This year's qualification round featured a spaceship escaping from a shock wave (Problem B).The crew survived and wants to study the shock wave in more detail. It can be assumed thatthe shock wave travels through a stationary flow of an ideal polytropic gas which is adiabatic onboth sides of the shock. Properties in front and behind a shock are related through the threeRankine-Hugoniot jump conditions (mass, momentum, energy conservation):Pivi = P2V2Pivi + P1 = p2u3 +p2+ h2+ hị =2where p, v, p, and h are the density, shock velocity, pressure, and specific enthalpy in front ().and behind (2) the shock respectively.Shock frontv2, P2; P2, h2V1, P1, P1, h1(a) Explain briefly the following terms used in the text above:(i) stationary flow(ii) polytropic gas(iii) specific enthalpy(b) Show with the Rankine-Hugoniot conditions that the change in specific enthalpy is given by:P2 - Pi1Ah =2P1P2The general form of Bernoulli's law is fulfilled on both sides of the shock separately:+ 4 + h = bwhere d is the gravitational potential and b a constant.(c) Assuming that the gravitational potential is the same on both sides, determine how the con-stant b changes at the shock front.(d) Explain whether Bernoulli's law can be applied across shock fronts.

Space Wave :- It is a type of propogating disturbance that moves faster than the local speed of…

This year's qualification round featured a spaceship escaping The crew survived and wants to study the shock wave in more the shock wave travels through a stationary flow of an ideal pol both sides of the shock. Properties in front and behind a shoe Rankine-Hugoniot jump conditions (mass, momentum, energy PIvi = P2v2 prvi + pi = Pao3 + p2 where o, 1, p. and h are the density, shock velocity, pressure

This year's qualification round featured a spaceship escaping The crew survived and wants to study the shock wave in more the shock wave travels through a stationary flow of an ideal pol both sides of the shock. Properties in front and behind a shoe Rankine-Hugoniot jump conditions (mass, momentum, energy PIvi = P2v2 prvi + pi = Pao3 + p2 where o, 1, p. and h are the density, shock velocity, pressure

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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