Built in 1930 by designer R.V.Norris of San Franciso, California, the Pendulum plane was to be ‘fool-proof’. It underwent tests at the Redwood City Airport, California, the radial motor is attached to the wing, from which is suspended the fuselage which remains on an even keel during flight. The wing may be tilted in any direction at the will of the pilot, by means of control wires from his seat in the cockpit.
A side by side 2 seater, with room for a bed for 2 at the back. Made of wood, tubing and fabric, no flaps are fitted. Wheel, skis or floats. 2009 Price: 34500 US$
Engine: Rotax 912, 80 hp Length: 21 ft Wingspan: 36 ft Wing area: 180 sq.ft Empty Weight: 297 kg / 654 lbs MTOW Weight: 559 kg / 1232 lbs Fuel capacity: 28 USG VNE: 113 kt / 130 mph / 209 kmh Cruise: 78 kt / 90 mph / 145 kmh Stall: 30 kt / 35 mph / 56 kmh Range: 780 sm Climb Ratio: 850 ft/min / 4 m/s Take-off distance: 250 ft Landing distance: 350 ft Take-off distance (50ft obstacle): 400 ft / 122 m Landing distance (50ft obstacle): 500 ft / 152 m Seats: 2 Cabin width: 48 in Landing gear: nosewheel
Designed by Jacques Norman, the fuselage is made from 4130 Chromoly steel and all parts are joined with high quality weldings. Wings are made of lightweight wood with full length I-beams as well as geodesic ribs. The material of choice for the skin is Ceconite 102, known for its resistance and fire retardant properties. One notable feature is the long range wing tank with a 16 gallon fuel capacity, and hydraulic brakes.
The maximum allowed weight in the category “Ultra-light advanced type” is 1058lbs for the Nordic VI-912 and 914. The maximum allowed weight in the experimental category is 1200lbs.
A two seater side-by-side, wheels, floats and skis were available. The landing gear is Titanium. Nordic 6 2009 Price was US$19895.
Nordic VI
Nordic II Length: 19 ft Height: 5.6 ft Wingspan: 33.8 ft Wing area: 154 sq.ft Weight empty: 600 lbs Maximum weight: 1058 lbs Useful load: 438 lbs Fuel capacity: 16 US Optional fuel capacity: 20 USG Maximum speed: 130 mph Manouvering speed: 70-90 mph Stall speed at full flaps: 35 mph Maximum speed with flaps: 70 mph Crusing speed at 75% power: 85 mph Maximum climb rate: 600 fpm Landing distance: 200′ ft Take-off distance: 150 ft Operating range: 400 mls Ceiling: 10 000′ ft Maximum cross wind: 25 mph Cabin width: 39 in Baggage weight: 60 lbs Seats: 2
Nordic II Engine: Subaru EA-81, 71 hp HP range: 71-90 Length: 19 ft Height: 5.6 ft Wingspan: 33.8 ft Wing area: 154 sq.ft Weight empty: 620 lbs Gross: 1058 lbs Speed max: 100 mph Cruise: 85 mph Range: 340 sm Stall: 35 mph ROC: 600 fpm Take-off dist: 150 ft Landing dist: 300 ft Service ceiling: 10,000 ft Landing gear: tail wheel
Nordic VI Engine: Subaru EA-81, 71 hp HP range: 71-90 Height: 5.5 ft Length: 19 ft Wing span: 33 ft Wing area: 154 sq.ft Weight empty: 620 lbs Gross: 1058 lbs Fuel cap: 10 USG VNE: 117 kt / 135 mph / 217 kmh Speed max: 100 mph Cruise: 90 mph Range: 360 sm Stall: 33 kt / 38 mph / 61 kmh ROC: 500 fpm Take-off dist: 200 ft Landing dist: 350 ft Service ceiling: 10,000 ft Seats: 2 Landing gear: tail wheel
Nordic VI Engine: Subaru EA81, 71 hp Wing span: 10 m Wing area: 15.5 sq.m MAUW: 400 kg Empty weight: 272 kg Fuel capacity: 37 lt Max speed: 210 kph Cruise speed: 145 kph Minimum speed: 61 kph Climb rate: 2.5 m/s Fuel consumption: 9.5 lt/hr Seats: 2 Plan price (1998): Can$450 Kit price (1998): Can$7,750
Nordic VI-912 Engine: Rotax 912, 82 hp Length: 20 ft 2 in Height: 7 ft 1 in Wing span: 33 ft 6 in ‘ Wing area: 152 sq.ft Max speed: 110 mph Weight empty: 586 lbs Maximum weight: 1058 lbs Useful load: 472 lbs Fuel tank capacity: 16 USG Cruising speed: 103 mph (5000 rpm) Stall speed at full flaps: 34 mph Stall speed without flaps: 42 mph Range: 400 sm Landing distance: 350 ft Take-off distance: 250 ft Ceiling: 10 000 ft Maximum climb rate: 1100 fpm (solo) Endurance: 5 hours Loading limit: +6 / -4 G Cabin width: 39 in Baggage weight: 60 lbs Baggage space: 9 cu.ft Seats: 2
Nordic VI-914 Engine: Rotax 914, 100 hp Length: 20.1 ft Wing span: 29.6 ft Wing area: 132 sq.ft Empty weight: 594 lb Gross weight: 1320 lb Fuel capacity: 16 USG Cruise: 110 mph Stall: 38 mph Range: 460 sm Rate of climb: 2200 fpm Takeoff dist: 150 ft Landing dist: 300 ft Cockpit width: 39 in Landing gear: tailwheel
Nordic VI-914 Turbo Engine: Rotax 914, 115 hp Length: 20 ft 2 in Height: 7 ft 1 in Weight empty: 594 lbs Maximum weight: 1058 lbs Payload: 464 lbs Fuel capacity: 16 USG Cruising speed: 110 mph (5000 rpm) Stall speed at full flaps: 34 mph Stall speed without flaps: 42 mph Maximum climb rate: 2200+ fpm (solo) Landing distance: 350 ft Take-off distance: 150 ft Endurance: 4.5 hours / heures Load limit: +6 / -4 G Baggage weight: 60 lbs Baggage space: 9 cu.ft Seats: 2
Nordic VI-912-SW Engine: Rotax 912, 80 hp Length: 20.1 ft Wing span: 29.6 ft Wing area: 132 sq.ft Empty weight: 582 lb Gross weight: 1232 lb Fuel capacity: 16 USG Cruise: 115 mph Stall: 38 mph Range: 460 sm Rate of climb: 1200 fpm Takeoff dist: 250 ft Landing dist: 350 ft Seats: 2 Cockpit width: 39 in Landing gear: Tailwheel
A Nieuport copy, built by Ch. Perron (Norrep backwards) and, probably, two Leau brothers in 1913, in France. It was powered by a five-cylinder Anzani and by the unusual Edelweiss engine, a radial with fixed pistons and moving cylinders.
With the help of bush operators, Noorduyn set about studying the peculiar needs of the people who flew into the mining areas. Noorduyn built the airplane to be convertible from wheels to skis and floats without penalties in handling. He designed it with generous fuel capacity for the extended endurance that bush flying demanded. He built in a simple, gravity fed fuel system, and he developed an arrangement whereby fuel could be injected into the lubricating oil in the crankcase to dilute it. That meant the airplane would not have to be warmed with stoves in order to be started in the frozen North.
In addition, the pitot static system could be blown out by a clever pressure system to clear it of moisture that might freeze and render it useless. The passenger/cargo compartment was austere but comparatively cavernous for an airplane in its weight class. As a tribute to Noorduyn’s design, it can be said that no AD notes have ever been written on the land-plane version of the Norseman.
The plane was well proportioned, especially on floats and with the Wright engine, the cowl of which continued the gentle, slightly swollen curve of the fuselage all the way through to the nose. The more powerful Pratt & Whitney engine imposed upon the nose a squared cowl. On wheels, the Norseman lost the counterpoint that the floats provided to the shape of the fuselage. The bandy legged struts for the mains only looked funny once the floats had been removed and the vertical members for the wheels bolted on; on floats, the two short stubs at the bottom of the fuselage were scarcely noticeable, seeming a part of the fuselage or a fairing around a float strut. In 1935, Noorduyn Aircraft rolled out the prototype, which was a product of Canada, financed completely by Canadian money. The company had inherited the old Curtiss-Reid Aircraft factory, built in 1929 on Cartierville Airport, about eight miles northwest of Montreal. The Norseman first flew on 14 November 1935 as the Norseman 1. The Norseman was the only one of his aircraft to be built in quantity.
By the time the Mark III arrived, the Norseman was powered by a 450-hp Pratt & Whitney. It was the first true Canadian bushplane, with a large, eight-seat cabin, and could be equipped with wheels, skies or floats. In 1937 the Norseman IV was flown, now fitted with a 600-hp Pratt & Whitney R¬1340. In common with aircraft of the day, the fuselage was built of tube and covered with fabric. At just over 10 feet high it was a big aircraft. The Royal Canadian Air Force ordered thirty Norseman IV for radio and navigational training. The crew sat at desks in the passenger compartment, where seats had once been bolted down in proper rows.
Following the entry of the United States into World War Two, the USAAF trialed a ten-seat Norseman and seven were purchased for further evaluation trials as the YC-64. This was followed by 749 UC-64A utility aircraft delivered between 1942 and 1945.
Noorduyn UC-64A Norseman OO-AAR c/n 612, ex USAF 44-70347
At 1:45pm on Friday 15 December 1944, a Noorduyn C-64 took off from the US base at Twinwood Farms near the English city of Bedford. With a two-man crew and eight passengers it set course for Paris. Shortly after the C-64 flew over Newhaven and began to cross the English Channel, radio contact with it was lost. On board was Major Glenn Miller, world-famous jazz musician, trombonist and leader of the Moonlight Serenade US Air Force band. He was never seen again.
Manufacturing rights were purchased by the Canadian Car Foundry who produced the improved Norseman V and the metal wing and lengthened fuselage Norseman VII. At the end of hostilities, production continued with the Norseman V. The Mark V and VI carried on where the IV had left off, offering improvements learned by experiences in the war years, plus some new ones of their own. The Mark VI also saw service with the RCAF as a communication and rescue aircraft. Production finally stopped in 1959 after 928 airplanes had been turned out. The Noorduyn company and Robert Noorduyn himself never built another airplane. The company still existed in 1976 repairing Norsemans for resale.
The Norseman V 8-seat transport was still used by the RCAF in 1955 on both wheels and floats.
Norseman V
In Quebec particularly, Can Car closed down and eventually sold most of its facilities, but it was in Quebec also that it showed its interest in continuing in the aviation field. In 1946, it bought the production rights to the Noorduyn Norseman, an aircraft which since its introduction in 1936 had become almost legendary as a bushplane on wheels, floats and skis in the Canadian north. Some 800 Norsemen were built, mostly during the war years, for the RCAF and the USAAF (where they were designated C 64A).
In the years between 1946 and 1953, when CCF held the rights, only 33 aircraft were constructed. Although it was still suitable for the utility transport role for which it had been designed, sales were limited immediately after the war by the general availability of surplus Norseman VIs or C 64As and later, into the 1950s, by competition from the new generation of bushplanes such as the DHC Beaver.
All Norseman aircraft can be fitted with interchangeable wheel, ski of float landing gear.
The construction of the Norseman was conventional. Sitka spruce was routed to make the spar, which mated with ribs of the same wood, Walnut was used for certain packing pieces in the wings, and more spruce appeared in the aft fuselage stringers. Chrome moly tubing made up the fuselage cage, which was covered by aluminium in the front portion and in the belly as far back as the rear of the cabin; the rest was fabric and aluminium dope. Noorduyn took pains to maintain a clearance between the fabric and the structure in order to minimize the opportunities for corrosion. It also made for easier inspection and maintenance. The rear of the fuselage was proudly advertised as “snowtight.” Flaps and ailerons were interconnected to provide 15 degrees of aileron droop with the flaps at 40 degrees, while retaining the full angle of movement of the ailerons. The aileron hinges and cable pulleys used sealed ball bearings, and despite the aileron’s weight (fabric covered surfaces could be heavy if there were enough steel inside them), it doesn’t take any great effort to move the wheel from lock to lock laterally.
Norseman V
Vee struts ran from a point at about two¬-thirds span to the short stubs that also sup¬ported the main gear. On the ground, the weight of the wing and the upward force of the gear on those stubs tended to cancel each other; in the air, the reverse was the case, as the gear acted against the lift force imposed by the Vee strut. The arrangement made the most of the available structure and was particularly important in view of the plane’s convertibility to floats.
Inside, the cabin measured 15 feet long, including the cockpit, which made it large for a single. The plywood floor was solid. There was a section in the doorframe that could be removed for a 46¬inch wide opening for extra wide cargo. The space between the outer skin and the inner panelling of the cabin was filled with an insulating material to retain as much of the warmth from the cabin heater as possible.
Standard fuel capacity was 125 USG, but an auxiliary fuselage tank was available to boost that to 178.5 USG. With the less powerful Wright R 975 E3 engine, which pro¬duced only 450 hp at takeoff and 420 hp at maximum cruise, that much fuel could keep a Norseman going for 7.6 hours and cover 1,060 miles. With all that fuel, the airplane was capable of hauling 1,420 pounds. 148 knots was the absolute quickest the 550 hp landplane version could muster. Noorduyn advertised its cruise speeds at two thirds of rated power, and the company claimed 130 knots with the Wasp powered version at 31 USG/hr; the less powerful but more economical Wright pulled 121 knots on a lit¬tle over 23 USG/hr. Noorduyn guar¬anteed his speeds within three percent and his climb and ceiling figures within five per¬cent, so chances are the advertised perform¬ance figures were fairly reasonable.
Climb and altitude performance were good. and Noorduyn made a special effort to draw attention to the airplane’s merits as a high altitude camera plane. At a reduced gross weight of 5,200 pounds and with a controllable pitch prop and a mixture meter telling you the exhaust gas temperature, it could be coaxed up to 25,000 feet.
The unusual landing gear was built under license at the factory, and the reason for its odd appearance was strictly functional. Loos¬ening and removing two bolts on each side caused the wheels simply to drop off the fu¬selage, stubs to allow either skis or floats to slip into place. Noorduyn was particularly proud of the easy convertibility of his air¬plane. “With reference to the feature of convertibility from wheels to skis and floats, it should be emphasized that the Norseman is not a landplane equipped with floats as an afterthought, but that the seaplane and ski requirements were studied as part of the original design. On floats, the balance and the relative angles are so perfect that the takeoff is made easily with full load, without touching the controls and with a strong sense of reserve power.”
Cleveland Aerol gear legs on the Norse¬man had a nine inch shock absorber stroke, and the brakes were all hydraulic. Noorduyn even went to the trouble of designing his own tailwheel unit around a principle his catalogue described as “oil damped spring action.” The skis were built by the Elliott Brothers Company, and the floats were Edo Ys, each with more than 6.000 pounds of flotation, so that the plane could stay up even with the equivalent of one float gone.
When the conversion of the aircraft to military specifications was made, floats took second place to wheels and skis. In terms of performance, the float version and the ski version were quite similar except for useful loads the skis were lighter. An air¬speed penalty of 13 knots could be expected along with a decrease in range, and service ceilings were reduced with wheels off and ei¬ther skis or floats on.
As happens, the engine option with the greater horsepower did not offer the greatest useful loads. The Wasp powered Norseman grossed out at 6,450 pounds, but it offered a useful load of 2,775 pounds. The 420 hp Wright version had a gross weight of 6,235 pounds, and yet its useful load was 10 pounds higher.
Norseman 1 Length: 32 ft 4 in Wingspan: 51 ft 8 in Wing area: 325 sq.ft
Norseman III Engine: Pratt & Whitney, 450-hp Length: 32 ft 4 in Wingspan: 51 ft 8 in Wing area: 325 sq.ft
Norseman III Engine: Pratt & Whitney R-1340, 600-hp Cruise: 119 mph Length: 32 ft 4 in Wingspan: 51 ft 8 in Wing area: 325 sq.ft
Norseman V Engine: One Pratt & Whitney R 1340 S3H1 Wasp, 600 hp Prop: 2-blade Wing span: 51 ft 8 in (15.75 m) Wing area: 325 sq ft (30.2 sq.m) Length: 31 ft 9 in (9.68 m) Height: 10 ft 1 in Empty wt: 4250 lbs Gross weight: 7400 lb (3357 kg) Max. Speed: 155 m.p.h. Max cruising speed: 148 mph (237 kph) at 5,000 ft (1525m) Max range: 1,150 miles (1840 km) Service ceiling: 17,000 ft Range MAUW: 464 miles at 141 mph Accommodation: Crew of 1 and up to 9 passengers and 595 lb (270 kg) of baggage and freight.
Engine: Potez 4D.32, 240 hp Span, 31 ft 2 in (9.5 m) Length, 26 ft 8 in (8.12 m) Wing area, 175 sq.ft (16.26 sq.m)
Engine: Potez 4D 34B, 260 hp Max speed, 161 mph (260 kph) Cruise, 146 mph (235 kph) at 7,545 ft (2425 m) Initial climb, 1,180 fpm. (6 m/sec) Normal range, 620 mls (998 km) at 7,545 ft (2 425 m) Empty weight, 1,896 lb (860 kg) Loaded weight, 2,690 lb (1220 kg) Span, 31 ft 2 in (9.5 m) Length, 26 ft 8 in (8.12 m) Wing area, 175 sq.ft (16.26 sq.m)
The N.3201 was designed for an official competition for a tandem two-seat primary trainer for the government-sponsored flying schools.
The N.3201 first flew on 22 June 1954, powered by a 170 hp SNECMA-Regnier engine.
The N.3200 prototype first flew on 10 September 1954, powered by a 260 hp Salmson-Argus 8AS-03 engine.
Apart from the engine installed, both models are identical,
N.3200 Engine: Salmson-Argus 8AS-03, 260 hp Wingspan: 32 ft 1.5 in Length: 26 ft 2.5 in Height: 10 ft 2.75 in
N.3201 Engine: SNECMA-Regnier, 170 hp Wingspan: 32 ft 1.5 in Length: 26 ft 2.5 in Height: 10 ft 2.75 in Empty weight: 1742 lb Loaded weight: 2405 lb Max speed: 150 mph at SL Cruise: 124 mph ROC: 984 fpm Endurance: 2 hr
In June 1946, the Service Technique Aeronautique issued a preliminary requirement for a shipboard fighter armed with three 20mm or 30mm cannon and capable of carrying two 500kg bombs or eight 90mm rockets. Responding to this requirement, the SNCA du Nord tendered the Nord 2200, designed by a team led by Messrs Coroller, Dupin and Buret, in competition with the Aerocentre NC 1080 and the Arsenal VG 90.
Powered by a 2268kg Hispano- Suiza Nene 102 turbojet and featuring a 24 degree sweptback laminar-flow wing with large Fowler-type flaps, the Nord 2200 was first flown on 16 December 1949, and was fitted with neither wing folding nor armament. On 24 June 1950, the sole prototype was damaged and the opportunity was taken to fit a servo control system, introduce redesigned and larger vertical tail surfaces, and make provision for an AI radar scanner over the engine air intake. Flight testing was resumed on 24 May 1951, but in 1952 the decision was taken by the Aeronavale to adopt the de Havilland Sea Venom to meet its shipboard fighter requirement. Nevertheless, flight testing of the Nord 2200 continued until June 1954.
Max take-off weight: 7890 kg / 17395 lb Empty weight: 4830 kg / 10648 lb Wingspan: 12.00 m / 39 ft 4 in Length: 13.90 m / 46 ft 7 in Height: 4.80 m / 16 ft 9 in Wing area: 31.60 sq.m / 340.14 sq ft Max. speed: 936 km/h / 582 mph
The N.1700 was a two-place aircraft; the rotor had two blades with a stabilizer bar. The engineer Andre Bruel wanted to get rid of the cyclic control, considered too complex. The rotor head was installed on an articulated parallelogram, allowing lateral motions. The lateral control was obtained by relative displacement of the rotor head in relation to the center of gravity.
The 160hp Mathis GR7 engine directly powered a rear axial helix which blew on two flap shutter systems, some horizontal, some vertical, to control pitch and yaw. The aircraft was damaged at first, due to violent vibrations of transmission, induced by brutal clutching. Alter repairing it, they resumed power checks but, in the hands of an inexperienced pilot, it hit an obstacle.
Management decided then to abandon the N.1700 and to turn to a smaller aircraft, the 1950 single seat N.1710, built in accordance with the same principle. SNCAN asked SNCASE to send Jean Boulet to test this machine:
“The first free flight took place on July 1, 1950. After several difficult hovers (all controls had very larges forces that we tried to compensate somehow by elastic cords), I performed the first forward flight on July 22. The longitudinal control appeared to be very insufficient. Modifications were then made, above all we increased the deflection of the horizontal flap shutters. On September 20, 1950, I took off again to make a forward flight under these new circumstances, but the effect of the modifications appeared to be just the contrary of what we expected: the longitudinal control was even less efficient and moreover the yaw control had lost its efficiency (the horizontal flaps were over deflected and it is probably they stalled and banked the vertical flap shutters). I very quickly found myself flying forward more and more rapidly and banking to the left, with the controls in an extreme position. I had to end this terrible merry-go-round. I reduced the pitch to touch the ground, but the aircraft overturned immediately. I was thrown to the ground and was very lucky not to be killed by a blade. The aircraft was repaired, and we lengthened the tail to improve the efficiency of the control surfaces. In the spring of 1951, I made several more flights, then as my company sent me to Marignane.”
The Societe Nationale de Constructions Aeronautiques du Nord (Nord-Aviation) built its first helicopter prototype in 1947. The N.1700 was a two-place aircraft; the rotor had two blades with a stabilizer bar. The engineer Andre Bruel wanted to get rid of the cyclic control, considered too complex. The rotor head was installed on an articulated parallelogram, allowing lateral motions. The lateral control was obtained by relative displacement of the rotor head in relation to the center of gravity.
Collective pitch and also cyclic pitch were respectively controlled by the radial and the flapping movements of small auxiliary blades set at 90° to the main blades. In this helicopter, the anti-torque device consisted of a fixed-pitch airscrew placed at the end of the tail and blowing backwards on to an assembly of suitably adjusted vanes.
The 160hp Mathis GR7 engine directly powered a rear axial helix which blew on two flap shutter systems, some horizontal, some vertical, to control pitch and yaw. The aircraft was damaged at first, due to violent vibrations of transmission, induced by brutal clutching. Alter repairing it, they resumed power checks but, in the hands of an inexperienced pilot, it hit an obstacle.
Management decided then to abandon the N.1700 and to turn to a smaller aircraft, the single seat N.1710.