(a) Show that the values of a at which intensity maxima for single-slit diffraction occur can be found exactly by differentiating Eq. 36-5 with respect to α and equating the result to zero, obtaining the condition tan α = α. To find values of a satisfying this relation, plot the curve y = tan a and the straight line y = α and then find their intersections, or use a calculator to find an appropriate value of α by trial and error. Next, from α = (m + ) π, determine the values of m associated with the maxima in the single-slit pattern. (These m values are not integers because secondary maxima do not lie exactly halfway between minima.) What are the (b) smallest α and (c) associated m, the (d) second smallest a and (e) associated m, and the (f) third smallest α and (g) associated m?
(a) Show that the values of a at which intensity maxima for single-slit diffraction occur can be found exactly by differentiating Eq. 36-5 with respect to α and equating the result to zero, obtaining the condition tan α = α. To find values of a satisfying this relation, plot the curve y = tan a and the straight line y = α and then find their intersections, or use a calculator to find an appropriate value of α by trial and error. Next, from α = (m + ) π, determine the values of m associated with the maxima in the single-slit pattern. (These m values are not integers because secondary maxima do not lie exactly halfway between minima.) What are the (b) smallest α and (c) associated m, the (d) second smallest a and (e) associated m, and the (f) third smallest α and (g) associated m?
(a) Show that the values of a at which intensity maxima for single-slit diffraction occur can be found exactly by differentiating Eq. 36-5 with respect to α and equating the result to zero, obtaining the condition tan α = α. To find values of a satisfying this relation, plot the curve y = tan a and the straight line y = α and then find their intersections, or use a calculator to find an appropriate value of α by trial and error. Next, from α = (m + )π, determine the values of m associated with the maxima in the single-slit pattern. (These m values are not integers because secondary maxima do not lie exactly halfway between minima.) What are the (b) smallest α and (c) associated m, the (d) second smallest a and (e) associated m, and the (f) third smallest α and (g) associated m?
What is the current, in amps, across a conductor that has a resistance of10 Ω and a voltage of 20 V?
2. A conductor draws a current of 100 A and a resistance of 5 Ω. What is thevoltageacross the conductor?
3. What is the resistance, in ohm’s, of a conductor that has a voltage of 80 kVand acurrent of 200 mA?
4. An x-ray imaging system that draws a current of 90 A is supplied with 220V. What is the power consumed?
5. An x-ray is produced using 800 mA and 100 kV. What is the powerconsumed in kilowatts?
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