MMOPA announced the location for the 2022 MMOPA Convention. The 2022 Convention will be in Tucson, Arizona and will take place September 29th-October 2nd, 2022. The JW Marriott Starr Pass will be the host resort.
Thursday, September 29th will kick off the convention with a safety event for pilots and companions, lunch with exhibitors, and the return of the charity golf tournament.
Friday, September 30th and Saturday, October 1st will be when all the classes and seminars that make the MMOPA convention great are held. The Friday dinner will be at an aviation themed spot in Tucson while the annual auction and black tie affair will be Saturday night.
Stay tuned to the event details page on the MMOPA website to see when registration is opened.
Hank Gibson from Texas Top Aviation will be presenting a seminar on flying Garmin instrument approaches with the different Garmin GPS units. Whether you have a Garmin 530/430 unit, a Garmin GTN 750/650 unit, or a Garmin G1000, all will be discussed. You’ll walk away with some tips and tricks, plus a better understanding of your Garmin unit.
WINGs credit will be given for attending. The seminar is hosted by Redbird Skyport at the San Marcos Airport (KHYI) in Redbird’s large conference room. The seminar will begin at 10am on Saturday, June 30th, 2018.
It’s always quicker to fly than drive and Redbird has plenty of ramp space to accommodate seminar attendees.
Registration is required. Please visit the registration page on FAASafety.gov. Space is limited to 20 individuals, so please make sure you register if you want to attend.
There has always been something that felt wrong to me about how the walkway on many models of Beechcraft extends onto the right hand flap. I have never felt right about stepping onto the flap as I make my way into and out of my dad’s E33A Bonanza and therefore I generally try to step over top of it and place my foot on the wing instead. But does this effort actually make any difference, or am I just making my self look silly for no reason?
Well, as it turns out, it wasn’t such a bad idea. In 2007, a pilot flying a Beech reported a split flap condition. Upon inspection, it was found that there was damage to the actuation rod attachment as well as the nose rib and nut plates. Six other aircraft were checked and found to have similar damage. These findings were submitted to Hawker Beechcraft and in 2008 and they issued a maintenance alert regarding the issue. In 2011 the FAA issued SAIB CE-11-21 (Special Airworthiness Information Bulletin) to alert owners, operators, and maintenance personnel about the problem; specifically warning of the potential for cracking in the nose flap rib (part number 35-165050-84). And while its true that this type of damage is not limited to the right hand flap, it is known to be much more common on that side. Stepping over the flap instead of on it is recommended by both the FAA and Beechcraft as a solution.
Unfortunately, the flap cracking is known to span a wide variety of aircraft types. A 2011 “Safety Communique” issued by Hawker Beechcraft lists the affected models as:
-Bonanza 33, 35, and 36
-Baron 55, 56, 58, and 95
-Duke 60
Damage at the flap actuator point (Photo Courtesy of AOPA)
According the the FAA, the cracking can been found most commonly on airframes which are between 4,000 and 6,500 hours, but has also been found on aircraft with as few as 2,000.
So, what do we do about it?
First off, although much of the damage is difficult to detect without dis-assembly, the paperwork from both the FAA and Beechcraft recommend taking a look at the flap yourself to see if there are any obvious signs of problems. They also suggest taking special care looking in this area during your preflight inspections.
Next, if you have an airplane which may be susceptible to cracking, talk to who ever is doing your maintenance work and have them look carefully during your annual inspections. I talked to one of the IA’s at our shop who has dealt with this issue before and he told me that most shops will remove the flap and send it away to a repair station to have it fixed. It’s possible that if you purchased your airplane used it may have already had this issue taken care of; a quick look through the maintenance logbooks should clear up any questions.
Repaired rib next to a damaged rib (Courtesty: AOPA)
Regardless of whether your airplane is known to suffer from this problem or not, do your best to avoid stepping on the flap when getting in and out of the cockpit. It is also a good idea to ask your passengers to do the same as this simple act could end up saving you big headaches and big money someday down the road.
For more information regarding the flap issues discussed above, talk to your maintenance provider and visit these links:
The FAA started their Pilot Proficiency Award Program (commonly known as FAA WINGS) in 1996. It is run by the FAA Safety Team, or the FAASTeam. The intent of the program was, and is, to “improve the nation’s accident rate by conveying safety principles and practices through training, outreach, and education” (taken from faasafety.gov). The FAA WINGS program, free of charge, encourages pilots to pursue recurrent training to enhance their overall knowledge of all the aspects of aviation.
The FAA WINGS program has evolved over the years, but with the current structure, pilot’s accomplish tasks, both knowledge and flying, for credit that adds up to the equivalent of a flight review. Pilot’s must accrue three knowledge credits and three flight credits to complete a phase, and each phase acts as a flight review.
FAA WINGS has three levels, the basic, advanced, and master level. Under each level, you accomplish different phases. The basic level is “designed for pilot’s [desiring] a higher level of proficiency than … a normal flight review” (faasafety.gov). The flying tasks in the basic phase are based on the private or commercial pilot PTS, depending on the airman’s certificate level. The knowledge courses revolve around many different areas, all of which can be viewed on the FAASafety Team’s website. Most are free, but there are some courses that have a cost associated with them. In the advanced and master phases of the FAA WINGS program, the tasks have higher standards, challenging pilots to hold themselves to those higher standards.
One unique aspect of the FAA WINGS program is the opportunity to attend a safety seminar for credit. Throughout the year, there are many different safety seminars that take place in the different FSDO areas. The FAA WINGS seminars range from a study of accidents, to GPS usage and anything in between. You can even get FAA WINGS credit for attending the Bonanza BPPP or the Cirrus CPPP programs.
As an instructor, I highly recommend to all my customers to enroll in the FAA WINGS program and use it. This keeps pilot proficiency at a high level, which in turn keeps safety at a high level as well. Plus, you get to learn a lot too!
If you’d like to enroll in the FAA WINGS program, visit faasafety.gov to create an account. Then, find a good instructor and start working on those phases!
Density Altitude: Pressure Altitude corrected for non-standard temperature.
That’s the book definition of density altitude. The problem is, that definition leaves a lot of general aviation pilots scratching their heads. What really is density altitude?
All airplane engines rely on air and fuel mixing together, then that mixture is ignited to create combustion. Normally aspirated piston engine airplanes get their best performance at sea level, where the air is nice and thick, allowing plenty of air molecules to get sucked in the engine intake. As a normally-aspirated airplane climbs, the ambient air pressure drops with an increase in altitude (the air gets thinner, less dense), thereby reducing airplane takeoff, climb, and landing performance. There just isn’t as much air at higher altitudes, to put it simply.
Turbo charged piston engines assist with this air density problem. A turbo charger boosts the air coming into the engine and fools the engine into thinking it is at sea level pressure all the time. The higher the altitude, the faster the turbo charger spins, spinning the compressor faster, which compresses more air to continue to give the engine sea level pressure air. This gets faster cruise speeds the higher you go.
Both normally aspirated & turbo charged engines do experience longer takeoff rolls and reduced climb rates at higher airport elevations & higher altitudes.
How does this all relate to density altitude?
When the outside air temperature rises, the air becomes thinner, less dense. This means that when an airport elevation is 1,000 feet, but the density altitude is reported as 3,000 feet, the airplane engine thinks it is at 3,000 feet. It won’t accelerate as fast. The airplane’s climb rate will also be reduced. That means that the normal climb pitch attitude a pilot is used to seeing won’t be accurate at higher density altitudes. It will lead to slower indicated airspeeds, slow enough to potentially lead to a stall if a pilot isn’t paying attention.
Where does this get dangerous? High elevation airports. Whenever the OAT creeps above 85 or 90 at an airport that is higher elevation (I would classify higher elevation as 2,500 feet or higher), the corresponding density altitude sky rockets. If a pilot isn’t paying attention to airspeed or angle of attack (if the airplane is equipped with an AOA), a stall can come very quickly on climb out.
What to take home from this? Monitor your climb speed and angle of attack, especially right after takeoff, when you hear density altitude on the ATIS or AWOS.
For a long time, I was happy if an FBO had a radio where I could tune the ATIS or automated weather before getting into the plane. This would allow me to skip listening to the weather in the airplane with the engine running, giving me a quicker exit from the ramp while burning a little less fuel. I would also be able to brief my taxi route from the ramp since I would know which runway was in use before getting in the plane.
As we progress forward in technology, I’m constantly amazed at how much more planning I can do from the palm of my hand. Now, I can call a phone number and get the ATIS, AWOS, or ASOS, depending on the size of the airport; if you prefer reading a text version…well, there’s an app for that.
With this technology, it’s very important for pilots to be aware of what service they are utilizing when calling these numbers. Usually only a Class B or larger Class C airport will have a phone number specifically for ATIS as well as one for AWOS/ASOS. These are listed in the Airport/Facility Directory (AFD), as well as all flight planning apps (Foreflight, Garmin Pilot, Stratus Insight). More then one pilot has called the AWOS/ASOS number for an airport thinking they would receive the ATIS (because towered airports that have ATIS phone numbers often also have AWOS/ASOS phone numbers that are different). Since the pilot didn’t hear a code on the phone, that led to the false thinking that either the tower was closed or the pilot did not have the code (ie. Information Bravo) to give to ground control when calling for taxi instructions. The minute weather can be very useful for flight planning, but the ATIS must be received before contacting ATC at a towered airport.
Notice the red box just past halfway down the page. There is a phone number for the ASOS at KSAT and a separate phone number for the ATIS next to the frequency.
Sometimes, you may get a busy tone if someone else is on the line. Usually, waiting a few minutes and trying again will lead to success. Just like old school phone lines, only one call can go through at at time! If it’s a particularly stormy day, you may be fighting a number of pilots to get on the line. In this case, an app where you can read the ATIS may be particularly helpful (Yes, there actually is a dedicated ATIS App!).
The ATIS app allows us lowly pilots without an Aircraft Communicating and Reporting System (ACARS) to access the Digital ATIS (D-ATIS ) at airports where ATIS is available. Only 76 airports in the US have D-ATIS, most of which are either Class B or busier Class C airports. Foreflight also provides D-ATIS textually at the same 76 airports, though it is only accessible depending on which subscription level you have with Foreflight (since I’m not a Garmin Pilot or Stratus Insight user, I’m not sure if either of them give D-ATIS reports).
ATIS App Symbol
With Foreflight’s D-ATIS, it does not get updated over ADS-B, only when your iPad or phone have an internet signal. When inbound to an airport with D-ATIS, the pilot has to listen to the radio frequency to get the current ATIS. Foreflight will display the last D-ATIS it received, but typically, it’s old. Check the time in the upper right hand corner.
On the Airports page on Foreflight, tap Info, then tap Weather & Advisory and the phone numbers will display along with the ATIS frequency
On the Airports page, tab Weather, then tap D-ATIS, and the last received D-ATIS will display. Note the age of the D-ATIS in the upper right hand corner
Foreflight now offers Pre-Departure Clearance (PDC) at those same 76 airports. With either a pre-registered tail number or a Foreflight call sign (starting in FFL), once a pilot files an IFR flight plan, the D-ATIS and the IFR clearance in it’s entirety are texted to the phone number the pilot filed with. All that is left to do is call ground, state “I have information Romeo and my clearance, ready to taxi,” then away you go. Skipping listening to the ATIS and talking to Clearance Delivery saves a good 5-10 minutes at times, depending on how busy the airport is.
These days, there are many different avenues to get the current weather (and IFR clearances!). When calling on the phone, the key is to be aware, know which number you are calling and, if you are expecting to hear an ATIS message but instead hear the AWOS/ASOS, verify the Chart Supplement Guide and Notices to Airmen (NOTAMS) to check tower hours of operation before flying into the airspace.
Technology has made our job as pilots simpler, streamlined, and safer. With all the new GPS & autopilot technology that seems to come out every month, flying an airplane is getting easier every day (and when I say flying, I mean programming!). I can’t tell you the last time I actually used a VOR for navigation, other than a practice approach. The AIM even has guidance in it now allowing pilots to use the GPS overlay on a VOR or LOC approach instead of switching to the actual NavAid on the course needle (you have to WAAS in order to legally do this).
I hear the argument already. I am young (31) and used to all the different touchscreens because I have grown up with them. Tech is nothing new to me. It’s not that easy for everyone, I do understand. There is also the argument that all the tech causes pilots to not know how to fly the airplane, which is also valid. This is why I put an emphasis on hand flying in any kind of training I do.
For the sake of argument in this article, yes, I am young and I adapt to technology pretty easily. I’m not afraid to press buttons to figure out what they do, but I usually do it while sitting on the ground with a GPU hooked up (or I go look in the manual). And yes, all the autopilot ability has caused a decrease in base pilot skills. I actually encourage every customer I have to go get a tailwheel rating so that they can actually learn how to fly better. You don’t use a rudder much in a Cirrus compared to a Super Cub or a Citabria.
What I want to focus on for a few minutes is how to alleviate the frustration that comes with getting so wrapped up in the technology when it doesn’t do something that you want it to, or the wrong button gets pressed, then you end up somewhere you had no intention of being.
The biggest thing a pilot can do when it comes to technology is NEVER to get in a hurry. Good training is first and foremost, but, after that when flying without an instructor or even in recurrent training, SLOW DOWN and think through what you are doing and what you want the system to do. This will alleviate a ton of frustration.
It can be very easy in hot, turbulent weather to get tuned in to the GPS programming, trying to do five or six different things in the span of five or six seconds, before looking up and realizing that plane is 500 feet off altitude (without an autopilot) or you blew through the course you were supposed to be intercepting (with an autopilot).
What I teach is to slow down, whether or not you have an autopilot, and do one thing at a time. Once that item is done, look up at the instruments or the horizon, check on things, make sure the airplane is still flying properly, then do the next thing. Don’t try and do a bunch of things all at once or in a hurry. It will usually get you off course and off altitude, plus it distracts the pilot from his main job: Flying the airplane.
So, next time you want to do something on your GPS, pause, take a breath, think through what you want to do, then do one item at a time. The outcome will be less frustrating and you’ll keep flying where you want to go.
