ASAP Parts Online Blog

The increasing complexity of aircraft engine systems has facilitated more requirements of proper lubrication. Aircraft engines require lubrication to prevent friction from reducing the engines’ efficiency; oil is the lifeblood of the engine. If the oil flow to the bearings stops, the lubricating films break down and cause degradation, wear and tear, and burning between moving parts. Fortunately, the engine fuel pump and oil system are very reliable. Like the circulatory system of the human body, they quietly perform their functions.

Within each flight cycle, an aircraft fuel system must deliver clean fuel to the engine at a proper flow rate to sustain flight— regardless of the operating conditions. A fuel system is composed of boost pumps, tanks, strainers, selector valves, pressure gauges, engine-driven pumps, and more.

In order to ensure optimal performance of your drone, it is important to consider battery care. Most drones run off of a rechargeable lithium-ion battery or lithium-polymer battery. There are a few common tips that manufacturers recommend preserving a battery’s power capacity. Take note of the following suggestions to ensure battery efficiency and longevity.

Aircraft are under a constant state of stress when logging flight hours. Boeing aircraft, for example, have the ability to fly upwards of 14 hours non-stop and their lifetime can extend anywhere from 20 - 27 years in operation. In this time, an aircraft will experience about 35,000 pressurization cycles and will undergo the associated, and often expected, degradation and parts fatigue. So, how do modern aircraft maintain their reliability and safety over time?

Despite the millions of dollars it costs to fly and maintain, aircraft have a surprisingly short lifespan with an average of around 30 years. Once the aircraft has to be retired, they go to boneyards— large plots of land where airplanes are parked until further notice. It’s interesting to learn about what happens at the world's largest boneyard— how aircraft life is determined and how retired planes are salvaged for parts.

When preparing for a flight, there are many things to worry about and consider like packing luggage, arriving at the airport on time, fitting the carry-ons in the overhead compartment, and so on. The one thing no one really thinks about and often does automatically, that’s boarding. And no matter if it’s the massive Airbus A380 or the luxurious Embraer Lineage 1000E, when we board a plane, we board on the left side. But most of us can’t even begin to explain why.

The efficiency of a gas turbine cycle rises as the turbine entry temperature is increased. Because of this, the hotter the combustion gases that go in to the first turbine stage, the more particular power the jet engine can create. In a modern engine, about twenty percent of compressed air bleeds off for cooling and sealing purposes. This is mostly for guide vanes and turbine blades. The stators and the outer wall of a turbine’s flow passage utilize cooling air moving from the compressor between the combustor and casing of the outer engine.

Earlier in the year, The Boeing Company finished up the flight tests for the newest model of the KC-46 Pegasus wide-body, a plane used to re-fuel other squad member’s during flight. Now they are waiting on word from the FAA to see if their new tankers can fly legally. More certifications are needed on this aircraft than normal because it is classified as a tanker, meaning it may take longer for the tanker to become airworthy.

Boeing Service restores its overseas crusader with an even larger aircraft The beginning of transatlantic flights began in 1919 and progressed over the years with bigger and more efficient aircrafts. One of the more modern accomplishments to date is the implementation of Boeings 747 jumbo aircraft to their transatlantic excursion from Austin, Texas to Heathrow, London. This daily nonstop flight was added to British Airways in March of 2014 which departs from Austin’s- Bergstrom International Airport.

Lake Forest, CA has been home to the testing of Panasonics third generation Ku-Band satellite network. This new innovative system will be allowed for Panasonic to be able to reach the needs of its customers but also be able to stay on top of the rapidly evolving industry of airborne network connectivity. It has been stated that a handful of airlines will be converting over to Panasonics new network following the completion of the satellite. The transitioning from the airlines will take place during the first part of 2018.