The long anticipated certification of the Cirrus Vision Jet finally happened. On October 30th, the FAA awarded certification to Cirrus’ single engine jet. Marketed as the world’s first single engine personal jet, the Cirrus Vision Jet will seat five adults, two children, and cruise around 300 knots.
The Williams FJ33-5A Turbo Fan engine is operated by a FADEC, single handle throttle, similar to the throttle in the piston powered Cirrus family. In fact, the SR series was taken into consideration when designing the Cirrus Vision Jet in order to simplify the upgrade for pilots. Many of the buttons and knobs are in the same places in the Cirrus Vision Jet.
The Cirrus Vision Jet is equipped with the Cirrus Perspective Touch by Garmin that is very similar to the Cirrus Perspective by Garmin in the piston powered line. Equipped also with the Flight Into Known Icing system and the Cirrus Airframe Parachute System (CAPS), both of which are standard.
Unlike the piston powered Cirrus lines, the CAPS system on the Cirrus Vision Jet is actually mounted in the nose. Also, unlike the piston lines, the jet CAPS is integrated with the aircraft avionics to slow the airplane to between 67 and 160 knots when the system is activated. In the jet, the CAPS system was designed to withstand higher weights, higher speeds and higher altitudes.
Cirrus hopes to start deliveries of the Vision Jet by the end of the year, with many more rolling off the line in 2017. All Cirrus Vision Jet pilots will need to be type rated in order to fly the aircraft. Cirrus is doing all the type rating training in house at their new Vision Center in Knoxville, Tennessee.
A couple of months ago, I had a life-threatening experience while flying. Thankfully, with my flight training, along with a lot of luck, I am here to talk about it.
One of my many piloting jobs is as a glider tow pilot. For those not familiar with gliding, since a glider doesn’t have an engine, every time a glider pilot goes and flies, it’s a team effort. A powered airplane (anything from a Super Cub to a turbine powered Air Tractor) is attached to the glider via a tow rope, which is about 200 feet long. Once the glider pilot gives the go ahead over the airport’s CTAF, then the tow plane begins it’s takeoff roll, pulling the glider along behind it.
The glider becomes airborne prior to the tow plane, then the tow plane will circle the airport environment till it get’s to the pre-determined altitude to release the glider. Some tows are pattern tows and some are higher (not usually above 3,000 AGL), depending on the request from the glider pilot. Once the altitude is reached, the glider pilot pulls a handle in the glider to release the tow rope, then begins his glide. The rope stays attached to the tail of the tow plane, which in turn descends back down to the runway and lands. The tow plane also has a tow rope release handle in case of emergency.
On this particular tow, the plan was to tow the glider up to 3,000 AGL. Upon reaching 2,500 AGL, the glider pilot called me on the radio and stated that his rear canopy had opened up. I looked over my shoulder and sure enough, the rear canopy was fully opened while he was still in level flight behind me. I asked him if he wanted me to tow him closer to the field, but he didn’t reply.
Now, as an experienced tow pilot, I know a glider canopy popping open should not be an emergency situation. It’s definitely abnormal, but would be similar to a door or window popping open in a powered airplane. Not a big deal. If too much force from the relative wind is applied to the canopy, it would snap off; however, a glider can easily land without a rear canopy.
About 5 seconds after I radioed the pilot (and received no reply), I felt my tail instantaneously lift up into a completely vertical position, which caused my nose to go straight down. The next thing I knew, a whole lot of earth suddenly filled my windscreen and I was in what’s known as a graveyard spiral.
A graveyard spiral (as defined from the Airplane Flying Handbook pg 4-23), “is a descending turn during which airspeed and G-load can increase rapidly….the airplane is flying very tight circles, in a nearly vertical attitude and will be accelerating since it isn’t stalled.” It’s also known as a spiral dive.
Back to the story. At this point, I tried to reach for the glider release handle. Unfortunately, due to the shoulder straps holding me against the seat, plus the g’s, and also the quart of oil and tow bar that flew forward and hit me in the back of the head, I couldn’t reach it. I was semi-upside down at a certain point, which dislodged the oil and tow bar from the floor of the baggage compartment. They sailed over the seat and nearly gave me a concussion.
At this point, 2,500 feet above the ground, I had a choice to either fight for my life at a very low altitude or to sit back and become part of a big explosion.
I decided to fight for my life.
As I was spiraling to the ground, I felt the tow rope snap. Up to this point, I had still been attached to the glider. The rope snapping was a good thing, as my airplane was now under my control, not attached to, and being affected by, a glider (more on that later). I now had a lifeline, no pun intended.
After I felt the rope snap, my instincts and training kicked in. I initiated the spin recovery procedure using the PARE acronym. This task was difficult to do as I had a lot of debris flying from the rear of the plane to the front, blocking my view out of the windshield. There was also debris around my feet, hampering my ability to use the rudder pedals. The spiral finally stopped and I recovered approximately 500 feet above the tree tops. It took my heart a lot longer to stop spinning.
After barely regaining my emotions, I tried to evaluate the condition of the plane. Were all the pieces of the plane still there, was the engine damaged, did my control surfaces still work?
Once I advanced the throttle and saw an increase in my engine RPM, I started an immediate climb to give me altitude to get back to the airport. I had engine power but I wasn’t sure how long it would last if I had damage. Now, what they don’t teach you during spin training is that when this happens unexpectedly, you will become very disorientated. You have just been spiraling unexpectedly and your equilibrium will be out of whack. As I leveled out just over the tree tops, I was too low to visually see any landmarks, nor could I see the airport. Once I was able to climb, I was able to orient myself and figure out where the airport was.
I had to be very careful getting back to the airport and landing without radio communication, since my radio was knocked out with all of the FOD from the baggage area. Thankfully, the landing was uneventful. After I landed, I saw the glider limp in over the trees. The rear canopy was totally gone, while the front canopy and other parts of the glider had suffered major damage. Miraculously, my airplane wasn’t damaged, except for the wire from the radio which came loose during the spiral.
So, how did all this happen, you ask? Well, the glider pilot made 2 huge mistakes. First, in gliding, the moment the glider pilot loses visual sight of the tow plane, you are supposed to release the tow rope. He did not do that and almost killed both of us.
Second, as pilots we are taught to always fly the airplane first. Everything else, no matter what it is, always comes after flying the airplane. As I stated previously, the loose canopy is not an emergency situation, but since the glider pilot did not aviate first and was distracted, it was almost a fatal day for 2 people and 2 airframes.
So, what caused this chain of events? By getting distracted by the open canopy, the glider pilot inadvertently pulled back on the stick while trying to close the canopy. Then, by not releasing the glider from the tow plane, the glider pilot climbed rapidly with an excessive rate of climb while still being attached to me. The rapid climb is what pulled my tail up, causing my nose to drop and put me into the spiral. The tow rope snapping set into motion my recovery, since up till that point, I literally had no control. An extremely high lift wing was attached to my tail, pulling it up, and there was absolutely nothing I could do about it.
We all spend time practicing and demonstrating emergency maneuvers during our flight training and during flight reviews. Many times you might think, I’ll never need to use this stuff. Thankfully, some of the procedures I learned in the past kicked in at a time of need, even though my heart was beating out of my chest.
At some point in every pilot’s career, some type of spin training or Upset Recovery Training would be highly recommended. Then, when things go wrong, remember to always aviate first, then handle all the other things that need to be handled.
Interested in spin training or Upset Recovery Training (UPRT)? Check out the list of Malibu & M-Class Owner’s and Pilot’s Association (MMOPA) approved UPRT vendors and schedule UPRT training today.
My first chief flight instructor had an addage he would impart to his flight instructors when we began working at that flight school. “Pitch + Power = Performance” he would tell us. Then he’d glare at us and follow up with, “nobody teaches that right, so make sure your students know it.”
Now, having been a CFI for seven years, I would tend to agree with him. I have moved on from doing mostly primary training to transition training. Transition training is taking someone who is already a pilot and teaching them how to fly a different type of airplane. In jets, you get a type rating. In piston engine airplanes, there is no FAA requirement to go through any type of extra training as long as you are rated in category and class (eg. single engine piston). But, insurance companies know that Mr. Fresh Private Pilot can’t just hop from a Cessna 172 into a Cirrus SR22 or a Bonanza, so they require transition training before insuring those pilots.
What did my chief instructor mean when he imparted his wisdom? He was speaking about a particular phase of flight, the final approach phase, regardless of whether it’s a VFR approach or an IFR approach. The pitch of the airplane and the power setting of the airplane have to be utilized together to achieve the proper speed and descent rate (performance).
VFR
On the final approach leg of a VFR pattern, most piston engine aircraft are configured with landing gear down and flaps down in the landing position. This puts the airplane on the back side of the power curve in the region of reverse command. In the region of positive command, in cruise, for example, the more power you add, the faster you are going to go and, if you pitch up, you will go up and you pitch down, you will go down. But, they work together (if you point the nose down, you will accelerate unless you reduce the power); remember, Pitch + Power = Performance.
In the region of reverse command, the pitch controls the airspeed and the power controls your rate of descent, but, again, they work together. Let’s say the airplane is 5 knots above it’s approach speed on final. Initially, the pilot will need to pitch up slightly to bleed off that airspeed. The airplane will want to climb, so as he is pitching up, he’ll need to make a slight power reduction to stay on glide slope.
Alternatively, let’s say the airplane is high, but is on speed. The pilot will make a power reduction to descend to the glide path, but he’ll also need to pitch down to maintain the proper airspeed.
What you don’t want to do is this: if the airplane is high on final, don’t push the nose down to try and get down. This does cause the airplane to lose altitude quickly, but the airspeed increases quickly. With a higher airspeed, the airplane has a lot more energy to dissipate when it gets to the runway, meaning you’ll float longer which can lead to forcing the airplane down or using up too much runway and not being able to get the airplane stopped in time.
IFR
On an instrument approach, you are on the front side of the power curve. When trying to stay on glide slope, the power is controlling the speed of the airplane and the pitch is keeping the airplane on glide slope. This can be a little bit confusing for VFR pilots transitioning to instrument approaches as they are not used to being on the front side of the power curve.
Keeping in mind that Pitch + Power = Performance, let’s put the airplane above the glide slope on an ILS approach. In order to get down to the glide slope, the pitch needs to be lowered as much as needed (it’s always better to pick a pitch attitude to fly and see if it is working to bring the glide slope back to center. If it doesn’t work, pick a new one. Don’t just push the nose down until the glide slope moves) and the power needs to be reduced to maintain airspeed (again, pick a specific power setting). Once the glide slope centers, then the pitch will be raised slightly and the power will need to be increased to hold glide slope and speed respectively.
Brazilian manufacturer Embraer recently received FAA certification for it’s “mid-light” Legacy 450. Capable of Mach .83 and a 2,500 mile range, this is one sweet airplane. Embraer designers gave passengers headroom as the cabin stretches up to 6 feet in height down the center. Complete with fly by wire controls and a full glass cockpit configuration, Embraer did a wonderful job with this airplane. The club seats even fold down to a bed!
The airplane’s list price is $16.5 million. To learn more about the Legacy 450, visit Embraer’s website.
Takeoff briefings are one of those things that most pilots are taught when they first learn how to fly, but once they get into flying themselves around, quickly fall by the wayside. There is a reason student pilots are instructed to perform a takeoff briefing before departure. It gets them thinking about what the plan is after they get off the ground and what to do if something goes wrong.
Takeoff briefings are a good habit to get into. Airline crews do a takeoff briefing before every departure, even though they have performed a takeoff in that particular airplane thousands of times. It enhances safety and provides repetition, keeping that knowledge at the forefront of the crew’s minds.
In general aviation, a takeoff briefing should cover what the takeoff procedure is, what the abort plan is, and what the plan after takeoff is.
Takeoff Procedure
Most pilots fly the same airplane all the time, so the familiarity with what goes into a takeoff is there. But, habits should be formed to brief the takeoff procedure as part of the takeoff briefing. It doesn’t need to be extensive, just covering the basics of how the airplane is getting off the ground. Something like this:
Throttle setting (if turbo charged, will full throttle cause an overboost?)
Rotate speed
Expected takeoff roll
That’s it. Nothing fancy for the takeoff procedure.
Abort Plan
What is the plan if something goes wrong? It doesn’t have to be an engine failure, maybe the engine coughs when full power is added or maybe the engine doesn’t produce peak RPM. Maybe the takeoff roll is longer than anticipated and something doesn’t seem right. Maybe on climb out a door pops open. Maybe the engine fails at 1,000 feet. It’s good to keep the plan in the foreground for what to do if an abnormal or emergency situation takes place.
Brief the aborted takeoff procedure
Pick an abort point on the runway based on the expected ground roll
What is the procedure if the airplane isn’t off the ground by then?
What is the procedure if the engine quits on the runway?
Brief the engine failure procedure at low altitude
If the engine fails over the runway, will you try to land on the runway?
What altitude would you elect to turn back as opposed to landing straight ahead?
If the plane is too low to turn back, would you land straight ahead or aim left or right?
What airspeed will you aim to hold if the engine fails?
In a Cirrus, what is your minimum parachute deployment altitude?
After Takeoff Plan
After the airplane is off the ground, what’s the plan then? Are you staying in the pattern or departing the area? Do you need to adjust your power at a certain altitude? What altitude are you climbing to? What heading are you going to fly? Is your flight plan in your GPS? This is an excellent time to set up altitude and heading bugs if your airplane is so equipped.
Get in the habit of doing a takeoff briefing before you call the tower or announce your departure. It get’s your mind focused on the task at hand and then what is going to be happening next.
Are you still trying to master the Garmin 430 in your airplane? Is it giving you fits because you keep twisting the big knob instead of the small knob? Would you like a step-by-step guide to each and every part of the Garmin 430?
Pilot proficiency website PilotWorkshops.com has published a very thorough, step-by-step manual on how to use the Garmin 430. Want to load a flight plan? There’s a section for that. Want to load an approach? There is a section for that as well.
The Pilot-friendly Garmin 430 manual is a great reference to have for Garmin pilots. Pilot Workshops offers a guide for the Garmin 430 and the Garmin 430W, depending on if you have WAAS or not.
The hard copy guides are $44.95, but you can also download the PDF version of each for $19.95.
To get more information on the guide or to order one, you can visit the Pilot Workshops website. (Have another Garmin or King GPS unit? Pilot Workshops has guides for a variety of different GPS units)
Has it come time to buy your first airplane? Have the skies been calling your name? Or are you just tired of standing in the airport security line then getting shoved in a long metal tube with no leg room? Or, maybe you are a businessman who does business in remote areas that have local airports but are hard to get to commercially.
Wherever your need is, you have decided it’s time to make a purchase. If you are familiar with aviation, you may have an airplane in mind that you would like to have, but is that the right airplane for your mission? If you are new to aviation, you may have no idea what airplane to go for. Here are some helpful hints in narrowing down the different airplane options out there to fit your specific mission.
Flying For Enjoyment, but Not Going Far Fast
If you’re just a weekend flyer who is tired of dealing with flight school rentals, but you don’t need to carry a lot of people or go very far, your options are pretty numerous. Anything from a Cessna 152 to a Piper Cherokee, maybe a Beech Sundowner, or a Bellanca Viking, or anything in between. If you are content with taking a weekend hop for a hamburger at 100-110 knots, you have limitless options for airplanes. Tailwheels (Cubs, Citabrias, Huskies) are excellent birds for you well.
Getting Places Fast With Only You and Maybe One Passenger
Need to go 200-300 miles fast and not worried about weight? A Cirrus SR22T, a Columbia 400, or Cessna Corvalis might be just what you need. Cruise speeds on those are all around 180-190 knots at 10,000 feet. All are oxygen equipped if you want more speed higher up, as the service ceilings are 25,000 feet. Payloads run in the range of 400-500 pounds with full fuel. All these have air conditioning options, too.
Hauling More Weight, but Still Need the Speed?
A little slower (150-170 knots) but a little bit more payload options are A36 & B36 Bonanzas, Piper Saratogas, Cessna 206s, or Cessna 210s might suit your fancy. All come in turbo models if you are a high elevation dweller. The Cessna 206 has been used for many years as cargo and people haulers in remote regions like Alaska, South America, and Africa. I’ve even seen pictures of snowmobiles being carried in a 206.
Tired of Oxygen Cannulas?
The next step up from a Cirrus, Corvalis, or Saratoga is the Piper Malibu. A bigger brother to the Saratoga, the different PA-46 models offer one of the best options for a single engine piston out there. All except the Matrix (PA-46-350T) are pressurized, all the pistons cruise about 200 knots, and all are configured with club seating with plenty of leg room. Useful loads range around 1200-1400 pounds (they hold 120 gallons of fuel, so payloads range from 480-680 pounds). The original Malibu (PA-46-310P) only burns 16.5 GPH so that allows partial fuel to be carried to allow more people and bags. All have 6 seats.
Need to Carry Even More Weight?
It’s time to get into the piston twin market, then. A Cessna 414, a Cessna 421, a Cessna 340, a Beech Duke or a Beech Baron are all pretty good options here. The 421 and the 414 have the largest cabins, while the Duke has the highest useful load. Cruise speeds range from 200-220 knots, but the cabin is roomier and you get a few more pounds useful load than a piston single. If you do get into a 421, get good training as they are equipped with Continental geared engines, which can be tricky to operate if you don’t know what you are doing.
Need to Carry a Lot of People and Go Fast?
Turboprops are the way to go for you. King Airs have the most utility while the Pilatus PC-12 is the cream of the single engine turboprop crop as you can put almost anything you want in it. If you have 4-5 passengers, stay away from a Piper Meridian as you can’t carry a lot of weight. Those are better for 2-3 passengers at the most (plus a pilot). The TBM 900 is pricey, but fast (300-325 knots). The original TBM 700 can be had for under a million bucks, you get 280 knots, and a very usable useful load. You still can’t fill all 6 seats with full fuel, but you can do more with it then a Meridian.
Have a Boatload of Money Sitting Around?
A jet might be for you then. Fuel, insurance, maintenance, and hangar costs are high, but jets will get you places real fast with room for all your friends and family.
