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subroutine watqual !! ~ ~ ~ PURPOSE ~ ~ ~ !! this subroutine performs in-stream nutrient transformations and water !! quality calculations !! ~ ~ ~ INCOMING VARIABLES ~ ~ ~

subroutine hhwatqual !! ~ ~ ~ PURPOSE ~ ~ ~ !! this subroutine performs in-stream nutrient transformations and water !! quality calculations for hourly timestep !! ~ ~ ~ INCO

//***************************************************************************** // MSP-FET430P410 Demo - SD16, Using the Integrated Temperature Sensor // // Description: This example shows how to

IE Web Service Example var iCallID = null; var sWSDL = "http://www.xmethods.net/sd/2001/

#include float Convert(float); int main() { float TempFer; float TempCel; std::cout

% Twodimensional heat conduction % Finite Volume Method % SOR clear all; x=[];y=[];T=[];Told=[];Su=[];Sp=[];ap=[];ae=[];aw=[];as=[];an=[]; great = 1.e20; lambda = 10; % thermal conductivity alf

%Temperature distribution in a rod %See example 9 %Finite volume method %TDMA clear all; T = [];P=[];Q=[];ae=[];aw=[];ap=[];analytical=[]; nn = input('Number of control volumes = '); n = nn+2;%

%Temperature distribution in a rod %See example 9 %Finite difference methof %TDMA clear all; T = [];P=[];Q=[];analytical=[]; nn = input('Number of increment = ') n = nn+1;% number of grid poin

%Temperature distribution in a rod %See example 9 %Discretization method: Finite difference % Solution method: SOR clear all; T = [];x=[];P=[];Q=[]; nn = input('Number of increment = ') n = n

% Twodimensional heat conduction % Finite Volume Method % Line by Line TDMA with SOR clear all; x=[];y=[];T=[];Told=[];Su=[];Sp=[];ap=[];ae=[];aw=[];as=[];an=[]; Q=[];P=[]; great = 1e20; lambda