World War II was a time of imperative scientific and technological development. These advances, accomplished by both the Allied and Axis countries, played an inconceivable role in the outcome of the war. There is also no comparison in preceding wars in terms of the effects of their usage of scientific research and mathematics on the future. The various evolutions in the fields of medicine, rocketry, and more not only influenced how the war was fought in the past, but numerous technologies and practices developed throughout the modern world, from the military realm to everyday life. One of the most prominent of these advancements was the creation and execution of the atomic bomb. Since the Manhattan project of 1942, over 100,000 scientists, …show more content…
This guided missile could reach an altitude of about 60 miles, its range between 200 and 225 miles, and could shoot across entire countries, as demonstrated when they landed in London after being launched in Holland. The use of liquid fuel greatly improved the distance the missile could fly, and gave the rocket enough energy density to throttle and thrust. Walther von Braun, a head of Germany’s rocket researchers, had his first successful launching of a liquid-fuelled A-2 test rocket by December, 1934. Soon, the A-3 and A-5 rockets were tested, leading to the A-4 model, which would turn into the V-2 missile. Although scientists struggled with how to launch a missile requiring about 25,000 kilograms of thrust. they settled upon an engine with dual gas turbine-powered pumps, rushing water, ethanol, and liquid oxygen into the combustion chamber, generating massive thrust. Also, in order to ensure that the missile would stay on the correct course, angle, and accurately hit its target, internal systems were made that determined flight path, measured pitch, roll, and yaw to hold a path, and once acceleration was appropriate, shut the engine …show more content…
Radar, or Radio Detection and Ranging, uses radio waves to detect objects at a long distance. During the war, it was used in France, The Netherlands, Germany, Japan, Italy, the UK, the USA, and the USSR. This enabled people to watch for incoming air attacks, direct bombers and aircrafts, and greatly lowered the chance of surprise attacks, as long as the radars were still working. Realizing this, scientists in the United States devised countermeasures, which could be used to jam the opposing radars. These were small strips of tin foil in canisters, called “windows” and “chaff,” thousands of which were dropped by Allied bombers. Radars also became the basis of tracking storms, crucial in major planned attacks and changing meteorology. Later on, people who designed weapons discovered that by placing small radars on artillery shells, proximity fuses that detonated near their targets could be established. Radar engineering set the path for many modern technologies, like television. It also aids in triangulating a position by detecting the distance from several radar beacons, and LORAN, or long-range navigation, was the basis for satellite-based GPS systems used by many people for