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Sep 13, 2018 at 8:36 history edited Aumkaar Pranav CC BY-SA 4.0
Improved the question and removed minor errors
Sep 12, 2018 at 13:33 comment added Aumkaar Pranav @sammygerbil No, it is not a duplicate of the said question.
Sep 12, 2018 at 13:33 comment added Aumkaar Pranav @Qmechanic PS: I have edited the question in order to improve it. However I still can not share my work on this question as I had asked the question almost 6 months ago and now I can not find where I tried solving it. Sincerely sorry for that.
Sep 12, 2018 at 13:32 history edited Aumkaar Pranav CC BY-SA 4.0
I tried improving the question so that I do not get banned from asking further questions.
Feb 26, 2018 at 10:42 vote accept Aumkaar Pranav
Feb 13, 2018 at 19:47 history closed Kyle Kanos
Chris
Jon Custer
sammy gerbil
Emilio Pisanty
Not suitable for this site
Feb 13, 2018 at 16:59 comment added sammy gerbil Possible duplicate of Circular motion - vectors
Feb 12, 2018 at 15:40 comment added John Alexiou @AumkaarPranavShukla - oh yeah, the mobile app does not render MathJax. The math renders to this image.
Feb 12, 2018 at 13:53 comment added Aumkaar Pranav @ja72 I use the SE Android app.
Feb 11, 2018 at 17:48 comment added John Alexiou @AumkaarPranavShukla - I am sorry to hear that MathJax doesn't render properly for you. Physics supports math objects in posts and comments, so my guess is that there is something with the browser or the firewall that prevents proper rendering.
Feb 11, 2018 at 3:42 comment added Aumkaar Pranav @ja72 All I can read in your comment is a mess of symbols. I think the app of SE doesn't convert those symbols into the actual mathematical terms when use them in comments.
Feb 9, 2018 at 22:41 review Close votes
Feb 13, 2018 at 19:47
Feb 9, 2018 at 19:48 answer added ndrearu timeline score: 5
Feb 9, 2018 at 19:44 comment added John Alexiou You need a mathematical proof of the following velocity/acceleration decomposition $$ \begin{aligned} \mathbf{v} & = v \mathbf{e} \\ \mathbf{a} & = \dot{v} \mathbf{e} + \frac{v^2}{r} \mathbf{n} \end{aligned} $$ where $\mathbf{e}$ is the tangential direction and $\mathbf{n}$ the normal direction vectors. Here $r$ is the radius of curvature of the path, and $v$ and $\dot{v}$ the speed and speed rate.
Feb 9, 2018 at 18:27 comment added Qmechanic Hi Aumkaar Pranav Shukla. If you haven't already done so, please take a minute to read the definition of when to use the homework-and-exercises tag, and the Phys.SE policy for homework-like problems.
Feb 9, 2018 at 18:26 history edited Qmechanic CC BY-SA 3.0
added 4 characters in body; edited tags
Feb 9, 2018 at 17:18 history asked Aumkaar Pranav CC BY-SA 3.0