Question

Accelerating charges radiate electromagnetic waves. Calculate the wavelength of radiation produced by a proton in a...

Accelerating charges radiate electromagnetic waves. Calculate the wavelength of radiation produced by a proton in a cyclotron with a magnetic field of 0.327 T.

Answer in m

Homework Answers

Answer #1

Solution:

Using the fallowing relation, find the frequency of the cyclotron,

f = qB/2m

Now substitute the values of charge , mass of proton and B given ,

f = 1.602*10-19*0.327/2*1.67*10-27.

= 5.00*106 Hz.

Now, Using the relation of planks frequency,

f = c/

= c/f

= 3*108/5*106

= 60.09071 m

= 60.1 m.

I hope you understood the problem and got your answers, If yes rate me!! or else comment for a better solutions

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Accelerating charges radiate electromagnetic waves. Calculate the wavelength of radiation produced by a proton in a...
Accelerating charges radiate electromagnetic waves. Calculate the wavelength of radiation produced by a proton in a cyclotron with a magnetic field of 0.461 T.
Electromagnetic waves are produced by oscillating accelerated particle. Give the reason, why electromagnetic waves have more...
Electromagnetic waves are produced by oscillating accelerated particle. Give the reason, why electromagnetic waves have more application than the non-electromagnetic waves? An EM radiation coming out when a TV remote is switched on. Now, if it starts propagating from vacuum into water, it is assumed that its speed is reduced to half, predict its wavelength in water and justify your result. Compare and validate your results for a radiation coming out from an X-ray machine. Compare the effects on frequency...
A typical wavelength oven operates at 2.45 GHz. Calculate the wavelength of this electromagnetic radiation. How...
A typical wavelength oven operates at 2.45 GHz. Calculate the wavelength of this electromagnetic radiation. How does this compare to the width of a typical microwave (the one in your home is about 30 cm wide)? Assuming the waves are a standing wave, how many nodes are in the microwave? Have you ever observed phenomenon?
Calculate the shortest wavelength of the electromagnetic radiation emitted by the hydrogen atom in undergoing a...
Calculate the shortest wavelength of the electromagnetic radiation emitted by the hydrogen atom in undergoing a transition from the n = 6 level
Calculate the wavelength of each of the following frequencies of electromagnetic radiation. Express your answer in...
Calculate the wavelength of each of the following frequencies of electromagnetic radiation. Express your answer in meters using four significant figures. Part A. 103.8 MHz (typical frequency for FM radio broadcasting) Part B. 1065 kHz (typical frequency for AM radio broadcasting) Part C. 835.6 MHz (common frequency used for cell phone communication)
Calculate the wavelength of each frequency of electromagnetic radiation: Part A 101.0 MHz (typical frequency for...
Calculate the wavelength of each frequency of electromagnetic radiation: Part A 101.0 MHz (typical frequency for FM radio broadcasting) Express your answer using four significant figures. Part B 1075 kHz (typical frequency for AM radio broadcasting) (assume four significant figures) Part C 835.6 MHz (common frequency used for cell phone communication)
Two travelling sinosoidal electromagnetic waves, each with an intensity 15 W/m2W/m2 , interfere to form a...
Two travelling sinosoidal electromagnetic waves, each with an intensity 15 W/m2W/m2 , interfere to form a standing wave. The resulting electric field E⃗ (z,t)E→(z,t) has nodes (i.e., is zero at all times) at z=…,−2a,−a,0,a,2a,…z=…,−2a,−a,0,a,2a,… with aaa = 4.0 mm , and satisifes E⃗ (z,0)=0E→(z,0)=0. Furthermore, the magnetic field B⃗ (z,t)B→(z,t) is observed to point along ±i^±i^ everywhere. You may take ccc = 3.0×108 m/sm/s and 8.9×10−12 F/mF/m . A) What is the wavelength λλlambda of the two constituent travelling waves?...
A plane electromagnetic wave, with wavelength 3.3 m, travels in vacuum in the positive direction of...
A plane electromagnetic wave, with wavelength 3.3 m, travels in vacuum in the positive direction of an x axis. The electric field, of amplitude 130 V/m, oscillates parallel to the y axis. (a) What is the frequency of the wave?   Hz (b) What is the angular frequency of the wave? rad/s (c) What is the angular number of the wave? rad/m (d) What is the amplitude of the magnetic field component? T (e) Parallel to which axis does the magnetic...
A plane electromagnetic wave, with wavelength 4.0 m, travels in vacuum in the positive direction of...
A plane electromagnetic wave, with wavelength 4.0 m, travels in vacuum in the positive direction of an x axis. The electric field, of amplitude 270 V/m, oscillates parallel to the y axis. What are the (a) frequency, (b) angular frequency, and (c) angular wave number of the wave? (d) What is the amplitude of the magnetic field component? (e) Parallel to which axis does the magnetic field oscillate? (f) What is the time-averaged rate of energy flow associated with this...
A plane electromagnetic wave, with wavelength 2.5 m, travels in vacuum in the positive direction of...
A plane electromagnetic wave, with wavelength 2.5 m, travels in vacuum in the positive direction of an x axis. The electric field, of amplitude 270 V/m, oscillates parallel to the y axis. What are the (a) frequency, (b) angular frequency, and (c) angular wave number of the wave? (d) What is the amplitude of the magnetic field component? (e) Parallel to which axis does the magnetic field oscillate? (f) What is the time-averaged rate of energy flow associated with this...