Taifun (rocket)

Last updated

Taifun
RAF Museum Cosford - DSC08606.JPG
Two "Taifun" rockets displayed at RAF museum Cosford
TypeUnguided anti-aircraft rocket
Place of originGermany
Production history
ManufacturerFlak-Versuchskommando Nord, EMW Peenemünde
ProducedJanuary–May 1945
No. builtApprox 600
Specifications (Taifun F [1] )
Mass21 kg (46 lb) at launch
Length1.93 m (6 ft 4 in)
Diameter10 cm (3.9 in)

Warhead High Explosive
Warhead weight500 g (1.1 lb)
Detonation
mechanism
Contact Fuze

Propellant Hypergolic Liquid
Flight ceiling15,000 meters (50,000ft)
Boost time2.5 secs
Maximum speed >3,300 km/h (2,100 mph) (Obtained)
Launch
platform
Modified 8.8 cm Flak 18/36/37/41

Taifun (German for "typhoon") was a German World War II anti-aircraft unguided rocket system. Waves of small, relatively cheap, Taifun flak rockets were to be launched en masse into Allied bomber formations. [1] Although never deployed operationally, the Taifun was further developed in the US as the 76mm HEAA T220 "Loki" Rocket.

Contents

Design and development

Development of the Taifun project started towards the end of 1944. Klaus Scheufelen, an officer at Peenemünde, had been working on the Wasserfall guided missile but had become dissatisfied with the project's complexity and proposed a cheap unguided rocket as an alternative. Designs were submitted to the Ministry of Aviation in September 1944 with Scheufelen named as the administrative officer in charge of development. [1]

The Taifun proposal was developed by a small team at Peenemünde and its manufacturing arm (the Electromechanische Werke in Karlshagen). Their design was a 1.93 m (6 ft 4 in) long, spin stabilized unguided rocket with four small fins at the base. [2] [3] [4] The rockets were fired from either a 30 or 50 barrel launcher mounted on an adapted 88 mm gun mounting. [5]

The rocket was driven by a liquid fueled engine. The liquid propellant used was hypergolic mixture consisting of an Oxidizer and a Fuel. Salbei (Red Fuming Nitric Acid) oxidizer was mixed with a Visol (Vinyl Ether) based fuel [1] (some sources give the fuel as Tonka 250 [6] or Dibutyl Ether [7] ). The fuel and oxidizer were fed into the combustion chamber under pressure. The pressure was provided by small cordite charges fired into the fuel tanks, in the process bursting a pair of thin diaphragms to allow the fuel and oxidizer to flow into the combustion chamber, propelling the rocket. [1]

A solid propellant version of the Taifun, called the Wirbelsturm (German for "Tornado"), was designed in parallel with the liquid fueled models but was not put into production. [3] Post war, the unbuilt solid propellant version was used as the basis of design for the Soviet R-103 and R-110 unguided surface-to-air rockets. [8]

The Taifun's nose was fitted with a contact fuze. One of the two contact fuze designs, developed by Mende Radio of Dresden, used a condenser, charged by the ionization of the exhaust gas stream, discharging through a tube in rocket's nose, the other, developed by Rheinmetall-Borsig used a conventional impact fuze design. A timed self destruct fuze was fitted to the rear of the Taifun to destroy the rocket if it failed to hit a target. [1] The Taifun's developers believed contact fuzes were superior to time fuzes against large bombers flying in formation (a view widely held among German flak specialists). [1] [9]

Production began in January 1945. More than 600 of an initial batch of 10,000 were completed by VE day. No Taifun rockets were deployed operationally. [1] [3]

Survivors

Two Taifun rockets are displayed at the Royal Air Force Museum Cosford, UK. [10]

See also

Related Research Articles

<span class="mw-page-title-main">Missile</span> Self-propelled guided weapon system

A missile is an airborne ranged weapon capable of self-propelled flight aided usually by a propellant, jet engine or rocket motor.

<span class="mw-page-title-main">Rocket</span> Vehicle propelled by a reaction gas engine

A rocket is a vehicle that uses jet propulsion to accelerate without using the surrounding air. A rocket engine produces thrust by reaction to exhaust expelled at high speed. Rocket engines work entirely from propellant carried within the vehicle; therefore a rocket can fly in the vacuum of space. Rockets work more efficiently in a vacuum and incur a loss of thrust due to the opposing pressure of the atmosphere.

<span class="mw-page-title-main">Solid-propellant rocket</span> Rocket with a motor that uses solid propellants

A solid-propellant rocket or solid rocket is a rocket with a rocket engine that uses solid propellants (fuel/oxidizer). The earliest rockets were solid-fuel rockets powered by gunpowder; The inception of gunpowder rockets in warfare can be credited to ancient Chinese ingenuity, and in the 13th century, the Mongols played a pivotal role in facilitating their westward adoption.

<span class="mw-page-title-main">Hybrid-propellant rocket</span> Rocket engine that uses both liquid / gaseous and solid fuel

A hybrid-propellant rocket is a rocket with a rocket motor that uses rocket propellants in two different phases: one solid and the other either gas or liquid. The hybrid rocket concept can be traced back to the early 1930s.

A tripropellant rocket is a rocket that uses three propellants, as opposed to the more common bipropellant rocket or monopropellant rocket designs, which use two or one propellants, respectively. Tripropellant systems can be designed to have high specific impulse and have been investigated for single-stage-to-orbit designs. While tripropellant engines have been tested by Rocketdyne and Energomash, no tripropellant rocket has been flown.

<span class="mw-page-title-main">Hypergolic propellant</span> Type of rocket engine fuel

A hypergolic propellant is a rocket propellant combination used in a rocket engine, whose components spontaneously ignite when they come into contact with each other.

T-Stoff (; 'substance T') was a stabilised high test peroxide used in Germany during World War II. T-Stoff was specified to contain 80% (occasionally 85%) hydrogen peroxide (H2O2), remainder water, with traces (<0.1%) of stabilisers. Stabilisers used included 0.0025% phosphoric acid, a mixture of phosphoric acid, sodium phosphate and 8-oxyquinoline, and sodium stannate.

<span class="mw-page-title-main">Wasserfall</span> German surface-to-air missile

The Wasserfall Ferngelenkte FlaRakete was a German guided supersonic surface-to-air missile project of World War II. Development was not completed before the end of the war and it was not used operationally.

<span class="mw-page-title-main">RP-1</span> Highly refined form of kerosene used as rocket fuel

RP-1 (alternatively, Rocket Propellant-1 or Refined Petroleum-1) is a highly refined form of kerosene outwardly similar to jet fuel, used as rocket fuel. RP-1 provides a lower specific impulse than liquid hydrogen (H2), but is cheaper, is stable at room temperature, and presents a lower explosion hazard. RP-1 is far denser than H2, giving it a higher energy density (though its specific energy is lower). RP-1 also has a fraction of the toxicity and carcinogenic hazards of hydrazine, another room-temperature liquid fuel.

<span class="mw-page-title-main">Liquid-propellant rocket</span> Rocket engine that uses liquid fuels and oxidizers

A liquid-propellant rocket or liquid rocket utilizes a rocket engine burning liquid propellants. (Alternate approaches use gaseous or solid propellants.) Liquids are desirable propellants because they have reasonably high density and their combustion products have high specific impulse (Isp). This allows the volume of the propellant tanks to be relatively low.

The highest specific impulse chemical rockets use liquid propellants. They can consist of a single chemical or a mix of two chemicals, called bipropellants. Bipropellants can further be divided into two categories; hypergolic propellants, which ignite when the fuel and oxidizer make contact, and non-hypergolic propellants which require an ignition source.

<span class="mw-page-title-main">Loki (rocket)</span> American unguided anti-aircraft rocket

Loki, officially designated 76mm HEAA Rocket T220, was an American unguided anti-aircraft rocket based on the German Taifun. Like the Taifun, Loki never saw service in its original role, but later found widespread use as a sounding rocket. It was so successful in this role that several advanced versions were developed on the basic Loki layout, including the final Super Loki.

<span class="mw-page-title-main">Aggregat</span> Nazi ballistic missile series

The Aggregat series was a set of ballistic missile designs developed in 1933–1945 by a research program of Nazi Germany's Army (Heer). Its greatest success was the A4, more commonly known as the V2.

The Rocket U-boat was a series of military projects undertaken by Nazi Germany during the Second World War. The projects, which were undertaken at Peenemünde Army Research Center, aimed to develop submarine-launched rockets, flying bombs and missiles. The Kriegsmarine did not use submarine-launched rockets or missiles from U-boats against targets at sea or ashore. These projects never reached combat readiness before the war ended.

<span class="mw-page-title-main">Chemical Automatics Design Bureau</span> Russian rocket engine manufacturer

Chemical Automatics Design Bureau (CADB), also KB Khimavtomatika, is a Russian design bureau founded by the NKAP in 1941 and led by Semyon Kosberg until his death in 1965. Its origin dates back to a 1940 Moscow carburetor factory, evacuated to Berdsk in 1941, and then relocated to Voronezh city in 1945, where it now operates. Originally designated OKB-296 and tasked to develop fuel equipment for aviation engines, it was redesignated OKB-154 in 1946.

<span class="mw-page-title-main">Cryogenic rocket engine</span> Type of rocket engine which uses liquid fuel stored at very low temperatures

A cryogenic rocket engine is a rocket engine that uses a cryogenic fuel and oxidizer; that is, both its fuel and oxidizer are gases which have been liquefied and are stored at very low temperatures. These highly efficient engines were first flown on the US Atlas-Centaur and were one of the main factors of NASA's success in reaching the Moon by the Saturn V rocket.

<span class="mw-page-title-main">Aerojet LR87</span> American rocket engine family used on Titan missile first stages

The LR87 was an American liquid-propellant rocket engine used on the first stages of Titan intercontinental ballistic missiles and launch vehicles. Composed of twin motors with separate combustion chambers and turbopump machinery, it is considered a single unit and was never flown as a single combustion chamber engine or designed for this. The LR87 first flew in 1959.

<span class="mw-page-title-main">Rocket propellant</span> Chemical or mixture used as fuel for a rocket engine

Rocket propellant is the reaction mass of a rocket. This reaction mass is ejected at the highest achievable velocity from a rocket engine to produce thrust. The energy required can either come from the propellants themselves, as with a chemical rocket, or from an external source, as with ion engines.

<span class="mw-page-title-main">Soviet rocketry</span> Soviet rocketry (1921 to 1991)

Soviet rocketry commenced in 1921 with development of Solid-fuel rockets, which resulted in the development of the Katyusha rocket launcher. Rocket scientists and engineers, particularly Valentin Glushko and Sergei Korolev, contributed to the development of Liquid-fuel rockets, which were first used for fighter aircraft. Developments continued in the late 1940s and 1950s with a variety of ballistic missiles and ICBMs, and later for space exploration which resulted in the launch of Sputnik 1 in 1957, the first artificial Earth satellite ever launched.

<span class="mw-page-title-main">Gas Dynamics Laboratory</span> Soviet rocket laboratory 1921 to 1933

Gas Dynamics Laboratory (GDL) (Russian: Газодинамическая лаборатория) was the first Soviet research and development laboratory to focus on rocket technology. Its activities were initially devoted to the development of solid propellant rockets, which became the prototypes of missiles in the Katyusha rocket launcher, as well as liquid propellant rockets, which became the prototypes of Soviet rockets and spacecraft. At the end of 1933 it became part of the Reactive Scientific Research Institute (RNII). A number of craters on the far side of the Moon are named after GDL employees.

References

  1. 1 2 3 4 5 6 7 8 Hutcheon, I A (1946). German Non Guided Flak Rocket - Taifun (Report). Armaments Design Department, Ministry of Supply (UK). Archived from the original on 6 December 2020.
  2. Christopher, John (2012). The Race for Hitler's X Planes. History Press. p. 132. ISBN   9780752477114.
  3. 1 2 3 Hogg, Ian (1999). German Secret Weapons of the Second World War. Frontline Books. pp. 134–135. ISBN   978-1-8483-2781-8.
  4. Zaloga, Steven (2019). "Unguided Flak Rockets". German Guided Missiles of World War II. Bloomsbury Publishing. ISBN   978-1-4728-3179-8.
  5. Werrell, Kenneth (2005). Archie to SAM. Air University Press Maxwell Airforce Base, Alabama US. p. 35. ISBN   1-58566-136-8.
  6. Clark, John (1972). Ignition an Informal History of Liquid Rocket Propellants. New Brunswick. p. 12. ISBN   9780813595832.
  7. Sutton, George (2005). History of Liquid Propellant Rocket Engines. American Institute of Aeronautics & Astronautics. p. 763. ISBN   978-1563476495.
  8. Chertok, Boris (2006). Rockets and People, Volume II: Creating a Rocket Industry. NASA History Division. p. 85. ISBN   978-1780396897.
  9. Hogg, Ian (2013). German Artillery of World War Two War. Frontline Books. pp. 296–297. ISBN   978-1-84832-725-2.
  10. "RAF Museum Website".