3 Tips to Better Landings

In my 3,000+ hours of flight training, I have developed some tips and tricks to help people fly better.  With teaching landings, I have 3 specific tips that will make smoother landings every time, guaranteed.

A Good Pattern

A wise flight instructor whom I would love to give credit to (but don’t know who it is!) once said that a good landing starts off with a good traffic pattern.  So true!  A good landing all begins with the setup.  This is true for a VFR rectangular traffic pattern or an IFR instrument approach.  Flying the proper speeds and being at the proper AGL altitudes helps immensely in making a good landing. Being at 600 feet AGL on a 1/2 mile final (or the alternative of 60 feet off the ground on a mile final!) makes it hard to make a good landing.

Proper Use & Understanding of Pitch and Power

Once flaps are used in the pattern, the plane is now on the back side of the power curve (or in the region of reverse command).  Power is now being used to control the plane’s rate of descent while pitch is being used to control airspeed.  The key is, both pitch and power work together, so if the pilot changes the power, he’ll also need to change the pitch and vice versa.

The common mistake I see here is when the airplane gets low on final, the pilot tends to (quite naturally) pitch up.  All this does is bleed off airspeed and cause the airplane to sink faster.  The proper input would be to add power, then adjust the pitch for airspeed.

Look Down the Runway

Now that we have gotten to the point of the round-out and touchdown, it’s the most important part.  The best thing the pilot can do to make the best landing possible, is to look at the trees at the end of the runway.  When I worked with college students, I told them to find the owl in the trees at the end of the runway.

The tendency is to stare at the pavement (or concrete) the whole way down to the landing.  When a pilot’s eyes are fixated on the ground, this destroys his depth perception and causes a level off too low to the runway, resulting in a 3 point landing and/or a bounce.

By looking at the trees at the end of the runway, this gives the pilot much better depth perception and allows him to properly judge where to level off the airplane.

The question now is when should the pilot start looking at the trees?  My recommendation is crossing the threshold of the runway.  For some, it works better to start looking at the trees when turning final.  Others, right before the level off.  Regardless, find that owl!

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    It took me a second to think about how to do this the easiest (without setting up the VOR and watching the DME).  After a moment’s thought, it’s actually a snap with the G1000.  You create 2 user waypoints, one for each Radial/DME spot, then put those 2 user waypoints in your Flight Plan.

    Here’s how.

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    Using the big knob, go to the Waypoint chapter.  Once there, scroll down to the User Waypoint page using the small knob.

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    Press the New soft key.  If you want to name the waypoint something specific, you can do that at the top of the page.  If not, it will default to something like VOR 1 or VOR 2.

    Step 3

    Under Waypoint Type, use the small knob to select RAD/DIS (stands for Radial/Distance).

    Step 4

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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.

  • Hank Gibson Earns ABS Instructor Designation

    ABS Instructor

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    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!

     

     

  • Garmin GFC 700 Autopilot

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    I train a lot of pilots in airplanes that have the Garmin GFC 700 autopilot.  The Cirrus SR22, the Columbia 350 & 400, the G36 Bonanza, and the Piper Mirage and M350 to name a few.  The most common problem I see for pilots transitioning into the Garmin GFC 700 equipped aircraft is that it doesn’t act like other autopilots.

    STECs and DFC 90 Autopilots function like this:  you push the button for the mode you want on the autopilot controller and that turns the autopilot on.

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  • Rudder Use

    I have the blessing (same say it’s a curse) of being a tailwheel pilot. I did my tailwheel training in a Citabria and have gathered about 400 hours over the years in Citabrias, Super Cubs, and Maules (don’t judge all tailwheel airplanes by a Maule, by the way. The Maule is it’s own unique animal). The blessing of being a tailwheel pilot is that it greatly enhances my stick and rudder skills for all airplanes.

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    Where I want to focus is rudder use in the landing phase. As an airplane comes down final, there are several forces that are be acting on the airplane. When it’s bumpy, updrafts and downdrafts are moving the plane up and down and all around. To correct for a bump that sends the airplane into a roll, aileron is added in the opposite direction of the roll. That aileron input also induces adverse yaw, pulling the nose of the airplane in the opposite direction that the pilot is moving the ailerons.

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    If you remember for a crosswind landing: “Aileron into the wind to stay over centerline, opposite rudder to straighten the nose.” Too much aileron and the plane will drift into the wind. Too much rudder and the nose will yaw in the opposite direction.

    Rudder is very important, even in our day and age where a lot of general aviation airplanes have yaw dampers. Our feet only have a job for a short period of time, but that is the most critical time. An excellent way to get more proficient in rudder use is to go get a tailwheel endorsement. If you are in the central Texas area, check out TacAreo in Fredericksburg, T82.

    Don’t let your feet fall asleep!

  • Cirrus CAPS Saves Lives Again

    In July, a Cirrus SR22 suffered an engine failure in Houston after departing KIAH.  The CAPS system was deployed and the airplane came to rest in a neighborhood on the north side of Houston.  This makes CAPS save number 53 for Cirrus and no fatalities.  The initial NTSB report is below.

    N422PB CAPS

    14 CFR Part 91: General Aviation
    Accident occurred Tuesday, July 07, 2015 in Houston, TX
    Aircraft: CIRRUS DESIGN CORP SR22, registration: N422PB
    Injuries: 2 Minor.
    This is preliminary information, subject to change, and may contain errors. Any errors in this report will be corrected when the final report has been completed. NTSB investigators may not have traveled in support of this investigation and used data provided by various sources to prepare this aircraft accident report.

    On July 7, 2015, about 1137 central daylight time, a Cirrus SR-22 single-engine airplane, N422PB, descended under the canopy of the cirrus airframe parachute system (CAPS) and landed in a residential neighborhood at Houston, Texas. The pilot and passenger sustained minor injuries, and the airplane was substantially damaged. The airplane was registered to and operated by AIRCCS, LLC; Humble, Texas, as a 14 Code of Federal Regulations Part 91 business flight. Day visual meteorological conditions (VMC) prevailed and a flight plan had not been filed. The airplane departed George Bush Intercontinental/Houston Airport (IAH), Houston, Texas, at 1133 and was destined for Austin Bergstrom International Airport (AUS), Austin, Texas.

    The pilot reported that during initial climb, he noticed the engine temperatures began increasing and he reduced power in an attempt to lower the engine temperatures. When the airplane was about 900 feet above ground level (agl) the engine began detonating, and soon after there was a complete loss of engine power. With no suitable forced landing areas the pilot deployed the CAPS ballistic parachute system and the airplane impacted terrain and came to rest upright next to a residence.

    An initial on-scene wreckage examination showed there was adequate fuel on-board. At the facility where the airplane had most recently been refueled, refueling unit records and a review of security camera video showed that the airplane had been refueled with aviation gasoline and not with jet fuel. Postaccident fuel quality checks of that fuel facility were satisfactory.

    The wreckage was moved to a different location and will be further examined. Several avionics components containing non-volatile memory (NVM), including engine performance data, will then be removed from the wreckage for examination and an extraction of useful data is expected.

    At 1053 the Automated Surface Observation System at IAH reported wind from 160 degrees at 15 knots gusting to 20 knots, visibility 10 miles, scattered clouds at 3,000 feet agl, broken clouds at 25,000 feet agl, temperature 31 degrees Celsius (C), dew point 24 degrees C, and an altimeter setting of 30.03 inches of Mercury.

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