FuelModelSpain.h

#ifndef FUELMODELSPAIN
#define FUELMODELSPAIN
#include "Cells.h"
#include "ReadArgs.h"
#include <iostream>
#include <math.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <string>
#include <unordered_map>
#include <vector>
 
/*
 *  Input, Fire, and output structures
 */
 
/*
               Functions
*/
// Initialize coefficients
void initialize_coeff(int scenario);
 
// Calculate flank fire
float flankfire_ros_s(float ros, float bros, float lb);
 
// Calculate rate of spread
float rate_of_spread_s(inputs* data, fuel_coefs* ptr, main_outs* at);
 
// Length-to-Breadth ratio
float l_to_b(float ws);
 
// BROS
float backfire_ros_s(main_outs* at, snd_outs* sec);
 
// Flame length [m])
float flame_length(inputs* data, fuel_coefs* ptr);
 
// Angle of the flame w.r.t. horizontal surface (Putnam's)
float angleFL(inputs* data, fuel_coefs* ptr);
 
// Transformation from FL to FH using angle
float flame_height(inputs* data, fuel_coefs* ptr);
 
// byram intensity
float byram_intensity(inputs* data, fuel_coefs* ptr);
 
// Type of fire (Crown = 1, SROS = 0)
bool fire_type(inputs* data, fuel_coefs* ptr);
 
// CROS adjustements
float rate_of_spread10(inputs* data, arguments* args);
 
bool checkActive(inputs* data, main_outs* at);
float crownfractionburn(inputs* data, main_outs* at);
float final_rate_of_spread10(inputs* data);
// Back fire with CROS
float backfire_ros10_s(fire_struc* hptr, snd_outs* sec);
 
// Slope effect
float slope_effect(inputs* data);
 
// Main function to populate spread outputs based on inputs provided from main
// class
void calculate_s(inputs* data,
                 fuel_coefs* ptr,
                 arguments* args,
                 main_outs* at,
                 snd_outs* sec,
                 fire_struc* hptr,
                 fire_struc* fptr,
                 fire_struc* bptr,
                 bool& activeCrown);
 
void determine_destiny_metrics_s(inputs* data, fuel_coefs* ptr, arguments* args, main_outs* at);
 
#endif