Skip to main content

Royal Enfield WD/RE(Flying Flea)

Manufacturer                                  Royal Enfield
Also called                                 Flying Flea
Production                                 1939–1941
Predecessor                                 DKW RT100
Successor                                 RE125
Class                                         Military
Engine                                        126 cc air-cooled two strokesingle
Top speed                                45 mph
Power                                        3.5 hp @ 4,500
Transmission                                four-speed, chain final drive
Suspension                                fixed
Brakes                                       drum
Dimensions                               L: 75 in
                                                      W: 26 in
Weight                                       130 lb (59 kg)



The best known Royal Enfield produced for the Second World War was the WD/RE 125 cc which was known as the Flying Flea and designed to be dropped by parachute with airborne troops.
After the German authorities stopped the Dutch franchisee of the DKW RT100 motorcycle from receiving any more supplies in 1938, preferring a non-Jewish company, Royal Enfield was contacted by the displaced importer about producing a similar motorcycle.  Royal Enfield's version of the bike was produced by Ted Pardoe, who expanded the engine. Two prototypes under the name 'Royal Baby' were shown at Rotterdam in April 1939.Using a less sophisticated but increased-capacity two-stroke engine in the same frame, a few of these RE motorcycles were made before the outbreak of the Second World War.
As with other British motorcycle manufacturers, the Royal Enfield factory production was turned over to the war effort. Military motorcycles included the Royal Enfield WD/C 350 cc sidevalve, the Royal Enfield WD/D 250 cc sidevalve and the Royal Enfield WD/L 570 cc.
In early 1942, the War Office ordered twenty WD/RE motorcycles from Royal Enfield for testing. Based on their 1939 civilian pre-war design, the prototype had a right hand brake and was fitted with an Amal carburettor and had a low-mounted toolbox. The trials went well and led to some modifications, including fitting a twin-box exhaust system to help silence the noisy two stroke engine, a Villiers carburettor (indicated by a 'V' on the engine), raising the toolbox and fitting a folding kick-start, footrests and even folding handlebars, so that it could be packed into the smallest possible space. A Miller lighting system was added, together with a sealed vent on the fuel filler to prevent spillage when the motorcycle was packed in a drop carrier. The foot brake was also relocated to the left side.
Seen a REAL one in Jaipur Rajasthan India


Comments

Popular posts from this blog

KTM X-Bow R

I t’s three years since bike manufacturer KTM branched out into cars, launching the X-Bow at the 2008 Geneva motor show. More than 500 brave drivers have been found to buy the X-Bow, ensuring the project has survived the recession and brought further evolution. Which brings us to this: the 2011 X-Bow R, an even faster version of the sports car. It’s a similar, pared-back two-seater, only this time the X-Bow R brings an uprated version of the Audi 2.0-litre four-cylinder. It’s the turbocharged TFSI engine, boosted to 296bhp and 295lb ft of torque. That’s more than in the donor Audi S3 and TT-S, which produce no more than 268bhp. Thank a larger turbocharger, reprogrammed Bosch engine management and new fuel injectors. And the engine changes are just scratching the surface of a series of upgrades to build this fastest ever KTM with four wheels. So the KTM X-Bow R is quicker than most Ferraris? Yes. Prod the throttle and the R simply flies towards the horizon. Ther...

ADAS-Advanced driver assistance systems works

As advanced driver assistance systems (ADAS) continue to evolve, the integration of different sensors has become increasingly important. Among these sensors, lidar stands out as a key technology for enhancing the accuracy and reliability of ADAS functions. In this blog post, we will explore the benefits of fusing lidar in ADAS functions and its applications. What is Lidar and How Does it Work? Lidar is a remote sensing technology that uses laser light to measure distances and create high-resolution 3D images of the environment. In ADAS applications, LiDAR sensors are installed on vehicles to sense their surroundings and collect information about the location, speed, and shape of objects in the environment. Benefits of Fusing Lidar in ADAS Functions Improved Object Detection and Recognition Lidar sensors provide accurate and detailed information about the vehicle's surroundings, making objects more reliable and familiar. Unlike cameras or radars, LIDAR can detect objects even i...