15 January
0Comments

This Might Be The Comfiest First-Class Cabin Ever

Planes are standard in the aviation industry. It’s how you outfit these planes–from design to service–that makes a fleet an airline.

So in 2009, TAM Airlines approached design studio Priestmangoode with a particular challenge. The Brazilian airline wanted to establish itself as an international carrier every bit as prestigious as its competitors. The redesign included seats, galleys, cabin architecture, and even the UI of the video consoles. But in the realm of international travel, the first-class cabin is of paramount importance. It’s the ultimate litmus test of a carrier’s glitz (as well as a vital means to increase the margins of an otherwise uniform ticket).

The cabin’s theme was Home Away From Home. “The design moves away from hard finishes to create a softer, luxurious cabin more in keeping with high-end contemporary interior design,” Priestmangoode designer/director Luke Hawes tells us. Inspiration was struck in Brazil’s contemporary interiors, home trade shows, and the studio’s work in major international hotels like Marriott, IHG, and Accor. That’s probably not so surprising–my first reaction to the space was, this looks like a very nice hotel lobby. But while soft materials are a standard in homes and hotels alike, they’re of particular concern on an airplane.

“If the smallest button on a seat is broken, the aircraft can’t take off, which hugely inconveniences passengers, of course, but is a significant loss for the airline,” Hawes explains. “So striking the right balance between beautiful, soft materials, and ones that can withstand a bit of wear was important.”

If there’s one fairly ingenious use of all this plush material, it’s that the two central seats come with their own couch, allowing travel companions to sit face-to-face during meals as if sharing a table at a café. How could there possibly be room for this domestic extravagance? The couch takes the space normally dedicated to an ottoman, doing double duty for elevating one’s feet or creating a more social atmosphere.

Currently, TAM’s new first-class cabin is featured on flights between São Paulo and Europe. To experience the world’s first couch in the sky, it’ll cost you around $12,000–now how much did you pay for your couch again?

Via Wired Autopia: http://www.wired.com/autopia/

07 August
0Comments

Satellite Of Love: Why Virgin Galactic’s New Private Launcher Is So Swoon-Worthy

launcherone

Virgin Galactic is already busily spearheading a whole new industry in space tourism with SpaceShipTwo. But today at the Farnborough airshow the British company revealed it’s also ready to disrupt a long-standing industry and take it in wholly new directions: It’s formally unveiled LauncherOne, a tiny cost-effective rocket system to put small satellites into low Earth orbit. It could change your life sooner than you think. Really.

LauncherOne leverages the expertise that Virgin Galactic has been building up with its space tourism business, and stands on the innovations made by Scaled Composites when it launched SpaceShipOne on its historic XPrize-winning flight. That’s because it uses exactly the same air-launched model for the rocket, with a carrier aircraft lifting the spacecraft high into the atmosphere before dropping it and letting its engines fire it into space. LauncherOne actually employs the same WhiteKnightTwo launch aircraft used for the space tourism flights–which is a proven, existing airframe that instantly reduces costs.

By flying like this, LauncherOne doesn’t need a big, expensive first stage rocket loaded with fuel to get it off the ground. Instead itr requires just two boost stages to take it from launch into space, and then into orbit. This simplifies the avionics and engineering needed to make the thing fly, lowering the cost and reducing the chances that things can go wrong. Ground-launched rockets have all sorts of complex range-safety matters to deal with, involving clearing airspace and, sometimes, the sea in the general launch trajectory because the rocket might fail during flight. Because LauncherOne is launched from an aircraft, it can avoid many of these logistical issues, and it also allows for payloads to be more easily put into unusual orbits–the aircraft simply has to point it in a different launch direction.

The upshot of all of this cost-saving is that according to Virgin, a LauncherOne vehicle can put 500 pounds of payload into orbit for “below $10 million.” That works out cheaper than its likely biggest competitor Orbital’s Pegasus XL–another air-launched vehicle–and Virgin intends it to be able to reach the “world’s lowest prices” for launches.

And that’s just for single-satellite launch scenarios. There’s no reason that LauncherOne couldn’t be configured to release a swarm of low Earth orbit microsatellites in a single launch, and this is one of the most promising areas of space science right now.

In fact when revealing the vehicle’s parameters, Virgin boss Richard Branson even remarked that with LauncherOne, “nations, states, cities and even universities and schools will be able to launch dedicated satellites that will answer their diverse needs.” Satellite launches have nearly always been massively expensive, risky and fall within the purview of government-backed operations, or via defense companies, and even recent commercial space systems have been very expensive–until Virgin’s effort.

Right there is the part where your life will be affected, although it’s difficult to predict how much things will change and how fast. But to see what this could mean, imagine if a news organization like CNN stumped up the millions necessary to fly its own small imaging satellite–or possibly even a small fleet of them. When a global disaster occurs, or a breaking news story hits, CNN may then be able to deliver live or near-time satellite imaging of the event. (And they may even get their facts right.) Because Virgin is a private entity, it’s even possible that other startups may leverage its potential to do their own climate change science, or space-based observations of almost everything on Earth from traffic congestion in cities to tracking ships, or selling very real-time imagery to companies like Apple or Google to drive the “satellite view” that we’re all getting used to using for navigating around with our smartphones.

And lest you think this is all just pop science mumbo-jumbo, VG has already signed up enough launch partners for “several dozen” launches and aims to be commercially operating by 2016.

Image: Virgin Galactic

Via Fast Company: http://www.fastcompany.com

14 April
0Comments

NTSB Issues New Safety Guidance For Reno Air Races

The National Transportation Safety Board has provided an update of its investigation of the crash of a highly modified North American P-51 aircraft at last year’s National Championship Air Races in Reno. The crash was the worst accident in the history of the air races, killing 10 spectators and the pilot. The NTSB found several places to improve air race safety, including ideas to redesign the course to minimize the risk to spectators.

Many in the aviation and air racing community feared last September’s crash would mean an end to the premier event in air racing. But the NTSB recommendations are for ways to improve safety, rather than shutting down the event.

“We are not here to put a stop to air racing,” said NTSB Chairman Deborah A.P. Hersman in a statement. “We are here to make it safer.”

While air racing was a very popular spectator sport in the early days of aviation, peaking in the 1930s when hundreds of thousands of spectators attended races, interest in recent decades has been largely limited to aviation aficionados. The air races in Reno date back to 1964, and today stand as the only major race of the year.

The NTSB recommendations include course design, the affects of g-forces on pilots and the design and inspection of the highly modified airplanes that make up the bulk of the aircraft racing in Reno.

The Galloping Ghost, the P-51 that crashed last year, included substantial modifications including removing more than three feet from each wing and changes to the flight controls. The modifications resulted in the World War II era fighter aircraft achieving speeds well over 500 miles per hour.

A diagram shows the external changes made to the Galloping Ghost in a quest for speed. Both wingspan and tailspan were reduced.

One of the changes the NTSB would like to see is more flying time and/or testing time of the pilot and airplanes before race day.

“Our investigation revealed that this pilot, in this airplane, had never flown at this speed, on this course,” Chairman Hersman said.

This poses a big challenge for a sport where much of the work is done by teams of volunteers and crew in the weeks and months leading up to the races each September. Often teams are trying out final improvements as race week progresses, protecting the vintage V-12 Rolls Royce engines originally designed for around 1,500 horsepower, but now producing more than 3,500 horsepower. Steve Hinton Jr., the youngest ever winner in Reno told Wired in 2010 that maintenance on the old airplanes is “easily a few hundred hours per flight hour.

The crash investigation is ongoing, but the NTSB said initial findings indicate the Galloping Ghost was flying at over 530 miles per hour when it experienced an “upset” that eventually led to it crashing into a spectator area. The upset and subsequent maneuvers exceeded the aircraft accelerometer’s 9-g limit.

The accelerometer data combined with photos suggest the pilot lost consciousness following the unanticipated high g maneuver. Seconds later, the trim tab located on the tail of the airplane broke away, aggravating an already out of control airplane.

Many of the modifications made to the vintage aircraft to prepare them for air racing include changes to the controls such as the elevator where the broken trim tab was located. The modifications and changes were noted in the Galloping Ghosts’ logbook, and the airplane was flown after the various changes in order to gain approval from the Federal Aviation Administration. But the NTSB notes it is unlikely that thorough flight testing at speeds experienced during the air races was performed. And the NTSB adds that there is little if any engineering evaluation done for the modifications.

The aircraft that compete at the air races in Reno are categorized as “experimental,” allowing pilots and crew to change them significantly from their original design. The same type of engineering isn’t required for an airplane company producing a new type of airplane. The NTSB said in its initial recommendations that aircraft participating in the National Champion Air Races should undergo more rigorous evaluations because of the proximity to spectators.

An outline of the roughly eight mile oval used by the unlimited class air racers at Reno. The accident began as the Galloping Ghost was banking around pylon 8.

Other recommendations included making changes to the large oval flown by the fastest aircraft such as the P-51s and other World War II fighters to minimize maneuvering close to spectators.

The organization also suggests g-tolerance training for air race pilots, something that is common for military pilots as well as many aerobatic pilots that perform in airshows. This type of training prepares pilots for high g-force maneuvers and teaches them how to handle such circumstances while minimizing the chance of losing consciousness. The NTSB also wants the air races to look into the feasibility of using “g-suits” such as those warn by modern fighter pilots. These suits squeeze the legs and torso during high-g maneuvers to maintain enough blood in the brain so the pilot does not pass out.

More details from the investigation can be found here.

 Images: NTSB

Via Wired Autopia: http://www.wired.com/autopia/

04 April
0Comments

The Flying Cars Are Coming … To the New York Auto Show

Photo: Terrafugia

There’s a flying car coming to the New York International Auto Show this week. The Terrafugia Transition is a two-seat airplane with foldable wings, four wheels and turn signals. Over the past few years the Massachusetts company has called its creation a “roadable aircraft” and lately, a “street legal airplane.” But ahead of the Transition’s first appearance at an auto show, it’s perhaps more appropriate to simply call it what it is: a flying car.

Terrafugia and its Transition have been around for several years, but until now the company has largely stuck to the aviation community. But Terrafugia co-founder and CEO Carl Dietrich says that looking at the people who have placed orders for the $279,000 vehicle, they thought it would be worth looking outside the aviation world.

“We’ve noticed in our order backlog there are actually a fair number of people who are not currently pilots who are putting deposits down to order a Transition.”

So the company is coming to New York to gauge interest in a flying car from the non-pilot sector of the public, hoping the attraction of a flying car can create a few pilots and most importantly, customers.

Development of the Transition is progressing and last month Terrafugia completed the first flight of the production prototype. Dietrich expects flight testing to continue through 2012 and deliveries to begin next year.

The dream of a flying car has been around for a long, long time. And in recent years we’ve seen a dune-buggy-turned-car that flies like a powered parachute aimed at accessing remote parts of the developing world, and even aerospace guru Burt Rutan explored the concept in his final days at Scaled Composites.

Just today a Dutch company announced the successful first flights of the PAL-V, a single-seat three-wheeler that’s also a gyrocopter. But as is the case with many inventions that try to combine two already matured products, one plus one does not usually equal two.

The PAL-V One from Holland. Photo: PAL-V

The math doesn’t quite work out on the Transition either, though it’s arguably the most serious attempt at producing anything close to a practical flying car. It’s a decent airplane and as a car it can get you from A to B. The biggest challenge is finding the niche that can be served by the Transition which is neither a great airplane nor a great car. Terrafugia’s Dietrich says that marketplace might be people who fall in between the long driving commute or short airplane flight.

“If you’re flying 1,000 nautical miles, you’re probably going to want a higher performance aircraft” he says. “But if you’re flying 100, 200 or 300 miles, this might be ideal.”

With a cruise speed of 105 miles per hour, the Transition is faster than a car, especially considering it can often travel in a straight lines rarely available on the road. But it’s slower than many other Light Sport Aircraft (LSA), many of which fly at speeds closer to 135 mph. And comparing it to other new LSAs, the Transition is at least $100,000 more than most models.

But what Terrafugia believes is the value in the Transition is the convenience of always having the option of driving if the weather or some other issue prevents a safe flight. It’s true that one of the biggest challenges general aviation pilots face is being grounded because of bad weather. Many small aircraft can fly in inclement weather, but it requires more training and often more equipment to do so safely. So Terrafugia is touting the fact that its relatively simple light sport aircraft won’t force you to wait, or have to rent a car, just to finish a trip. Just fold up the wings and continue your journey on the ground.

Of course then you’ll be driving a rather delicate $279,000 car down the road. Little has been said about the cost of somebody backing into your folded wing. Something as simple as a minor fender-bender may be a bit more expensive than simply replacing a bumper.

Terrafugia’s Transition in flight. Photo: Terrafugia

Despite any potential drawbacks, Terrafugia has found a customer base that believes the flying car makes sense. Dietrich says about two-thirds of their existing customers are looking at the Transition as a practical form of transportation to suit their specific needs. Examples include a surveyor who could travel quickly to jobs around the state and a real estate developer who likes the idea of being able to scout new sites from above and give aerial tours to customers. The other third simply see the Transition as a fun vehicle and like the idea of owning a flying car.

For the rest of the population there are plenty of ground-bound vehicles to look at this week in New York and lots of plenty of airplanes to see at shows like Airventure in Oshkosh. So the challenge will be to decide whether or not the $279,000 Transition is a better option than a $100,000 Porsche Carrera plus a $160,000 Flight Design CTLS (leaving some extra cash for those car rentals).

Via Wired Autopia: http://www.wired.com/autopia/

21 March
0Comments

March Madness For Airplane Geeks

Image: AOPA

It’s not too late to jump into a bracket for the Aircraft Owners and Pilots Association’s own version of March madness. The aviation group decided to set up an alternative to the NCAA tournament tradition by choosing a group of 64 different airplanes and giving aviation geeks a chance to choose their favorite from several different divisions.

The tournament started last week, so we’re already into round two, but thankfully AOPA has made it easy to jump in any time you want to vote for your favorites. The bracket includes a mix of new and old, big and small and even some helicopters thrown in for good measure.

There were some questionable pairings in the first round that made for difficult choices. Rather than place a perennial favorite like the North American P-51 against a similar vintage fighter, it was paired with a speedy homebuilt composite airplane. The definition of a traditional airplane, the Piper Cub, faced the revolutionary Rutan Long-EZ, and a twin turbine business aircraft went head-to-head with a light sport aircraft.

The voting is open this week for round two and, there is still a good mix of airplanes with enough choices to suit just about everybody’s tastes. Each day the voting is open for just four matches, so you’ll miss your chance to vote for the Piper Cub or Pitts Special (above) after today.

Sadly there is no grand prize of the airplane of your choosing. In fact it’s just competition for competition’s sake. The championship matchup is set for the beginning of April. Tough to say which airplane will take the grand prize, but we would place our money on one that drags its tail.

UPDATE: If you’re not a person who has a favorite airplane, but does fly on the airlines regularly, Gadling has its own aviation themed tournament of top airline annoyances.

Via Wired Autopia: http://www.wired.com/autopia/

27 February
0Comments

Two Single-Seat DIY Airplanes Offer Great Bang for the Buck

Photo: Sonex

A pair of new single-seat airplanes promise a lot of performance for the dollar, offering speeds topping 150 mph for less than $30,000 with engine.

There is, however, some assembly required.

The two single-seater, kit-built planes are aimed squarely at DIY pilots looking for the biggest bang for the buck.

 

The Onex from Sonex, based in Oshkosh, Wisconsin, is the latest in a long line of inexpensive kit planes offering relatively high performance. The aluminum airplane is capable of aerobatics and manages a 155 mph cruise speed on just 80 horsepower.

An interesting, and attractive, design feature is the foldable wings. They can be folded in minutes and the sporty airplane loaded onto a trailer. The ability to keep your plane at home eliminates parking or hangar costs at the airport and makes maintenance (or long stares of admiration) much easier.

After the first flight a year ago, Sonex recently announced the Federal Aviation Administration has approved the company’s building checklists for the Onex. This gives current and future builders the green light to complete their aircraft in accordance to FAA rules. More than 50 Onex kits have already been shipped to builders.

The second of the new single-seaters got smooth composite lines from the hands of a surfboard maker.

Photo: Aerochia

The Aerochia LT-1 has been in development a few years. The carbon-fiber composite fuselage looks like it might hide a tiny radial engine, but the LT-1 is powered by a two-cylinder, four-stroke HKS engine producing just 60 horsepower. Aerochia expects to get speeds as great as 160 mph from the engine, according to the Experimental Aviation Association.

The LT-1 was designed by a surfboard maker who worked with multi-time Reno air racing champion Darryl Greenamyer on some of the pilot’s most recent composite airplanes. They expect the plane, which has a 21-foot wingspan, to have a maximum weight of less than 800 pounds and burn just three gallons per hour at cruise speed.

The airplane is still in flight testing mode, but the company expects to have the LT-1 at Airventure in Oshkosh, Wisconsin this summer.

 

Via Wired Autopia: http://www.wired.com/autopia/

23 February
0Comments

Icon Aircraft Receives First Ever Spin Resistant Seal of Approval

Photo: Icon Aircraft

Icon aircraft has made aviation history before even finishing the final design of its first airplane. The company achieved the significant milestone in the development of its A5 amphibious light sport aircraft with a new wing design aimed at significantly improving the safety of the airplane. The company recently completed a rigorous flight testing schedule focused on the stall and spin characteristics of the two seater. The result is that when the first one rolls off the assembly line, the A5 will become the first production aircraft sold ever to completely comply with the Federal Aviation Administration’s spin resistance standards. In simpler terms, Icon has designed an airplane that could practically erase one of the major causes of accidents in flying.

“Creating a full-envelope spin-resistant airplane was extraordinarily difficult and took longer than expected” said Icon’s CEO Kirk Hawkins in a press release announcing the FAA certification. “The design dramatically raises the bar for light aircraft safety by decreasing the likelihood of inadvertent stall/spin loss of control by the pilot.”

Many production airplane designs over the years have made significant progress towards minimizing the chance of a stall/spin accident. But until now, no airplane has been produced that fully complies with what is known as the FAA’s Part 23 spin-resistance standards. When the first A5 rolls off the factory floor, it will benefit from decades of research by NASA and the FAA focused on reducing, even eliminating accidents due to the inadvertent stall/spin. The spin resistant design doesn’t eliminate all of the potential hazards of flying, but like anti-lock brakes did for drivers, it does dramatically decrease one of the big hazards facing pilots.

 

The boom off of the back of the airplane contains a parachute and is commonly used in spin testing. The production A5 will have a parachute, but it will be integrated into the airframe. The small lines on the airplane are tufts of yarn that allow engineers to see how the air is flowing around the airframe.

An inadvertent stall/spin refers to a scenario where a pilot unintentionally flies the airplane in a way that causes the airflow over the wing to be disrupted and no longer be sufficient to produce enough lift. This usually happens at slower speeds, though it is related to the “angle of attack” of the wing, and not necessarily the airspeed.  When the airflow disruption occurs, the wing is said to be in a “stalled” condition and the airplane begins to lose altitude due to the loss of lift. Once an airplane wing is stalled, and if there is sufficient yaw motion – turning in the horizontal plane – the airplane can enter a spin.

If an airplane simply enters a stall and the pilot makes the necessary corrections all pilots learn in training, a minimal amount of altitude may be lost before the wing can generate lift again and the pilot and aircraft can begin flying again. But if the airplane enters a spin, significantly more altitude is lost. Even though a pilot can recover from a spin (usually with specific training), the disorientation often results in a recovery being less likely. Two common scenarios where this may occur is when the pilot is making the final turn before lining up with the runway to land, or turning back to the runway after taking off if an emergency landing must be made.

Inadvertent stall/spin accidents account for a significant percentage of pilot-related accidents in the non-commercial flying world of general aviation according to a report from the Aircraft Owners and Pilots Association.

By designing the A5 to be highly resistant to entering a spin, Icon gives pilots an extra margin of safety should they find themselves in a situation where they have accidentally managed to stall the wings of the airplane. Hawkins says the A5 will provide “excellent control throughout the stall.”

Many of the small, general aviation aircraft flown today are approved for practicing spins and can safely recover from a spin assuming the pilot has the proper training. But even in a perfect scenario the recovery may use up well over 500 feet, a problem if you’re below that altitude to begin with such as during landing. Rich Stowell is one of the foremost experts in stall/spin safety and has performed spins in dozens of different aircraft. In his book Stall/Spin Awareness, Stowell points out that the “specter of an inadvertent stall/spin can affect a pilot’s passion for flying.” Stowell is a proponent of pilots learning about the stall/spin and has taught countless pilots how to recognize and recover from all different types of scenarios (he’s completed more than 32,000 spins during his career).

Via Wired Autopia: http://www.wired.com/autopia/

06 February
0Comments

Northrop Grumman’s Futuristic Flying Wing Cribs From its Past

Image: Northrop Grumman

Northrop Grumman reached deep into its history, as well as its recent past, to draw inspiration for an airliner of the future — a flying wing much like the B-2 stealth bomber.

The firm designed the concept for NASA’s Environmentally Responsible Aviation program, an effort to develop an airplane that is quieter and more fuel efficient than today’s airliners. Although the program has drawn interest from several aviation firms, only Northrop Grumman is reaching back to the future. The company has been building flying wings since the 1940s, and anyone with even a passing knowledge of aviation can see the concept’s resemblance to Northrop Grumman’s B-2 bomber.

Studies like the Environmentally Responsible Aviation program always draw wild ideas, ranging from blended wing bodies to double-wide fuselage designs. Such things are nothing new for Northrop Grumman.

 

Jack Northrop first started flight testing flying wing designs in the 1940s. The company has developed several variations on the theme, including propeller- and jet-powered examples. The company also has considered flying wings as massive airliners. But stability problems prompted the company to shelve the idea for decades. Only when computer-controlled, fly-by-wire technology was available did the design become viable as a practical platform for large aircraft.

Northrop Grumman’s flying wing airliner concept has a wingspan of 230 feet, 58 feet wider than the B-2 bomber, according to Aviation Week & Space Technology. The cargo version (top photo) would have a wingspan of 260 feet, though the cabin area would be smaller than the passenger version, according to the article.

The shielded engines greatly reduce the noise signature, and they’re often seen on flying wing ideas. The sleek design also could improve fuel efficiency, though existing flying wing designs have yet to fully realize that potential because of drag penalties that occur through the control of the aircraft.

An artist

A flying wing can significantly reduce drag in part because the sleek design does not have protruding surfaces like a tail to disrupt the flow of air. Without a horizontal tail, the aircraft also does not have the added induced drag generated when the tail generates lift, which in the case of conventional aircraft is actually pushing down rather than lifting up.

The tail of most airplanes actually creates a lift force downward to balance the weight of the aircraft and the lift of the main wing. This force is counterproductive to the main wing, which is generating lift to keep the entire airplane aloft.

Aircraft equipped with canard wings, like many of the designs from Burt Rutan, also reduce the drag due to the lack of a conventional tail surface pushing downward during flight.

But because a flying wing does not have a vertical tail surface or winglets, the aircraft tend to have yaw instability. This means it is more likely to rotate in the horizontal plane with the wing tips effectively shuffling forward and back. To control this, and to control the airplane in a turn, drag-producing control surfaces along the wings are used during flight. These constant small corrections eliminate some of the inherent yaw instability of the flying wing. A conventional design flies through the air more like an arrow with feathers (or a conventional tail) guiding it straight (and no fly-by-wire computer having to keep it on path to the bullseye).

These stability issues led to Northrop abandoning the flying wing designs of the 1940s. But with modern fly-by-wire systems, many of the issues can be reduced or eliminated. And in the years to come there may even be ways to fully utilize the aerodynamic benefits of what is an efficient design.

Of course there is still the problem of passenger windows and where to put those slides and emergency exit rows to get everybody out of the airplane in a timely manner. But those problems should be relatively easy to solve.

 

Via Wired Autopia: http://www.wired.com/autopia/

01 February
0Comments

Armed Airline Pilots Want Authority Beyond Cockpit

After September 11, 2001 some airline pilots were granted the authority to carry guns while on duty in the cockpit. The pilots are trained on how to use the weapon in the unlikely event a person were to enter the cockpit and threaten the safety of the flight. Now a group representing the armed pilots wants to expand their authority so pilots who have the training can carry their hand guns while riding in the back of the airplane as well as in airport terminals.

The president of the Federal Flight Deck Officers Association told a Senate committee that there are five times as many airline pilots flying as passengers on airliners as there are Federal Air Marshals. The Air Marshals are the specially trained federal officers who travel undercover as security on a random selection of flights. But Marcus Flagg, president of the FFDO, told the Senate committee the Marshals cost about $3,300 per flight and the cost limits the number of Marshals on board aircraft. Flagg said expanding the authority of armed pilots would significantly increase the number of armed officers on board flights.

“A FFDO as a flying pilot at the controls would defend the aircraft from the cockpit only, and not exit the cockpit” Flagg told the committee (.pdf).  “If one or more FFDOs are riding as passengers in the back of that same aircraft, they may be the only trained law enforcement on board (including cockpit crew).”

Flagg said limiting the pilots to having an unlocked gun only available in the cockpit limits the usefulness of having the armed pilots. Currently pilots must have their weapons locked when carrying them to and from the cockpit and they cannot carry their weapons outside the cockpit such as during a visit to the lavatory.

The number of pilots who have been through the training and are authorized to carry a gun in the cockpit has not been released. But Flagg told the Orlando Sun Sentinel that the number is just under the FBI which has 13,800 armed officers according to the paper.

No armed pilot has had to use a gun to defend against a threat since the program started in 2002. There has been one accidental discharge of a gun in the cockpit of a US Airways flight while the airplane was on approach to land. There flight landed safely. In another incident a JetBlue pilot lost his hand gun when it was picked up by a passenger who mistakenly picked up the wrong backpack containing the locked weapon at John F. Kennedy airport in New York. The passenger realized she had the wrong bag after boarding her flight and returned it to a flight attendant.

Pilots undergo six days of training on how to use a gun for defending the cockpit. This compares to the many months of training for the Federal Air Marshals or typical police officers.

Photo: Flickr/Fly For Fun

 

Via Wired Autopia: http://www.wired.com/autopia/

16 December
0Comments

DIY Light Sport Aircraft Provides Fun Flying for Less

Any pilot familiar with Van’s Aircraft probably could have guessed that when the company decided to build a light sport aircraft, it would deliver a lot of smiles for not much money. The kitplane company has for 40 years offered a long line of airplanes that offer impressive all-around performance on a relatively small budget. But there’s always been a catch.

You have to build the airplane yourself.

Van’s latest design is the RV-12, a two-seater with a 100-horsepower engine. It was designed to fit the Federal Aviation Administration’s light sport aircraft category, which limits aircraft to two seats, less than 1,320 pounds, a top speed of less than 120 knots (138 mph) indicated airspeed and fixed landing gear. Specifically the RV-12 is an E-LSA, where the “E” means experimental because it is an amateur or homebuilt aircraft.

The RV-12 has proven quite popular since its introduction a few years ago, with more than 150 flying already. It’s easy to see why. A complete kit costs less than $64,000 and includes everything you need to go flying except for gas, oil and about 800 hours of your time.

We recently paid a visit to the Van’s Aircraft factory in Aurora, Ore., and took an RV-12 demonstrator up for a flight. Ken Scott, Van’s technical-support guru and demo pilot, joined me. He’s built an RV-12 and hardly contains his excitement about the relatively simple airplane’s performance.

“My lawn tractor is way more complicated than my airplane,” he says, noting that his RV-12 lacks a suspension, steering mechanism or grass cutter. “And yesterday I was doing 126 knots straight and level on 100 horsepower!”

 

Yes, that’s a handle on the wingtip. The RV-12 features removable wings to make storing the plane much easier.

The RV-12 is a simple aircraft, essentially an aluminum frame with a few moving parts and an engine. And despite the experimental moniker, an E-LSA is not an experiment, but a safe and proven airplane approved by the FAA.

It should be noted that Scott was referring to the airplane’s true airspeed, while the 120 knot limit governing light sport aircraft refers to indicated airspeed. Indicated airspeed is what the airplane “feels” as the air hits the airframe. True airspeed corrects for altitude and temperature allowing the pilot to know how fast an airplane is moving over the ground, assuming no wind. At 10,000 feet and an air temperature of 65 degrees, the indicated airspeed may only be 100 knots, while the true airspeed would be 130.

Scott says he can climb at 1,400 feet per minute in his plane. This is impressive performance that makes reaching higher altitudes practical to chase higher true airspeeds.

We were flying somewhere over the Willamette Valley near the factory when it hit me. The RV-12 exceeds the kind of performance many pilots are familiar with flying stalwarts like the Cessna 172 or a Piper Cherokee. And while it’s true that, for most pilots, just about any airplane is fun to fly, the RV-12′s light and well-balanced controls elicit a smile far more easily than those classic aircraft.

Pages: 1 2 3 View All

Via Wired Autopia: http://www.wired.com/autopia/

Valve Interactive
An online marketing and design agency in Portland Oregon