Albert Einstein

Einstein advised young people to have a deep passion for their work, stay curious, and not be discouraged by failure. He emphasized the importance of perseverance and creativity in scientific pursuits.

NO

"God does not play dice"

He used the sentence as a rebuttal to quantum mechanics, but deep down, it explains most of his life's work.

He played a role in its creation by sending a letter to convince president Roosevelt to start work on a nuclear weapon, and many of his theories went into the making of it. Einstein himself was a pacifist and regretted for the rest of his life that he had influenced the creation of nuclear weapons.

Yes. His equation, E=mc2, where E is energy, m is mass, and c squared is the velocity per second of light squared. This equation led to the making of the atomic bomb, which we dropped on Japan twice, killing thousands.

Albert Einstein showed courage by standing up for his beliefs and principles, even in the face of intense criticism and opposition. He was not afraid to challenge existing scientific theories and societal norms, demonstrating exceptional bravery in pursuing his groundbreaking ideas. Einstein's determination to pursue truth and knowledge, regardless of the consequences, exemplified his courage.

Einstein won the Nobel Prize in Physics in 1921, not 1922, for his discovery of the photoelectric effect, which helped confirm the quantum theory of light.

In 1905, Albert Einstein published his theory of special relativity, which revolutionized our understanding of time, space, and energy. This theory introduced the concept that the laws of physics are the same for all non-accelerating observers, regardless of their relative motion. It also famously showed that the speed of light is constant in all reference frames.

The photoelectric effect is used in devices such as solar cells to convert light energy into electrical energy. It is also used in photocells to control lighting in automatic systems, such as motion-sensing lights. Additionally, it is used in photography to capture images and in spectroscopy to analyze the composition of materials.

Einstein's equation in it's simplest form is E=mc2

so to get 9*1016 J divide this by c2 which would give you the mass

'which in this case is 1, In these units I believe this is 1kg

Einstein is most known for his theories of special relativity and general relativity. These were significant because they helped lay the groundwork for modern physics. In addition, he explained the photoelectric effect, which has led to many practical applications, such as light sensors. Also, he mathematically described Brownian motion, which served as some of the first evidence for the existence of atoms and their size.

I can't say for certain, but he would put his pants on backwards, he obviously didn't pay much attention to what was happening around him, so I'd say he probably did.

Einstein's theory of special relativity led to breakthroughs in understanding the relationship between space and time, introducing the concept of spacetime and the equivalence of mass and energy, famously expressed in the equation E=mc^2. It also revealed that the laws of physics are the same for all non-accelerating observers.

Albert Einstein did not discover anything new about light or sound. However, his theories of relativity revolutionized our understanding of space, time, and gravity, providing a new framework for understanding the behavior of light and energy.

The Copley Medal of the Roayl Society is awarded to anyone sho has made outstanding achievements in any branch of science. The award often alternates between the physical and the biological sciences. Albert Einstein was awarded the Copley Medal of the Royal Society in 1925 for his theory of relativity and his contributions to the idea of quantum theory.

This query too is an interesting one to roam about.

Have we ever seen two waves traversing on the calm surface of water give out collision among themselves? No and never! Is it not?

That is why scientists used these terms as first and foremost, while they start explaining about the superposition of waves.

"Each and every wave would travel in the medium as if the other waves were absent."

If this is the fate of the waves, then how is it possible for waves such as light when falling on a substance to kick off electrons to come out of the surface. This phenomenon is known as photo electric emission.

First light energy was assumed to be made of corpuscles by Sir Issac Newton. But his theology failed as he declared a wrong idea that the speed of light is more in denser medium. But, by practical experiments done by Foucault and others, that was disproved. Hence wave theology was proposed by Christian Huygens. Sticking on to this wave aspect, James Clark Maxwell proposed electromagnetic wave theory stating that light is not a mechanical wave as sound wave. Light can pass through even through non material medium such as free space, collocqualy saying, vacuum. Hence a wave is able to kick off material like electrons right from the atom. This will be possible only when light is in the form of some particle like which has at least momentum to kick. Hence photon concept was introduced by Einstein. But this quantum concept was already brought to light by Max Planck. That was applied to light energy by Einstein and he named those quanta of light as photons. Photon's rest mass is zero but it has momentum, which is measured right from its wavelength. P = h/ lambda. h is Planck's constant and its value is found to be 6.626 x 10 -34 Js.

Some believe that Mileva Maric, Albert Einstein's first wife was a gifted scientist and mathematician in her own right. However when Einstein died in 1955, he did not give her scientific credit for her help. Others believe that Einstein's wife was only used as a "sounding board" and that she did not come up with any of Einstein's mathematical concepts. It is not the case that she was a gifted scientist: she twice failed the Zurich Polytechnic diploma examinations for teaching physics and mathematics in secondary school, and there is no known work in physics that can be attributed to her.

Some famous physicists include Albert Einstein, Isaac Newton, Marie Curie, and Stephen Hawking. These individuals made significant contributions to our understanding of the universe and advanced our knowledge in areas such as relativity, quantum mechanics, and radiation.

Einstein's famous equation, E=mc², is a fundamental concept in physics. It states that energy (E) is equal to mass (m) multiplied by the speed of light squared (c²). This equation shows the equivalence of mass and energy, indicating that mass can be converted into energy and vice versa. It is the foundation of the theory of relativity and has led to advancements in nuclear energy and understanding the structure of the universe.

Albert Einstein's special theory of relativity revolutionized our understanding of time, space, and energy. It led to advancements in technology like GPS and nuclear energy. It also influenced art, literature, and philosophy, sparking new ways of thinking about the nature of the universe and our place within it.

In automatic doors, the photoelectric effect is utilized by a sensor that emits a beam of light across the door frame. When someone interrupts this beam by walking through the doorway, the sensor detects the decrease in light intensity and triggers the door to open. This process enables the automatic door to open and close without the need for physical contact.

Bose-Einstein condensation occurs at extremely low temperatures, typically near absolute zero (0 Kelvin or -273.15 degrees Celsius). At this temperature, the individual atoms or particles that make up a Bose gas lose their distinct identities and start to behave as a single entity, forming a condensate with quantum mechanical properties.

No, Albert Einstein did not create the light bulb. The invention of the light bulb is credited to Thomas Edison, who patented the first commercially practical incandescent light bulb in 1879. Albert Einstein was a theoretical physicist known for his contributions to the field of physics, particularly the theory of relativity.