|
Images related to this file:
|
File Description:
The B-2A Stealth Bomber is the most sophisticated aircraft on the planet. She is essentially a “Flying Wing” platform with no V-Tail, and is controlled by pre-programed flight computers stationed in various positions within the crew cabin and wings. There is one main computer that controls the aircraft, with two redundant back-up computers assigned to it in case of failure. All additional computers are assigned to functions involving flight control, system monitoring, data communications, and radar. Engine and Aerodynamic effects are controlled by these computers which serve several actuators and ailerons, including the spoilerons, which further compensate for the lack of a V-Tail. In theory, and because of these computers, the aircraft is “Stall-Proof”. The only way it can stall is if the computers fail. There is no way she can be flown without the computers active. The REAL aircraft does almost everything based on pre-programed data, other than taxi to the runway (although this is also possible to program). Before each flight, the Mission is designed and then assigned to the Mission Flight Box (Portable Computer) which is then carried by the Commander to the aircraft, and the data from the box is “transferred” to the main on-board computers. Because of this, the B-2 cannot be flown until the box is ready for the mission, and pilots cannot simply jump in and fly her, with the exception that the data is transferred via satellite. Everything is pre-planned, and this takes several hours. Once the data is on-board, the taxi can begin. When lined-up on the runway, all the pilot needs to do is push a button or three. Everything else is computer controlled until landing. The aircraft CAN be flown manually with basic data inputs into the main computer systems, but even in that case it is not conventional. If a pilot wants to turn right, he sets the data to turn to a certain degrees of heading. The same with climb and descent, speed increase or decrease. A pilot cannot over-ride the computers in any case, so steep banks, climbs, or descents cannot be forced. There is a lot of space for the two member crew within the cockpit, but there is also a space reserved for one observer. This additional seat is known as “Suicide Position” because there is no ejection seat for that observer. In the event of a mishap, the observer can try to bail-out through the ejection hatches after the pilots, or can try the exit ramp door, or the bomb bay as an exit route. The odds of escape for the observer are very small, but he has a parachute as reassurance. Otherwise, what the crew does during missions is only a guess, since they really don't have to do anything unless an alarm goes off. Since the plane flies so smooth, we can only imagine what sort of things they may dream-up to entertain themselves during a long flight. High altitude flights are conducted at night mainly due to the obvious contrail such a flight will exhibit during the day with such hot engines. The engines are encased in a heat absorbing shield material (still exhaust exists), and the rest of the plane is coated with Radar absorbant material, with the additional low profile effect of the aircraft design itself. If it can be seen by the ground or a fighter, it can be attacked by fighters or the ground. During daytime flight they will stay below the contrail level, and monitor the radar systems in preparations for counter-measures. If a fighter can visually observe them, the fighter may be able to shoot them down with bullets from behind, but not likely with missiles because of the sophisticated counter-measures available. On Radar the aircraft appears the size of a pigeon, until about 8 to 10 miles away, which would be too late to counter from the ground, so most attacks are either done at night or during the day at very low altitude. Upon landing the aircraft is automated down to about 200 feet AGL, when the pilot takes command. All she/he does at this point is allow her to glide down and contact the runway, and retard the engines. Brakes are used to slow, then the computers are turned off, and the pilot can control the throttles, nose gear, and brakes. The Commander watches for obstructions, mainly, and communicates with the tower and ground crew. Everything in this model has been reconfigured to meet realistic standards, without any tricks or flight tuning, and following real world aerodynamic principals and available data, including MOI. The panel requires study before use, but very realistic. The sounds are very authentic. There is no other model offered anywhere that compares to what you have now available in front of you. Please read and study the Readme.txt file within the main folder before attempting to fly this 2.2 Billion Dollar aircraft. Yes, that's correct ... $2,200,000,000 each! The use of this model, and the configuration of such, is designed for educational purposes, and protected by the Free Use Act: (https://www.law.cornell.edu/uscode/text/17/107). The Authors will not approve redistribution for monetary purposes. Original aircraft design by Alphasim; VC Adaptation, panels and gauges by Philippe Wallaert; Sound by Ruggero Osto; REAL WORLD Engine/Aerodynamics, data and effects by Douglas E. Trapp (KC6ZOF@Yahoo.com) June 2018
|
| Filename: |
b-2adet.zip |
| License: |
Freeware |
| Added: |
2nd June 2018, 17:16:30 |
| Downloads: |
965 |
| Author: |
Douglas E. Trapp |
| Size: |
15168kb |
|
|
Images related to this file:
File Description:
This is the third of five sceneries around Lac Saint-Jean in Quebec, Canada. Saint-Honore is a village on a crossroads 32 miles east of the lake, and the airport, called Chicoutimi in the Nav Canada Flight Supplement, is a mile or so east of the village. It is of the familiar triangular military design with three runways 12-30, 06-24, and 18-36. Of these, the longest is 12-30 at over 6,000 feet and has approach lighting and glide slope indicators. Of the other two 06-24 is now closed, but this scenery is based on the 2010 situation with all three open. There are two apron areas, one just to the south of 12-30 and a second to the northwest of 06-24 and served by a separate taxiway. The largest operator is a training establishment based on the northern apron and with a sizeable fleet of Beechcraft trainers (Skipper) that does not exist as an FS9 plane, so these are represented by a similar stand-in substitute. There is also a helicopter emergency evacuation operation to the east of the large control tower, and other hangars. The south apron has two main companies, Max Aviation and Exact Air, both of which run local regular scheduled flights in the area (though both appear to have now subcontracted these out to other companies) and also engage in training and charter flights. There is also a parachute training company. The ai includes flights by the companies on the field and also GA. The list of AI planes is explained in the AI folder, with details of downloads etc. The fleet of training aircraft is one of the planes in the revised (by Nick Tselepides) Piper Aircraft, designed for AI Traffic by Andras Neumann with a Paintkit by Charles Dayhuff adapted by Graham Eccleston, and Paints by Graham Eccleston, Andras Neuman and Frank Cooper along with the trainer repaint by Nick Tselepides. The Max and Exact aircraft textures are approximations by me; apologies. The use of the runways also as taxiways complicates the AI on runway 12-30 as directed by ATC. The AI will always leave 12-30 by the earliest exit, which means that the fleet of trainers will exit to the southern apron but will then taxi back onto the runway to reach taxiway A or runway 36 (according to wind direction) to proceed to the northern apron. In real life they land long and then taxi straight to the end of the runway to reach taxiway A or runway 36 without using the south apron at all. There is no way to correct this so just be ready to go around.
| Filename: |
chicoutimi_qc.zip |
| License: |
Freeware, limited distribution |
| Added: |
12th November 2017, 17:35:21 |
| Downloads: |
331 |
| Author: |
Roger Wensley |
| Size: |
31330kb |
|
