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Suppose that the channel’s outgoing end is in the hydrogen l=0Stem-Gerlach apparatus of the figure. You place a second such apparatus whose channel is aligned with the first but rotated 90°about the x-axis, so that its B –field lines point roughly in the y-direction instead of the. What would you see emerging at the end of your added apparatus? Consider the behavior of the spin-up and spin-down beams separately. Assume that when these beams are separated in the first apparatus, we can choose to block one or the other for study, but also assume that neither deviates too far from the center of the channel.

Short Answer

Expert verified

The one that emerges at the end of the added apparatus will be a beam with either a left-pointing or right-pointing spin.

Step by step solution

01

Stern-Gerlach experiments.

The Stern-Gerlach experiment provides the demonstration for the quantization of the spatial orientation of the angular momentum, in this experiment a silver atom is used which is made to go through a spatially varying magnetic field.

02

The one that emerges at the end of added apparatus.

In the experiment, each atom is not in a specific dipole up or down until it passes through the magnet that will measure its state with equal probability. Once the state is filtered, either it is dipole upstate or dipole downstate, not in a single left state.

So, when the beam is passed through the second apparatus. It is divided into two beams, depending on whether the second measuring process results in measuring a left-pointing or right-pointing spin.

Conclusion: Therefore, The one that emerges at the end of the added apparatus will be a beam with either a left-pointing or right-pointing spin.

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Most popular questions from this chapter

The Kαline in copper is a very common one to use in X-ray crystallography. To produce it, electrons are accelerated through a potential difference and smashed into a copper target. Section 7.8 gives the energies in a hydrogen like atom asZ2(-13.6eV/n2) . Making the reasonable approximation that ann=1 electron in copper orbits the nucleus and half of its fellow n=1electron, being unaffected by the roughly spherical cloud of other electrons around it. Estimate the minimum accelerating potential needed to make a hole in copper'sKshell.

To investigate the claim that lowerimplies lower f energy. consider a simple case: lithium. which has twon=1electrons and alonen=2valence electron.

(a)First find the approximate orbit radius, in terms ofa0. of ann=1electron orbiting three protons. (Refer to Section 7.8.)

(b) Assuming then=1electrons shield/cancel out two of the protons in lithium's nucleus, the orbit radius of ann=2electron orbiting a net charge of just+e.

(c) Argue that lithium's valence electron should certainly have lower energy in a 25 state than in a2pstale. (Refer Figure 7.15.)

Verify that the normalization constant given in Example 8.2is correct for both symmetric and antisymmetric states and is independent ofnand n'?

Two particles in a box occupy the n=1andn'=2individual-particle states. Given that the normalization constant is the same as in Example8.2(see Exercise 36), calculate for both the symmetric and antisymmetric states the probability that both particles would be found in the left side of the box (i.e., between 0 and13L)?

To determine the value of Z at which the relativistic effects might affect energies and whether it applies to all orbiting electrons or to some more than others, also guess if it is acceptable to combine quantum mechanical results.

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