DecoratedNetwork.java 9.6 KB

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  1. package ui.model;
  2. import java.util.ArrayList;
  3. import classes.HolonObject;
  4. import ui.model.DecoratedCable.CableState;
  5. import ui.model.DecoratedHolonObject.HolonObjectState;
  6. public class DecoratedNetwork {
  7. private ArrayList<Supplier> supplierList = new ArrayList<Supplier>();
  8. private ArrayList<Consumer> consumerList = new ArrayList<Consumer>();
  9. private ArrayList<Consumer> consumerSelfSuppliedList = new ArrayList<Consumer>();
  10. private ArrayList<Passiv> passivNoEnergyList = new ArrayList<Passiv>();
  11. private ArrayList<DecoratedCable> decoratedCableList = new ArrayList<DecoratedCable>();
  12. public DecoratedNetwork(MinimumNetwork minimumNetwork, int Iteration){
  13. calculateMinimumDemandFirstNetwork(minimumNetwork, Iteration);
  14. }
  15. //Getter:
  16. public ArrayList<Supplier> getSupplierList() {
  17. return supplierList;
  18. }
  19. public ArrayList<Consumer> getConsumerList() {
  20. return consumerList;
  21. }
  22. public ArrayList<Consumer> getConsumerSelfSuppliedList() {
  23. return consumerSelfSuppliedList;
  24. }
  25. public ArrayList<Passiv> getPassivNoEnergyList() {
  26. return passivNoEnergyList;
  27. }
  28. public ArrayList<DecoratedCable> getDecoratedCableList(){
  29. return decoratedCableList;
  30. }
  31. //Calculations:
  32. private void calculateMinimumDemandFirstNetwork(MinimumNetwork minimumNetwork, int Iteration) {
  33. //Categorize
  34. for(HolonObject hObject: minimumNetwork.getHolonObjectList()) {
  35. float energyNeeded = hObject.getEnergyNeededFromConsumingElements(Iteration);
  36. float energySelfProducing = hObject.getEnergySelfProducingFromProducingElements(Iteration);
  37. if(energyNeeded < energySelfProducing) {
  38. Supplier sup = new Supplier(hObject, energySelfProducing - energyNeeded);
  39. supplierList.add(sup);
  40. } else if (energyNeeded > energySelfProducing) {
  41. Consumer con = new Consumer(hObject);
  42. con.setEnergyNeededFromNetwork(energyNeeded - energySelfProducing);
  43. con.setMinimumConsumingElementEnergy(hObject.getMinimumConsumingElementEnergy(Iteration));
  44. con.setEnergyFromConsumingElemnets(hObject.getEnergyNeededFromConsumingElements(Iteration));
  45. con.setEnergySelfSupplied(hObject.getEnergySelfProducingFromProducingElements(Iteration));
  46. consumerList.add(con);
  47. }else if(energyNeeded == energySelfProducing) {
  48. if (energySelfProducing == 0.0f) {
  49. Passiv pas = new Passiv(hObject);
  50. passivNoEnergyList.add(pas);
  51. } else {
  52. Consumer con = new Consumer(hObject);
  53. con.setEnergyNeededFromNetwork(0.0f);
  54. con.setMinimumConsumingElementEnergy(hObject.getMinimumConsumingElementEnergy(Iteration));
  55. con.setEnergyFromConsumingElemnets(hObject.getEnergyNeededFromConsumingElements(Iteration));
  56. con.setEnergySelfSupplied(hObject.getEnergySelfProducingFromProducingElements(Iteration));
  57. consumerSelfSuppliedList.add(con);
  58. }
  59. }
  60. }
  61. //Sort SupplierList according to the EnergyToSupplyNetwork maximum first.
  62. //Sort ConsumerList according to the MinimumConsumingElementEnergy minimum first.
  63. supplierList.sort((Supplier lhs,Supplier rhs) -> -Float.compare(lhs.getEnergyToSupplyNetwork(), rhs.getEnergyToSupplyNetwork()));
  64. consumerList.sort((Consumer lhs,Consumer rhs) -> Float.compare(lhs.getMinimumConsumingElementEnergy() , rhs.getMinimumConsumingElementEnergy()));
  65. //consumerList.forEach((con) -> System.out.println(con.getMinimumConsumingElementEnergy()));
  66. //consumerList.forEach((con) -> System.out.println("AfterSorting" + con));
  67. //Minimum demand first:
  68. float energyToSupplyInTheNetwork = supplierList.stream().map(supplier -> supplier.getEnergyToSupplyNetwork() - supplier.getEnergySupplied()).reduce( 0.0f, (a, b) -> a + b);
  69. //DecoratedCables
  70. for(CableWithState edge: minimumNetwork.getEdgeList()) {
  71. decoratedCableList.add(new DecoratedCable(edge.getModel(), edge.getState(), (edge.getState() == CableState.Working) ? energyToSupplyInTheNetwork : 0.0f));
  72. }
  73. outerLoop:
  74. for(Consumer con : consumerList)
  75. {
  76. //gehe Supplier list durch wer ihn supplien kann.
  77. for(Supplier sup : supplierList) {
  78. float energyRdyToSupply = sup.getEnergyToSupplyNetwork() - sup.getEnergySupplied();
  79. if(energyRdyToSupply == 0.0f) continue;
  80. float energyNeededForMinimumConsumingElement=con.getMinimumConsumingElementEnergy()-con.getEnergyFromNetwork();
  81. if(energyNeededForMinimumConsumingElement>energyToSupplyInTheNetwork) {
  82. //Dont supply a minimumElement when you cant supply it fully
  83. break outerLoop;
  84. }
  85. if(energyRdyToSupply>=energyNeededForMinimumConsumingElement) {
  86. energyToSupplyInTheNetwork -= energyNeededForMinimumConsumingElement;
  87. supply(con, sup, energyNeededForMinimumConsumingElement);
  88. continue outerLoop;
  89. }else
  90. {
  91. energyToSupplyInTheNetwork -= energyRdyToSupply;
  92. supply(con, sup, energyRdyToSupply);
  93. }
  94. }
  95. //No more Energy in the network
  96. break;
  97. }
  98. //consumerList.forEach((con) -> System.out.println("AfterSuppliing MinimumDemand " + con));
  99. //Sort ConsumerList according to the EnergyNeeded to supply fully after minimum Demand First.
  100. consumerList.sort((Consumer lhs,Consumer rhs) -> Float.compare(lhs.getEnergyNeededFromNetwork()-lhs.getEnergyFromNetwork() , rhs.getEnergyNeededFromNetwork()-rhs.getEnergyFromNetwork() ));
  101. //Supply consumer fully
  102. outerLoop:
  103. for(Consumer con : consumerList)
  104. {
  105. //gehe Supplier list durch wer ihn supplien kann.
  106. for(Supplier sup : supplierList) {
  107. float energyRdyToSupply = sup.getEnergyToSupplyNetwork() - sup.getEnergySupplied();
  108. if(energyRdyToSupply == 0.0f) continue;
  109. float energyNeededForFullySupply = con.getEnergyNeededFromNetwork() - con.getEnergyFromNetwork();
  110. if(energyNeededForFullySupply == 0.0f) continue outerLoop;
  111. if(energyRdyToSupply>=energyNeededForFullySupply) {
  112. supply(con, sup, energyNeededForFullySupply);
  113. continue outerLoop;
  114. }else
  115. {
  116. supply(con, sup, energyRdyToSupply);
  117. }
  118. }
  119. //No more Energy in the network
  120. break;
  121. }
  122. //consumerList.forEach((con) -> System.out.println("AfterFullySuplieing" + con));
  123. //If Energy Left Supply all equal
  124. //Count EnergyLeft
  125. float energyLeft = supplierList.stream().map(supplier -> supplier.getEnergyToSupplyNetwork() - supplier.getEnergySupplied()).reduce( 0.0f, (a, b) -> a + b);
  126. //System.out.println("EnergyLeft: " + energyLeft);
  127. if(energyLeft > 0.0f && (consumerList.size() + consumerSelfSuppliedList.size() != 0))
  128. {
  129. float equalAmountOfEnergyToSupply = energyLeft / ((float)(consumerList.size() + consumerSelfSuppliedList.size()));
  130. outerLoop:
  131. for(Consumer con : consumerList)
  132. {
  133. //gehe Supplier list durch wer ihn supplien kann.
  134. for(Supplier sup : supplierList) {
  135. float energyRdyToSupply = sup.getEnergyToSupplyNetwork() - sup.getEnergySupplied();
  136. if(energyRdyToSupply == 0.0f) continue;
  137. float energyNeededToSupplyConsumerTheEqualAmount = equalAmountOfEnergyToSupply +con.getEnergyNeededFromNetwork()- con.getEnergyFromNetwork();
  138. if(energyRdyToSupply>=energyNeededToSupplyConsumerTheEqualAmount) {
  139. supply(con, sup, energyNeededToSupplyConsumerTheEqualAmount);
  140. continue outerLoop;
  141. }else
  142. {
  143. supply(con, sup, energyRdyToSupply);
  144. }
  145. }
  146. //No more Energy in the network
  147. break;
  148. }
  149. outerLoop:
  150. for(Consumer con : consumerSelfSuppliedList)
  151. {
  152. //gehe Supplier list durch wer ihn supplien kann.
  153. for(Supplier sup : supplierList) {
  154. float energyRdyToSupply = sup.getEnergyToSupplyNetwork() - sup.getEnergySupplied();
  155. if(energyRdyToSupply == 0.0f) continue;
  156. float energyNeededToSupplyConsumerTheEqualAmount = equalAmountOfEnergyToSupply +con.getEnergyNeededFromNetwork()- con.getEnergyFromNetwork();
  157. if(energyRdyToSupply>=energyNeededToSupplyConsumerTheEqualAmount) {
  158. supply(con, sup, energyNeededToSupplyConsumerTheEqualAmount);
  159. continue outerLoop;
  160. }else
  161. {
  162. supply(con, sup, energyRdyToSupply);
  163. }
  164. }
  165. //No more Energy in the network
  166. break;
  167. }
  168. }
  169. //consumerList.forEach((con) -> System.out.println("AfterOverSuppleiing" + con));
  170. //consumerSelfSuppliedList.forEach((con) -> System.out.println("AfterOverSuppleiing" + con));
  171. //CalculateStates:
  172. supplierList.forEach(sup -> sup.setState(HolonObjectState.PRODUCER));
  173. passivNoEnergyList.forEach(sup -> sup.setState(HolonObjectState.NO_ENERGY));
  174. for(Consumer con : this.consumerList)
  175. {
  176. setConsumerState(con);
  177. }
  178. for(Consumer con : this.consumerSelfSuppliedList)
  179. {
  180. setConsumerState(con);
  181. }
  182. }
  183. private void setConsumerState(Consumer con) {
  184. if(con.getEnergySelfSupplied() + con.getEnergyFromNetwork() > con.getEnergyFromConsumingElemnets()) {
  185. con.setState(HolonObjectState.OVER_SUPPLIED);
  186. }else if(con.getEnergySelfSupplied() + con.getEnergyFromNetwork() == con.getEnergyFromConsumingElemnets()) {
  187. con.setState(HolonObjectState.SUPPLIED);
  188. }else if(con.getEnergySelfSupplied() + con.getEnergyFromNetwork() >= con.getMinimumConsumingElementEnergy()) {
  189. con.setState(HolonObjectState.PARTIALLY_SUPPLIED);
  190. }else {
  191. con.setState(HolonObjectState.NOT_SUPPLIED);
  192. }
  193. }
  194. /**
  195. * No Checks.
  196. * @param con
  197. * @param sup
  198. * @param energy
  199. */
  200. private void supply(Consumer con, Supplier sup, float energy) {
  201. sup.getConsumerList().add(sup.new ConsumerListEntry(con , energy));
  202. sup.setEnergySupplied(sup.getEnergySupplied() + energy);
  203. con.getSupplierList().add(con.new SupplierListEntry(sup, energy));
  204. con.setEnergyFromNetwork(con.getEnergyFromNetwork() + energy);
  205. }
  206. }