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Source de température végétation (Flux chaleur sensible) cell, thread, dS, eqn) { real source]; int i; int nb; real RayAbs, ND_ND, pp.0-1 ,
if (Re*Re<0.1*Gr) {Nusselt=0.40*pow(Gr,0.25);} if ((Re*Re>0.1*Gr)&&(Re*Re<10*Gr)) {Nusselt=0.40*pow(Gr+6.92*Re*Re,0.25);} if ,
cell, thread, dS, eqn) { real source,x[ND_ND]; int i,nb; real RayAbs, p.2 ,
upon the very first time a mesh file is loaded should enter the following Scheme command, including parentheses, at the Fluent TUI: (rp-var-define 'wallcond/underrelax 0.01 'real #f) (rp-var-define ,
double psat_h2o(double); /* computes sat. pressure of h2o */ double steam_hfg(double); /* computes latent heat of h2o */ double t_c(double t_sat) ,
static double sr_ur_alpha = 0.01; /* allows under-relaxation factor in */ /* surface reaction calculation ,
init_function" initializes the array store_rate* which stores condensation rate at each */ /* face on the condensing surface */ /* function "saturated_wall" sets the h2o mass fraction at the con-*/ /* densing surface to the saturation value */ /* function "read_ur_file" reads in a new under-relaxation factor */ /* from an input file */ /* function "latent_heat" writes latent heat transfer rate at con-*/ /* densing surface to an output file */ /* function "user_rate_4" computes condensation rate at each face */ /* on the condensing surface, pcell static pressure (absolute) ,