“AOPA Rusty Pilot presented by AOPA Ambassador Pat Brown at Tempus Training Solutions”
Topic: A Rusty Pilots Seminar
On Saturday, July 16, 2016 at 09:00 Central Daylight Time
Location:
Tempus Training Solutions
2080 Airport Dr.
San Marcos, TX 78666
Select Number:
EA2769634
Description:
Life may have gotten in the way, but the dream of flight can be yours again. Returning to the skies is not as difficult as most rusty pilot think. We’re inviting you back in the cockpit and will help you get there. Come and participate in a FREE Rusty Pilot program with fellow lapsed pilots. We will help you understand what’s changed in aviation since you’ve last took the controls and brush up on your aviation knowledge. The Rusty Pilot program is developed by AOPA in partnership with local flight training providers in order to create the best environment for getting you back in the air and a part of the general aviation community.
It is easier than most people think:
No FAA checkride or test
Medical may not be required
As a Bonus, by attending, you get two to three hours of free ground instruction towards your flight review!
I took a Piper Malibu to Cabo San Lucas a few weeks back. This was my second trip flying to Mexico, but the first where I arranged everything. Cabo is a beautiful place and the MMSL airport is a fabulous facility. For those who haven’t been fying to Mexico before, MMSL is the place to go. The folks there are extremely helpful and do most of the paperwork for you. You just have to pass along your information to them.
Flying to Mexico and back out is different than flying in the US. First of all, don’t forget your passport. The authorities on both sides frown upon that. You’ll probably get sent back to the US (or sent back to Mexico if you are on your return trip). Your aircraft also needs, Mexican insurance (talk to your US insurance agent) a radio license, and a customs decal.
Second, you’ll have to file an ICAO specific flight plan for flying to Mexico. This is available on Foreflight now, but I really like Fltplan.com’s way of doing it. I don’t fly internationally enough to remember what everything means, but Fltplan.com does a great job of walking pilots through the the different classifications. It’s almost impossible to get confused.
Third, you have to fill out an eAPIS form. This has to be done at least 24 hours prior to departure from the US, but it can be done as far in advance as you’d like. If your departure time changes or your passengers change, you can edit the eAPIS form to bring it current.
Flying to Mexico IFR is a lot simpler than flying VFR. I have only flown IFR and it is very easy. I’m already on a flight plan, already squawking a discreet code, and already on radar, so there really isn’t any way I can mess up the ADIZ penetration. I really recommend going in and out of Mexico IFR instead of VFR.
Once you land in Mexico, you have to close your IFR flight plan. The tower doesn’t do this for you. After clearing customs, you’ll have to pay a landing fee and sign your flight plan confirming you have arrived and closing it out.
When departing, you have to file another eAPIS 24 hours in advance. Wherever you plan on clearing Customs in the US, you’ll need to call the Customs office no less than 1 hour, but not more than 23 hours before arrival. It’s called an Advanced Notice of Arrival.
You’ll need to fill out a paper flight plan before departing, clear customs again to leave, then away you go.
There are a lot of really fun getaways in Mexico and flying there doesn’t have to be difficult. When you have the right information, flying to Mexico can be a breeze!
The Cirrus Pilot Proficiency Program is once again returning to Houston, TX the first weekend in November. Henrickson Jet Center at the Houston Executive Airport (KTME) will be the host FBO this year. If you are a Cirrus owner in the South Central US, the Houston CPPP weekend is definitely worth your while.
What is it? The Houston CPPP is a combination ground and flight training weekend. With ground classes ranging from engine management, to loss of control prevention, to avionics best practices, an attendee will not lack a better Cirrus education by the time he or she leaves.
The flight training side of the weekend gives an attendee several options. A Houston CPPP attendee can do 1 or 2 flights with a highly qualified Cirrus Standardized Instructor Pilot (CSIP), one on Saturday and one on Sunday (if the 2 flight option is selected). The Cirrus Owner’s and Pilot’s Association (COPA) brings in exceptional instructors for each of the CPPP events, so the training is top notch. Folks who want to take in more ground school, but still want to fly a little bit have the option of just doing 1 flight, either Saturday or Sunday, in order to increase their Cirrus knowledge.
The Houston CPPP event will be November 2nd, 2018-November 4th, 2018, a Friday through a Sunday. The weekend kicks off with a welcome dinner Friday night, then ground sessions and flying on Saturday and Sunday, plus a dinner on Saturday night.
For those who want to challenge themselves, there are simulator sessions available with a challenging instrument approach that doesn’t quite meet up with the normal, ho-hum type of approach.
The Houston CPPP also provides a Partner in Command course for those right seaters out there wanting to learn more about what to do in an emergency situation.
Hank Gibson of Texas Top Aviation will be at the Houston CPPP as a flight instructor. For more information and to sign up, please click here.
Texas Top Aviation is proud to announce that Hank Gibson has completed the training to become an American Bonanza Society Instructor, or ABS Instructor. He is now qualified to give instruction in Beech Aircraft.
As an ABS Instructor, Hank brings over 2800 hours of flying experience in a variety of aircraft to the cockpit of Beechcraft. Along with his ABS Instructor Designation, Hank is also a Cirrus Standardized Instructor Pilot (CSIP) and a Cessna FITS Accepted Instructor in both Cessna high and low wing piston aircraft (CFAI+). Hank is proud to add the ABS Instructor designation to his list of qualifications.
The process of becoming an ABS Instructor is quite comprehensive. The coursework consists of 20 powerpoint lessons covering anything and everything related to flying Debonairs, Bonanzas, Travel Airs, and Barons. The ABS Instructor course is quite in depth and detailed, giving the graduate a full understanding of the Beechcraft piston line of aircraft. To find out more about ABS Instructors, see the ABS website.
Hank is now giving initial and recurrent training in Beech Debonairs and Bonanzas. Please visit the Texas Top Aviation Bonanza Training page for more information on Bonanza and Debonair initial and recurrent training. Interested in Bonanza or Debonair training with a qualified ABS Instructor? Contact Texas Top Aviation today!
2008 Cessna 400 Corvalis TT (N422TJ) — 235 KTAS and Garmin G1000 glass, priced under a comparable Cirrus.
If you’re weighing a Cessna 400 vs Cirrus, start here. The 2008 Cessna 400 Corvalis TT cruises at 235 knots true — the fastest fixed-gear piston single ever certified. It’s faster than a turbocharged Cirrus on the same fuel and the same class of engine, and it costs less than a comparable SR22T. If you’re shopping a high-performance single for speed and value, N422TJ deserves a hard look.
The Airplane Cirrus Shoppers Overlook
The Cessna 400 is a Lancair design — a clean-sheet, all-composite airframe built to go fast. Cessna certified and refined it, and built N422TJ in 2008. It seats four, carries a real load, and handles weather. Most buyers shopping a high-performance single default to Cirrus, so airplanes like this one get overlooked. That’s where the value is.
Faster on the Same Fuel
The 400’s 235 KTAS is a true max cruise at 25,000 feet on oxygen. A 2011–2012 Cirrus SR22T (Gen 3) trues about 211 KTAS. Both burn 100LL and run turbocharged Continental engines in the same ~310-horsepower class.
That’s about 24 knots up high — roughly 45 minutes off a 1,000-nautical-mile leg — with no bigger engine and no more fuel. And it isn’t only a flight-levels number: at 10,000 feet the 400 still trues about 180 KTAS, roughly 10 knots faster than an SR22T at the same altitude.
Lancair-designed, all-composite, fixed-gear — the airframe that makes 235 knots possible.
The Value Gap
N422TJ is priced at $350,000. A comparable Gen 3 SR22T typically trades between $450,000 and $550,000 used. (A new SR22T is a $1M-plus airplane — not the comparison.) Against the newer turbo Cirrus, that’s roughly $100,000 to $175,000 less for a faster airplane.
N422TJ — no damage history, complete logs since new, Van Bortel-maintained.
Cross-Shopping a Turbonormalized Cirrus SR22
A lot of buyers looking at N422TJ also weigh a Cirrus SR22 with the Tornado Alley turbonormalized engine. It’s a fair comparison — the same ~310-horsepower-class Continental, the same all-composite fixed-gear layout, the same 100LL — so here’s the honest math.
Speed and engine: the turbonormalized SR22 trues around 211 KTAS; the 400 does 235. The 400 also runs a true twin-turbocharged TSIO-550-C, not a turbonormalized system — a true turbo makes boosted power up high, which is a big part of that speed edge.
Avionics and price — 2006–2008: those Cirrus came with the Avidyne Entegra panel. N422TJ’s Garmin G1000 with WAAS and Synthetic Vision is a clear step up — better glass for comparable or less money.
Avionics and price — 2009 and later: Cirrus moved to Garmin Perspective (G1000-class) glass, but the price moved with it. A 2009 SR22 turbonormalized with Perspective typically runs around $400,000 or more — one representative listing is $429,900. N422TJ is $350,000: less money, comparable glass, and 24 knots faster.
The SR22 still brings the CAPS parachute and the Cirrus owner community. But on speed, engine, and price, the Cessna 400 stays ahead.
Metric
Cessna 400 Corvalis TT (N422TJ)
Cirrus SR22T — Gen 3 (2011–2012)
Cirrus SR22 Turbonormalized (2006–2009)
Max cruise (25,000 ft)
235 KTAS
~211 KTAS
~211 KTAS
Cruise at 10,000 ft
~180 KTAS
~170 KTAS
~170 KTAS
Engine
Twin-turbocharged Continental TSIO-550-C (true turbo, ~310 hp class)
Turbocharged Continental (~310 hp class)
Turbonormalized Continental IO-550-N (~310 hp class)
Cessna 400 Corvalis TT vs. Cirrus SR22T (Gen 3) and the turbonormalized SR22. Speeds and prices are typical estimates; verify against the aircraft records and current market.
The fastest fixed-gear piston single ever certified — and it out-runs a turbo Cirrus on the same fuel.
The Avionics You Can’t Buy Anymore
Garmin G1000 with WAAS and Synthetic Vision (SVT) and the GFC-700 autopilot.
N422TJ has a Garmin G1000 with WAAS and Synthetic Vision (SVT) and the GFC-700 autopilot. WAAS gives you LPV approaches — near-ILS precision at runways nationwide.
This matters because the WAAS upgrade path for the G1000 in these airframes is closed. A Cessna 400 that left the factory without WAAS can’t be upgraded — it will never fly an LPV approach. So a WAAS-plus-SVT 400 like this one is a scarce find. You either buy one that has it, or you don’t get it.
Both G1000 displays with synthetic vision — a modern, integrated flight deck.
Built to Actually Go
This airplane is equipped to be flown hard and often:
Thermawing electric de-ice with a backup alternator — a de-ice system (not certified known-ice)
Factory air conditioning
Speed brakes
Hot prop, built-in oxygen, and ADS-B Out
A comfortable four-seat cabin built for real trips.
The engine is a twin-turbocharged Continental TSIO-550-C with about 1,503 hours total time — the original engine, 1,503 since new. No damage history, complete logs since new, maintained by Van Bortel.
Leather interior, comfortable for four.
An Honest Word: What the Cirrus Does Better
One thing every Cirrus has that the 400 doesn’t: the CAPS whole-airframe parachute. Pull the handle and the airplane comes down under canopy. For a lot of buyers that’s the deciding factor, and it’s a fair reason to choose a Cirrus. Cirrus also has a large owner community and a strong support network.
Useful load is comparable across all three airplanes — the 400 is often equal or a little better. If the parachute and the community are your priorities, a Cirrus may be the right airplane, and we can help you find one. If your priorities are speed, avionics, and value, the 400 is hard to beat at this price.
Cessna 400 vs Cirrus: Quick Answers for Shoppers
Is the Cessna 400 faster than a Cirrus SR22T?
Yes. The Cessna 400 Corvalis TT trues up to 235 KTAS at 25,000 feet versus about 211 KTAS for a Gen 3 Cirrus SR22T — about 24 knots faster on the same 100LL and the same ~310-horsepower class of turbocharged Continental engine, or roughly 45 minutes saved on a 1,000-nautical-mile leg. At 10,000 feet the 400 still trues about 180 KTAS, roughly 10 knots faster than an SR22T at that altitude.
How does the Cessna 400 compare to a turbonormalized Cirrus SR22?
The Cessna 400 trues 235 KTAS versus about 211 KTAS for a turbonormalized SR22, and it uses a true twin-turbocharged Continental TSIO-550-C rather than a turbonormalized system. A 2006-2008 SR22 turbo has the older Avidyne Entegra panel, while the 400 has a Garmin G1000 with WAAS and Synthetic Vision. A 2009-and-later SR22 turbo with Garmin Perspective glass typically costs around $400,000 or more, versus $350,000 for N422TJ. The SR22 still offers its CAPS whole-airframe parachute.
Does the 2006-2008 Cirrus SR22 have a Garmin G1000?
No. Cirrus SR22s from 2006-2008 typically came with the Avidyne Entegra glass panel; Garmin-based Perspective glass arrived in 2009. The 2008 Cessna 400 came with the Garmin G1000, and N422TJ has the WAAS and Synthetic Vision version.
How much less is a Cessna 400 than a comparable Cirrus SR22T?
N422TJ is priced at $350,000, while a comparable 2011-2012 Cirrus SR22T (Gen 3) typically sells for about $450,000 to $550,000 used — roughly $100,000 to $175,000 less for a faster airplane.
What is the fastest fixed-gear single-engine airplane?
The Cessna 400 Corvalis TT, at 235 KTAS maximum cruise, is the fastest fixed-gear piston single-engine airplane ever certified.
Does the Cessna 400 have a parachute like the Cirrus?
No. A whole-airframe CAPS parachute is the one meaningful capability the Cirrus offers that the Cessna 400 does not. On speed, avionics, and useful load, the 400 matches or beats a comparable SR22 or SR22T.
Can the Cessna 400’s Garmin G1000 be upgraded to WAAS?
No. The WAAS upgrade path for the G1000 in these airframes is closed, so a non-WAAS Cessna 400 can never gain LPV approach capability. N422TJ already has WAAS plus Synthetic Vision, which makes it a scarce find.
Does the Cessna 400 carry less than a Cirrus SR22?
No. Useful load is comparable — the Cessna 400 is often equal to or a little better than a comparable SR22 or SR22T.
When it comes to turboprop engines, a hot start is a really bad thing. For you piston drivers out there thinking, “What’s the big deal, you are just starting a hot engine,” then here’s a little education for you.
In a PT6 turboprop engine, there is a very important temperature gauge that a pilot monitors very closely during each and every start. It is called the Inter-Turbine Temperature gauge, or ITT. This temperature is a measurement of the exhaust gases between the compressor turbine and the power turbine (s). In the picture below, the probe is located where the blue and red colors meet.
In a turboprop engine, specifically the Pratt & Whitney PT-6 in all it’s different sizes and variations, there will always be a specific temperature that the pilot will want to keep the ITT below. This article will deal specifically with a Piper Meridian.
A Piper Meridian starts hotter than almost any other PT6 engine because of the way it’s air intake is designed. Unlike other turboprops, the Meridian has a permanently open inertial separator. This means that not all the intake air makes it to the engine during start because some of it goes out the inertial separator opening. So, coming to a Meridian from operating other turboprop engines can lead to a little bit of a surprise on the ITT temperature being higher than what a pilot is used to when starting.
As a rule of thumb, when starting a Meridian, never let a start continue when the ITT hits 875 degrees. Based on the chart below, you are still in the safe zone at 875 and have about a 50 degree buffer before you have to start getting worried.
On cold starts with a good battery or a GPU, 875 is typically not an issue. Most starts when cold are going to be in the high 700s or low 800s. On a cold start, if you are seeing starts in the mid to upper 800s, try starting with a GPU and see if that lowers the start temperature. If it does, then that means your battery is weak and needs to be replaced. Another tell-tale sign of a weak batter is the Ng doesn’t spool up properly (meaning it settles around 12-13%) or takes a really long time to spool up. Also, never start on the battery with less than 24 volts.
When there are multiple flights in one day, the pilot has to take into consideration the warm engine prior to starting. If the ITT, prior to the start sequence, is above 150 degrees, it is time to do some motoring of the engine.
What is motoring? It is simply using the starter to turn the engine, which leads to air being sucked into the engine allowing the engine to cool off prior to start. The theory is, the cooler your engine prior to start, the cooler the ITT peaks at during start.
Here’s the steps on how to dry motor a Piper Meridian:
Battery on
Strobes on
Fuel Pumps and Ignition off
Throttle idle
Condition Lever feather/cutoff
Push the start button
Monitor the ITT temperature
Reaching 150 degrees, if less than 30 seconds have elapsed:
Fuel Pumps on
Ignition On
Condition Lever run
Reaching 150 degrees, if 30 seconds have elapsed:
Push Manual/Stop button to stop the start
Let starter rest for 30 seconds
The starter has a 30 second limit on the Meridian, followed by a 30 second rest period. You can do the sequence twice, then, after the 3rd start, there is a 30 minute rest period. Typically, if the ITT won’t cool down to 150 after the 3rd time, there is probably something wrong.
The most important thing a pilot can remember is never, ever push the condition lever forward if the ITT is above 150 degrees. You’ll be well on your way to avoiding hot starts that way.
A Cirrus is an electric airplane. There are no vacuum pumps and therefore no vacuum driven instruments. The Klapmeier brothers did this on purpose, trying to make it a modern airplane. No vacuum systems means no vacuum pump failures, hence there is a lower likelihood of instrument failures in IMC.
What Cirrus did instead was put a lot of electricity producing and storing devices in the airplane. All SR20 and SR22s are equipped with 2 engine driven alternators and 2 backup batteries. Alternator 1 is a 28 volt alternator (the amperage varies based on whether or not you have an air conditioner) while Alternator 2 is a 28.5 volt alternator. There are 2 24 volt backup batteries, as well. Battery 1 is also used for starting.
In traditional airplanes that have 1 alternator, an alternator failure can affect a lot of things. Depending on how many electronics are in the airplane, the battery can get depleted quite quickly.
The Cirrus electrical system is quite ingenious. It’s a little bit different based on whether you have an Avidyne Cirrus or a Garmin Perspective Cirrus. I will discuss that further below.
The main goal of this article is to talk through what happens in the event of a #1 Cirrus Alternator Failure (an Alternator 2 failure actually isn’t a big deal at all, though Alt 2 is required for IFR flight), the procedure for trying to fix it, and a technique I have developed that makes the pilot’s job easier. First, let’s go through the #1 Cirrus Alternator Failure procedure.
Alternator 1 Failure
In either avionics configuration, the Cirrus Alternator Failure procedure is the same.
Check and reset the circuit breaker for Alternator 1 (Reset only once)
Cycle the Alternator 1 master switch
If Alternator 1 doesn’t come back online, leave the Alternator 1 master switch off and shed load on the battery
Avidyne Entegra
The Avidyne Entegra has 2 busses, the Main Bus and the Essential Bus. Alternator 2 isn’t set to come on until the engine RPM reaches 1700. While on the ground, Alternator 1 runs both the Main and Essential Buses. In the air, Alternator 1 runs the Main Bus and Alternator 2 runs the Essential Bus. Since Alt 2 is 28.5 volts, the higher voltage won’t allow the power from Alt 1 to cross over and run the Essential Bus. There are also 2 one-way directional diodes that prevent the voltage from Alt 2 to cross over and run the Main Bus.
Having said all that, when Alternator 1 fails, Battery 1 is now running the items on the Main Bus. There are a significant number of items on the Main Bus which causes the 24 volt battery to quickly lose it’s charge. This precipitates the need for shedding load. Items like GPS 2, the air conditioner and aircraft lights can all be turned off.
In the above scenario, Alternator 2 is running the Essential Bus still that has all the Essential items on it. Those include:
The PFD
Flight Instruments and associated Avidyne computers
Engine Instruments and associated Avidyne computers
GPS 1
Com 1
Nav 1
Autopilot
Stall Warning
Charging Battery 2
Note 2 important items that are not on the Essential Bus: the flaps and the landing light (which is very handy at night). Those two are only on the Main Bus, which Battery 1 is now powering.
Let’s further enhance our scenario. You are flying over Nevada (quite remote and not a lot of airports) at night, 30 minutes from the nearest airport when your Alt 1 fails. When you get to the airport you are planning on landing at, you want to have your flaps and your landing light, but we don’t know how long Battery 1 will last.
The solution (this is where my technique comes in): Turn off the Battery 1 master switch. This is an easy solution to ensuring you have battery power to use your flaps and landing light. Instead of going through and shedding load, simply turn off the source. You’ll still have all the above items on the Essential Bus, which is all you need to keep safely flying. Then, when you get to your landing airport, turn Battery 1 back on to utilize your flaps and landing light.
Garmin Perspective
Cirrus wired the Garmin Perspective plane a little bit differently. There are now 2 Main Buses along with the Essential Bus. Alternator 1 runs Main Bus 1, while Alternator 2 runs Main Bus 2 and the Essential Bus. Both Alternators are running all the time. The Alternator 1 Failure procedure remains the same.
The cool thing that comes along with the second Main Bus in the Perspective is the amount of items you still have available to you in the event of an Alternator 1 failure. The only items you lose will be:
Yaw Damper
Landing Light
Air Conditioner and associated components
EVS Camera
12 Volt power supply in armrest
Everything else is powered off of Alternator 2. That’s not much. The only item you really want on the above list is the landing light if you are going to be landing at night.
Follow the Alternator 1 Failure procedure, then do my technique again. Turn off Battery 1 to save the battery power in order to use the landing light when needed.
Cirrus did a great job creating an all electric airplane with plenty of backups in case something fails. I focused mainly on the Alternator 1 failure here. If Alternator 2 fails, the system is wired for Alternator 1 to run everything while still charging Battery 1 and 2. No big deal.
In my experience, turning off Battery 1 to conserve battery power is just a simpler solution when shedding load in the event of a Cirrus Alternator Failure.
