The Glass Panel Cockpit Seminar

Have you looked longingly at the Aspen PFD or Garmin G500, imagining those beautiful glass panels set in your airplane?  Think it’s too advanced for your flying skills?  Well, think again!  Hank Gibson of Texas Top Aviation will be hosting a seminar at the Redbird Skyport FBO at the San Marcos Airport (KHYI) on Thursday, September 25th  at 7pm to enlighten everyone on all the different glass panel and modern GPS options out there.

Aspen 2500 The Glass Panel Cockpit Seminar

No panel is too complex!  No GPS is too complicated!  Come hear about how you can upgrade your steam gauge airplane to a modern, glass panel cockpit that will be the envy of all your pilot buddies.

The seminar begins at 7pm in the large conference room at the Redbird Skyport.  Come see this beautiful facility which hosted the AOPA Fly In this past April.  There will be two drawings for free flight training in your airplane, so make sure you get your entry in once you arrive.  WINGS credit will also be given.

Redbird welcomes pilots flying in for the event.  If you are flying in, please show your support for Redbird by purchasing fuel!  

Signup is required for the event.  To sign up, please click here.

We hope to see you there!!!

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  • L-3 Lynx Transponder Line

    L-3 has jumped into the ADS-B transponder game with their Lynx line of products.  Aircraft owners have a myriad of options with the Lynx line, from simply becoming ADS-B compliant with the NGT-1000 ($2,100, with ADS-B out that works with the GTX 327 and GTX 330), or going all in with the NGT-9000 touch screen transponder complete with ADS-B In, a traffic screen and NEXRAD ($6,800).

    L-3 Lynx

    The NGT 1000/2000/2500 line works with the existing transponder in the airplane (as long as it’s a Garmin GTX 327 or 330).  The 2000 gives ADS-B In capability, allowing the pilot to access NEXRAD and traffic, plus has a Wifi source to broadcast all the information to an iPad.  The 2500 includes all of that, plus gives the pilot MFD capability as well.  An optional control panel is available if the airplane is not equipped with one of the aforementioned Garmin transponders.

    The L-3 Lynx NGT-9000 is an actual transponder replacement.  It is a touch screen device that has a multitude of ADS-B features that, quite frankly, are really cool on a transponder.  The ADS-B traffic is displayed on the unit itself and can also be sent, via the optional Wifi connection, to an iPad on the WingXPro or SkyRadar apps.  The optional L-3 NextGen Active Traffic can also be installed to receive traffic callouts (this does not include resolution advisories).  Already have SkyWatch?  The L-3 Lynx can use the equipment.

    The L-3 Lynx NGT-9000 is also capable of displaying NEXRAD as well as METARs, TAFs, NOTAMs, and TFRs and a myriad of other weather products, all on it’s moving map.  It seems that L-3 has taken the transponder and turned it into something awesome.

    To read more about the L-3 Lynx line of transponders, you can visit their website.

  • That Pesky Rudder

    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.

    Rudder

    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.

  • The Aunt Betty Directive: PFD Failures

    Glass panel displays, ballistic parachute aircraft recovery systems, portable tablet computers enabling paperless cockpits, and widely available three axis autopilot systems have changed the way we fly, the way we train, and the way we are expected to perform on check rides. Our training and testing paradigms have tried to stay in synch, yet always seem to be catching up to the latest levels of technology.

    This is very apparent when we instructors are preparing a student for an FAA practical test. When training aircraft had no autopilots, no GPS, and certainly no parachutes, the general philosophy was that during training, the student should have the lowest level of technology available. This was also the expectation on the check ride. This theory has changed over the years and now the Practical Test Standards require that an applicant integrate all available technology while demonstrating mastery of his or her aircraft. This raises numerous questions from instructors and students about what technology will be available for each task.

    One example of this dilemma is found when contemplating an instrument airplane practical test in a Cirrus SR20/SR22. The test requires the task “Instrument Approach without Primary Flight Display”, which has taken the place of what was the partial panel approach, accomplished without use of gyroscopic heading and attitude indicators. In the Cirrus, the standby attitude indicator, standby airspeed, and standby altimeter are available, as is the Multi-Function Display. Guidance from the FAA has us shooting a GPS approach using the moving map display on the MFD after disabling the PFD. Those of us who trained and tested in steam gauge aircraft think that this task should be fairly easy. With a fully functional Attitude Indicator and a nice big moving map display showing our course, a reasonably competent instrument pilot should have little trouble adapting to this setup and flying a good approach.

    But, in the Cirrus specifically, and perhaps in other aircraft as well, another question comes up. Can the applicant use the autopilot (which still works just fine after a display failure) during the approach without the PFD? A rather famous DPE who writes for a national magazine says “yes”, opining that not to allow its use would be introducing simultaneous multiple systems failures, which is strictly forbidden in the minds of some. If we follow this logic, we would not test simulated engine failure emergencies in these aircraft either, because to do so would imply failure of not only the engine, but the CAPS parachute system as well. In my former role as a pilot examiner, I always said no, that the approach should be hand flown. Here is my logic.

    I was amazed that flight instructors and examiners would accept the substitution of autopilot technology for the skill required to fly an approach without the PFD. I would argue that the intent and the well described emphasis of the PTS is that the applicant must demonstrate the ability to control the airplane after a loss of the primary flight display, not observe and monitor the autopilot controlling the airplane! This argument was generally unpersuasive, so I approached from a different point of view, that of a concerned family member.

    “Aunt Betty” represents a future passenger flying with the soon to be rated instrument pilot. Here is the question posed to Aunt Betty: “When we train and test pilots for instrument proficiency, we require them to demonstrate the ability to safely and skillfully fly the airplane without their primary instruments. Now, Betty, in this airplane, we can test this task in one of two ways. We would like your input on which way you would prefer, seeing as you will be a frequent passenger with your nephew. We can either have the pilot (might be your son, brother, husband, or nephew) demonstrate that he can fly the airplane by hand without the PFD, which does require a little more skill and a slightly different technique, or, we can require the pilot to perform this task using the autopilot so that the pilot basically monitors the airplane flying itself on the approach.

    “Now, Aunt Betty, a pilot allowed to use the autopilot system on this approach may not have the skill or technique to fly the approach by hand in the clouds should the autopilot shut down due to turbulence or mechanical failure. Should this happen to a pilot without the skill and practice normally required, the odds of a fatal accident occurring would be quite high.

    “So what do you think, Aunt Betty? Would you feel more comfortable flying with this fellow if he has demonstrated mastery of the aircraft (sans PFD) without the autopilot or only with its assistance?”

    This leads us to a larger discussion about the use of other technology, iPad, GPS moving map, and more. If technology is used as a replacement for pilot proficiency during training and testing, we end up with less skillful, less competent and ultimately less safe pilots. But, if we require that our students demonstrate mastery with the lowest available level of automation and technology (which, by the way, implies excellent fundamental aircraft control skills) then, when technology is added into the equation, we have a safer pilot.

    Technology can be a value added safety multiplier, or it can be a crutch needed to make up for lack of fundamental and advanced skills. Crutch or Safety Multiplier, which one will you choose? I know which one Aunt Betty prefers.

    Charles McDougal is a flight instructor, corporate pilot, and former DPE ‎who offers basic and advanced flight instruction in the San Antonio area.  To find out more information about Charles or to contact him, visit his website, www.flighttrainingcoalition.com.

  • A Sad Reminder

    It was a rainy Thursday afternoon and I was eating lunch with my family when my phone rang. My wife and I had just been discussing how miserable the weather was, so it was only natural that about 30 minutes later I was soaking wet and sitting in one of our Aerostars getting ready to take off for Ohio. I didn’t have much information about who I would be flying, or why, but I knew that I was going to pick someone up to fly them home; something about a missing airplane. So off I went into the muck. My biggest concern at that point being whether or not my clothes would ever dry out.

    I arrived uneventfully and walked happily into the FBO, but found myself quickly in a very different atmosphere. It turned out I had two passengers to pick up, a husband and wife, and they had arrived at the FBO before me. As I walked in the door, the wife received a phone call. The person on the phone told her that search teams had found her father’s airplane crashed in the woods and that he was dead. I learned the rest of the details quickly and it was hard to stomach.

    She was travelling home that day to be with family until they were able to locate her father. She was pregnant with her first baby and was in her third trimester. The baby was to be her dad’s first grandchild. He’d owned a Lake Amphibian for years and had stayed at home to work while his wife was out of town. He was last seen leaving work on Tuesday of that week and was reported missing on Thursday by his co-workers. Airport security footage showed him pulling the airplane out and taking off at 20:48 (after sunset) on Tuesday night.

    After a few minutes we loaded the Aerostar and took off. It was the saddest flight I’ve ever done. Understandably, my passanger sobbed on and off from the time she got off the phone until we landed a couple of hours later. The weather seemed appropriate as we flew along through the rain and were greeted at our destination by a grief stricken family and a few reporters.

    I said a sad goodbye and left, but I couldn’t help but think about their situation. It really hit close to home with me as it was easy to draw parallels between my family and theirs: she was very close in age to me and pregnant with her first child. My wife and I were new parents. Her dad had owned his airplane for about the same length of time that my dad has owned his Bonanza. Additionally, it isn’t uncommon for my parents to go a couple days without being able to reach each other because they both travel.

    A Lake 250, the same type of aircraft involved in the accident.

    But what happened..?

    In the time since the accident, the NTSB has published their findings and unfortunately, it makes the situation sadder. It was completely avoidable.

    Airport security cameras showed that after removing the airplane from the hangar, the pilot did not complete a preflight inspection or even a walkaround of any kind. He simply climbed in and left. The investigators were unable to find any traces or odor of fuel in the wreckage, nor any mechanical abnormalities with the airplane. In fact, according to the report, the engine was put on a test stand and ran perfectly. It would seem that the pilot simply never checked the fuel quantity and took off. The airport cameras captured the take off and a bright flash about 30 seconds after the aircraft departed.

    Here is an excerpt from the report:

    The National Transportation Safety Board determines the probable cause(s) of this accident as follows:  The pilot’s attempted 180-degree return to the runway immediately after takeoff in dark night conditions, which resulted in collision with trees and terrain. Also causal was the pilot’s inadequate preflight inspection, which resulted in a takeoff with little-to-no fuel on board the airplane.

    Interestingly, the report also details their ability to use logbook information and fuel receipts to show the airplane was taken on a long cross country on its last flight and likely not fueled again.
    Another thing which stuck out in my mind upon learning the details of the crash was how important it is to let someone know when you’re going flying. Having another person know roughly when a flight is leaving, where it’s going and and when to expect it back could potentially save the lives of the people on board. In the case of this accident, the pilot didn’t alert anyone that he was going flying and therefore, no one realized he was missing for 2 days.

    From reading the NTSB report I don’t get the impression that he survived the crash, but I can’t help thinking about the possibility that he, or others in similar circumstances, could survive a crash and then die from their injuries because no one knew to look for them. When I flew charter, we weren’t legally allowed to take off VFR without letting someone at the company know the details of the flight. I’ve adopted this as my personal policy as well. One text message could be the difference between being rescued or not.

    Finally, every pilot should ensure that a proper walk around is completed! It’s easy to assume everything is okay with an airplane, especially one that no one else has access too. In addition to a thorough preflight, I like to walk all the way around the airplane and visual check fuel caps, doors, chocks, ropes, etc., immediately before getting in to ensure that everything is ready. I know a couple of pilots who have taken off with various panels and compartments open simply because they got distracted during their walk around and never closed them. (A good policy is to never walk away and leave something open). Perhaps even more mind boggling is that he apparently didn’t look at the fuel gauges after start up and before take off. I also have to wonder how much fuel he had remaining upon completion of the previous flight.

    “Aviation in itself is not inherently dangerous. But to an even greater degree than the sea, it is terribly unforgiving of any carelessness, incapacity or neglect” is likely a familiar quote to just about every pilot. It is often written on a poster with a picture of an old timey bi-plane hanging out of a tree, but I think that it is absolutely on point. Carelessness in the preflight and neglecting basic pilot responsibilities (in this case fuel planning) cost this father his life and his opportunity to meet his first grandchild.

    I know this article is a real downer, but it’s supposed to be. Its tragic that accidents take place which are completely avoidable. Obviously this case was beyond the normal realm of carelessness and neglect, but, we as pilots need to be extremely careful not to get so comfortable with an airplane that we stop doing the things which are so basic and important to safety. One of my professors in school used to say “aviation is fun, but it plays for keeps,” which is an effective way to remind myself how important it is to do it right.

    *Out of respect to the family, I have not included any specific names, tail numbers or airports in this article.

  • Stephanie Mertz Joins Texas Top Aviation

    Texas Top Aviation has added a new member to our instructing team. Stephanie Mertz was hired in March 2019 and will be specializing in G1000 & Instrument instruction.

    Stephanie graduated from LeTourneau University in Longview, Texas with a degree in Aeronautical Science, earning her commercial single and multi ratings while there. She began her aviation career in Ontario, California flying a Pilatus PC-12 for charter and medical trips. While operating the PC-12, she gained valuable experience flying all over the US and Mexico.

    In 2013, Stephanie moved back to East Texas with her husband where she worked as a contract pilot flying a variety of Citations as well as a Falcon 10. A few years later, she became involved in her local Ninety-Nines chapter and joined their mentorship program.

    After earning her CFI, CFII, and MEI, Stephanie returned to her alma mater to pass on her flying passions to college students through flight instructing. After a year of teaching at LeTourneau, she and her husband, with their first baby in tow, moved to the Austin area. Now she is instructing with Texas Top Aviation while acting as a mentor for other women working on achieving their flying dreams.

  • Dry Motoring a PT6

    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.

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