The South Central Cirrus Owner’s and Pilot’s Association (COPA) Region is hosting it’s second Fly In dinner at the Austin Executive Airport (KEDC) on Friday, October 8th, dubbed the Spring Cirrus Austin, TX Get Together. The event is from 5:30-9pm.
Like the first CATGT in October, there will be dinner ($25 per person), drinks, and several presentations. Jack Long and Josh Marvil will speak about their trip around the world in a PC-12. Ed McCombs and Eric Opiela will give a safety presentation about automation and task saturation.
Plus, best of all, Cirrus is bringing a real live flying SF50 Vision Jet, plus a brand new SR22 G6 with the Garmin Perspective NXi panel.
Fly in or drive to EDC. The dinner will be in the Henrickson Jet Center’s main hangar. You will need to RSVP so event organizers can get a proper head count. The link to RSVP is here.
The Bluebonnet Fly-In at Redbird Skyport has been rescheduled due to weather and the recent flooding in San Marcos. The new date for the Bluebonnet Fly-In will be Saturday, June 6th from 10am-4pm.
Hank Gibson of Texas Top Aviation will still be presenting on Garmin 430/530 Approaches this Saturday at 2pm in the large conference room at Redbird.
In July, Stratos Aircraft completed the first test flight of the single engine Stratos 716X personal jet. Stratos, based in Redmond, OR, is taking a page out of Epic Aircraft’s book in how the company is planning on bringing the Stratos 716X to market.
Epic Aircraft first released the Epic LT composite single engine turboprop in the early 2000s as an experimental. The first kit was completed and flying in 2005. Epic’s goal was to bring the airplane to market as a certified aircraft, a feat that took them almost 20 years to do, achieving full certification earlier this year.
Stratos Aircraft is hoping to learn a lot from their Bend, OR neighbors. The 716X is going to start off as a limited release experimental kit, while the company is working on achieving certification for the airplane. Once the plane is certified, it will be dubbed the Stratos 716. The 716X experimental kits will be assembled through a factory builder assist program (no garage built single engine jets here!). The kit will cost $2.5 million assembled, while the expected cost of the certified Stratos 716 will be $3.5 million.
Now, let’s talk about the airplane. 400 KTAS. One engine.
That’s right, you did hear correctly. The Stratos 716X is expected to cruise at 400 KTAS on only one engine. Compared to the Cirrus Vision Jet, that’s 100 knots faster. Think, “I’ll be relaxing at the hotel pool with a drink in hand when you are landing” type speeds. The fuel burn of the Pratt & Whitney JT15D-5 engine (3,000 lbs of thrust) is about 25 GPH more than the Vision Jet (the Stratos 716X will burn about 98 GPH of Jet A while the Vision Jet averages about 75 GPH of Jet A).
Comparing the two engines, the above numbers start to make sense. The Williams FJ33 engine on the Vision Jet only puts out 1,850 lbs of thrust, significantly less than the 3,000 lbs of thrust that the Stratos 716X Pratt & Whitney JT15D-5 puts out.
What does that mean to the pilot? In the Stratos 716X, it means less takeoff roll, better climb rate, faster cruise (as evidence by the 400 KTAS expected cruise speed), and a better payload. More power = more weight carrying capacity. And, the 716X is expected to have a service ceiling of 41,000 feet. I probably wouldn’t want to go that high single pilot with one engine, but I’d be very happy with that speed in the mid-30s.
The cabin, based on the pictures I’ve seen, looks very comfortable. The Stratos 716X seats 6 and can be configured in several different ways. Baggage is no problem as Stratos Aircraft stretched the fuselage from their original 714 Proof of Concept aircraft, adding a very roomy baggage compartment above the engine compartment. The passenger compartment is as big as a Phenom 100, providing more leg and head room than the Vision Jet. The front seats have plenty of legroom too, as Stratos has opted for a side stick instead of a yoke.
The avionics for the Stratos 716X are expected to be the Garmin G3X Touch for the panel which will be driven by a Garmin GTN 750 GPS. Autopilot will be integrated within the G3X. I would imagine that once the plane is certified, the panel will be switched to a Garmin G1000 NXi and a GFC 700 will be installed.
The genius of the design of the Stratos 716X is the aerodynamics of the engine placement. Instead of hanging the engine out in the slip stream and going with a drag inducing V-Tail like Cirrus did, Stratos took some notes from the myriad of single engine military fighter jets out there, placing the engine inside the fuselage. The fuselage is then built around the engine with two air scoops for intake directly in front of the wings. With two intakes instead of one, that leads to more air flow, which again, means more power. The Vision Jet has only one.
I’m going to keep tabs on the Stratos 716X (as I kept tabs on the Epic E1000). I’m hoping Stratos gets several flying soon (the company expects to do 3 kits a year till the airplane gets certified) and certification comes quickly after.
I got to stick my head in the mockup of the Stratos 716X when I went to Osh Kosh in 2018. I was very impressed and was excited to see the airplane was finally airborne this summer.
For more information about the Stratos 716X, check out the Stratos website.
I get to fly a lot of different airplanes in my chosen career. There aren’t many airplanes that I take off in, then say “Wow,” and have a big smile on my face. The RDD LX7 was definitely one of those.
I wrote about the RDD LX7 in the past, bragging about everything I read about it. The blogs all advertised 250 KTAS and 17 GPH and FL250, all of which are eye popping numbers.
Lo and behold, those numbers are true.
I got to go up to RDD’s Redmond, Oregon facility in April 2021 to get my initial training in the RDD LX7 and I couldn’t wipe the smile off my face. The 3 screen G3X Touch layout is very impressive and not crowded like I thought it would be. Being familiar with the G500TXi, there are some G3X specifics that take a little getting used to, but overall, it’s a good system. The main GPS and number 1 radio is a GTN 750Xi.
We took off from RDM and proceeded to climb at 140 KIAS, which equated to 2,000 FPM. We only had half tanks (which is still 90 gallons of fuel!), but it climbed with no problem. It’s extremely responsive as I learned while doing the basic flight maneuvers. The stall speed of the airplane (the biggest problem with the Lancair 4P, the airframe that the RDD LX7 is derived from, was the terrible wing design and extremely high stall speed), was in the low 60s or high 50s, with the stall being extremely docile.
The airplane handled very similarly to a Columbia 400, but seemed even more responsive. The glide ratio isn’t as good as some, but it’s still better than a Cirrus (plus it still has a BRS system to boot).
The big test was the flight to San Antonio from Redmond to bring the plane home. The new owner and I departed RDM with the tanks full of Avgas (180 gallons), then got up to a cruise altitude of FL210. After setting power and leaning, the numbers came out true to spec: 252 KTAS, 17.5 GPH.
The greatest part? We stopped in Santa Fe to stretch our legs and we didn’t need fuel. We still had 100 gallons left! That left us plenty to get to San Antonio with 40-50 gallons left over. Another RDD LX7 owner flew his piston direct from Redmond, OR to Jacksonville, FL, non-stop. It was over 9 hours. That’s impressive.
You can’t beat the purchase price, either. A new Cirrus SR22T runs a little north of $1.2m. A piston engine LX7, that is pressurized, 70 KTAS faster with a much longer range, and still has a BRS, is between $850,000-$900,000. An LX7 starts to make a whole lot of sense when you weigh all that. There is also a PT6 option with several different sizes and horsepowers to choose from, which costs more, but you see 300 KTAS.
To learn more about the RDD LX7, check out the company’s website: RDD LX7.
Earlier this month, Cirrus announced the new Cirrus G6 SR20 and SR22. To the naked eye, they look like incredible airplanes. There is new lighting and the updated Cirrus Perspective+ avionics in both models, plus the SR20 is now a Lycoming powered airplane.
The Perspective+ in the Cirrus G6 is based on Garmin’s G1000 NXi platform. The keypad is updated to a QWERTY keypad, allowing for quicker inputting of data since our fingers are already used to the setup. A home button was added to the center stack to get back to the map page without having to hold down the CLR key. The bug knobs were moved down to the autopilot, while the display of the GFC 700 was altered slightly to match the Vision Jet setup.
The Perspective+ also boasts a 10-fold increase in processor speed, allowing the system to move quicker than the standard Perspective. The ability to wirelessly update databases has also been included.
The exterior of the Cirrus G6 SR22 and SR20 models has changed as well. Cirrus has added the Spectra wing tip lighting system to the Cirrus G6. It incorporates an entire light panel that runs the length of the wing tip. The LED dual strobe setup helps with aircraft visibility and ramp appeal.
The SR20 engine has been changed to the Lycoming IO-390, 215 HP engine. The Continental IO-360-ES 6 cylinder engine comes out of the SR20 and the 4 cylinder Lycoming goes in. 2 less cylinders will help with useful load and the extra 15 HP will help with takeoff and climb performance.
The new Cirrus G6 is available for order and delivery immediately. To read all the details and specs on the Cirrus G6, you can check out Cirrus’ website.
You are at cruising altitude and your flight is going just as planned. All of that can change, sometimes without much warning, and you, the non-pilot, are now in charge. Would you know what to do?
This was a scary thought for me until I attended a seminar developed for the non-flyer at a Cirrus Owners Pilot Association (COPA) fly-in. Cirrus is the only small plane with a parachute as standard, so I thought all I had to do in an emergency was pull the chute. It’s a little more complicated than that!
I learned the vast majority of pilot incapacitation happens when the plane is at cruising altitude, so there is time to find a solution.
I was taught ten basic steps to follow to bring the plane safely to the ground.
First attempt to revive the pilot. If he is choking, it is possible to do a Heimlich maneuver from the side. This may dislodge whatever is blocking his airway and solve the problem. If he is experiencing hypoxia, turn off the heat, open all vents, and, if you have on board oxygen, use it. Also, if you can, get instructions on how to descend to a lower altitude. If the pilot is unconscious due to a heart attack or other medical emergency, there are still things you can do from the right seat.
Engage the autopilot if it isn’t already on and move the pilot off the controls. *
Ensure you are connected to the radio. If you hear ATC or other pilots, you are.
Send an electronic trouble message. Set the transponder to 7-7-0-0 to identify your plane to ATC. This will cause your plane to be highlighted on ATC radar screens.
ATC will most likely contact you asking what is your emergency. If this does not happen, you will need to transmit a Mayday call. All non-pilot passengers should know how to use the radio to get help, if they know nothing else.
With help from ATC, decide where you want to go.
Use the autopilot to fly in the direction suggested by ATC. I was taught that ultimately the choice of where to deploy the parachute is up to me because I am now the PIC, pilot in command.
Ensure that seat belts are secure and the emergency hammer is between your legs (so you have it to break a window to escape if needed).
Pull the parachute handle.
On the way down, shut down the engine and brace for impact.
After landing, move away from the plane, into the wind. Stay nearby and wait for help.
The seminar covered specific procedures to accomplish these basic steps, what to do if you don’t get a response from ATC, what to say in a Mayday transmission, how to fly a heading, how to check fuel levels, shut down the engine, etc. After the seminar, I felt much more comfortable about what to do if my pilot suddenly lost consciousness.
I was also told to practice what I had learned to avoid panicking in an emergency situation. There are so many things the person in the right seat can do under normal circumstances to practice. Learn how to set heading bugs, learn where the plane’s Electronic Locator Transmitter (ELT) is located and how to activate it. This will help rescuers locate the airplane. Learn how to assess your fuel levels. Practice making routine radio transmissions. Observe what your pilot does and ask questions if you don’t understand something.
Knowing what to do in an emergency situation will give you a sense of control over what will happen to you, your pilot, and any passengers on board your plane. If you have never considered taking a lesson or two for the non-pilot, find yourself an instructor, and learn what you need to know for your plane. Hopefully you will never have to use it, but if you do, you will be ready to be the PIC who lands the plane.
Anne and her husband Stephen are the proud owners of a Cirrus SR20. They plan to put the airplane to better use once Stephen retires. Anne has a background in desktop publishing and writing.
Whenever I get in an airplane with a pilot for recurrent training, I can assure myself that I will mention rudder usage more than once during the flight. If it is in a tailwheel (or if the pilot is doing tailwheel training), I’m going to mention the rudder a lot. How do I know this? Because basic rudder skills are actually one of the most difficult things to master in flying.
Let’s start simple. What does the rudder do? The dictionary definition is it controls the movement about the vertical axis of the airplane. If you stick a pole down through the CG of the airplane and rotate the airplane around that pole, this is the vertical axis. Looking at it another way, the rudder moves the airplane’s nose left and right. Keep this in mind as we move on.
Every pilot thinks about the rudder during the takeoff roll. Because of the torque effect, the pilot must add right rudder during the takeoff roll to stay on the runway centerline. Depending on the airplane’s horsepower, more rudder pressure is needed in higher powered airplanes. The problem usually shows up once the airplane gets in the air.
In the worst situation, after takeoff, the pilot will set both feet on the floor and completely disregard the rudder. Torque effect and now P-factor are continuing to cause the airplane to yaw left, causing the need for right rudder. With his feet on the floor, though, the pilot is allowing the airplane to yaw. It’s not terribly noticeable for him in the front seat, but the back seat passengers (especially in a six seat or larger airplane) are certainly feeling it.
One particular problem spot on the climb is the climbing left turn. In a climbing left turn, training says to add left rudder since it is a left turn (see below for the reasoning). But, since the airplane is climbing and therefore experiencing left yawing tendencies due to the aforementioned effects, the pilot needs to continue pressing the right rudder, though the pressure won’t be as much as in a straight climb. Watch the ball the next time you make a climbing left hand turn and it’ll make a believer out of you.
I find only a handful of pilots are this egregious. Most pilots have rudder problems in turns and in turbulence. We’ll tackle turns first. As we all learned when we first started flying, due to adverse yaw, a pilot must add rudder in the turn’s direction. Again, this isn’t usually where the problem shows up. During the rollout is the problem area.
Let’s take a turn to the left. The pilot rolls in, adding left rudder, arrives at his heading, then begins to roll out with the ailerons. Left adverse yaw is now being experienced and right rudder is needed to smoothly transition back to level flight. Need some visual assistance? Watch the nose the next time you make a turn. If you are working the rudder properly, the nose will pivot on one point in the horizon. If you aren’t using the rudder properly, the nose will draw a U shape on the horizon. Try making some turns without rudder, see what it looks like, then use the rudder properly. You’ll notice a big difference.
Finally, let’s talk turbulence. As we all know, turbulence in the hot summer afternoon is quite pronounced. When the airplane experiences a bump, it usually doesn’t bounce straight up in the air. There is usually some kind of rolling motion involved. As the pilot corrects this rolling motion by moving the ailerons, adverse yaw is experienced (just like rolling into and out of a turn that we talked about above), so rudder is needed. There isn’t a need to stomp on the rudder or you’ll cause the airplane to severely yaw in the other direction, but rudder pressure is needed.
Final approach is where this gets most pilots. By controlling the nose and not allowing it to move around on final by using the rudder, this will make your approaches a little more stabilized leading to a more successful landing.
Feeling lost when it comes to the rudder? Ask your instructor the next time you go fly to do some rudder exercises. Most instructors don’t emphasize these basic stick and rudder skills which leaves pilots lacking as they move on in their aviation lives. So make it a point to do some basic rudder work the next time you fly with your instructor.
