pilots should be able to file a flight plan from their airplanes while sitting on the ramp at Detroit lakes and land at Morris, Minnesota and close their flight plan – all without leaving the cockpit or with the need for any data plan. 

Beyond improved services for pilots and other airport guests, the improvements will add remote network management and cut operating cost by more than half! 

We continue to look for new ways to improve internet connections and service. Look for future articles for more exciting news from your Navigation System Team.

Posted in August/September 2021, Columns, Columns, Columns, MN Aeronautics Bulletin | Tagged , , , , , , , , | Leave a comment

MnDOT Air Mobility Strategic Plan Looks To The Future

by Michael Johnson
Business Process Manager
MnDOT Office of Aeronautics
Published in Midwest Flyer Magazine August/September 2021 online issue

Michael Johnson

The Minnesota Department of Transportation’s Office of Aeronautics is developing an air mobility strategic plan to prepare for Minnesota’s future as aviation technology evolves. The new Air Mobility Strategic Plan will lay out a framework for open decision-making that provides and supports coordination, collaboration and innovation, as well as ensures efficient and effective use of state resources. 

As part of creating this new strategic plan, MnDOT is forming an Air Transportation Workgroup. The group is intended to help inform Minnesotans on the current state of the industry and engage the public and interested stakeholders in discussions of regulatory and standards-development activities at the federal, state and local levels. This new workgroup will also help MnDOT make informed transportation system decisions through an inclusive and engaging process, supported by data and analysis. More information about opportunities to participate in MnDOT Air Transportation Workgroups will be available in the coming months on the MnDOT website. If you have ideas for the workgroup or would like to become a potential member of the workgroup, please contact MnDOT at DroneInfo.DOT@state.mn.us, and watch for more information at www.mndot.gov/aero/drones.

Why a strategic plan? Why now?

Rapidly emerging aviation technology, along with evolving FAA rules that support use of that technology, are driving industry change at a disruptive rate. The technology isn’t just in development…in some instances it is here. For example, drone delivery is already occurring in six states, and major corporations like Amazon and UPS are working to adopt and deploy drone delivery technologies. Midsize electric propulsion aircraft capable of transporting people are in various stages of development and testing, with prototypes already operational.

Leveraging the capabilities of Unmanned Aircraft Systems (UAS) has the potential to change how Minnesotans conduct business, move goods, and access the nation’s airspace. It’s conceivable that UAS could soon provide rapid transport of life-saving medical supplies, delivery of food and other essentials, delivery of consumer goods, and efficiencies across warehouse and campus systems.

Beyond UAS, electric propulsion is now in the early stages of being applied to larger aircraft capable of carrying passengers. Electric and hybrid-electric regional passenger and cargo aircraft show promise to open commercial air travel and air freight delivery to previously underserved or unserved communities.

One of the key assumptions of MnDOT’s Air Mobility Strategic Plan is that the convergence of traditional multimodal transportation, with these more widely accessible forms of aviation, will drive a change in the way we think about aviation and integrated transportation. For example, Advanced Air Mobility has the potential to radically change urban, suburban, and inter-airport mobility through a network of electric Vertical Takeoff and Landing (eVTOL) aircraft. 

As eVTOL and other technology-driven aviation changes become adopted, our traditional aviation system must adapt to support the future of aviation. A few considerations include vertiport location and design, aviation ecosystem infrastructure, new discussions around privacy and land use, workforce development, and economic impact. 

The FAA continues to develop new regulations to fully integrate UAS into the nation’s airspace. It is important to recognize that UAS is not limited to the aircraft alone. UAS includes all of the components necessary to support the aerial operation, such as support equipment and controls, and the human operator. 

One fundamental question is: where are these new aircraft going to take-off and land? 

There are 113 heliports in Minnesota today. None of those are open to public use, and none support refueling. Nationwide, there are 5,918 heliports in the U.S. today. Yet only 58 are open to public use, and approximately 90 percent do not support refueling or other services. So, this is not just a Minnesota issue. 

While the FAA provides design recommendations, the specifications are only required if the heliport receives federal grants through the Airport Improvement Program. Only one heliport in the U.S. has ever used AIP funding for construction (Indianapolis Downtown Heliport). 

Also, many of the nation’s heliports are currently located in highly desired urban locations but are inactive due to local ordinances on noise levels.

Ideas for locating new vertiports include repurposed tops of parking garages, existing helipads, and underutilized land surrounding highway interchanges. While these options could, potentially, form the basis of an extensive, distributed network of vertiports, consideration must also be given to land use requirements, infrastructure requirements, and community input.

The Air Mobility Strategic Plan is an important part of providing statewide leadership and a shared vision and strategy for enabling safe, fast, and reliable air transportation for the citizens and businesses of Minnesota through partnership and innovation. Balancing technology capabilities with strategic planning will offer exciting new passenger and air transportation options for cities throughout Minnesota. While these new technologies continue to be refined and developed by private industry over the next several years, MnDOT’s statewide leadership will promote a shared vision and strategy to enable safe, fast, and reliable air transportation that benefits the citizens and businesses of Minnesota through planning, partnership, innovation and engagement.

Although the future is unknown, MnDOT’s Air Mobility Strategic Plan is an important step in helping us prepare for an unknown future by informing policy development, fostering innovation, creating an environment of inclusion, and promoting local and regional aviation ecosystems for deployment.

651-234-7200  or  1-800-657-3922       www.dot.state.mn.us/aero

Posted in August/September 2021, Columns, Columns, Columns, MN Aeronautics Bulletin | Tagged , , , , , , , , , , , , , | Leave a comment