A New Model of Projectile Motion for Resistance Proportional to Square of Velocity Components

Ping Zhu

doi:10.4028/www.scientific.net/KEM.787.1

Paper Titles

Preface

A New Model of Projectile Motion for Resistance Proportional to Square of Velocity Components
p.1

First-Principles Study of Electronic Structure, Optical Properties and LO-TO Splitting of GaP
p.9

Magnetocaloric Effect of Ni₄₄Co₆Mn₄₀Cu_xSn_10-x Quinary Alloy Comes from the Martensitic Transformation
p.17

First-Principle Study of Effect of Strain on the Band Structure of Germanane Monolayer
p.25

Temperature Dependence of Commensurate Magnetic Resonance in Cuprate Superconductors
p.31

V-Defect and Dislocation Analysis in InGaN Multiple Quantum Wells on Patterned Sapphire Substrate
p.37

The Effect of Compression Force on Alteration of Desloratadine and its Multicomponent Crystal Crystallinities Using X-Ray Diffraction and ATR-FTIR Techniques
p.43

First Principles Study on Magnetic and Optical Properties of Single Layer CrSi₂
p.53

HomeKey Engineering MaterialsKey Engineering Materials Vol. 787A New Model of Projectile Motion for Resistance...

A New Model of Projectile Motion for Resistance Proportional to Square of Velocity Components

Abstract:

A new model of the projectile motion for the resistance being proportional to the square of velocity components is investigated. In the course of the projectile motion, the direction of the resistance and the direction of the velocity are not entirely the opposite and on a straight line, in which the deviation angle exists. The size and the interrelation of velocity components determinate the size of the deviation angle, where deviation angles of some points take zeroes and another points take maximum values. The article makes deeply analysis for the new projectile model of velocity components, and gives interesting results.

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Periodical:

Key Engineering Materials (Volume 787)

Pages:

1-7

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.787.1

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Online since:

November 2018

Authors:

Ping Zhu*

Keywords:

Fluid Resistance, New Model, Projectile Motion, Square, Velocity Components

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