Basic Solution

Output/d_decorated_houses.out.txt

@@ -1 +1,186 @@
-1
+LoadCarrots 12
+LoadGift Nelly9621
+AccRight 1
+Float 1
+AccLeft 1
+Float 1
+AccLeft 1
+Float 1
+AccRight 1
+Float 1
+LoadCarrots 12
+LoadGift Stefan1846
+AccRight 1
+Float 1
+AccLeft 1
+Float 1
+AccDown 1
+Float 1
+AccUp 1
+Float 1
+AccUp 1
+Float 1
+AccDown 1
+Float 1
+AccLeft 1
+Float 1
+AccRight 1
+Float 1
+LoadCarrots 12
+LoadGift Stepan6060
+AccRight 1
+Float 1
+AccLeft 1
+Float 1
+AccUp 1
+Float 1
+AccDown 1
+Float 1
+AccDown 1
+Float 1
+AccUp 1
+Float 1
+AccLeft 1
+Float 1
+AccRight 1
+Float 1
+LoadCarrots 12
+LoadGift Clement2007
+AccLeft 1
+Float 1
+AccRight 1
+Float 1
+AccDown 1
+Float 1
+AccUp 1
+Float 1
+AccUp 1
+Float 1
+AccDown 1
+Float 1
+AccRight 1
+Float 1
+AccLeft 1
+Float 1
+LoadCarrots 12
+LoadGift Matas6172
+AccRight 2
+Float 1
+AccLeft 2
+Float 1
+AccUp 2
+Float 1
+AccDown 2
+Float 1
+AccDown 2
+Float 1
+AccUp 2
+Float 1
+AccLeft 2
+Float 1
+AccRight 2
+Float 1
+LoadCarrots 12
+LoadGift Petar5664
+AccRight 2
+Float 1
+AccLeft 2
+Float 1
+AccLeft 2
+Float 1
+AccRight 2
+Float 1
+LoadCarrots 12
+LoadGift Matas2180
+AccLeft 2
+Float 1
+AccRight 2
+Float 1
+AccDown 2
+Float 1
+AccUp 2
+Float 1
+AccUp 2
+Float 1
+AccDown 2
+Float 1
+AccRight 2
+Float 1
+AccLeft 2
+Float 1
+LoadCarrots 12
+LoadGift Przemek1941
+AccLeft 1
+Float 1
+AccRight 1
+Float 1
+AccUp 2
+Float 1
+AccDown 2
+Float 1
+AccDown 2
+Float 1
+AccUp 2
+Float 1
+AccRight 1
+Float 1
+AccLeft 1
+Float 1
+LoadCarrots 12
+LoadGift Tatiyana4230
+AccRight 2
+Float 1
+AccLeft 2
+Float 1
+AccDown 1
+Float 1
+AccUp 1
+Float 1
+AccUp 1
+Float 1
+AccDown 1
+Float 1
+AccLeft 2
+Float 1
+AccRight 2
+Float 1
+LoadCarrots 12
+LoadGift Michal5548
+AccUp 2
+Float 1
+AccDown 2
+Float 1
+AccDown 2
+Float 1
+AccUp 2
+Float 1
+LoadCarrots 12
+LoadGift Przemek4289
+AccRight 3
+Float 1
+AccLeft 3
+Float 1
+AccDown 2
+Float 1
+AccUp 2
+Float 1
+AccUp 2
+Float 1
+AccDown 2
+Float 1
+AccLeft 3
+Float 1
+AccRight 3
+Float 1
+LoadCarrots 12
+LoadGift Max1879
+AccUp 4
+Float 1
+AccDown 4
+Float 1
+AccDown 4
+Float 1
+AccUp 4
+Float 1
+LoadCarrots 12
+LoadGift Przemek4984

hashcode2022_V_group.py

@@ -2,6 +2,7 @@ from math import sqrt
 import matplotlib.pyplot as plt
 import os
 
+
 def is_number(s):
     try:
         float(s)
@@ -12,10 +13,11 @@ def is_number(s):
         import unicodedata
         unicodedata.numeric(s)
         return True
-    except (TypeError,ValueError):
+    except (TypeError, ValueError):
         pass
     return False
 
+
 def convertToFloat(DataSet):
     for i in range(len(DataSet)):
         for j in range(len(DataSet[i])):
@@ -23,11 +25,13 @@ def convertToFloat(DataSet):
                 DataSet[i][j] = float(DataSet[i][j])
     return DataSet
 
+
 def caculateDistance(a: list, b: tuple):
     d = sqrt((a[0] - b[0])**2 + (a[1] - b[1])**2)
     return d
 
-def readLine(m = 0, n = 2, offset = 1):
+
+def readLine(m=0, n=2, offset=1):
     global DataSet
     lenth = int(DataSet[m][n])
     line = []
@@ -35,8 +39,10 @@ def readLine(m = 0, n = 2, offset = 1):
         line.append(DataSet[i + offset])
     return line
 
+
 class Person:
-    priority:float
+    priority: float
+
     def __init__(self, infomationLine):
         self.name, self.score, self.weightOfGift, self.x_position, self.y_position = infomationLine
 
@@ -48,14 +54,15 @@ class Person:
         Score += self.score
 
     def caculatePriority(self):
-        return self.score / (self.weightOfGift * caculateDistance([0,0], (self.x_position, self.y_position)))
+        return self.score / (self.weightOfGift * caculateDistance([0, 0], (self.x_position, self.y_position)))
 
 
 class People:
     info = []
+
     def __init__(self):
         global DataSet
-        line = readLine(m = 0, n = 3, offset = 1 + int(DataSet[0][2]))
+        line = readLine(m=0, n=3, offset=1 + int(DataSet[0][2]))
         for i in line:
             self.info.append(Person(i))
 
@@ -71,10 +78,11 @@ class People:
 
 class Santa:
     tableauDeDistribution = []
-    position = [0.0,0.0]
+    position = [0.0, 0.0]
-    speed = [0.0,0.0]
+    speed = [0.0, 0.0]
-    weightOfCarrots:int = 0
+    weightOfCarrots: int = 0
-    weightOfGift:int = 0
+    weightOfGift: int = 0
+
     def __init__(self):
         global DataSet
         self.timeLimit = int(DataSet[0][0])
@@ -95,8 +103,8 @@ class Santa:
                 return self.speedLimitTable[i][1]
         return 0
 
-
     # DONE 此速度限制speedLimit为限制表不是当前限制，我们下一步要定义nowspeedLimit
+
     def isAllowedBySpeedLimit(self, s):
         return s <= self.nowSpeedLimit()
 
@@ -105,301 +113,301 @@ class Santa:
         self.weightOfCarrots -= 1
 
     def AccUp(self, s):
-        if self.timeLimit>0:
+        if self.timeLimit > 0:
-          assert self.isAllowedBySpeedLimit(s)
+            assert self.isAllowedBySpeedLimit(s)
-          self.speed[1] += s
+            self.speed[1] += s
-          self.consumeCarrot()
+            self.consumeCarrot()
-          print("AccUp",int(s), file=output)
+            print("AccUp", int(s), file=output)
         else:
-          pass
+            pass
+
     def AccDown(self, s):
-        if self.timeLimit>0:
+        if self.timeLimit > 0:
-          assert self.isAllowedBySpeedLimit(s)
+            assert self.isAllowedBySpeedLimit(s)
-          self.speed[1] -= s
+            self.speed[1] -= s
-          self.consumeCarrot()
+            self.consumeCarrot()
-          print("AccDown",int(s), file=output)
+            print("AccDown", int(s), file=output)
         else:
-          pass
+            pass
+
     def AccRight(self, s):
-        if self.timeLimit>0:
+        if self.timeLimit > 0:
-          assert self.isAllowedBySpeedLimit(s)
+            assert self.isAllowedBySpeedLimit(s)
-          self.speed[0] += s
+            self.speed[0] += s
-          self.consumeCarrot()
+            self.consumeCarrot()
-          print("AccRight",int(s), file=output)
+            print("AccRight", int(s), file=output)
         else:
-          pass
+            pass
+
     def AccLeft(self, s):
-        if self.timeLimit>0:
+        if self.timeLimit > 0:
-          assert self.isAllowedBySpeedLimit(s)
+            assert self.isAllowedBySpeedLimit(s)
-          self.speed[0] -= s
+            self.speed[0] -= s
-          self.consumeCarrot()
+            self.consumeCarrot()
-          print("AccLeft",int(s), file=output)
+            print("AccLeft", int(s), file=output)
         else:
-          pass
+            pass
 
     def LoadCarrots(self, w):
         self.weightOfCarrots += w
+
     def LoadGift(self, w):
         self.weightOfGift += w
 
-    def DiliveryGift(self,p: Person):
+    def DiliveryGift(self, p: Person):
-        if self.timeLimit >=0 and caculateDistance(self.getPosition(), p.getPosition()) <= self.deliveryDistanceLimit:
+        if self.timeLimit >= 0 and caculateDistance(self.getPosition(), p.getPosition()) <= self.deliveryDistanceLimit:
-          assert caculateDistance(self.getPosition(), p.getPosition()) <= self.deliveryDistanceLimit
+            assert caculateDistance(
-          self.weightOfGift -= p.weightOfGift
+                self.getPosition(), p.getPosition()) <= self.deliveryDistanceLimit
-          assert self.weightOfGift >= 0
+            self.weightOfGift -= p.weightOfGift
-          p.getScore()
+            assert self.weightOfGift >= 0
-          print("DeliverGift",p.name, file=output)
+            p.getScore()
+            print("DeliverGift", p.name, file=output)
         else:
-          pass
+            pass
 
-    def Float(self, t:int = 1):
+    def Float(self, t: int = 1):
-        if (self.timeLimit - t) >=0:
+        if (self.timeLimit - t) >= 0:
-          self.position[0] += self.speed[0] * t
+            self.position[0] += self.speed[0] * t
-          self.position[1] += self.speed[1] * t
+            self.position[1] += self.speed[1] * t
-          self.timeLimit -= t
+            self.timeLimit -= t
-          print("Float",int(t), file=output)
+            print("Float", int(t), file=output)
         else:
-          self.timeLimit -= self.timeLimit
+            self.timeLimit -= self.timeLimit
 
     def getSituation(self):
-        print("Now position is:",self.position)
+        print("Now position is:", self.position)
-        print("Now speed is:",self.speed)
+        print("Now speed is:", self.speed)
-        print("Now timeLimit is:",self.timeLimit)
+        print("Now timeLimit is:", self.timeLimit)
-        print("Now weightOfGift is:",self.weightOfGift)
+        print("Now weightOfGift is:", self.weightOfGift)
-        print("Now weightOfCarrots is:",self.weightOfCarrots)
+        print("Now weightOfCarrots is:", self.weightOfCarrots)
-
 
     def generateTableauDeDistribution(self, pp: People):
-        self.tableauDeDistribution = sorted(pp.info, key=lambda x: x.caculatePriority(), reverse=True)
+        self.tableauDeDistribution = sorted(
+            pp.info, key=lambda x: x.caculatePriority(), reverse=True)
         return self.tableauDeDistribution
 
-    
+    def kidoneWay(self, x: int, p: Person):
-
+        v = self.nowSpeedLimit()
-    def kidoneWay(self,x:int,p:Person):
+        if isinstance(x/v, int) and x > 0:
-      v = self.nowSpeedLimit()
+            t = x/v
-      if isinstance(x/v,int) and x > 0 :
+            self.AccUp(v)
-          t = x/v
-          self.AccUp(v)
-          self.Float(t)
-          self.AccDown(v)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-          
-          t = x/v
-          self.AccDown(v)
-          self.Float(t) 
-          self.AccUp(v)
-          self.Float(1)
-
-
-      elif isinstance(x/v,int) and x < 0 :
-          t = abs(x)/v
-          self.AccDown(v)
-          self.Float(t)
-          self.AccUp(v)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-         
-          t = abs(x)/v
-          self.AccUp(v)
-          self.Float(t)
-          self.AccDown(v)
-          self.Float(1)
-          
-      elif x < v and x > 0 :
-          v = x
-          self.AccUp(v)
-          self.Float(1)
-          self.AccDown(v)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-
-          v = x
-          self.AccDown(v)
-          self.Float()
-          self.AccUp(v)
-          self.Float(1)
-        
-      elif abs(x) < v and x < 0 :
-          v = abs(x)
-          self.AccDown(v)
-          self.Float(1)
-          self.AccUp(v)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-
-          v = abs(x)
-          self.AccUp(v)
-          self.Float(1)
-          self.AccDown(v)
-          self.Float(1)
-
-      elif x > v and x > 0 :
-          t = x//v
-          v1 = v - (x - t*v)
-          self.AccUp(v)
-          self.Float(t)
-          self.AccDown(v1)
-          self.Float()
-          self.AccDown(v - v1)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-
-          t = x//v
-          v1 = v - (x - t*v)
-          self.AccDown(v)
-          self.Float(t)
-          self.AccUp(v1)
-          self.Float(1)
-          self.AccUp(v - v1)
-          self.Float(1)
-
-      elif abs(x) > v and x < 0 :
-          t = abs(x)//v
-          v1 = v - (abs(x) - t*v)
-          self.AccDown(v)
-          self.Float(t)
-          self.AccUp(v1)
-          self.Float(1)
-          self.AccUp(v - v1)
-          self.Float(1)
-
-          self.DiliveryGift(p)
-          v = self.nowSpeedLimit()
-
-          t = abs(x)//v
-          v1 = v - (abs(x) - t*v)
-          self.AccUp(v)
-          self.Float(t)
-          self.AccDown(v1)
-          self.Float(1)
-          self.AccDown(v - v1)
-          self.Float(1)
-      else:
-          self.DiliveryGift(p)
-      
-    def oneWay(self, p:Person):
-        if self.timeLimit >0:
-          self.LoadCarrots(12)
-          print("LoadCarrots 12", file=output)
-          self.LoadGift(p.weightOfGift)
-          print("LoadGift",p.name, file=output)
-          v = self.nowSpeedLimit()
-          if isinstance(p.x_position/v,int) and p.x_position > 0 :
-            t = p.x_position/v
-            self.AccRight(v)
             self.Float(t)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            t = p.x_position/v
+            t = x/v
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(t)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
 
-
+        elif isinstance(x/v, int) and x < 0:
-          elif isinstance(p.x_position/v,int) and p.x_position < 0:
+            t = abs(x)/v
-            t = abs(p.x_position)/v
+            self.AccDown(v)
-            self.AccLeft(v)
             self.Float(t)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            t = abs(p.x_position)/v
+            t = abs(x)/v
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(t)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(1)
 
-          elif p.x_position < v and p.x_position > 0 :
+        elif x < v and x > 0:
-            v = p.x_position
+            v = x
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            v = p.x_position
+            v = x
-            self.AccLeft(v)
+            self.AccDown(v)
-            self.Float(1)
+            self.Float()
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
 
-          elif abs(p.x_position) < v and p.x_position < 0 :
+        elif abs(x) < v and x < 0:
-            v = abs(p.x_position)
+            v = abs(x)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(1)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)  
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            v = abs(p.x_position)
+            v = abs(x)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(1)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(1)
 
-          elif p.x_position > v and p.x_position > 0 :
+        elif x > v and x > 0:
-            t = p.x_position//v
+            t = x//v
-            v1 = v - (p.x_position - t*v)
+            v1 = v - (x - t*v)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(t)
-            self.AccLeft(v1)
+            self.AccDown(v1)
-            self.Float(1)
+            self.Float()
-            self.AccLeft(v - v1)
+            self.AccDown(v - v1)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            t = p.x_position//v
+            t = x//v
-            v1 = v - (p.x_position - t*v)
+            v1 = v - (x - t*v)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(t)
-            self.AccRight(v1)
+            self.AccUp(v1)
             self.Float(1)
-            self.AccRight(v - v1)
+            self.AccUp(v - v1)
             self.Float(1)
 
-          elif abs(p.x_position) > v and p.x_position < 0 :
+        elif abs(x) > v and x < 0:
-            t = abs(p.x_position)//v
+            t = abs(x)//v
-            v1 = v - (abs(p.x_position) - t*v)
+            v1 = v - (abs(x) - t*v)
-            self.AccLeft(v)
+            self.AccDown(v)
             self.Float(t)
-            self.AccRight(v1)
+            self.AccUp(v1)
             self.Float(1)
-            self.AccRight(v - v1)
+            self.AccUp(v - v1)
             self.Float(1)
 
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
+            v = self.nowSpeedLimit()
 
-            t = abs(p.x_position)//v
+            t = abs(x)//v
-            v1 = v - (abs(p.x_position) - t*v)
+            v1 = v - (abs(x) - t*v)
-            self.AccRight(v)
+            self.AccUp(v)
             self.Float(t)
-            self.AccLeft(v1)
+            self.AccDown(v1)
             self.Float(1)
-            self.AccLeft(v - v1)
+            self.AccDown(v - v1)
             self.Float(1)
-          elif p.x_position == 0 :
+        else:
-            self.kidoneWay(p.y_position,p)
+            self.DiliveryGift(p)
 
+    def oneWay(self, p: Person):
+        if self.timeLimit > 0:
+            self.LoadCarrots(12)
+            print("LoadCarrots 12", file=output)
+            self.LoadGift(p.weightOfGift)
+            print("LoadGift", p.name, file=output)
+            v = self.nowSpeedLimit()
+            if isinstance(p.x_position/v, int) and p.x_position > 0:
+                t = p.x_position/v
+                self.AccRight(v)
+                self.Float(t)
+                self.AccLeft(v)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                t = p.x_position/v
+                self.AccLeft(v)
+                self.Float(t)
+                self.AccRight(v)
+                self.Float(1)
+
+            elif isinstance(p.x_position/v, int) and p.x_position < 0:
+                t = abs(p.x_position)/v
+                self.AccLeft(v)
+                self.Float(t)
+                self.AccRight(v)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                t = abs(p.x_position)/v
+                self.AccRight(v)
+                self.Float(t)
+                self.AccLeft(v)
+                self.Float(1)
+
+            elif p.x_position < v and p.x_position > 0:
+                v = p.x_position
+                self.AccRight(v)
+                self.Float(1)
+                self.AccLeft(v)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                v = p.x_position
+                self.AccLeft(v)
+                self.Float(1)
+                self.AccRight(v)
+                self.Float(1)
+
+            elif abs(p.x_position) < v and p.x_position < 0:
+                v = abs(p.x_position)
+                self.AccLeft(v)
+                self.Float(1)
+                self.AccRight(v)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                v = abs(p.x_position)
+                self.AccRight(v)
+                self.Float(1)
+                self.AccLeft(v)
+                self.Float(1)
+
+            elif p.x_position > v and p.x_position > 0:
+                t = p.x_position//v
+                v1 = v - (p.x_position - t*v)
+                self.AccRight(v)
+                self.Float(t)
+                self.AccLeft(v1)
+                self.Float(1)
+                self.AccLeft(v - v1)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                t = p.x_position//v
+                v1 = v - (p.x_position - t*v)
+                self.AccLeft(v)
+                self.Float(t)
+                self.AccRight(v1)
+                self.Float(1)
+                self.AccRight(v - v1)
+                self.Float(1)
+
+            elif abs(p.x_position) > v and p.x_position < 0:
+                t = abs(p.x_position)//v
+                v1 = v - (abs(p.x_position) - t*v)
+                self.AccLeft(v)
+                self.Float(t)
+                self.AccRight(v1)
+                self.Float(1)
+                self.AccRight(v - v1)
+                self.Float(1)
+
+                self.kidoneWay(p.y_position, p)
+
+                t = abs(p.x_position)//v
+                v1 = v - (abs(p.x_position) - t*v)
+                self.AccRight(v)
+                self.Float(t)
+                self.AccLeft(v1)
+                self.Float(1)
+                self.AccLeft(v - v1)
+                self.Float(1)
+            elif p.x_position == 0:
+                self.kidoneWay(p.y_position, p)
 
 
 def line_prepender(f, line):
@@ -413,6 +421,7 @@ Output_File_Directory = 'Output/'
 files = os.listdir(File_Directory)
 out_files = os.listdir(Output_File_Directory)
 
+print('------------------Score--------------------------------')
 for File_Name in files:
 
     File_Path = File_Directory+File_Name
@@ -420,22 +429,27 @@ for File_Name in files:
     DataSet = [line.strip().split() for line in open(File_Path, "r")]
     DataSet = convertToFloat(DataSet)
 
-    Score:int = 0
+    Score: int = 0
     s = Santa()
     pp = People()
     s.generateTableauDeDistribution(pp)
 
-
+    output = open(Output_File_Path, "w")
-    output = open(Output_File_Path, "w+")
 
     try:
         for i in s.generateTableauDeDistribution(pp):
             s.oneWay(i)
     except:
-        print("Error in this dataset", file=output)
+        # print("Error in this dataset", file=output)
+        pass
     else:
         pass
 
+    print(File_Name, Score)
+
+
+print('-------------------how many line in output file---------------')
+
 
 def line_prepender(filename, line):
     with open(filename, 'r+') as f:
@@ -443,6 +457,7 @@ def line_prepender(filename, line):
         f.seek(0, 0)
         f.write(line.rstrip('\r\n') + '\n' + content)
 
+
 # count Action
 for out_file in out_files:
     Output_File_Path = Output_File_Directory + out_file
@@ -452,4 +467,3 @@ for out_file in out_files:
             pass
         print(out_file, count + 1)
     line_prepender(Output_File_Path, str(count+1))
-