Parth G | 3) Bottle Of Scorch (from the new Unisarium EP, Instrumetal) @ParthGChannel | Uploaded 9 years ago | Updated 14 hours ago
Here's the third song from our four song EP! We hope you enjoy!

Unisarium is:
Matthew Grygoruk - Guitars/general epicness
Parth Gharfalkar - Guitars/Tabla/Drums/Bass

A massive thanks to Yatin Srivastava for mastering these tracks. Check out his channel, he's a great musician!
https://www.youtube.com/user/yatindimebag

Quantum Physics: Early Models of the Atom (and why they feel SO right... but arent)

Maxwells Equations: Gauss Law Explained (ft. @Higgsinophysics ) | Physics for Beginners

The Language of Quantum Physics is Strange | PHYSICS EXPLAINED

Nobody Knows Why Wave Functions Exist - So We Just Assume They Do (Quantum Mechanics Postulates)

Heisenbergs Uncertainty Principle: Not Breakable, but Usable - Quantum Squeezed Light by Parth G

The Biggest Clue that the Speed of Light Is Constant | Relativity and Electromagnetism (Parth G)

$How to Always Make an Accurate Measurement #shorts Heres a quick #shorts about why its better to make a bigger measurement in order to reduce the relative error. Well, this is true if we have a given measurement device with a specific resolution. In this video we look at a length measurement made using a ruler with markings every millimeter. Depending on what measurement system we use, we can say that any measurement the ruler makes will have a possible error of +/- 0.5 mm. This is because any length between 4.5 mm and 5.5 mm (for example) would be rounded to a measured length of 5 mm. So from this, we can see that the percentage (or fractional) error in this measurement is (0.5/5)*100 = 10%, which is quite large. In other words, a half millimeter error either way can have quite an impact on a 5 mm measurement. However for a much larger measurement, say 50 mm, we can see the fractional error is much smaller - only 1%. This means that the range in which our measured length could actually fall is a much smaller proportion of the actual measured length, even though the absolute error is still the same at 0.5 mm. Therefore, for a given device with a given resolution, try to make longer measurements if possible. This isnt so useful for measuring lengths, but certainly comes in handy in other scenarios. For example, when measuring the period of oscillation of a pendulum, we can choose to make a single time measurement for many oscillations and then divide that measured quantity by the total number of oscillations. Since the number of oscillations is an integer without any error, the final fractional error in the period measurement is much smaller than if we just measured the time taken for one oscillation. Thanks so much for watching - please do check out my socials here: Instagram - @parthvlogs Patreon - patreon.com/parthg Music Chanel - Parth Gs Shenanigans Merch - https://parth-gs-merch-stand.creator-spring.com/ Many of you have asked about the stuff I use to make my videos, so Im posting some affiliate links here! I make a small commission if you make a purchase through these links. A Quantum Physics Book I Enjoy: https://amzn.to/3sxLlgL My Camera (Sony A6400): https://amzn.to/2SjZzWq ND Filter: https://amzn.to/3qoGwHk Microphone and Stand (Fifine): https://amzn.to/2OwyWvt Gorillapod Tripod: https://amzn.to/3wQ0L2Q$

A Day in the Life of a Cambridge Physics Graduate | What am I up to?

2) The Inspector (from the new Unisarium EP, Instrumetal)

SOLVING the SCHRODINGER EQUATION | Quantum Physics by Parth G

3) Bottle Of Scorch (from the new Unisarium EP, Instrumetal) @ParthGChannel