this:
where the amplitude of the wave function is large. After the measurement is performed, having obtained some result x, the wave function collapses into a position eigenstate centered at x.
The time evolution of a quantum state is described by the Schrödinger equation, in which the Hamiltonian, the operator corresponding to the total energy of the system, generates time evolution. The time evolution of wave functions is deterministic in the sense that, given a wavefunction at an initial time, it makes a definite prediction of what the wavefunction will be at any later time.
During a measurement, on the other hand, the change of the wavefunction into another one is not deterministic, but rather unpredictable, i.e., random. A time-evolution simulation can be seen here. Wave functions can change as time progresses. An equation known as the Schrödinger equation describes how wave functions change in time, a role similar to Newton's second law in classical mechanics. The Schrödinger equation, applied to the aforementioned example of the free particle, predicts that the center of a wave packet will move through space at a constant velocity, like a classical particle with no forces acting on it. However, the wave packet will also spread out as time progresses, which means that the position becomes more uncertain. This also has the effect of turning position eigenstates (which can be thought of as infinitely sharp wave packets) into broadened wave packets that are no longer position eigenstates.
Some wave functions produce probability distributions that are constant, or independent of time, such as when in a stationary state of constant energy, time drops out of the absolute square of the wave function. Many systems that are treated dynamically in classical mechanics are described by such "static" wave functions. For example, a single electron in an unexcited atom is pictured classically as a particle moving in a circular trajectory around the atomic nucleus, whereas in quantum mechanics it is described by a static, spherically symmetric wavefunction surrounding the nucleus.
The Schrödinger equation acts on the entire probability amplitude, not merely its absolute value. Whereas the absolute value of the probability amplitude encodes information about probabilities, its phase encodes information about the interference between quantum states. This gives rise to the wave-like behavior of quantum states. It turns out that analytic solutions of Schrödinger's equation are only available for a small number of model Hamiltonians, of which the quantum harmonic oscillator, the particle in a box, the hydrogen molecular ion and the hydrogen atom are the most important representatives. Even the helium atom, which contains just one more electron than hydrogen, defies all attempts at a fully analytic treatment. There exist several techniques for generating approximate solutions. For instance, in the method known as perturbation theory one uses the analytic results for a simple quantum mechanical model to generate results for a more complicated model related to the simple model by, for example, the addition of a weak potential energy. Another method is the "semi-classical equation of motion" approach, which applies to systems for which quantum mechanics produces weak deviations from classical behavior. The deviations can be calculated based on the classical motion. This approach is important for the field of quantum chaos.
There are numerous mathematically equivalent formulations of quantum mechanics. One of the oldest and most commonly used formulations is the transformation theory proposed by Cambridge theoretical physicist Paul Dirac, which unifies and generalizes the two earliest formulations of quantum mechanics, matrix mechanics (invented by Werner Heisenberg) and wave mechanics (invented by Erwin Schrödinger).In this formulation, the instantaneous state of a quantum system encodes the probabilities of its measurable properties, or "observables". Examples of observables include energy, position, momentum, and angular momentum. Observables can be either continuous (e.g., the position of a particle) or discrete (e.g., the energy of an electron bound to a hydrogen atom). An alternative formulation of quantum mechanics is Feynman's path integral formulation, in which a quantum-mechanical amplitude is considered as a sum over histories between initial and final states; this is the quantum-mechanical counterpart of action principles in classical mechanics.
cheers!
If you do not already know a hypothesis is an educated guess, to test a hypothesis that some plants grow well in a dry climate you would have to find a dry climate first and build a medium sized wooden box that can sustain water, soil & a heavy plant. Then you would plant whatever you are testing your hypothesis on. Typical all plant's need SOME water. I would recommend trying to grow plant's that you know already live in dry climate's such as a cactus.
I hope this helps :)
they receive plenty of nourishment to grow.
photosynthesis is the production of carbohydrates in plants. and carbohydrates and stored in the form of starch and glycogen in plants. this starch and glycogen is actually the fruits and vegetables we eat .so without photosynthesis fruits and vegetables would not be formed and thus farmers would suffer
It is called hydroponics
It would warm it up and make it burn, kind of like your moms vajina. I know I spelled it wrong...
So you know whether it is valid or not. If it isn't modify your hypothesis to fit the results of your experiments.
Yes. Plants are living, growing entities. Plants die, so they would have to be alive. (since only living things can die) of course there alive they wouldn't grow if they weren't.
Would like to know -the suitable soil properties for Mango plants growing - the best mango plants availabe in INDIA for plantation -the precautions for growing mango plants in INDIA -like to know the water facility for Mango plants -optimum area in size wise for a growing
The only fast growing and non-rare plants that I know of are simple bean plants such as lima beans. You can get them at any nearby store, so they can be considered non-rare. They are fast-growing as well.
The scientists might Rethink there Hypothesis because when they collect more data they would know more about what they are doing so they would rethink there hypothesis
The scientists might Rethink there Hypothesis because when they collect more data they would know more about what they are doing so they would rethink there hypothesis
It is when you know that your hypothesis is wrong.
photosynthesis is the production of carbohydrates in plants. and carbohydrates and stored in the form of starch and glycogen in plants. this starch and glycogen is actually the fruits and vegetables we eat .so without photosynthesis fruits and vegetables would not be formed and thus farmers would suffer
Botany is important to florists so that they can identify plants, and choose the best plants to survive in containers for show. Florists need to know growing conditions for plants to make recommendations to patrons on which flowers would work the best for the event. They also need to know how to condition plants by tepid water, burning the tip, or boiling the end of the stem.
I would imagine any hypothesis could go on to be a law but depending on the subject, I would guess most do not
A result which is consistent with a hypothesis adds weight to the evidence in favour of that hypothesis: it makes it more likely that the hypothesis is true. But you can never ever confirm a scientific hypothesis. The best that you can do is to show that an alternative hypothesis is unlikely. There could be another hypothesis which is better than the one you started with as well as the alternative that you compared it with: but you simply do not know.
A hypothesis is a reasonable answer based on what you know and what you observe.
If you do not know the answer to something, you can start by making a hypothesis.
I don't know provide me with the meaning