Albert Einstein's Arguments Against The Photoelectric Effect

Einstein has brought many insights of life including the theory of the speed of light, which has led to the special theory of relativity that molded the way science, is today. “For example, various experiments, including the Michelson-Morley experiment, failed to measure the expected changes in the speed of light relative to the motion of the Earth. Due to this Einstein recognized that light has a measured speed that is independent of the speed of the observer” (“Albert Einstein.” 4). “Einstein showed in 1907 that mass is related to energy by the famous equation E=mc^2, which indicates the enormous amount of energy that is stored as mass, some of which is released in radioactivity and nuclear radiations, for example in the sun” (4).This enabled Einstein to be able to start and finish the general theory of relativity.

Light waves are a form of electromagnetic waves, which consist of patterns of electric and magnetic energy. The visible spectrum is only a small part of the electromagnetic spectrum-the

The Special Theory of relativity is an acknowledged physical theory that revolutionized advancements in the relationship between space, and time. The theory is one of the most interesting discoveries that are still used today in science fiction movies such as Star Wars, and Star Trek through the use of black holes, and time travel due to it’s astonishing results, and it occurrence at speeds close to the speed light, which can be appealing to a wide range of audience. This was a harvest from six years of extremely handwork by Albert Einstein. Einstein used resources that were widely available to the public due to his economic constraints. It wasn’t until 1905, when Einstein finally had finished and published his discoveries, and gatherings

When light is absorbed the electrons get excited and go into a higher energy level, so it move much more freely. This produces an electrical

Quantum Mechanics is the science of subatomic particles and their behavior patterns that are observed in nature. As the foundation of scientific knowledge approached the start of the twentieth century, problems began to arise over the fact that classic physical ideas were not capable of explaining the observed behavior of subatomic particles. In 1913, the Danish physicist Neils Bohr, proposed a successful quantum model of the atom that began the process of a more defined understanding of its subatomic particles. It was accepted in the early part of the twentieth century that light traveled as both waves and particles. The reason light appears to act as a wave and particle is because we are noticing the

We benefit greatly the benefits of long distance communication, eating food from different parts of the countries without fear of spoilage, radiation treatment, and heating up food in a matter of minutes, and a myriad of other wonders all do the wonders of waves, be they sound waves as well as light waves. In this timeline, we will look at all of the different light waves, their history, and their benefits.

Light is a type of energy. Light behaves like a wave because it acts as a disturbance in the magnetic and electric field of space. Light can behave as a particle, because it sends all its energy to one place. A particle of light is called a photon. Photons can be absorbed into objects, bounce

Soon after Einstein discovered that light was a particle he wrote a paper in which he described light as a wave. It turns out that light is a collection of photons which travel as an electromagnetic wave. This explains how light can be both a wave and a

There are three parts to a wave, the wavelength, amplitude, and frequency. The wavelength is the distance between two crests or troughs (top or bottom of wave). The amplitude is the height of the wave from origin to crest, this shows the intensity of the wave. Last but not least, the frequency is the number of waves that pass through a point. Frequency is measured in Hertz.

After that theory scientists started Wondering about this theory and a lot of Scientists made up Models and conducted Experiments to Explain this Theory. In this report we will put our self’s inside Each scientist’s Shoe and see What has he discovered.

The term waves can have an infinite amount of meanings. It can refer to a girl's hair, the beach and most importantly a physics theme. In a physics classroom, a wave is a disturbance that carries energy from one point to another. The types of waves are endless from electromagnetic, sound, magnetic, longitudinal and transverse just to name a few. The later two are key in class as they are the most common types of waves and not only are they used to teach a concept but are also used in our everyday lives. A key difference between a longitudinal and a transverse wave is the way they transport energy. While a transverse wave does not require a medium to pass on energy a longitudinal on the other hand must have a medium for it to pass down energy.

Due mostly to work by Albert Einstein, but also Ernest Rutherford and others, the scientific view of the universe took a drastic turn. These scientists recognized flaws in the classical Newtonian view of the universe. The recognition of these flaws led to the development of the Quantum Theory of Matter as well as Einstein's Relativity Theory. These theories, as well as the discoveries that they led to, incorporated the entire universe as being comprised of energy, and that particles, time, and space, are just different representations of this energy.

According to the classical theory of electromagnetic radiation, electric and magnetic fields oscillating at a given frequency are able to give out electromagnetic radiation of the same frequency. Electromagnetic radiation theory can explain light scattering phenomena.

Introduction The Quantum Theory was the second of two theories which drastically changed the way we look at our physical world today, the first being Einstein’s Theory of Relativity. Although both theories revolutionized the world of physics, the Quantum Theory required a period of over three decades to develop, while the Special Theory of Relativity was created in a single year. The development of the Quantum Theory began in 1887 when a German physicist, Heinrich Hertz, was testing Maxwell’s Theory of Electromagnetic Waves.

Light, a concept that has been worked with for many years dating back to 500 B.C. Pythagoras hypothesized that humans perceive light due to the human eyes ability to emit rays upon the environment and the emittance gives a human his or her sight (Sekuler). Afterward, human intellectuals started making it more concise to present day knowledge of light. This development of light came from two intellectuals named Christian Huygens and Isaac Newton. Newton exclaimed during the 1700s that light was a stream of particles carrying energy but Huygens, Newton’s contemporary, thought that light needed this invisible “ether” in order for these streams to make light travel. Then, a couple hundred years later, modern scientists such as Albert Einstein, Thomas Young, and Augustin Fresnel proved Isaac’s and Huygens’ hypotheses of light (Rossing, 23-24). This is how the basis of light was created.