angarg12 / nucleogenesis

  function (state, format, visibility, data, util) {

    let ct = this;

    ct.state = state;

    ct.data = data;

    ct.util = util;

    ct.format = format;

    ct.getReactorArea = function(player) {

      let level = player.global_upgrades.fusion_area;

      let upgrade = data.global_upgrades.fusion_area;

      let basePower = upgrade.power;

      let multiplier = upgrade.power_mult;

      return basePower * Math.floor(multiplier * level);

    };

    ct.getBandwidth = function(player){

        let level = player.global_upgrades.fusion_bandwidth;

        let upgrade = data.global_upgrades.fusion_bandwidth;

        let basePower = upgrade.power;

        let exp = upgrade.power_exp;

        return basePower * Math.pow(exp, level);

    }

    function getRadius(resource) {

      let isotope = data.resources[resource];

      let A = isotope.energy/data.constants.U_TO_EV;

      return data.constants.FERMI_RADIUS * Math.pow(A, 0.3333);

    }

    function getZ(resource){

      let isotope = data.resources[resource];

      let element = Object.keys(isotope.elements)[0];

      return data.elements[element].number;

    }

    ct.getCapacity = function(resource, player) {

      let r = getRadius(resource);

      let area = Math.PI*r*r;

      return ct.getReactorArea(player)/area;

    };

    ct.getProductIsotope = function(beam, target) {

      if(!beam || !target) {

        return false;

      }

      let beamN = parseInt(beam, 10);

      let targetN = parseInt(target, 10);

      let beamZ = getZ(beam);

      let targetZ = getZ(target);

      let productN = beamN+targetN;

      let productZ = beamZ+targetZ;

      return data.resource_matrix[productZ][productN];

    };

    ct.getProductEnergy = function(beam, target) {

      let product = ct.getProductIsotope(beam, target);

      if(!product){

        return 0;

      }

      let beamBE = data.resources[beam].binding_energy;

      let targetBE = data.resources[target].binding_energy;

      let productBE = data.resources[product].binding_energy;

      return productBE - (beamBE + targetBE);

    };

    ct.getCoulombBarrier = function(beam, target) {

      let beamZ = getZ(beam);

      let beamR = getRadius(beam);

      let targetZ = getZ(target);

      let targetR = getRadius(target);

      let coulombBarrier = data.constants.COULOMB_CONSTANT*beamZ*targetZ*

              Math.pow(data.constants.ELECTRON_CHARGE, 2)/(beamR+targetR);

      return coulombBarrier * data.constants.JOULE_TO_EV;

    };

    ct.getYieldPercent = function(beam, target, player) {

      let beamR = getRadius(beam);

      let targetR = getRadius(target);

      let beamArea = Math.PI*beamR*beamR;

      let targetArea = Math.PI*targetR*targetR;

      let beamPercentArea = beamArea*ct.state.beam.number/ct.getReactorArea(player);

      let targetPercentArea = targetArea*ct.state.target.number/ct.getReactorArea(player);

      return beamPercentArea*targetPercentArea;

    };

    ct.getYield = function(beam, target, player){

      let percentYield = ct.getYieldPercent(beam, target, player);

      return Math.floor(percentYield*ct.state.target.number);

    };

    ct.getFusionReaction = function(player) {

      let reaction =  {

        reactant: {},

        product: {}

      };

      let beam = ct.state.beam.name;

      let target = ct.state.target.name;

      reaction.reactant[beam] = ct.state.beam.number;

      reaction.reactant[target] = ct.state.target.number;

      let coulombBarrier = ct.getCoulombBarrier(beam, target);

      reaction.reactant.eV = coulombBarrier*ct.state.beam.number;

      let product = ct.getProductIsotope(beam, target);

      let numberYield = ct.getYield(beam, target, player);

      reaction.product[product] = numberYield;

      let energyExchange = ct.getProductEnergy(beam, target);

      if(energyExchange < 0){

        reaction.reactant.eV += energyExchange*numberYield;

      }else if(energyExchange > 0){

        reaction.product.eV = energyExchange*numberYield;

      }

      return reaction;

    };

      let source1 = '2H';

      let source2 = '2H';

      let coulombBarrier = ct.getCoulombBarrier(source1, source2);

      let quantity1 = ct.state.beam.number;

      let numberYield = ct.getYield(source1, source2, player);

      let totalCoulomb = coulombBarrier*quantity1;

      let product = ct.getProductIsotope(source1, source2);

      // console.log(product);

      // console.log("capacity "+capacity1);

      // console.log("coulomb "+totalCoulomb);

      // console.log("yield "+percentYield+" "+numberYield);

      let energyExchange = ct.getProductEnergy(source1, source2);

      // console.log(energyExchange);

      if(energyExchange < 0){

      }else{

        // console.log("produced energy "+energyExchange*numberYield);

      }

    }

  }

]);