Bombardier CSeries / Airbus A220

On September 1, 2013 4 Bombardier Aerospace announced that the first CSeries aircraft, Flight Test Vehicle 1 (FTV1), has successfully obtained Transport Canada’s Flight Test Permit, thereby clearing the way for its maiden flight. This follows a series of pre-flight tests including low-speed taxi runs.

“Five years in the making and today, following receipt of Transport Canada’s flight test permit, we are very close to the CSeries airliner’s first flight ” said Mike Arcamone, President, Bombardier Commercial Aircraft.

Designed for the growing 100 to 149 seat market, the 100% new CSeries aircraft family combines advanced materials, leading-edge technology and proven methods to meet commercial airline requirements. Powered by Pratt & Whitney PurePower PW1500G engines, the CSeries aircraft family will offer an extra capacity seating option.

As of June 30, 2013, Bombardier had booked orders and commitments for 388 CSeries aircraft that included firm orders for 177 CSeries airliners.

Bombardier sold the CSeries aircraft to Airbus. The CSeries became known as the A220, the single-aisle jet became a huge success for Airbus.

Bombardier Global 5000

Market and design studies began 1999, announced on 25 October 2001 as the Global 5000. Based on the Global Express, with a 1.83m reduction in fuselage length, and a 2,222km reduction in maximum range, the first flight took place on 7 March 2003
Two aircraft were utilised in the flight test programme.

Bombardier Global 5000
Engines: 2 x 64354 N / 6560 kp
Length: 96.752 ft / 29.49 m
Height: 24.836 ft / 7.57 m
Cabin height: 6.266 ft / 1.91 m
Cabin width: 8.169 ft / 2.49 m
Cabin length: 42.487 ft / 12.95 m
Wingspan: 225.230 ft / 68.65 m
Max take off weight: 87714.9 lb / 39780.0 kg
Cruising speed (mach): 0.89 mach
Range: 4800 nm / 8889 km
Passengers: 19

Bombardier BD-700 Global Express / Sentinel

BD-700 Global Express

The Bombardier BD-700 Global Express is a twin-engine ultra long range executive jet aircraft with two crew members and up to 19 passengers and 2 flight attendants. Development of the BD-700 started late 1991 and the programme launched on 20 December 1993, the dsign goal was the longest possible range at highest speed from a short runway. A wide-body fuselage, combining the Challenger cabin cross-section with cabin length of the Regional Jet, the prototype rolled out 26 August 1996. Bombardier had 60 firm orders by February 1997.

Bombardier BD-700 Global Express Article

The first prototype flew on 13 October 1996. On 31 July 1998, the Canadian certification was granted and the first customer delivery was completed on 8 July 1999 to AirFlite Inc of Long Beach, California.

The Bombardier Global Express business jet was certified by the European Joint Aviation Authorities on May 7, 1999. The approval was issued under JAR Part 25, through Change 14. Bombardier reported having 80 orders for the twin-engine jet. Transport Canada and the FAA certified the airplane in 1998.

The range of the Global Express is 11,390 km at a cruise speed of 904 km/h.
On 3 August 2001 the first Global Express fitted with the ASTO long range airborne surveillance system flew.
The Bombardier BD-700 Global Express is powered by two Rolls-Royce Deutschland BR-710A2-20 turbofans.
Total of 91 aircraft were in customer service by 30 September 2002.

Bombardier BD-700-1A10 Sentinel R.1 ZJ690

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Engines: 2 x BMW / Rolls Royce BR 710-48-C2, 66119 N / 6740 kp
Wingspan: 91.896 ft / 28.01 m
Wing area: 1021.934 sq.ft / 94.94 sq.m
Length: 98.983 ft / 30.17 m
Height: 25.0 ft / 7.62 m
Max take off weight: 93395.0 lb / 42356.0 kg
Weight empty: 48510.0 lb / 22000.0 kg
Max. speed: 505 kts / 935 km/h
Cruising speed: 475 kts / 880 km/h
Service ceiling: 51001 ft / 15545 m
Wing load: 91.43 lb/sq.ft / 446.0 kg/sq.m
Maximum range: 6500 nm / 12038 km
Range: 6318 nm / 11700 km
Crew: 2
Payload: 8-19 pax (max. 3266kg)

Bombardier Continental / Bombardier 70 / Challenger             

Design study, then known as ‘Bombardier Model 70’, revealed at the Paris Air Show in June 1997; initially named Continental. On 14 August 2001 the first Bombardier Aerospace Continental Jet (factory serial number 20001) took off from Bombardier Learjet facilities at Wichita, and reached 17,500 ft and a speed of 210 kts.
Renamed Challenger 300 on 8 September 2002.

Bombardier Continental Article

Bombardier Challenger 300 LX-PMA

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Bombardier BD-100 Challenger 300

Bolkow Bo.209 Monsun

The two-seat Bolkow Bo 209 Monsoon first flew in 1967.

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Bo 209-150
Engine: Lycoming O-320, 150 hp
Prop: fixed pitch

Bo 209-150
Engine: Lycoming IO-320-D1A, 160 hp
Prop: Constant speed
Wingspan: 27 ft 6.75 in / 8.40 m
Length: 21 ft 7.75 in / 6.60 m
Empty weight: 1067 lb / 484 kg
Max payload: 504 lb / 229 kg
MTOW: 1807 lb / 820 kg
Max cruise 75% 8000ft/2440m: 148 kt / 170 mph / 274 kph
ROC SL: 1180 fpm / 360 m/min
Service ceiling: 18,100 ft / 5520 m
Max range, 65%, no res: 647 nm / 745 mi / 1200 km
Cabin length: 4 ft 7 in / 1.40 m
Cabin width: 3 ft 3.75 in / 1.01 m
Cabin height: 3 ft 6.75 in / 1.11 m
Seats: 2 side-by-side

Bo 209S
Engine: Rolls-Royce Continental O-240, 130 hp
Non-retractable nosewheel
Wing: non-folding

MBB Bolkow 209-160RV
Engine: Lycoming IO-320-D1B
prop: MT 3 blade VP
Cruise: 125 Kt
Seats: 2
Retractable Nosegear, Folding Wings

Bo 209-160

Bolkow Bo.208 Junior / MFI-9 / Andreasson BA-7

Bjorn Andreasson of Sweden, originally designed and constructed the prototype BA-7 in his garage in San Diego, while employed as an engineer at Convair. Andreasson’s BA-7 major objectives were good performance, economy, unusual visibility and maneuverability. Fifteen hundred hours of work, one thousand dollars, and a used seventy-five horsepower Continental engine was the expenditure in the project.

Andreasson first flew his 75hp Continental powered BA-7 homebuilt prototype on 10 October 1958.

Bjorn “Andy” Andreasson and BA-7 Junior prototype October 1958, 75 hp Continental

The fuselage is a sheet metal box with exterior longerons and only three bulkheads. The horizontal tail is all-flying; the vertical tail has been changed to conventional fin-and-rudder combination and swept to enhance directional stability.

The wings, using an airfoll only 8.5% thick, have an extruded spar at 30 percent, and a light rear spar at 75% chord. A heavy magnesium skin adds strength, and countersunk rivetting ensures smoothness. By undoing the rear spar bolts, the wings can be folded alongside the fuselage for easy towing or storage, an attractive feature.

The visibility comes from the slight forward sweep of the wings, the occupants sitting forward of the spar. The one piece free blown canopy is hinged at the rear and held down by two latches, one of which is sufficient to hold it at maximum speeds. The main gear is built around two tapered steel rods, anchored to a box beam. The nose gear has a coil spring, is air damped, and is steared by the rudder pedals. Elevators and ailerons are actuated by a single centrally located stick; rudder pedals are dual, and a single hydraulic cylinder gives braking action to both wheels.

The flap control incorporates a nonreversing mechanism that holds the flap in any selected position. The fuel supply is positioned over the center of gravity behind the pilot, and with the 75 horsepower engine in the prototype, the twenty US gallons provides six hundred miles range. A plastic tube is used to indicate the fuel level.

Liftoff is at about sixty-five miles per hour, and an actual top speed of over 150 has been achieved. A more powerful engine is contemplated for the production version. Present approach speeds are on the order of 70-85, and touching speed approximately 55 miles per hour.

MFI Trainer

Andreasson was producing three copies of the MFI Junior, as it’s been renamed, and with Malmo Flygindustri, Mahno, Sweden, a series of ten to test its market potential.

A couple of years later Andreasson returned to Sweden where he joined up with theMakno Flygindustri company, later becoming head of the Aircraft Division of Malmo, a subsidiary of Saab Scania.

While there he put together an improved version of his BA-7, powered by a flat-four engine of 100hp. Following its test flight, the BA-7 design rights were acquired by Malmo Flygindustri and the BA-7 was renamed Malmo MFI-9 or just MFI to the team. Under the designation MFI 9 Junior, the first prototype Junior took to the air on 17 May 1961. Limited production commenced in 1962 and the first production model flew on 9 August 1962. The Junior is certificated for normal and Utility categories and for glider towing.

The basic MFI, of which 25 were produced by Malmo, had reasonably good beginnings and in 1962 Bolkow Apparatebau GmbH (Germany) became involved. Bolkow started producing the Bolkow B208 Junior as an expansion of the MFI-9 under licence to Malmo and by 1970 had produced 200 examples.

Bolkow 208c

A manufacturing licence agreement was reached with the West German firm of Bölkow-Entwicklungen KG, Munich, and licensed production began in 1962 in Germany at the Bolkow factory as the Bo208 Junior.

Bo.208

Two years later a new model, the Bo208C, emerged with the addition of electrically operated flaps, a trailing link nosewheel suspension and a former optional longspan wing as standard. Amongst other features, the Bolkow had tubular steel main gear well before Cessna adopted the concept. The Bo208 has only required three relatively minor mandatory modifications. Its only real problem came with the nosewheel it was prone to falling off once the aircraft was airborne. The addition of the trailing link nosewheel suspension in the B model sorted that problem out. The Bolkow remained one of the fastest 100hp two seat light aircraft with a duration of four hours in the air (range 804.7km with maximum payload), cruis¬ing at 120 mph. Aerobatic. 186 built in total.

In 1964 nine examples were assembled in Burbank, California, by Pioneer Aviation, the U.S. distributor. The 1964 price was US$7800 fully equipped but minus radios, with its American type certificate A1EU.

Slab tail surfaces were featured on the prototype in original form along with a system of springs to return the elevator to neutral or trimed position. The spring tension is not affected by speed, the stick loading remains light at high speed. With an anti-servo tab the feel heavies up as the speed increases. Andreasson eventually adopted the anti-servo tab for better all-round efficiency. After some experimentation, the rectangular rudder was abandoned for the more conventional swept tail.

The large, one-piece canopy is just under 1/8in thick. It measures 38in across at the widest point and has a base length of 30in. American models have a single, centrally located canopy latch instead of the left and right side handles fitted to German aircraft. The seats are independently mounted. A luggage compartment is situated directly behind the seats and below the fuel tank. It is accessable from the cockpit only.

In order to achieve the excellent visibility from the cockpit and still keep the centre of gravity within permissable limits, Andraesson swept the wings forward three degrees. The employment of the “droop snoot” leading edge has the effect of providing a more forward centre of pressure at higher angle of attack. Structurally the fuselage has four external longerons and the skins are all flat sheets. To prevent excessive vibration, two longitudinal stiffeners are formed in each side panel. The single spar (an I-beam extrusion) wing is composed of a minimum of parts, each panel having only seven ribs. The airfoil is an NACA 23008.5 section modified at the leading edge. The main legs of the landing gear are flexible steel shafs weighing about eight pounds each.

Reinforced fibreglass mouldins are used at the wing tips and on the engine cowling. Self-aligning bolt bearings are used in such places as the top engine mount lug and fuselage wing strut fittings.

Dual throttles, located on the extreme right and left side of the instrument panel, are connected by a transverse torque tube behind the panel. Friction on the torque tube is adjusted by a small knob in the centre of the panel.

Cleveland hydraulic brakes are actuated simultaneously by a lever mounted on the left side of the central keel. A simple ratchet lock disengages easily by pulling the handle a little to one side. The anti-servo trim tab has a lever in the cockpit moving a sheathed, 1/8in steel rod connected to a 1.5in long bellcrank at the tailpost. The bellcrank, fitted with a small friction-disk brake, is linked to the tab by a short rod.

Aileron mass balance weights on the BA-7 were fully enclosed in the wing tips. They are in about the same place on the Junior, but project into the airstream with up aileron. Rudder weights are entirely external and the horizontal tail has a heavy leading edge, largely with the weight necessary for balance.

In its original form the Junior was equipped with manually-operated self-locking flaps which were quick and positive. However, the operating handle was situated above shoulder level between the occupants and on the rear cross tube. During certification tests in Germany, the inspector banged his head several times on the handle and this prompted a recommendation that the system be operated electrically. A small window actuating motor from a Mercedes 220 automobile was adapted for aircraft use.

The toggle switch controlling the flaps is located next to the throttle. A simple flap indicator is an endless sheathed cable running from the flaps to a small pointer projecting through a vertical slot on the instrument panel. The slot is marked to show any position from 0 to 35 degrees. A second, electrical fuel pump is fitted.

In the original BA-7, the elevator was not adequately powerful to keep the nose up at low speeds, which meant that the aircraft had to land faster than should have been necessary. By increasing the elevator area on the Junior and giving it an inverted camber, control was more powerful and touchdown speed was reduced. Recommended approach speed is 70 kt / 80 mph. The Junior’s ailerons are small, 32in x 10.5in, but effective and a 360 degree roll takes under 3 seconds. The landing gear is sprung, with 500 x 5 tires all round. The thrust line is offset 1.5 degrees to the right.

Empty weight has been raised from 590 lb of the BA-7 to 750 lb, due primarily to the use of aluminium instead of magnesium and the use of the 100 hp Continental with full electrical system.

Some 210 Bolkows were built in the years following 1962, ceasing in 1970.

Bo.208C Junior

Meanwhile, Malino had further developed the MFI-9 from which came the MFI-9B Trainer with an enlarged cabin. The 9B was purposely designed for the military as a basic trainer, although the type later became very useful in a ground attack role. Malmo, which built nearly 50 9Bs, was hoping that the Swedish Air Force would acquire its trainer, but that didn’t eventuate.

MFI-9HB

The MFI 9B was followed by a T tailed version with provision for underwing stores, evolving to the MF 15 which was used a military trainer.

About five rocketting 9Bs saw service with the Biafran Air Force during the Biafra-Nigeria Civil War in 1969, when Biafra was fighting for its independence from the much larger country. The five 9Bs actually made up the air component of the BAF, along with a few inactive Harvards. Known as “Biafran Babies”, the militarised 9Bs were flown by Swedish and BAF pilots and were up against the likes of the Nigerian Air Force’s (NAF) MiG-17 jet fighters and the much bigger Ilyushin Il-28 twin-engine jet bombers.
It is reported that the little 9Bs either severely damaged or totally wrecked numerous MiGs and three of the NAF’s six Il-28 bombers during ground attack, hit-and-run operations. Other Nigerian targets attacked by the 9Bs included key airfields, armoured vehicles, troop and transport lines and oil depots. One 9B returned to base from a low-level sortie with 12 bullet holes in it.

The 9B was also used in a ‘MiniCOIN’ role, a contraction of miniature counter-insurrection. At the end of seven months of flying combat missions, the BAF’s strike force assets numbered two. Two MFI-9Bs had been shot down with the loss of their pilots and one had been damaged beyond repair.

Bolkow 208C

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Bolkow Bo.208
Engine: Continental O-200-A, 100 hp
Prop: McCauley 1A 100 MCM 6758 metal fixed
Wingspan: 24 ft 4 in
Length: 19 ft
Height: 6 ft 6 in
Wingarea: 93 sq.ft
Tread: 6 ft 4 in Fuel capacity: 21.1 USG
Load factor utility: +4.40 / -1.76
Empty weight: 794 lb
MAUW utility: 1275 lb
MAUW normal: 1325 lb
Fuel capacity: 21 USG
Fuel & oil: 136 lb
Baggage: 45 lb
Vne: 153 kt / 176 mph
Max speed SL: 125 kt / 143 mph
Cruise 1500ft / 2500rpm: 106 kt / 122 mph
Cruise 9000ft / 2600 rpm: 109 kt / 126 mph
Landing speed: 51 kt / 59 mph
ROC SL 75kt: 690 fpm
Service ceiling: 13,000 ft
Cruise range 12,000ft / 2500 rpm: 480 mi
Endurance: 4 hr
TO roll: 900 ft
TO to 50 ft: 1720 ft
Landing roll: 770 ft
Landing dist from 50ft: 1480 ft
Seats: 2.

Malmo & Bolkow MFI-9HB
Engine: 100 hp.
Span: 24ft 4in.
Wing area: 93 sq.ft.
Length: 19ft 2in.
Max wt: 1268 lbs.
Empty wt: 750 lbs.
ROC: 900 fpm.
Cruise: 113 kts.
Seats: 2.

MFI-9 Junior
Number built: 25

MFI-9 Trainer
Number built: 70

Bolkow 208C Junior
Engine: Rolls Royce Continental 0-200A, 100 hp
Wingspan: 26 ft 4 in / 8.02 m
Length: 19 ft 0 in / 5.79 m
Empty Weight: 874 lb / 380 kg
Max All Up Weight normal: 1390 lb / 630 kg
Max All Up Weight utility: 1320 lb / 600 kg
Fuel Capacity: 21 Imperial Gallons (100 Litres)
Max cruise Speed: 111 kt / 127 mph / 205 kph
Max ROC SL: 785 fpm / 240 m/min
VNE: 153 kt
Service ceiling: 14,780 ft / 4500 m
Range max fuel: 538 nm / 620 mi / 1000 km
Seats: 2

MFI-9
Bo 208

Bolkow L-252 Phoebus

Phoebus A

Derived from the Akaflieg Stuttgart FS-24 Phonix, the first sailplane to be built of glassfibre, the Phoebus high-performance single-seater was designed jointly by R. Under, R. Eppler and H.Nagele, the last two of whom had directed design work on the Phonix. The prototype was built by R.Linder and made its first flight on 4 April 1964; it came third in the Standard Class contest in the 1964 German National championships and 8th in the 1965 World Gliding Championships at South Cerney.

Production of the Phoebus was undertaken by Bolkow GmbH at Ottobrun, and three versions appeared:
the Phoebus A, the initial production Standard Class 15m (49ft 2.5 in) span variant which had a fixed monowheel and tail bumper for landing; the Phoebus B, which appeared in 1967, was the same as the A but with a retractable monowheel, and the Phoebus C was a 17m (55ft 9in) span version with a retractable monowheel and a tail braking parachute.

The Phoebus was one of the most commercially successful of postwar German sailplanes, a total of 253 having been built when production ended in 1970, and the type did well in contests; at the 1968 World Gliding Championships at Leszno, Poland, Phoebus C pilots took second and sixth places in the Open class and a Phoebus also took third place in the Standard class. The Phoebus, like the Phonix before it, has a basically balsa wood/glassfibre sandwich structure but with a stronger skin. The shoulder wing has air brakes at the 70% chord line and the one-piece all-moving tailplane is mounted on top of the fin to avoid downdraft from the wing. The fuselage is a monocoque structure similar in outline to that of the Phonix, and the pilot is seated under a one-piece canopy, with a control mechanism which is a simplified development of the Phonix’s. Compared to the latter, the Phoebus also has better high speed performance and improved gust response.

Phoebus C 17m

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Phoebus C
Wing span: 17.0 m sq / 55ft 9.25 in
Wing area: 14.06 sq.m / 151.4 sq ft
Length: 22 ft / 6.98 m
Aspect ratio: 20.55
Airfoil: Eppler 403
Empty weight: 235 kg / 518 lb
Max weight: 375 kg / 827 lb
Payload: 125 kg / 276 lb
Water ballast: None
Wing Load: 26.71 kg/sq m / 5.43 lb/sq ft
Max speed / Max rough air speed: 124 mph / 108 kt / 200 km/h
Stalling speed: 31 kt / 58 km/h
L/DMax: 42.3 @ 90 kph / 49 kt / 56 mph
MinSink: 0.55 m/s / 1.8 fps / 1.07 kt at 43 kt / 80 km/h
No. of Seats: 1
No. Built: 250