POWER PLANT: One Heinkel-Hirth HeS 011 turbojet engine, rated at 1,300 kp
PERFORMANCE: 599 mph
COMMENT: On February 1945 the Tank design team proposed a second design of the Focke-Wulf/Tank Ta 183 turbojet fighter although the RLM accepted the first design for production. The new aircraft was similar to the Ta 183 design, except the wings were swept back at 35 degrees and the cockpit was set farther aft. Also, the tail unit was of more conventional design, with a curvilinear sweep of the fuselage into the vertical tail. This seemed to be necessary because it was expected that the long vertical tail of Ta 183 led to vibrations. By that the horizontal tail planes were mounted lower at the end of the fuselage. As with many other projects al work was halted with the end of the WW II two months later (Ref.: 17).
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III and Focke-Wulf Ta 183V-1 “Huckebein”
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III
Focke-Wulf Fw Ta 183/III and Focke-Wulf Ta 183A-1 “Huckebein”
POWER PLANT: One Daimler Benz DB 613 liquid-cooled engine, rated at 3,500 hp
PERFORMANCE: 491 mph
COMMENT: In early 1941 the OKL asked for a possible successor for the Messerschmitt Me 110 heavy fighter. Among others the Henschel Aircraft Company proposed a design of a futuristic and unusual configuration. This design, the Hs P.75, featured a tapered fuselage with slightly swept-back wings set back to the rear fuselage of the aircraft and a pair of slightly swept-back canards located on the nose. The widened fuselage housed a powerful engine that drove three-bladed contra-rotating pusher propellers at the rear via an extension shaft. As power unit a Daimler Benz DB 610 engine, which were two DB 605 liquid-cooled engines joined side-by-side, was proposed. These were the same engines that the Heinkel He 177 bomber used and became known for overheating and catching fire. So it was decided to install the Daimler Benz DB 613, in fact two coupled DB 603 liquid-cooled engines, rated at 3,500 hp. A vertical tail unit was mounted beneath the fuselage additionally functioning as a tail bumper and protected the propellers from stroking the ground during take-off. A tricycle landing gear arrangement was chosen and a single pilot sat in the cockpit located about midway along the fuselage. All weapons were mounted in the nose. The advantage of the pusher propeller and the forward canard design was the excellent view of the pilot and concentration of weapons in the nose. The disadvantage would be the engine cooling and the pilot’s safely exit in case of emergency. Although good results were obtained in wind tunnel testing this design was not followed up further.
Notable is the fact that this basic design was realized in several WW II aircraft design such as Curtiss XP-55 “Ascender” and Kyushu J7W1 “Shinden” (Ref.: 17).
POWER PLANT: Two Heinkel-Hirth HeS 011 turbojet engines, rated at 1,300 kp each
PERFORMANCE: 659 mph at 45,900 ft
COMMENT: In 1944, Focke-Wulf Aircraft Company projected three designs of a bomber using two Heinkel-Hirth He S 011 turbojets. These bombers were known under the unofficial designation 3 x 1000 Bomber-Projekt A, Projekt B and Projekt C. The designation “1000x1000x1000” meant that the aircraft could carry a 1000 kg (2205 lbs) bomb load over a distance of 1000 km (621 miles) and at a speed of 1000 km/h (621 mph).
The second design under the Focke-Wulf internal designation Fw P.031 0239/10 “3×1000 Bomber, Projekt B” was of a flying wing layout. There was a small fuselage which held the cockpit and forward landing gear. The wing was swept back at 35 degrees and the fuel load in flexible tanks was carried ahead of the main wing spar. The engines and main landing gear were located behind the main wing spar. Two Heinkel-Hirth He S 011 jet engines each developing 1300 kg of thrust were fed by air intakes located in the wing leading edge near the wing roots. The wing tips were bent downwards to act as vertical stabilizers and contained small rudders. The ailerons also served as elevators and in addition small deflectors were mounted within the jet exhaust, one of the first uses of thrust vectoring. The main landing gear retracted inwards and the nose gear swung up and forward. A single pilot sat in the extensively glazed cockpit located in the extreme nose, and no armament was planned at this stage in the development. A 1000 kg bomb load could be carried in the internal bomb bay located in the center wing. Since these designs would have taken several years to complete, the end of the war ended all development (Ref.: 17).
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
From left clockwise: Focke-Wulf Fw 031 0239/01 (3 x 1000 Bomber Project A), Focke-Wulf Fw 031 0239/10 (3 x 1000 Bomber Project B) and Focke-Wulf Fw 3 x 1000 Bomber Project C
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
Focke-Wulf Fw P. 031 0239/10 (3×1000 Bomber Project B)
From left clockwise: Focke-Wulf Fw 031 0239/01 (3 x 1000 Bomber Project A), Focke-Wulf Fw 031 0239/10 (3 x 1000 Bomber Project B) and Focke-Wulf Fw 3 x 1000 Bomber Project C
POWER PLANT: One Heinkel/Hirth HeS 011 turbojet engine, rated at 1,300 kp
PERFORMANCE: 609 mph
COMMENT: As part of the “Emergency Fighter Program” (”Jägernotprogramm”), at the beginning of 1945 a program was launched by the OKL (Oberkommando der Luftwaffe, High Command of the Luftwaffe) for a new generation of fighter/interceptor aircraft in order to replace the winner of the “Volksjäger” fighter design competition, the Heinkel He 162A “Spatz” (“Sparrow”) . The new aircraft was intended to have superior performance in order to deal with high altitude threats such as the the Boeing B-29 “Superfortress”, but only had a 30-minute endurance figure.
Heinkel produced three different designs of the project (He P. 1078A, He P. 1078B, and He P. 1078C) which were submitted in February 1945. The high-altitude fighter designs brought forward by other German aircraft makers were the Messerschmitt Me P. 1110, Focke-Wulf Ta 183 “Huckebein”, Blohm & Voss Bv P.212 and Junkers EF 128, the official winner of the competition. After being subject to severe criticism, the project was cancelled by Heinkel at the end of February 1945. Other reports state that these Heinkel projects have never been submitted to the OKL. In fact, members of the Heinkel construction bureau were working on these designs under U.S. supervision after WW II during the summer of 1945 (Ref.: 24).
POWER PLANT:One BMW 003A turbojet engine, rated at 800 kp
PERFORMANCE: 485 mph at 19,685 ft
COMMENT: Early in 1943, the RLM issued a specification for a single-seat attack aircraft to combat the anticipated Allied invasion in Europe. Although the specification called for a piston-engine powered dive bomber it was soon realized that only a turbojet-driven aircraft could hope to match the proposed performance requirements. The Henschel Company submitted a design which was approved as Henschel Hs 132 and placed accent of simplicity and ease to manufacture. The wing was a wooden structure with plywood skinning, and the fuselage was a circular metal monocoque. The single turbojet was mounted above the fuselage, exhausting over the rear fuselage and between the twin vertical surfaces of the tail assembly. A tricycle landing gear was to be used and the extensively glazed cockpit was completely faired with the fuselage. The pilot was in prone position better to withstand the high G-forces of the fast and steep dive during the bomb run. It was estimated that during the dive a speed of more than 570 mph could be reached and after the bomb was released the aircraft was pulled up thus inducing acceleration forces of up to 10 G. A contract for six prototypes was placed in May 1944, and construction began in March 1945. When the war in Europe ended the Henschel Hs 132 V1 was nearly complete and captured by Soviet forces
NOTICE: To ascertain the practicability of the prone position for dive bomber pilots, the DLV ordered in early 1943 a small prone-pilot research aircraft that was designed and built by the FFG Berlin (Flugtechnische Fachgruppe/Aerotechnical Group, University Berlin) and designated Berlin B9. The design was a low winged, twin-engine aircraft of standard layout. It was built of mixed construction and could accept up to 22 G. It was flown by many experienced pilots and showed the advantages of a prone position for pilots to tolerate high g-forces. (Ref.: 17).
POWER PLANT: One Daimler-Benz DB 603A-1 liquid-cooled engine, rated at 1,750 mph
PERFORMANCE: 496 mph at 26,200 ft
COMMENT: During 1941 the Messerschmitt design bureau began work on a new fighter intended to succeed the Messerschmitt Me 109. Designated Me 309, the new fighter employed a nose-wheel undercarriage. The first prototype Me 309 V1 began taxi-ing trials on June 1942 and the first test flight was not attempted until July 1942. Subsequent flight tests revealed some instability, and the prototype was grounded for several modifications.
Despite continual modifications, the characteristics of the fighter were still not entirely satisfactory. On November 1942 a flight comparison between the Me 309 V1 and a standard Me 109G revealed the fact that the older fighter could turn-out its potential successor. In the meantime three further prototypes were ready for test flights but the results showed that numerous modifications were necessary. During summer 1943, however, the complete program was abandoned owing to the superior qualities of the Focke-Wulf Fw 190D and Focke-Wulf Ta 152.
Prior to the termination of the program several variants of the basic design were proposed including different engines as Daimler-Benz DB 603H and Junkers Jumo 213. Another development, the Messerschmitt Me 609, with two Me 309 fuselages joined by a constant center wing, was not proceeded with (Ref.: 11).
POWER PLANT: One Daimler-Benz DB 627B liquid-cooled engine, rated at 2,000 hp
PERFORMANCE: 460 mph at full boost altitude
COMMENT: In April 1943 the Messerschmitt design bureau submitted proposals for a high-altitude fighter designated Messerschmitt Me 209H. This project envisaged the insertion of an additional rectangular center section in the wing to increase overall span and gross area, and the use of either Daimler-Benz DB 628A high altitude engine or the DB 603U which was a DB 603E equipped with a TKL 15 turbo-supercharger. Owing to the time element Messerschmitt was instructed to embody some of its proposals for the Me 209H into the Me 109H which, making extensive use of Me 109G components, offered a quicker solution to the requirement for a fighter of superior altitude capability.
Nevertheless, the Messerschmitt bureau persisted with the development of the Me 209H, detail design being completed on October 1943, and work on the prototype, the Me 209H V1, began shortly afterwards, but proceeded slowly, and was delayed as a result of an air attack in February 1944 in which the partly assembled prototype was damaged, and some of its components destroyed. Thus, the Me 209H V1 was not rolled out until June 1944, by which time the entire Me 209 program had been officially abandoned. It had been intended that the Me 209H V1 should receive the Daimler-Benz DB 627 which was basically a DB 603 G with aftercooler and two-stage mechanical supercharger, and afforded 2,000 hp for take-off. The engine drove a four-bladed wooden airscrew and the annular radiator was discarded in favor of radiators in the leading edge of the wing center section. No records exists of the results of flight testing or the ultimate fate of the sole Me 209 high-altitude prototype (Ref.: 7).
POWER PLANT: One Daimler-Benz DB 603G liquid-cooled engine, rated at 1,900 hp
PERFORMANCE: 416 mph at 19,685 ft
COMMENT: Despite the total failure of the Messerschmitt Me 209 V4 and the disappointing performance of the Messerschmitt Me 309, the Messerschmitt design bureau was still determined to provide the successor of the Messerschmitt Me 109 in the Luftwaffe’s fighter arm and a competitor for Focke-Wulf’s Fw 190D and Ta 152 fighters. It was realized that no useful purpose could be served in attempting any further development of the original Messerschmitt Me 209, and it was decided, therefore, to produce an entirely new fighter design which, in order to accelerate development and subsequent production, was to use a large proportion of standard Me 109 components. The new fighter was designated Messerschmitt Me 209-II and was, in fact, a modernized, more powerful Me 109G and employed sixty-five per cent of the earlier fighter’s components. The Me 209-II adopted an exceptionally wide-track, inward retracting undercarriage. Another major change was the installation of a Daimler-Benz DB 603G with an annular radiator. Overall wingspan was substantially increased and the vertical tail surfaces were enlarged. The prototype for the Me 209-II, the Me 209 V5 (A-1), was flown for the first time on November 1943 and tests revealed that the aircraft processed an excellent performance and overcame most of the Me 109’s shortcomings. Shortages of the DB 603G engine resulted in a demand for the installation of the Junkers Jumo 213E liquid-cooled engine. Designated Me 209A-2 flight trials began in December 1943. By this time, however, the Focke-Wulf Fw 190D-9 was entering service and this fighter had a speed advantage of some 30 mph at altitude, and as the introduction of the Me 209-II would disrupt fighter deliveries at a critical phase of the air war, it was decided to discontinue the development of the Messerschmitt design (Ref.: 11).
POWER PLANT: Two Daimler-Benz DB 603 B liquid-cooled engine
PERFORMANCE: 426 mph
COMMENT: In February 1942 severe problems became obvious with the new twin-engine Messerschmitt Me 210, successor of the aging Messerschmitt Me 110. Due to longitudinal instability and lack of performance the series production was stopped and switched back to the inadequately Me 110. So Messerschmitt was forced to redesign the aircraft by lengthening the fuselage and adding more powerful engines what finally became the Messerschmitt Me 410. In the meantime a search was begun on a new design for a twin-engine heavy fighter.
Since beginning of 1939 Prof. A. Lippisch and his design staff was part of the Messerschmitt Company and was well known for many advanced and unorthodox projects. Among these was a design study, the Lippisch LiP.10, a fast, tailless, twin-engine bomber that incorporated many parts of the unsatisfactory Me 210. Independent to this Dr. Wurster from Messerschmitt’s design team was working on a similar project that officially was designated Messerschmitt Me 329. This aircraft was of tailless design and was to be constructed mainly from wood. This would save on strategic materials and keep the weight lower. The large area wing was swept back at approximately 26 degrees, and two Daimler-Benz DB 603 engines were buried in the wings, each driving a 3.4 m four-bladed pusher propeller. A large fin and rudder was mounted at the rear and a tricycle landing gear was provided. Other advanced touches included the pilot and navigator sitting tandem in a broad bubble canopy and a remote-controlled rear gun in the tail aimed via a periscope system from the cockpit. Performance comparison between the Lippisch Li P.10, the Me 329 and the Me 410 showed that the improvement of the Me 329 over the Me 410 was marginal. So development received a low priority, and while a full-scale glider mock-up was tested in the winter of 1944/5, work on the project was cancelled shortly after (Ref.: 16, 17).
POWER PLANT: One Heinkel-Hirth HeS 011 turbojet engine, rated at 1,300 kp
PERFORMANCE: 618 mph
COMMENT: In winter 1944/1945, the Messerschmitt Project Bureau was intensively working on several advanced turbojet powered interceptor aircraft superior to the now in service acting Messerschmitt Me 262 “Schwalbe” (Swallow). Besides projects such as Me P.1110/I, Me P.1110/II, Me P. 1110 “Ente”, and Me P. 1112 was the Me P.1111 jet fighter/interceptor. The innovative design was as an improvement to the Messerschmitt Me P.1110 “Ente” (“Duck”). It was a tailless aircraft with the wings swept back at 45 degrees, being of near-delta shape. There was a single sweptback vertical fin and rudder. The cockpit was pressurized, fitted with an ejection seat and had a fairing extending to the base of the fin. The planned power plant was a Heinkel-Hirth HeS 011 turbojet engine, armament consisted of four MK 108 30mm cannon with 100 rounds each, two in the wing roots and two in the nose. The collapse of the “Third Reich” a few months later stopped all further work but data were transferred to the United Kingdom and influenced the post -war development of the de Havilland DH 108 “Swallow” (Ref.: 17).
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Messerschmitt Me P.1111
Scale 1:72 aircraft models of World War II
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