CE A proton follows the path shown in Figure 22-56 as it moves through three regions with different uniform magnetic fields, B 1 , B 2 , and B 3 . In each region the proton completes a half-circle, and the magnetic field is perpendicular to the page. (a) Rank the three fields in order of increasing magnitude. Indicate ties where appropriate. (b) Give the direction (into or out of the page) for each of the fields. Figure 22-56 Problems 71 and 72
CE A proton follows the path shown in Figure 22-56 as it moves through three regions with different uniform magnetic fields, B 1 , B 2 , and B 3 . In each region the proton completes a half-circle, and the magnetic field is perpendicular to the page. (a) Rank the three fields in order of increasing magnitude. Indicate ties where appropriate. (b) Give the direction (into or out of the page) for each of the fields. Figure 22-56 Problems 71 and 72
CE A proton follows the path shown in Figure 22-56 as it moves through three regions with different uniform magnetic fields, B1, B2, and B3. In each region the proton completes a half-circle, and the magnetic field is perpendicular to the page. (a) Rank the three fields in order of increasing magnitude. Indicate ties where appropriate. (b) Give the direction (into or out of the page) for each of the fields.
Values that are within standard deviations represent measurements that are considered to be near the true value. Review the data from the lab and determine whether your data is within standard deviations. Report, using numerical values, whether your data for each angle is within standard deviations.
An acceptable margin of error typically falls between 4% and 8% at the 95% confidence level. Review your data for each angle to determine whether the margin of error is within an acceptable range. Report with numerical values, whether your data for each angle is within an acceptable margin of error. Can you help explain what my data means in terms of the standard deviation and the ME? Thanks!
A sinusoidal wave is propagating along a stretched string that lies along the x-axis. The displacement of the string as a function of time is graphed in (Figure 1) for particles at x = 0 and at x = 0.0900 m. You are told that the two points x = 0 and x = 0.0900 m are within one wavelength of each other. If the wave is moving in the +x-direction, determine the wavelength. If instead the wave is moving in the -x-direction, determine the wavelength. Please show all steps
You are designing a two-string instrument with metal strings 35.0 cm long, as shown in (Figure 1). Both strings are under the same tension. String S1 has a mass of 8.30 g and produces the note middle C (frequency 262 Hz ) in its fundamental mode. What should be the tension in the string? What should be the mass of string S2 so that it will produce A-sharp (frequency 466 Hz ) as its fundamental? To extend the range of your instrument, you include a fret located just under the strings but not normally touching them. How far from the upper end should you put this fret so that when you press S1 tightly against it, this string will produce C-sharp (frequency 277 Hz ) in its fundamental? That is, what is x in the figure? If you press S2 against the fret, what frequency of sound will it produce in its fundamental?
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