Example #1
0
    virtual void SetUp() {
      u235 = 92235;
      am241 = 95241;
      th228 = 90228;
      pb208 = 82208;
      u235_halflife = 8445600000; // approximate, in months
      th228_halflife = 2 * 11; // approximate, in months
      vect_decay_size = 1.0;

      vect_decay1.setAtomCount(u235, vect_decay_size);

      vect_decay2.setAtomCount(u235, 1.0);
      vect_decay2.setAtomCount(th228, 1.0);
      vect_decay2.setAtomCount(vect_decay_size);
    }
Example #2
0
    virtual void SetUp() {
      try {
        double grams_per_kg = 1000;

        isotope_lower_limit = 1001;
        isotope_upper_limit = 1182949;
        isotope_not_present = 9001;

        oxygen = 8001;
        u235 = 92235;
        u238 = 92238;
        pu240 = 94240;

        v1_m_oxygen = 1;
        v1_m_u235 = 10;
        v1_m_u238 = 100;

        v2_m_oxygen = 2;
        v2_m_u235 = 20;
        v2_m_pu240 = 2000;

        v1_a_oxygen = v1_m_oxygen * grams_per_kg / MT->getMassInGrams(oxygen);
        v1_a_u235 = v1_m_u235 * grams_per_kg / MT->getMassInGrams(u235);
        v1_a_u238 = v1_m_u238 * grams_per_kg / MT->getMassInGrams(u238);

        v2_a_oxygen = v2_m_oxygen * grams_per_kg / MT->getMassInGrams(oxygen);
        v2_a_u235 = v2_m_u235 * grams_per_kg / MT->getMassInGrams(u235);
        v2_a_pu240 = v2_m_pu240 * grams_per_kg / MT->getMassInGrams(pu240);

        total_mass1 = v1_m_oxygen + v1_m_u235 + v1_m_u238;
        total_mass2 = v2_m_oxygen + v2_m_u235 + v2_m_pu240;
        total_moles1 = v1_a_oxygen + v1_a_u235 + v1_a_u238;
        total_moles2 = v2_a_oxygen + v2_a_u235 + v2_a_pu240;

        comp_map[oxygen] = v2_a_oxygen;
        comp_map[u235] = v2_a_u235;
        comp_map[pu240] = v2_a_pu240;

        vect1.setMass(oxygen, v1_m_oxygen);
        vect1.setMass(u235, v1_m_u235);
        vect1.setMass(u238, v1_m_u238);

        vect2 = CompMap(comp_map);
      } catch (std::exception err) {
        LOG(LEV_ERROR, "none!") << err.what();
        FAIL() << "An exception was thrown in the fixture SetUp.";
      }
    }
Example #3
0
//- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -    
void SourceFacility::generateMaterial(int curr_time) {
  int time_change = curr_time - prev_time_;
  prev_time_ = curr_time;

  // if there's room in the inventory, process material at capacity
  double empty_space = inventory_.space();
  if (empty_space < EPS_KG) {return;}

  IsoVector temp = recipe_;
  if (capacity_ * recipe_.mass() * time_change <= empty_space) {
    // add a material the size of the capacity to the inventory
    temp.multBy(capacity_ * time_change);
  } else {
    // add a material that fills the inventory
    temp.setMass(empty_space);
  }
  mat_rsrc_ptr newMat = mat_rsrc_ptr(new Material(temp));
  newMat->setOriginatorID( this->ID() );
  inventory_.pushOne(newMat);
}
//- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
void SeparationsMatrixFacility::makeOffers() {
  for (vector<string>::iterator iter = out_commod_.begin(); 
      iter != out_commod_.end(); 
      iter ++){
    // decide how much to offer
    double offer_amt;
    double spotCapacity = capacity_ - outstMF_;

    // and offer no more than the spotCapacity allows you to produce
    offer_amt = spotCapacity; 

    // there is no minimum amount a separations facility may send
    double min_amt = 0;

    // this will be an offer for free stuff
    // until cyclus has a working notion of default pricing for separated material
    double commod_price = 0;

    // decide what market to offer to
    Communicator* recipient = dynamic_cast<Communicator*>(MarketModel::marketForCommod(*iter));

    // build a material
    IsoVector comp;
    comp.setMass(1001, offer_amt);
    Material* offer_mat = new Material(comp);

    // build the transaction and message
    Transaction trans;
    trans.commod = (*iter);
    trans.minfrac = min_amt/offer_amt;
    trans.is_offer = true;
    trans.price = commod_price;
    trans.resource = offer_mat;

    msg_ptr msg(new Message(this, recipient, trans)); 
    msg->setNextDest(facInst());
    msg->sendOn();
  }

}
Example #5
0
//- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -    
void SourceFacility::handleTock(int time){

  // if there's room in the inventory, process material at capacity
  double space = inventory_size_ - this->checkInventory(); 
  if (capacity_ * recipe_.mass() <= space) {
    // add a material the size of the capacity to the inventory
    IsoVector temp = recipe_;
    temp.multBy(capacity_);
    Material* newMat = new Material(temp);

    LOG(LEV_DEBUG2) << facName() << ", handling the tock, has created a material:";
    newMat->print();
    inventory_.push_front(newMat);
  } else if (space < capacity_*recipe_.mass() && space > 0) {
    // add a material that fills the inventory
    IsoVector temp = recipe_;
    temp.setMass(space);
    Material* newMat = new Material(temp);
    LOG(LEV_DEBUG2) << facName() << ", handling the tock, has created a material:";
    newMat->print();
    inventory_.push_front(newMat);
  }
  // check what orders are waiting,
  // send material if you have it now
  while (!ordersWaiting_.empty()) {
    msg_ptr order = ordersWaiting_.front();
    order->approveTransfer();
    ordersWaiting_.pop_front();
  }
  // For now, lets just print out what we have at each timestep.
  LOG(LEV_DEBUG2) << "SourceFacility " << this->ID()
                  << " is holding " << this->checkInventory()
                  << " units of material at the close of month " << time
                  << ".";

  // call the facility model's handle tock last 
  // to check for decommissioning
  FacilityModel::handleTock(time);
}