#shorts

Universe Explained in 1 minute

(you might recognize this from a recent video)

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Welcome to Blimpt

#shorts

Universe Explained in 1 minute

(you might recognize this from a recent video)

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Support me at Patreon:

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Website:

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Arduino is a programmable circuit board that makes it possible for the average developer to build custom hardware products. Learn about Arduino’s architecture, microcontroller, programming language, and IDE in 100 seconds.

#programming #arduino #100SecondsOfCode

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– How do electrical circuits work?

– What is a microcontroller?

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– What programming language does Arduino use?

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This #short simulation shows a solution of SchrĂ¶dinger’s equation in a parabolic resonator similar to the one in the video The boundary is made of two parabolas that share the same focal point. The initial state is a Gaussian wave packet representing a particle moving to the right. The luminosity indicates the modulus squared of the wave function, representing the probability of finding the particle at different places, while the hue indicates the phase/argument of the wave function. Since mixing all colors of the rainbow in equal proportions produces white, the colors often appear quite faded.

For classical wave equations, parabolas have the property of transforming a planar wave into a circular wave converging on the focal point, and vice versa. By contrast with the classical linear wave equation, SchrĂ¶dinger’s equation is dispersive, meaning that different wave lengths travel at different speeds. Therefore, one cannot expect such good focusing properties, but still, the animation shows a relatively stable oscillation along the symmetry axis of the cavity. See for comparison in a different cavity.

Render time: 3 hours 47 minutes

Yes, I know this is ridiculously longer than comparable wave videos. The reason is that I have to use a much smaller time step, since otherwise a weird instability makes the phase completely chaotic after a while. In many other SchrĂ¶dinger equation simulations, I used half the resolution, which decreases the computation time by a factor 16 (a factor 4 because of the larger spatial discretization, and another factor 4 because one can increase the time step).

Music: Heavy Interlude by Kevin MacLeod is licensed under a Creative Commons Attribution 4.0 licence.

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The simulation solves the SchrĂ¶dinger equation by discretization.

The C code is available on

Many thanks to my colleague Marco Mancini for helping me to accelerate my code!

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Five areas of physics worth remembering: Classical mechanics, energy and thermodynamics, electromagnetism, Relativity, and Quantum Mechanics. Classical mechanics – two main concepts worth knowing. The first is Newtonâ€™s second law: F= ma: Force equals mass times acceleration. If you apply a force to a fixed mass, it tells you how much acceleration you will get. And knowing acceleration which is the change in velocity, you can make predictions.

The second equation is the law of universal gravitation. it allows us to determine the motion of heavenly bodies. It says that the gravitational attraction between two bodies is the product of their masses divided by the distance between them squared, times a constant, called Newtonâ€™s gravitational constant.

Energy is not a vector like force or momentum, but it is just a number. Work is closely related to energy. It is force times distance traveled. Energy for most objects consists of kinetic energy plus potential energy. KE is the energy of motion, It is KE = Â˝ M V^2 â€“ the more mass you have and/or the more velocity you have, the more energy you have.

Gravitational potential energy is expressed as PE = m g h â€“ mass times the gravitational acceleration times the height. The total energy of an object is both Kinetic energy plus potential energy. Potential energy can take many forms. Gasoline or petrol has chemical potential energy. Important: Energy is always conserved. It is not created or destroyed. It only changes form.

Thermodynamics is the study of work, heat, and energy on a system. We showed energy is how much work you could do. But another form of energy is thermal energy. If a car is moving and you apply the brakes, the kinetic energy of the car gets converted to thermal energy, created by friction of the carâ€™s brakes. Temperature is the average kinetic energy of atoms in a system. Thermal energy is the total kinetic energy of atoms in a system.

Entropy is a measure of disorder, or more accurately, the information required to describe the micro states of a system. The 2nd law of thermodynamics states that entropy of an isolated system can never decrease. Energy at lower entropy can do more work than energy at high entropy. The one way flow of Entropy seems to be the only reason we have a forward flow of time.

Electromagnetism is the study of the interaction between electrically charged particles. The essentials are in Maxwellâ€™s equations. If you have a static object with a charge, it will affect only other charges. If you have a static magnet, it will affect only other magnets. It will not affect charges. But if you have a moving charge, it will affect a magnet. And if you have a moving magnet, it will affect a charge. The constants mu naught and epsilon naught are the permeability and permittivity of free space. These two constants determine the speed of light because they measure the resistance of space to changing electric and magnetic fields.

Special Relativity: Einstein presumed that the speed is the same in any frame of reference. This was one of the postulates.

The second postulate was principle of relativity – the laws of physics are the same for all observes who are moving at the same velocity relative to each other. Einstein showed that the only way these can be true is if time was not fixed, but was relative.

General relativity: Later Einstein showed using the same assumptions, there would be no way to tell if you were in an accelerating reference frame or standing stationary on earth. A flashlight beam will bend in gravity. But since light always takes the shortest path between any two points, this means that space-time itself is bending.

Quantum mechanics: Three principles are important. First by Max Planck, says that energy is not continuous, but is quantized. The amount of energy equals the frequency of the radiation times Planck’s constant. Using this, Einstein later showed that a photon is both a wave and a particle.

The second is the Heisenberg’s uncertainty principle: you cannot know both a particleâ€™s exact position and itâ€™s exact momentum at the same time. For a particle with mass, this means if you know exactly where a particle is, you donâ€™t know how fast going. If you know exactly how fast itâ€™s going, you donâ€™t know where it is.

#allphysics

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Schrodinger’s equation: prior to measurement, quantum systems are in superposed states. This means that their properties can only be expressed as a wave function. A wave function simplified, is a set of probabilities. So in a hydrogen atom, you canâ€™t know where to find the electron in advance. All you can know is the probability of where you might find it, if you measured it. Prior to measurement, all quantum systems are waves of probabilities. This is not a limitation of our measuring devices. It is a limitation of reality.

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I briefly discuss the physics of capacitors as well as their varied uses.

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Want to break RSA and ECC cryptography in just 10 lines of python code?

Let me show you how with a quantum computer!

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Universal gate quantum computers can run Shor’s algorithm to break modern forms of modern cryptography. It was discovered in 1994!

Using Qiskit Aqua library, you can factor numbers (the basis of RSA cryptography) using Shor’s algorithm with 10 lines of code!

Let’s import Shor, QuantumInstance, and Aer, a quantum simulator.

You can also change the backend to a real quantum chip. This example uses the qasm_simulator, but you can change the backend to a real quantum chip!

We setup the quantum instance and the number of shots, or runs, of this algorithm

Of course, right now we can only factor small numbers, but this demonstrates how far we’ve come with quantum computing!

You can get access to the IBM Quantum Experience and Qiskit documentation here:

#Shorts #quantumcomputing #pythoncoding

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REFERENCES

Page with TONS of info about water and ice

Specifically, a graph showing density & temperature & pressure along the phase line!!!!!

Water freezing in isochoric conditions (theory):

Water pressure/density calculator

Article about pressure vs temperature vs volume expansion: Using freezing as a source of energy

Latent heat of water at 0C

Mariana Trench

Regelation on wikipedia

Using Ice VI to freeze meat without tissue damage

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Minute Physics provides an energetic and entertaining view of old and new problems in physics — all in a minute!

Created by Henry Reich

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Electricity & Magnetism Lecture # 02 (Urdu & English Mixed)

Coulombâ€™s Law

Note: The lectures are arranged/prepared in such a way that it covers not only the course contents of â€śElectricity & Magnetismâ€ť at the starting semesters of BS but also that of â€śElectromagnetic Theory (EMT)â€ť offers at 5th and 6th semesters of BS degree.

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