Mohd Shahab

Numerade Educator
Tutor

Biography

Global Physics Teacher with over 8 years experience in IB/IGCSE/AP/SAT/NEET/IIT-JEE
I am a physics instructor. For over 8 years, I've been tutoring kids from all around the world. I began tutoring for a corporation based in the United States. I, now have tutoring experience with the IB/IGCSE/AP-Physics/O-level/SAT/NEET/IIT-JEE curriculum. Because I am confident in my teaching style and understand the concerns of parents, I offer a one-hour free demo session so that students and parents may make an informed decision

Education

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Educator Statistics

Numerade tutor for 4 years
2 Students Helped

Topics Covered

Mastering Motion: Achieving Efficiency Along a Straight Line
Mastering Newton's Laws: Tips for Applying Them Effectively
Explore the Fascinating World of Periodic Motion - Learn More Today!
Exploring the Fascinating World of Mechanical Waves
Discover the Science of Sound and Hearing: Your Guide to Better Listening

Mohd's Textbook Answer Videos

03:10
A Complete Resource Book in Physics for JEE Main

Two wave pulses are generated in a string. One of the pulses is given by equation $y_{1}=A \sin (\omega t-k x)$. If average power transmitted by both the pulses along the string are same and is given by $P=\frac{T A^{2} \omega^{2}}{2 v}$, where $T$ is the tension in the string, $A$ is amplitude of a pulse, $\omega$ is angular frequency of the source, and $v$ is wave velocity, then which one of the following equations may represent the other wave pulse?
(A) $y_{2}=\frac{A}{\sqrt{2}} \sin (2 \omega t-k x)$
(B) $y_{2}=\frac{A}{\sqrt{2}} \sin (\omega t-2 k x)$
(C) $y_{2}=2 A \sin \left(\frac{\omega t}{2}-k x\right)$
(D) $y_{2}=2 A \sin \left(\frac{\omega t}{2}-\frac{k x}{2}\right)$

Chapter 9: Oscillations and Waves
Mohd Shahab
02:28
A Complete Resource Book in Physics for JEE Main

Let a disturbance $y$ be propagated as a plane wave along the $x$-axis. The wave profiles at the instants $t=t_{1}$ and $t=t_{2}$ are represented, respectively, as $y_{1}=f\left(x_{1}-v t_{1}\right)$ and $y_{2}=f\left(x_{2}-v t_{2}\right)$. The wave is
propagating without change of shape.
(A) The velocity of the wave is $2 v$.
(B) The velocity of the wave is $v=\frac{x_{2}-x_{1}}{t_{2}}$.
(C) The particle velocity is $v_{p}=v$.
(D) None of these.

Chapter 9: Oscillations and Waves
Mohd Shahab
1