Guidelines for Buying an Airplane

Dr. Mary Ann O’Grady

So what comes first: the pilot’s license or buying an airplane? At first glance, this question seems to elicit a fairly straightforward response that an individual would not be buying an airplane if he or she was not planning on flying it personally. However, business entities, organizations, associations, and even individuals often purchase aircraft with the intent that they will be hiring a corporate pilot to transport them in their own airplane. There is one other category of individuals who makes the decision to purchase an aircraft prior to completing their private pilot’s license, because it provides him or her with the incentive to finish his or her pilot’s training by removing the option of quitting due to the financial investment that is now sitting on the tarmac or in the hanger as a constant reminder of that individual’s commitment.

What to Look For When Buying an Airplane

Whichever option comes first, there are specific guidelines that should be followed to ensure that buying an airplane runs as smoothly as possible. Financing is at the top of the list as many individuals and/or companies do not enjoy the luxury of paying cash for their aircraft. It is often wise to remember that the aircraft purchase is the least expensive part of owning an airplane, due to the costs of items like insurance, periodic inspections, and required maintenance, so investigating the operating costs and loan information then becomes a priority. Another financial consideration is the valuation or online Vref of the aircraft under consideration, which allows the prospective buyer to see if it is reasonably priced. In addition, conducting a pre-purchase inspection helps to eliminate any unanticipated [and typically unhappy] surprises. It is important to verify that parts are still available for the aircraft and that the local mechanics are able to work on it. Taking the airplane for a test flight prior to purchase is the best way to determine if it is a good fit for the skill level of the buyer. A thorough examination of the aircraft logs is a must and non-negotiable. Any evidence of an unusual entry should immediately raise suspicion, such as “replaced sections of fuselage skin,” which could be an indication of a gear-up landing. While still compiling the financial obligations of buying an airplane, it also becomes necessary to research the cost and availability of aircraft insurance.

Probably one of the most common errors in purchasing an aircraft is making an impulsive buying decision without fully considering the effects of that choice, rather than analyzing the requirements realistically and carefully [want versus need scenario]. To avoid purchasing more aircraft than is needed or can be used, it is wise to reflect upon whether all those fancy bells and whistles are really warranted. Renting the type of aircraft of interest is an excellent and less-expensive way of seeing how well it suits the frequency and duration of anticipated flights. Since the amount of the loan, as well as the interest rate, has a substantial impact on the total cost of the purchase, it pays [no pun intended] to invest considerable effort into finding the best source of financing.

A Cessna 182 on the runway

Photo by: Jeremy Zawodny

The major factors that affect the resale value (valuation) of the aircraft are the following:

  • Engine hours where the closer an engine is to its recommended between overhaul (TBO), the less its value but equally important is a record of its consistent use combined with a good maintenance program.
  • Installed equipment which includes avionics, air conditioning, deicing gear, and interior equipment where the avionics constitutes the biggest ticket item increases the value of the aircraft; however, older equipment is typically far more expensive to maintain.
  • Airworthiness Directives or ADs are issued by the FAA for safety reasons, and once issued, the owners of the aircraft are required to comply with the AD within the designated time period. The AD history should be reviewed for the nature of the ADs as well as whether they are recurring or a one-time compliance. The log books should indicate compliance with all applicable ADs which can be found through an online Internet search.
  • Damage history that indicates major repairs can significantly affect the value of an airplane depending upon the type of accident, nature of the damage, and the degree to which major components of the aircraft were involved. Any aircraft indicating a damage history must be closely examined to ensure that it was correctly repaired in accordance with the applicable FAA regulations and recommended practices.
  • Paint/interior is used occasionally to give older aircraft a quick facelift so new or recent paint jobs must be carefully checked for any evidence of corrosion under the surface, and interior items must be checked for a correct fit and condition. If done properly, both items enhance the value of the airplane.
  • Exercise caution when reviewing the terminology used to describe the engine condition. A top overhaul translates into a repair of the engine components outside of the crankcase while a major overhaul involves the complete disassembly, inspection, repair, and reassembly of the engine to its specified limits. If an engine has received a top or a major overhaul, the logbooks must show the total time on the engine if it is known, as well as its prior maintenance history. A “zero-time” engine is one that has been overhauled according to factory new limits by the original manufacturer and is issued a new logbook without the previous operating history which usually has a higher value than the same aircraft with just an overhauled engine.
  • Aircraft records should include the following documents that have been maintained in proper order for examination: airworthiness certificate, engine and airframe logbooks, aircraft equipment list, weight and balance data, placards, and FAA-approved aircraft flight manual or owner’s handbook. Any missing documents, pages or entries from the aircraft logbooks can cause significant issues for the buyer as well as reduce the value of the aircraft. Prior to purchase, hire a trusted mechanic to thoroughly inspect the aircraft, and provide a detailed written report of its condition; the pre-purchase inspection should include at the very least, a differential compression check on each cylinder of the engine and any other inspections that may be necessary to accurately determine the aircraft’s condition. In addition to the mechanical inspection, the aircraft logbooks and all other records should be carefully reviewed for such things as the FAA Form 337 which is a Report of Major Repair or Alteration, AD compliance, the status of service bulletins and letters, and aircraft/component serial numbers. The ideal choice of mechanic to perform the inspection would be experienced and familiar with the issues that may be encountered on that type of aircraft, with the goal of making buying an airplane and ownership of the aircraft under consideration as rewarding as possible.
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5 General Aviation Aircraft Facts You Probably Didn’t Know

Anders Clark

There are a vast amount of different types and models of general aviation aircraft from a variety of manufacturers. And there are a lot of interesting facts and information about these different aircraft.  Here are five lesser known facts from the world of general aviation aircraft that you will hopefully find as interesting as I did.

The Longest Continual In-Production General Aviation Aircraft

So, you’ve probably heard before that the Cessna 172 Skyhawk is the most produced aircraft of all time. However, though this is true, it’s not the general aviation aircraft with the longest continual production run. Delivery of the first of 172s started in 1956, but in 1986, Cessna was forced to stop production of all single engine aircraft for a decade due to the increasing cost of lawsuits and insurance. So, who’s the winner?

The Beechcraft Bonanza, the longest continually produced general aviation aircraft, in flight

Photo by D. Miler

Buh bah duh buh bah duh buh bah duh buh, Bonanza! The Beechcraft Bonanza, that is. With the first Bonanza’s being delivered in 1947, the Bonanza has been in continual production for 69 years, making it the winner. During this time, more than 17,000 Bonanzas (including variants) have been produced, putting it a respectable 15th on the all-time production list. Even more amazing, during the aforementioned period of hard times in the 80s and 90s that hit all aircraft manufacturers and stopped production of most other single engine aircraft, Beechcraft was able to keep the Bonanza (and their twin-engine Baron) in production.

The next closest competitor was the Russian-made Antonov AN-2, a single engine Biplane. The AN-2 started production in the same year, 1947, as the Bonanza. However, production stopped in 2001, after 54 years. China started building variants of this aircraft around that time, which some think keeps the streak alive, but in the case of a tie, I figure the Bonanza gets the win with the clearer claim.

The First Airplane Manufacturer

Speaking of aircraft manufacturers, who was the world’s first to start making production aircraft? You may expect a name like Cessna, Boeing, or Piper to pop up, but it was actually some brothers. No, not those brothers (though they weren’t far behind), but rather the Irish Short brothers, Eustace, Oswald and Horace. The Short Brothers actually started their business in 1897, to manufacture baloons. However, in 1908, after hearing reports from the Royal Aero Club of the Wright Brothers demonstration of their aircraft in Le Mans, they shifted gears towards production of airplanes. By November of 1908, the three borthers had registered their partnership under the name Short Brothers and were ready to start taking airplane orders.

Their first two orders came from Charles Rolls (one of the co-founders of Rolls-Royce) and Francis McClean, a founding member of the Aero Club and repeat customer who would also act as a test pilot for the Short Brothers. So they set to work on a pair of designs, and exhibited McClean’s aircraft, the Short No. 1 Biplane, in March 1909 at the British Aero Show. They also were able to obtain the British rights to manufacture aircraft based on the design by the Wright Brothers.

Short Brothers is still around today though it was acquired in 1989 by Canadian aerospace giant Bombardier. In addition to making aircraft components, engine components and flight control systems for Bombardier, they also provide these services to Boeing, Rolls-Royce, General Electric and Pratt and Whitney. Not bad for a trio of brothers a little more than a century ago.

OK, So What Was the First Mass-Produced General Aviation Aircraft?

Well, there appear to be two candidates for this honor, the Wright Model B, and the Bleriot XI. After achieving sustained, powered flight with the Wright Flyer 1 in 1903, the Wright Brothers developed a series of additional models, including the Wright Flyer III which is considered their first practical model, and was their first to carry a passenger. By 1910 (a busy year in which they were also establishing the first flight school), they arrived at the Wright Model B. Built and sold by the newly formed Wright Company, this was their first mass produced general aviation aircraft. From 1910 – 1914, they built an estimated 100 of these aircraft, with four of them going out a month at the height of production. Despite the number built, only one original Wright Model B survives fully intact, and it’s currently displayed in the Franklin Institute in Philadelphia, Pennsylvania. There is a second Wright Model B on display at the United States Museum of the Air Force in Dayton, Ohio, but it appears to have been manufactured after the original production run. Orville Wright is said to have inspected the airplane when it was displayed at the 1924 International Air Races, and called it a “mongrel.” Harsh, man.

Meanwhile, during this same time, Louis Bleriot was making waves over in Europe, after becoming the first person to successfully fly across the English Channel. He achieved this feat on July 25th, 1909, in his Bleriot XI. After the flight, demand for this aircraft took off (bah dum CHH) and by September 1909, Bleriot had received 103 orders for this aircraft. They started building, and production continued until the outbreak of World War I. Two of these aircraft have been restored to airworthy condition, one in the UK and one in the US, and they are thought to be the two oldest flyable aircraft in the world.

A Bleriot XI restored to flying condition

Owner Mikael Carlson flying a restored Bleriot XI, photo by J Klank

The Highest Fixed-Wing Landing Ever

So, there are some high altitude airports out there, with the recently opened Daocheng Yading Airport in China being the highest, at 14,472 feet (4,411 m). However, the highest landing by a fixed-wing aircraft ever is still thousands of feet above this. In April 1960, a prototype of the Pilatus PC-6 Porter, nicknamed “Yeti,” was landed on the Dhaulagiri Glacier at an altitude of 18,865 feet (5,750 m). The Porter, well know for it’s STOL capabilities, was described by Flying magazine as being “one of the most helicopter-like airplanes in terms of takeoff performance.”

And if that wasn’t enough street cred for one plane, the Porter also holds the record for the most take offs and landing in a 24 hour period, set while helping Skydiver Michael Zang achieve his goal of 500 skydives in a 24 hour period. Takeoff, reach 2,100 feet, Zang jumps, land, pick up Zang, and repeat. 500 times. The average length of each of these cycles was roughly 2 minutes and 45 seconds. Also, the Porter pilot Tom Bishop holds a record for the most consecutive takeoffs and landings with 424 over a 21 hour period.

Speaking of High Altitudes

The highest altitude obtained by a piston engine, propeller driven airplane is 60,866 feet. This was achieved in 1995 by a Grob Strato 2C, a twin-engine experimental aircraft specially designed for high altitude flight.

Italian Pilot Mario Prezzi, after setting the altitude record for single engine general aviation aircraft

Mario Prezzi

So, how about the single piston engine, propeller driven airplane altitude record? That would be 56,047 feet (17,083 m), a record set by Italian pilot Mario Pezzi. But here’s the truly incredible thing: Prezzi set this record on October 22nd, 1938, and the record still stands today. He set it in a Caproni Ca. 161 Biplane, with a pressurized, airtight cabin, and wearing a special pressure suit.

In Conclusion

These achievements and stories regarding general aviation aircraft reflect only a fraction of the ingenuity and achievements attained during the history of aviation. They represent a monumental push onward and upward, one that is joined and continued every day by scientists, engineers, pilots, and adventurers. I think the early pioneers of flight would be astounded by just how far we’ve come. Here’s to seeing how far we can go.

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Mixing Airplanes and Helicopters: Safe VFR Airport Operations in Class G

Wilson Gilliam, Jr.

A small, white helicopter floats across the sky, practicing different types of approaches to the Class G airport in Virginia. The student pilot pulls the red trigger switch on the cyclic, still timid with inexperience.

November 2045 Romeo turning right base, 28, Hampton Roads Airport.

The pilot of an incoming twin engine airplane, hearing the first radio call and unfamiliar with the area, maneuvers into a right-hand traffic pattern for the same runway a few moments later. The pilot is late to a meeting and still has to grab a rental car.

November 8077 Papa entering a right downwind, Runway 28, Hampton Roads.

UNICOM quickly pipes up over the CTAF (Common Traffic Advisory Frequency).

November 8077 Papa, this is Hampton Roads UNICOM. We have a right-hand traffic pattern for helicopters only. Fixed-wing aircraft are to use a standard traffic pattern.

These types of radio exchanges are sometimes followed by a few choice words that are broadcast to the public thanks to tense hands and inadvertently open mics. Airplanes and helicopters are both ingenious marvels of the modern world, but inherently possess different flying characteristics. These variations must be planned for, especially at airports without an operating control tower, in order to maximize safety and efficiency.

A small single engine airplane by a hangar - Mixing Airplanes and Helicopters: Safe Airport Operations

I have flown both airplanes and helicopters commercially for twenty-five years. I’ve seen my fair share of helicopter versus airplane arguments, near collisions and foot races across the ramp to prove the point in person (you should plan on being out of the aircraft by the time the other pilot gets there). Can’t we all just get along? Yes, we can.

The Federal Aviation Administration (FAA) has provided pilots with general rules pertaining to operations within Class G (uncontrolled) airspace. The FAA has a strong commitment to safety and is a regulatory agency. So, let’s use their position on the matter as a starting point for this discussion about airplanes and helicopters sharing the skies at uncontrolled airports.

The FAA’s 14 CFR (Code of Federal Regulations) Part 91 (General Operating and Flight Rules) states:

  • 91.126 Operating on or in the vicinity of an airport in Class G airspace.
    • (a) General. Unless otherwise authorized or required, each person operating an aircraft on or in the vicinity of an airport in a Class G airspace area must comply with the requirements of this section.
    • (b) Direction of turns. When approaching to land at an airport without an operating control tower in Class G airspace—
  • (1) Each pilot of an airplane must make all turns of that airplane to the left unless the airport displays approved light signals or visual markings indicating that turns should be made to the right, in which case the pilot must make all turns to the right; and
  • (2) Each pilot of a helicopter or a powered parachute must avoid the flow of fixed-wing aircraft.

Note that 14 CFR 91.126 (2) does not specifically indicate “how” the helicopter should avoid the flow of fixed-wing traffic. This provides helicopter pilots with some flexibility while remaining compliant.

Tips for Airplanes and Helicopters Sharing the Skies

Here are a few tips for helicopter pilots at Class G airports, with 91.126(2) in mind. Remember that communication and avoidance are key elements in successful coexistence with fixed-wing aircraft.

  • Familiarize yourself with the Airport Facility Directory (AFD) prior to making your trip.

Note any instructions regarding helicopter operations, non-standard fixed-wing traffic instructions, taxiway diagrams, FBO location(s) and any nearby obstacles.

  • Listen to AWOS, ASOS or other advisory service.

Note the wind direction and any special instructions regarding landing information for helicopters. If the wind is different than forecast, don’t be afraid to change FBOs (or other landing areas) if the decision safely creates less interference with other airport users.

  • Request an airport advisory approximately ten miles away.

Hampton Roads traffic, November 2045 Romeo, small white helicopter, 700’ 10 miles north, airport advisory, please.

Adjust altitude to preclude interference with airplane traffic pattern altitudes. Note any possible traffic conflicts and turn your landing light on. Be sure to use the terms “copter” or “helicopter” during all radio transmissions to avoid confusion over aircraft type. If you have questions about acceptable landing areas, ask UNICOM (if available).

  • Your approach path must avoid landing airplanes.

Hampton Roads traffic, copter 45 Romeo, one mile north, will make approach to taxiway Charlie, remaining north of runway 28.

A helicopter in flight - Mixing Airplanes and Helicopters: Safe Airport Operations

The slower approach speeds of helicopters make them especially vulnerable to being overrun. Utilize an approach path well clear of airplane traffic and plan on landing in an area that minimizes rotor wash to parked or taxiing fixed-wing. Be very specific during traffic updates regarding your approach path relative to the active runway. Acknowledge nearby traffic to help alleviate collision concerns. Don’t forget to look out for other helicopters, too.

I have found it usually best to plan the helicopter approach directly to my final destination at the airport. This permits efficiency for paying customers, while minimizing the impact of my operations across the airfield.

Remember that helicopter pilots are taxpayers, too. As long as helicopters are not impeding the flow of airplane traffic established in the pattern for the “purposes of landing,” helicopters have a right to use the normally smooth, wide runway surface. Sometimes, this is preferred when practicing run on landings or full touchdown autorotations from altitude. Fixed-wing airplanes waiting on the taxiway for take-off do not have the right of way over a helicopter on final approach or on the runway. FAR 91.113(g) clearly indicates that:

  • g) Landing. Aircraft, while on final approach to land or while landing, have the right-of-way over other aircraft in flight or operating on the surface…

Airplane pilots waiting for departure should comply with 91.113(g) and not incorrectly invoke 91.126(2) to try and force helicopters off of the active runway. Helicopter pilots should clear the active runway as soon as safely possible.

  • If it’s necessary to cross a runway after completing the approach, utilize sound runway incursion avoidance techniques.

Remain clear of any hold short lines for the runway while making a radio call prior to crossing. Avoid radio transmissions while crossing since this does not allow for possible warnings via radio prior to runway encroachment. Position your helicopter so that rotor wash does not create turbulence on the runway (note wind and traffic conditions). If there is a passenger or second pilot, confirm tail rotor clearance during pedal turns and that the runway is clear prior to crossing.

  • Use care during hover taxiing.

Hovering helicopters can make ground bound airplanes dance in the wind, pelting them with loose debris. Believe me; this does not foster warm and fuzzy feelings between swing-wing and fixed-wing.

Be careful not to taxi behind large airplanes performing engine run ups (or any condition requiring thrust). These situations can create possible loss of tail rotor effectiveness (LTE) or hitting cyclic control stops.

  • Use caution if operating near self-serve fuel pumps.

Helicopters landing and taking off near fuel facilities have substantial potential for creating conflict. Be aware of your rotor wash. If in doubt, land nearby, throttle down and wait for a safe opportunity to use that credit card. Pilots of smaller helicopters may be able to land a short distance away and push the aircraft to the pump with ground handling wheels. That’s a better option than making airplane drivers so upset that you can’t even sit at the restaurant lunch table. If it does happen by accident, buy your fellow pilot lunch. A nice lunch. Steak if they have it. Remember, as in life – your reputation follows you around.

  • If operating at the airport on a routine basis, sit down with the facility manager and develop a plan.

Helicopter on a runway, with an airplane - Mixing Airplanes and Helicopters: Safe Airport Operations

Meeting with the airport manager about routine helicopter operations is some of the best advice I can offer. Creating well-developed helicopter operating procedures for the airport will enhance overall safety and enjoyment. Discuss traffic patterns, reasonable landing sites based on wind and traffic conditions and recommend that other helicopter operators abide by the same guidelines. Encourage airport management to distribute helicopter recommendations via updates to the AWOS/ASOS recording, AFD commentary and written dissemination among airport based rotorcraft operators. Helicopter flight schools should consider including the resulting operational plan as part of their standard operating procedures (SOPs) provided to employees, students and renters.

Remember, it’s a big sky with room for both airplanes and helicopters, but a small airport. Safety and communication are the keys to the facilities.

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Sources:

14 CFR FAR Part 91

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