User talk:CorporateM/avionics
COI Contributions
editI have a financial COI with Honeywell in that they’ve recruited me to help them navigate through Wikipedia and COI Best Practices. I would like to request consideration and help from impartial editors in regards to some suggested content. User:King4057 (COI Disclosure on User Page) 19:24, 18 April 2012 (UTC)
History
editThere's a slightly awkward sentence that starts with "Avionics in the 1970s...[citation needed]." Suggest we replace or add with
- Many modern avionics have their origins in World War II wartime developments. For example, autopilot systems that are prolific today were started to help bomber planes fly steady enough to hit precision targets from high altitudes.[1] Modern avionics is a substantial portion of military aircraft spending. Aircraft like the F-15E and the now retired F-14 have roughly 80 percent of their budget spent on avionics. Most modern helicopters now have budget splits of 60/40 in favour of avionics.[citation needed]
Modern Avionics
editI would like to start a short section on avionics in the NextGen and SESAR projects:
- Avionics plays a heavy role in modernization initiatives like the Federal Aviation Administration's (FAA) NextGen project in the US and the Single European Sky ATM Research (SESAR) initiative in Europe. The Joint Planning and Development Office put forth a roadmap for avionics in six areas:[2]
- Published Routes and Procedures – Improved navigation and routing
- Negotiated Trajectories – Adding data communications to create preferred routes dynamically
- Delegated Separation – Enhanced situational awareness in the air and on the ground
- LowVisibility/CeilingApproach/Departure – Allowing operations with weather constraints with less ground infrastructure
- Surface Operations – To increase safety in approach and departure
- ATM Efficiencies – Improving the ATM process
- Avionics plays a heavy role in modernization initiatives like the Federal Aviation Administration's (FAA) NextGen project in the US and the Single European Sky ATM Research (SESAR) initiative in Europe. The Joint Planning and Development Office put forth a roadmap for avionics in six areas:[2]
Monitoring
editI would like to improve the Monitoring section on glass cockpits with the below expanded version
Monitoring section
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The first hints of glass cockpits emerged in the 1970s when flight-worthy cathode ray tubes (CRT) screens began to replace electromechanical displays, gauges and instruments. A “glass” cockpit refers to the use of computer monitors instead of gauges and other analog displays. Aircraft were getting progressively more displays, dials and information dashboards that eventually competed for space and pilot attention. In the 1970s the average aircraft had more than 100 cockpit instruments and controls.[3] Glass cockpits started to come into being with the Gulfstream G-IV private jet in 1985. One of the key challenges in glass cockpits is to balance how much control is automated and how much the pilot should do manually. Generally they try to automate flight operations while keeping the pilot constantly informed.[3] |
Aircraft flight control systems
editI would also like to improve the Aircraft flight control section with some general improvements expansion as below. Note the mention of Honeywell in a bit of historical trivia.
Aircraft Flight Control
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Aircraft have means of automatically controlling flight. Today automated flight control is common to reduce pilot error and workload at key times like landing or takeoff. Autopilot was first invented by Lawrence Sperry during World War II to fly bomber planes steady enough to hit precision targets from 25,000 feet. When it was first adopted by the US military, a Honeywell engineer sat in the back seat with bolt cutters to disconnect the autopilot in case of emergency. Today it’s equipped on most commercial planes to reduce pilot error and workload at key times such as landing or takeoff.[4] The advent of fly by wire and electro-actuated flight surfaces (rather than the traditional hydraulic) has increased safety. As with displays and instruments, critical devices that were electro-mechanical had a finite life. With safety critical systems, the software is very strictly tested. |
Misc
editHoneywell was recently given the National Medal of Technology by Obama[1] for inventions like the Ground Proximity Warning System (GPWS) and the Enhanced Ground Proximity Warning (EGPWS). The GPWS was invented in 1972. These are a big deal in the aerospace industry and of historical value, but they are also basically Honeywell products. The current article doesn't have much history, so would I be producing some form of undue weight if I contribute to these historical landmarks Honeywell was involved in?
Weather Systems
editCan we add to this section?:
BlackBoxes
editCan we add a section on black boxes? The Air France Flight 447 trivia may be better located on the actual flight recorder article...
- Main Article: Flight recorder
- Commercial aircraft cockpit data recorders, commonly known as a “black box”, store flight information and audio from the cockpit. They’re often recovered from a plane crash to determine the cause of the incident.
References
edit- ^ By Jeffrey L. Rodengen. ISBN 0-945903-25-1. Published by Write Stuff Syndicate, Inc. in 1995. “The Legend of Honeywell.”
- ^ "NextGen Avionics Roadmap" (PDF). Joint Planning and Development Office. September 30, 2011. Retrieved January 25, 2012.
- ^ a b Avionics: Development and Implementation by Cary R. Spitzer (Hardcover - Dec 15, 2006)
- ^ By Jeffrey L. Rodengen. ISBN 0-945903-25-1. Published by Write Stuff Syndicate, Inc. in 1995. “The Legend of Honeywell.”
- ^ Ramsey, James (August 1, 2000). "Broadening Weather Radar's Scope". Aviation Today. Retrieved January 25, 2012.
- ^ Fitzsimons, Bernard (November 13, 2011). "Honeywell Looks East While Innovating For Safe Growth". Aviation International News. Retrieved December 27, 2011.