Ask your own question, for FREE!
Physics 23 Online
OpenStudy (anonymous):

Kinematics... Relative Motion

OpenStudy (anonymous):

OpenStudy (anonymous):

My PMs are taking too long so I cant send PMs!!

OpenStudy (akashdeepdeb):

Just hold on for a sec..

OpenStudy (anonymous):

Ya Sure!!

OpenStudy (akashdeepdeb):

I think it should be A

OpenStudy (akashdeepdeb):

Do you have an answer key or something?

OpenStudy (anonymous):

Answers are A and B...How ?? Pls xplain the process!!

OpenStudy (akashdeepdeb):

YEah just wait a sec.

OpenStudy (anonymous):

yup..Ta

OpenStudy (akashdeepdeb):

Okay I got A n B :D

OpenStudy (akashdeepdeb):

I will try my best to explain it to you! Just let me just draw it

OpenStudy (anonymous):

Take ur time ..No rush

OpenStudy (akashdeepdeb):

I am bit curious, do you have a test or something?

OpenStudy (anonymous):

Nope just wanna finish this assignment .Have a deadline submission..........4 exercises+1 BIG assignment

OpenStudy (anonymous):

This Q is from the exercise!!

OpenStudy (anonymous):

Are u posting the picture?? Or Using Open study tools??

OpenStudy (akashdeepdeb):

|dw:1376567034119:dw| Now use the resultant vecotr formula that says that if There are 2 vectors A and B and theta (here, 37') is included between them then Their resultant's magnitude is given by \[\sqrt(A^2 + B^2 + 2ABcos \theta)\] And you will get something like rt. 564.9 m/s. Which is almost A :) That is the magnitude of the resultant relative vector Getting me? :D

Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!
Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!