Albert Einstein

No, Albert Einstein was not a biologist. He was a theoretical physicist who is best known for developing the theory of general relativity and the equation E=mc^2.

Albert Einstein was not a biologist; he was a theoretical physicist.

E = energy

e=mc2 (or Engergy (e) equals Mass (m) times the Velocity of Light (c) squared {the speed of light times itself}).

A Bose-Einstein condensate does have volume, but the volume is very small. All the atoms in a Bose-Einstein condensate are superimposed on each other, so no matter how many you have, the volume is that of a single atom.

They are both brilliant men, but most of Hawkings' works depend on the genius of Einstein's theories and equations. Hawkins' greatest work was "Hawkings Radiation", which wasn't completely done on his own. Basically this says that black holes will eventually disappear due to this *big cheer*. On the other hand, Einstein managed to flatten what we knew, or thought we knew, about physics, and rebuild it in a mind-blowing way. His theories reshaped the way we view space, time, velocities, light, gravity, and so much more. In doing so, reshaping all physics in a major way. His equations, such as E = mc squared, are used to determine the power of nuclear bombs! This is just a minuscule amount of what this man did for the world of physics. Also, study of Einstein's brain proved that he was physically a genius due to his massive amount of neurons present in the brain, exponentially greater than the normal human. So you see, you can't really compare the two because they both have proven and studied many different things.

The Nobel Prize has not been awarded specifically for the Big Bang Theory. However, in 1978, the Nobel Prize in Physics was awarded to Arno Penzias and Robert Wilson for their discovery of cosmic microwave background radiation, which provided strong evidence for the Big Bang Theory.

Nobel Prizes are typically awarded to living individuals or organizations. However, if a laureate passes away before receiving the prize, it can still be awarded posthumously. This is often the case in categories like Literature, where the nominated individual may have passed away before the announcement.

Some notable contributors in the field of earth science include James Hutton, known as the father of modern geology for his work on the concept of deep time; Marie Tharp, a geologist who mapped the ocean floor and helped support the theory of plate tectonics; and Charles Lyell, a geologist who popularized the idea of uniformitarianism and greatly influenced the work of Charles Darwin.

Photo relates to light. Of course light is electromagnetic wave. Electric relates to electron movement. So by making electromagnetic waves such gamma ray, X-ray, UV rays and even visible light we can eject electrons right from the surface of certain substances. This is termed as photo electric effect or emission.

In probability theory, an "expectation value" is the average of all values of a measurable quantity that one would expect, if a measurement was repeated a large number of times on a given system. For example, for an unbiased coin, the expectation value for "heads" is half of all tosses.

Each measurable quantity of a quantum system has an operator that, when mathematically applied to the system, gives a value of that quantity for that system. The expectation value for that quantity, for a given quantum system, is the product of that operator on a given state of the system, times the probability of the system being in that state, integrated over all possible states of the system. A more formally stated example:

For a quantum state Ψ(x), where 'x' can vary from -∞ to ∞, and for which Q(x) is a measurable quantity, then the expectation value of Q(x) would be equal to

∫Ψ*(x)Ψ(x)Q(x)dx

integrated from x = -∞ to x = ∞

As an example, suppose we wanted the expectation value for the radial position of an electron in its '1S' state within a hydrogen atom. When doing the formal math, we find that this value exactly equals the Bohr Radius. In contrast to the Bohr Model of an atom, this expectration value does NOT state that this electron IS at this radius, only that an AVERAGE of all radial measurements of such an electron would be the Bohr Radius.

In any circumstance where a threshold of energy is required to free an electron from a bound state, an incoming photon must have at least that energy to do the job. The energy of a photon is proportional to the frequency of the light, so the minimum energy corresponds to a minimum frequency of the light, or maximum wavelength necessary to free an electron. This observation was a major step in the development of radiation theory (Einstein).

Having an IQ of 135 is considered to be in the "gifted" range, indicating above-average intelligence. People with this IQ level may have strong problem-solving abilities, quick learning capabilities, and advanced reasoning skills compared to the general population.

There is no scientific evidence to support the claim that humans only use 10% of their brain, nor that Einstein specifically used more than that. This myth has been debunked by neuroscience research, as studies have shown that we use all parts of our brain for various functions.

1)Danish physicist Neils Bohr's contributions to science:

Developed the Bohr model of the atom.

Developed the correspondence principle, the basic tool of Old quantum theory.

2)English physicist Isaac Newton's contributions to science:

Developed calculus.

Developed theory of universal gravitation.

3)French chemist Louis Pasteur's contributions to science:

Developed pasteurization.

Found cures for chicken cholera, anthrax and rabies.

4)English physicist and chemist Michael Faraday's contributions to science:

Built the first electric motor.

He later built the first generator and transformer.

Also discovered benzene, a common carbon compound.

5)British theoretical physicist Paul Dirac's contributions to science:

Developed his own widely-acclaimed theory of quantum mechanics.

Essentially founded quantum electrodynamics.

Became recognized as the 'discoverer' of antimatter

6)Austrian physicist Ludwig Boltzmann's contributions to Thermodynamics:

He developed The Boltzmann equation.

7) British physicist Joseph J. Thomson's contributions to science:

Discovered the electron

Development of the mathematical theory of electricity and magnetism.

8) Italian physicist Enrico Fermi's contributions to science:

Invented the first nuclear reactor.

Made important discoveries about the atom,

which led to the splitting of the atom (atomic bombs) and the harnessing of its heat into an energy source (nuclear energy).

9)Russian chemist and inventor Dmitri Mendeleev's contributions to science:

Discovered the periodic table of elements.

10) French chemist Antoine Laurent Lavoisier's contributions to science:

proved the law of conservation of mass.

Developed theory of the chemical reactivity of oxygen.

Coauthored the modern system for naming chemical substances

Hydrogen is special in quantum mechanics because its simplest form, the hydrogen atom, is the only atom for which the Schrödinger equation can be solved analytically. This allows for detailed insight into the behavior of electrons in the atom, providing a fundamental understanding of quantum mechanics. Additionally, hydrogen plays a key role in the development of quantum theories and helps explain important phenomena such as emission spectra and energy levels in atoms.

Albert Einstein and Michael Faraday were both renowned scientists who made groundbreaking discoveries in the field of physics. They both revolutionized our understanding of the natural world with their theories and experiments, and their work had a lasting impact on the development of science and technology.

Yes, American writer Sinclair Lewis was awarded the Nobel Prize in Literature in 1930 for his vigorous and graphic art of description and his ability to create, with wit and humour, new types of characters.

Transformation of energy does follow the conservation of mass and energy. When a body gains potential energy, it loses kinetic energy and viceversa. Therefore total energy always remains constant.

till now nobel prize haven't given in mathematics because mathematics is considered as a non spoken language but it can be written and calculated , where you can't create any new

Sir Isaac Newton left school for a little while due to the outbreak of the Great Plague in London, which forced the closure of the University of Cambridge where he was studying. Newton returned to his family's farm in Woolsthorpe during this time.

Einstein's quantum theory of light, proposed in 1905, describes light as consisting of particles called photons that carry energy and momentum. It explains various phenomena such as the photoelectric effect, where light can eject electrons from a material, and the quantization of light energy into discrete packets.

The theory of inertia was first formulated by Sir Isaac Newton in his first law of motion, also known as Newton's first law. Newton proposed that an object will remain at rest or in uniform motion unless acted upon by an external force.

Anything that has any mass when it's at rest would have infinite mass at the speed of light.

Yes, Albert Einstein was awarded the Nobel Prize in Physics in 1921 for his discovery of the photoelectric effect, which helped establish the theory of quantum mechanics.

Einstein wrote more than one 'famous equation', but the one you mean is e=mc2 .

This shows that mass may be converted to energy, or energy to mass, under the right conditions. c2 gives the rate of exchange between the two. Since c (the speed of light) is a large number, its square implies a ruinous exchange rate if you want to create mass, and a good deal if you can turn mass into energy.

In any closed system you can begin by measuring the quantities of energy and mass, then use the equation to convert mass to energy, or vice versa. Then, whatever you do in your closed system, the total mass equivalent, or energy equivalent, will remain what it was before.

In short, mass-energy is conserved.