The required change in temperature is to be calculated to bring liquid magnesium from solid-liquid equilibrium to vapor-liquid equilibrium at 1 atm . Concept Introduction: A phase has uniform physical and chemical properties and is bounded by a surface due to which two phases can be mechanically separated from each other. Phase diagrams are the geometrical representation of the conditions such as temperature, pressure, composition, etc. of a system at which different phases present in the system exists and are in thermodynamic equilibrium. These phase diagrams contain phase boundaries which are lines that mark the conditions under which multiple phases can coexist at the equilibrium. Along these lines, the transition of phase occurs. The point where these phase boundaries intersect are the triple points. At these points, three different phases can exist simultaneously.

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I have this fsk function code: function [x]=fsk_encode(b,s,f0,f1,N,Fs,K) % b= bit sequence vector % s(1)= output level for 0 % s(2)= output level for 1 % N= length of bit sequence % Fs= Sampling frequency y=zeros(1,N*K); %Setup output vector %for each bit calculatee the rando samples for n=1:N for k=1:K t = (k - 1) / Fs; if(b(n)==0) y((n-1)*K+k)=cos(2*pi*f0*t); % pulse=0 else y((n-1)*K+k)=cos(2*pi*f1*t); % pulse=1 end end x=y; %set output end And this is another code that calls the function in order to get the power density spectrum: clc;clear; % EE 382 Communication Systems- Lab 8 % Plots the power spectrum of the ASK modulation % First specify some parameters N=256; % number of bits per realization M=100; % number of realizations in the ensemble T=0.001; % bit duration in seconds delf =2e+3; fc=10e+3; f0=fc-delf; f1=fc+delf; Fs=8*f1; % sampling frequency (this is needed to calibrate the frequency axis) K=(T/(1/Fs)); % Define arrays for bit sequences and sampled waveforms…

Answer 1

Question

Chapter 10, Problem 10.10P

Interpretation Introduction

Interpretation:

The required change in temperature is to be calculated to bring liquid magnesium from solid-liquid equilibrium to vapor-liquid equilibrium at 1 atm.

Concept Introduction:

A phase has uniform physical and chemical properties and is bounded by a surface due to which two phases can be mechanically separated from each other.

Phase diagrams are the geometrical representation of the conditions such as temperature, pressure, composition, etc. of a system at which different phases present in the system exists and are in thermodynamic equilibrium.

These phase diagrams contain phase boundaries which are lines that mark the conditions under which multiple phases can coexist at the equilibrium. Along these lines, the transition of phase occurs.

The point where these phase boundaries intersect are the triple points. At these points, three different phases can exist simultaneously.

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I have this fsk function code: function [x]=fsk_encode(b,s,f0,f1,N,Fs,K) % b= bit sequence vector % s(1)= output level for 0 % s(2)= output level for 1 % N= length of bit sequence % Fs= Sampling frequency y=zeros(1,N*K); %Setup output vector %for each bit calculatee the rando samples for n=1:N for k=1:K t = (k - 1) / Fs; if(b(n)==0) y((n-1)*K+k)=cos(2*pi*f0*t); % pulse=0 else y((n-1)*K+k)=cos(2*pi*f1*t); % pulse=1 end end x=y; %set output end And this is another code that calls the function in order to get the power density spectrum: clc;clear; % EE 382 Communication Systems- Lab 8 % Plots the power spectrum of the ASK modulation % First specify some parameters N=256; % number of bits per realization M=100; % number of realizations in the ensemble T=0.001; % bit duration in seconds delf =2e+3; fc=10e+3; f0=fc-delf; f1=fc+delf; Fs=8*f1; % sampling frequency (this is needed to calibrate the frequency axis) K=(T/(1/Fs)); % Define arrays for bit sequences and sampled waveforms…

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