#📝 Program P01 -- Hello Farm! #Explore built-in functions #Unlock Goal - Loops #read [ i ] ➡️ General Info ➡️ First Program #Reaping Phase #Reap 5 Hay #Write you code below #pet the pig #harvest 5 times #do a flip #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#📝 Program P02 -- Mean While #Explore While Loop #Unlock Goal - Speed #Reaping Phase #Reap 20 Hay #Write your code below: #Define -- a while loop, while in False conditions, performs a flip while False: do_a_flip() #Define -- a while loop, while in True conditions, harvest while True: harvest() #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#📝 Program P03 -- Iffy Lube #Explore if statements #Unlock Goal - Expand #Reaping Phase #Reap 30 Hay #Write your code below: #Define a function that if harvest is possible, harvests or else performs a flip. #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#📝 Program P04 -- On The Move #Explore movement #Unlock Goal - Plant #you wrap back when going over the edge #Reaping Phase #Reap 30 Hay #Write code below: #while, if harvest is possible, harvest, then move South. #hint -- similar to previous program, P03 #else not needed since moving to new plot ensures harvest ready #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#,_,_, SOWING PHASE ,_,_,_,_,_,_, #|_|_| REAPING PHASE |_|_|_|_|_|_|

#📝 Task 05 Program P05 -- Bush League #,_,_, SOWING PHASE ,_,_,_,_,_,_, #clear the field clear() #|_|_| REAPING PHASE |_|_|_|_|_|_| #reaping goal 100 Hay and 100 Wood #write your code below # Harvest then sow Bush twice, and harvest Grass once (see the Field above). # Hint -- three separate harvests, repeated #while loop here #1st plot -- check harvest ready #harvest #🌳 sow bush #move North to 2nd plot #2nd plot -- check harvest ready #harvest #🌳 sow bush #move North to 3rd plot #3rd plot -- check harvest ready #harvest #🌾no sowing -- keep grass #move North. wrapping around to 1st plot #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#📝 Task 06 -- Program P06 -- Press Zero for #Explore Operators and Debug #Unlock Goal - Senses #PRACTICE 1 -- 👨‍🏫 Modulo Operator, an Arithmetic Operator #You can check if a number is odd or even since even number do not have remainders. #even numbers have 0 remainder #odd number have >0 remainders # 👨‍🏫Print() -- you can print to the screen as a way to double check things. if 4 % 2 == 0: print("even number") else: print("odd number") move(North) if 5 % 2 == 0: print("even number") else: print("odd number") move(South) #--- [||] PAUSE --- [|>] Run the program then proceed #PRACTICE 2 -- 👨‍🏫 Comparison Operators, if 1 > 0: print(1 > 0) move(North) if 0 != 5: print(0 != 5) move(North) if 0 == 0: print(0 == 0) move(North) #--- [||] PAUSE --- [|>] Run the program then proceed #End of practice -- continue to the next section of code, Sowing and Reaping.

#Append the following code to the starter code: ,_,_, SOWING PHASE ,_,_,_,_,_,_, #PRACTICE 3 -- 👨‍🏫 Logic Operators #Observe how logic operators work. #guess which plot will grow Bush clear() if not False: plant(Entities.Bush) print("not False -->", not False) move(North) if True and False: plant(Entities.Bush) print("True and False -->", True and False) move(North) if True or False: plant(Entities.Bush) print("True or False -->", True or False) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| #Reap 100 Hay #The field should look like this after the Sowing Phase above : #🌾 Grass #🌳 Bush #🌾 Grass #Create a while loop to harvest then move North, harvesting Grass, Bush, then Grass. #Hint -- Bush need to be replanted. #write code below: #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#📝 Program P07 -- Sensitivity Training #Explore Senses #Unlock Goal - Carrot, Hats, Expand 2, Grass 2, Speed 2 #,_,_, SOWING PHASE ,_,_,_,_,_,_, #* We used the modulo operator, % figure out odd or even numbers in Program P06. #* Use get_pos_y() with modulo operator to plant Bush only in even numbered y-axis. #* after reaching y-axis 2, move north to y-axis 0, then break out the loop #* How to stop loops early -- [ i ] ➡️ Programming ➡️ Break #* print() your location and modulo remainders after each move to help troubleshoot #Create a while loop to create this field: #🌳 bush #🌾 grass #🌳 bush clear() #reset your field #write code to prep field for harvest below: #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| #Reaping goal -- 350 Hay and 90 Wood # add 350 and 90 to your existing inventory to get your harvest goal print(num_items(Items.Hay) + 350, "Hay", num_items(Items.Wood) + 90, "Wood", "required" ) #verify printed goals -- [ i ] ➡️ Output ➡️ output.txt (click link to open file) #Create a while loop reap: #* identify Entities.Bush, harvest then replant bush or else harvest hay. #* If both 50 Hay and 50 Wood beyond your inventory is harvested, exit loop. #Write code below: #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#Program P08 -- Gone Loopy #Explore Hats, Carrot, Expand 2 #Unlock Goal - Expand 3, Speed 3, Grass 3, Carrot 2, Trees, Watering, Variables #have the Output window handy -- General Info --> Output #Note planting carrot costs 1 Hay and 1 Wood, Entities --> Carrot # »»---------------► PRACTICE #reset the field clear() #get_world_size() returns the length of the field print(get_world_size(), "-- field length") move(North) print((get_world_size() + get_world_size()), "-- field length 2X") #change hats for pure esthetics change_hat(Hats.Brown_Hat) #while loop that runs while Hay inventory is less than 987654321. #observe the the increase in Hay #example using if aconditional to break out of loop while num_items(Items.Hay) < 987654321: print(num_items(Items.Hay), "- before harvest") harvest() do_a_flip() print(num_items(Items.Hay), "- after harvest") if num_items(Items.Hay) > 0: print("Break condition met--exit") break #carrots require ground prep, till() --> Grounds.Soil #entity check: check the enitity, if not Carrot, till if get_entity_type() != Entities.Carrot: print(get_entity_type()) till() #ground check: check the ground, if Soil, plant carrot if get_ground_type() == Grounds.Soil: print(get_ground_type()) plant(Entities.Carrot) #--- [||] PAUSE --- [|>] Run the program then proceed # continued below ...

# ... continued from above #For Loops #create a for loop named y-loop to traverse columns, y-axis #y_counter is an interger variable to count loops #y-loop - code block: print y_counter variable then move north, repeat 3 times #note - choosing range 3 will make y == 0, 1, 2 for y_counter in range(3): print("y ==", y_counter , "-- loop number", y_counter + 1) move(North) #--- [||] PAUSE --- [|>] Run the program then proceed #create a for loop named x-loop to traverse rows #use x_counter as the variable and get_world_size() for range #code block: print get_pos_x then moves east, repeat 3 times for x_counter in range(get_world_size()): print("x-axis is", x_counter ) move(East) #reset field clear() #--- [||] PAUSE --- [|>] Run the program then proceed #Traverse the entire field #Move N, N, N, and E, repeat 3 times by putting x-loop within y-loop (nesting). #x_counter and y_counter are variables and use get_world_size() for range #outer x loop code block: wear purple hat, print x position, move east #inner y loop code block: wear green hat, print y position, move north for x_counter in range(get_world_size()): for y_counter in range(get_world_size()): change_hat(Hats.Green_Hat) print(get_pos_y(), "-- y-axis, Inner loop number", y_counter + 1) move(North) change_hat(Hats.Purple_Hat) print(get_pos_x(), "-- x-axis, Outer loop number", x_counter + 1) move(East) #--- [||] PAUSE --- [|>] Run the program then proceed # continued below ...

# ... continued from above #,_,_, SOWING PHASE ,_,_,_,_,_,_, #prep the field with a nested for loop #carrots are more needed than wood, plant carrots in column 0 and 2 #outer loop -- prints x-axis, calls an inner loop, then moves east #inner loop -- checks for x-axis, plants carrots or bush, then move north #field prep goal #🥕🌳🥕 | Carrot | Bush | Carrot | #🥕🌳🥕 | Carrot | Bush | Carrot | #🥕🌳🥕 | Carrot | Bush | Carrot | #write your code here #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| #reaping goals 80 Wood and 125 Carrot #Expand 3 - 30 Wood 20 Carrot #Speed 3 - 50 Wood 50 Carrot #Grass 3 - 500 Wood #Carrot 2 - 250 Wood #Trees - 50 Wood 70 Carrot #Watering - 50 Wood #Variables - 35 Carrot # ====================== # 880 Wood 175 Carrot #--- [||] PAUSE --- [|>] Run the program then proceed #create a nested for loop within a while true loop. #if your Wood AND Carrot reach reaping goals, then break out of loop #write your code here #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

Program P09 -- Large Order #Explore Trees, Watering, and Variables #Unlock Goal - Pumpkin, Fertilizer, Lists, & Functions #have the Output window handy -- General Info --> Output #Note planting carrot costs 1 Hay and 1 Wood, Entities --> Carrot # »»---------------► PRACTICE #reset the field clear() # Watering # [ i ] ➡️ Unlocks ➡️ Watering # [ i ] ➡️ Built-in Functions ➡️ get_water # [ i ] ➡️ Items ➡️ Water while True: print(get_water() ) use_item(Items.Water) move(North) if get_water() > 0.25: print(get_water() ) break #--- [||] PAUSE --- [|>] Run the program then proceed clear() #variables # [ i ] ➡️ Unlocks ➡️ Variables farmside = get_world_size() #odds & evens # [ i ] ➡️ Entities ➡️ Operators ➡️ % Modulo Operator for y_counter in range( farmside ): move(North) if get_pos_y() % 2 == 0: print("even number") plant(Entities.Tree) move(East) for y_counter in range( farmside ): move(North) if get_pos_y() % 2 > 0: print("odd number") plant(Entities.Tree) #--- [||] PAUSE --- [|>] Run the program then proceed #using varibles to making a for loop max_loop = 3 loop = 0 while loop < max_loop: pet_the_piggy() #imcrement counter ➡️ reassign loop as loop number plus one loop = loop + 1 print(loop) #--- [||] PAUSE --- [|>] Run the program then proceed # continued below ⬇️ ...

# ... continued from above ⬆️ #,_,_, SOWING PHASE ,_,_,_,_,_,_, # Trees # [ i ] ➡️ Unlocks ➡️ Trees # [ i ] ➡️ Entities ➡️ Tree #Field prep visual map: # | 🥕C | 🌲T | 🥕C | 🌲T | # | 🌲T | 🌾G | 🌲T | 🌾G | # | 🥕C | 🌲T | 🥕C | 🌲T | # | 🌲T | 🌾G | 🌲T | 🌾G | # x, y coordinates: # | 0,3 C | 1,3 T | 2,3 C | 1,3 T | # | 0,2 T | 1,2 G | 2,2 T | 1,2 G | # | 0,1 C | 1,1 T | 2,1 C | 1,1 T | # | 0,0 T | 1,0 G | 2,0 T | 3,0 G | # Sowing Locations: #🌲 T-Tee (x-even and y-even) #🌲 T-Tree (x-odd and y-odd) #🥕 C-Carrot (x-even and y-odd) #🌾 G-Grass (x-odd and y-even) automatic -- leave alone #create a nested for loop, an x-row outer loop an y-column inner loop #define 3 if/elif statments: # checks for odd or even number with modulo operator for x,y pair # then check the x,y pair against the Sowing Locations table above for x_counter in range(farmside): for y_counter in range(farmside): #if statement for (x-even, y-even) check # your code here #if statement for(x-odd, y-odd) # your code here #if statement for(x-even, y-odd) # your code here move(North) move(East) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| # Speed 4 - 500 Carrot # Grass 4 - 2500 Wood # Expand 4 - 100 Wood 50 Carrot # Carrot 3 - 1250 Wood # Trees 2 - 300 Hay # Watering 2 - 200 Wood # Pumpkin - 500 Wood 200 Carrot # Fertilizer - 500 Wood # Lists - 500 Carrot # Functions - 40 Carrot #==================== # 300 Hay, 5050 Wood, & 1290 Carrot #put on your work hat, the Staw Hat #print reaping goals change_hat(Hats.Straw_Hat) hay_goal = ( num_items(Items.Hay) + 300 ) wood_goal = ( num_items(Items.Wood) + 5050 ) carrot_goal = ( num_items(Items.Wood) + 1290 ) print( "Reaping goals --", hay_goal , "Hay", wood_goal , "Wood", carrot_goal , "Carrot" ) #verify - [ i ] ➡️ Unlocks ➡️ Debug ➡️ Variables ➡️ output.txt #--- [||] PAUSE --- [|>] Run the program then proceed #Hay costs zero to produce and thus is not monitored while ( (num_items(Items.Wood) < wood_goal) or (num_items(Items.Carrot) < carrot_goal) ): # your code here move(East) #Check your code with the: #🗝️ 🗝️ 🗝️ Part III: Answer Key 🗝️ 🗝️ 🗝️ 🗝️

#Program P10 -- Pumpkin Patch #Explore - Pumpkin, Fertilizer, Lists, & Functions #Unlock Goal - Fertilizer, Dictionaries, Import, Utilities #Reaping goal -- # 1200 Hay, 22050 Wood, 1080 Carrot, & 4500 Pumpkin #Note: this field is self suffcient provifing all inputs needed for carrot 🥕 and pumpkin 🎃. # »»---------------► PRACTICE #reset the field clear() # Functions # [ i ] ➡️ Unlocks ➡️ Functions # [ i ] ➡ Programming ➡️ Name Scopes #simple function to find if a number is odd #input an intger and the function will return true or false def oddity(integer): # take arugment, interger return integer % 2 != 0 #invoke oddity function with an argument and print it print(oddity(5), "-- is odd" ) move(North) print(oddity(2), "-- is even" ) do_a_flip() #Scope #what happens when variables are delcared inside of a function #assign tip to 0.10 then reassign tip as 0.50 inside the function tip = 0.11 def tipper(number): tip = 0.55 return number * tip #invoke tipper function with an argument and print it, then print tip variable print(tipper(1000)) move(North) print(tip) do_a_flip() #observe that outside of function, variables tip is unchanged # Lists # [ i ] ➡️ Unlocks ➡️ Lists # create a list with three elements # access elements by position, index numbers 0, 1, 2 easyas = [1, 2, 3] move(North) print( easyas[0], "...", easyas[2] ) do_a_flip() # create an empty list warehouse = [] print(warehouse) move(North) # add Items.Hay, Items.Carrot, Items.Carrot, Items.Water then print warehouse # add the following to the end of the list (append): warehouse.append(Items.Hay) warehouse.append(Items.Carrot) warehouse.append(Items.Pumpkin) warehouse.append(Items.Carrot) warehouse.append(Items.Carrot) warehouse.append("multipass") warehouse.append(Items.Water) warehouse.append(Items.Water) #how many elements are in the array?? print(len(warehouse)) #print the array before we change it move(North) print(warehouse) # change the list and print each time: # remove the 5th element warehouse.pop(5) print(warehouse) move(North) # remove the last element warehouse.pop() print(warehouse) move(North) # remove the first occurance of Carrot warehouse.remove(Items.Carrot) print(warehouse) move(North) # remove the first occurance of Carrot, again warehouse.remove(Items.Carrot) print(warehouse) move(North) # add Items.Wood at index 2 warehouse.insert(2, Items.Wood) print(warehouse) move(North) # remove first instance of pumpkin warehouse.remove(Items.Pumpkin) # print final size and content of the array print(len(warehouse), "--", warehouse) #--- [||] PAUSE --- [|>] Run the program then proceed continued ...

#,_,_, SOWING PHASE ,_,_,_,_,_,_, #Field prep map P-umpkin, T-ree, C-arrot, G-rass: # | 🌲T | 🥕C | 🌲T | 🥕C | 🌲T | 🥕C | # | 🥕C | 🌲T | 🥕C | 🌲T | 🥕C | 🌲T | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌲T | 🥕C | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌾G | 🌲T | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌲T | 🌾G | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌾G | 🌲T | # Coordinates Table: # | 0,5 | 1,5 | 2,5 | 3,5 | 4,5 | 5,5 | # | 0,4 | 1,4 | 2,4 | 3,4 | 4,4 | 5,4 | # | 0,3 | 1,3 | 2,3 | 3,3 | 4,3 | 5,3 | # | 0,2 | 1,2 | 2,2 | 3,2 | 4,3 | 5,2 | # | 0,1 | 1,1 | 2,1 | 3,1 | 4,1 | 5,1 | # | 0,0 | 1,0 | 2,0 | 3,0 | 4,0 | 5,0 | # Sowing Locations: # 1 southwest - 0,0 to 3,3 - pumpkin patch # 2 southeast - 4,0 to 5,5 - trees, grass, and carrots # 3 north - 0,4 to 5,5 - trees and carrots # Pumpkins require retangualr space, see docs: # [ i ] ➡️ Unlocks ➡️ Pumpkins # [ i ] ➡️ Entities ➡️ Pumpkin 🎃 # create a nested for loop, an x-row outer loop an y-column inner loop # define 3 if/elif statments: # checks for odd or even numbers # then check the x,y pair against the SCoordinates Table above clear() farmside = get_world_size() # x + y, if x or y is odd, the sume is aslo odd thus use modulus of x+y to find odd numbers # define odditor function that modifies the oddity function to take in two numbers as arguments then add it. def odditor(num1, num2): -- your code here -- # southwest - 0,0 to 3,3 - pumpkin patch # you need to move North more than once to wrap around for x_counter in ... for y_counter ... -- your code here -- # southeast - 4,0 to 5,5 - trees, grass, and carrots # you need to move North more than once to wrap around # exception -- carrot on plot 5,3 for x_counter in ... for y_counter ... -- your code here -- #north - 0,4 to 5,5 - trees and carrots for x_counter in ... for y_counter ... -- your code here -- #|_|_| REAPING PHASE |_|_|_|_|_|_| # Speed 5 1000 Carrot # Grass 5 12500 Wood # Expand 5 1000 Pumpkin # Carrot 4 6250 Wood # Watering 3 800 Wood # Trees 3 1200 Hay # Fertilizer 2 1500 Wood # Dictionaries 2500 Pumpkin # Import 80 Carrot # Utilities 1000 Pumpkin #==================== # 1200 Hay, 22050 Wood, 1080 Carrot, & 4500 Pumpkin #put on your work hat, the Straw Hat #print reaping goals change_hat(Hats.Straw_Hat) hay_goal = ( num_items(Items.Hay) + 1200 ) wood_goal = ( num_items(Items.Wood) + 22050 ) carrot_goal = ( num_items(Items.Wood) + 1080 ) pumpkin_goal = ( num_items(Items.Pumpkin) + 4500 ) print( "Reaping goals --", reap[0] , "Hay", reap[1] , "Wood", reap[2] , "Carrot", reap[3] , "Pumpkin" ) #verify - [ i ] ➡️ Unlocks ➡️ Debug ➡️ Variables ➡️ output.txt #--- [||] PAUSE --- [|>] Run the program then proceed # Hay costs zero to produce and thus is not monitored # dead pumpkins -- sow pumpkin, cannot harvest # harvesting a pumpkin larger than one plot will leave multiple plots empty # Pumpkins are in x <4 and y<4 reap = [ hay_goal, wood_goal, carrot_goal, pumpkin_goal ] while ( num_items(Items.Wood) < reap[1] or num_items(Items.Carrot) < reap[2] or num_items(Items.Wood) < reap[3] ): for x_counter in range(farmside): for y_counter in range(farmside): #Wood reaping -- your code here -- #Carrot reaping -- your code here -- #pumpkin reaping #deap pumpkin - sow -- your code here -- #Hay reaping move(East)

# Example input numbers = [5, 9, 3, 1, 8, 6, 4, 2, 7] # Function call sorted_numbers = bubble_sort(numbers) # Expected output print(sorted_numbers) # Output: [1, 2, 3, 4, 5, 6, 7, 8, 9]

sorted_numbers, swap_count = bubble_sort(numbers) print(sorted_numbers) # [1, 2, 3, 4, 5, 6, 7, 8, 9] print(swap_count) # e.g., 18

#📝 Program P01 -- Hello Farm! #Explore built-in functions #Unlock Goal - Loops #read [ i ] ➡️ General Info ➡️ First Program #Reaping Phase #Reap 5 Hay #Write you code below #pet the pig pet_the_piggy() #harvest 5 times harvest() harvest() harvest() harvest() harvest() #do a flip do_a_flip()

#📝 Program P02 -- Mean While #Explore While Loop #Unlock Goal - Speed #Reaping Phase #Reap 20 Hay #Write your code below: #Define -- a while loop, while in False conditions, performs a flip while False: do_a_flip() #Define -- a while loop, while in True conditions, harvest while True: harvest()

#📝 Program P03 -- Iffy Lube #Explore if statements #Unlock Goal - Expand #Reaping Phase #Reap 30 Hay #Write your code below: #Define a function that if harvest is possible, harvests or else performs a flip. while True: if can_harvest(): harvest() else: do_a_flip()

#📝 Program P04 -- On The Move #Explore movement #Unlock Goal - Plant #you wrap back when going over the edge #Reaping Phase #Reap 30 Hay #Write code below: #while, if harvest is possible, harvest, then move South. #hint -- similar to previous program, P03 #else not needed since moving to new plot ensures harvest ready while True: if can_harvest(): harvest() move(South)

#📝 Task 05 Program P05 -- Bush League #,_,_, SOWING PHASE ,_,_,_,_,_,_, clear() #clear the field #|_|_| REAPING PHASE |_|_|_|_|_|_| #reaping goal 100 Hay and 100 Wood #write your code below # Harvest then sow Bush twice, and harvest Grass once (see the Field above). # Hint -- three separate harvests, repeated #while loop here while(True): if can_harvest(): harvest() plant(Entities.Bush) move(North) if can_harvest(): harvest() plant(Entities.Bush) move(North) if can_harvest(): harvest() move(North)

#📝 Task 06 -- Program P06 Press Zero for #Explore Operators and Debug #Unlock Goal - Senses #PRACTICE sessions #modulo operator % from Arthmetic Operators, checks for even or odd number #even numbers have 0 remainder #odd number have >0 remainders clear() if 4 % 2 == 0: print("even number") else: print("odd number") move(North) if 5 % 2 == 0: print("even number") else: print("odd number") move(South) #--- [||] PAUSE --- [|>] Run the program then proceed #observe how comparison operators work if 1 > 0: print(1 > 0) move(North) if 0 != 5: print(0 != 5) move(North) if 0 == 0: print(0 == 0) move(North) #--- [||] PAUSE --- [|>] Run the program then pr #,_,_, SOWING PHASE ,_,_,_,_,_,_, #observe how logic operators work #guess which plot will grow Bush clear() if not False: plant(Entities.Bush) print("not False -->", not False) move(North) if True and False: plant(Entities.Bush) print("True and False -->", True and False) move(North) if True or False: plant(Entities.Bush) print("True or False -->", True or False) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| #Reap 100 Hay while True: if can_harvest(): harvest() move(North) if can_harvest(): harvest() plant(Entities.Bush) move(North) if can_harvest(): harvest() move(North)

#Task 07 -- Program P07 -- So Sensitive #Explore Senses #Unlock Goal - Carrot, Hats, Expand 2, Grass 2, Speed 2 #,_,_, SOWING PHASE ,_,_,_,_,_,_, clear() #inventory check while get_pos_y() < 3: print(get_pos_y(), "y-axis", (get_pos_y() % 2), "remainder") if (get_pos_y() % 2) == 0: plant(Entities.Bush) if get_pos_y() == 2: move(North) break else: move(North) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| #Reaping goal -- 350 Hay and 90 Wood print(num_items(Items.Hay) + 350, "Hay", num_items(Items.Wood) + 90, "Wood", "required" ) while True: if can_harvest(): if get_entity_type() == Entities.Bush: harvest() plant(Entities.Bush) else: harvest() if (num_items(Items.Hay) > 550) and (num_items(Items.Wood) > 190): break move(North)

#Program P09 -- Large Order #Explore Trees, Watering, and Variables #Unlock Goal - Pumpkin, Fertilizer, Lists, & Functions #have the Output window handy -- General Info --> Output #Note planting carrot costs 1 Hay and 1 Wood, Entities --> Carrot # »»---------------► PRACTICE #reset the field clear() # Watering # [ i ] ➡️ Unlocks ➡️ Watering # [ i ] ➡️ Built-in Functions ➡️ get_water # [ i ] ➡️ Items ➡️ Water while True: print(get_water() ) use_item(Items.Water) move(North) if get_water() > 0.25: print(get_water() ) break #--- [||] PAUSE --- [|>] Run the program then proceed clear() #variables # [ i ] ➡️ Unlocks ➡️ Variables farmside = get_world_size() #odds & evens # [ i ] ➡️ Entities ➡️ Operators ➡️ % Modulo Operator for y_counter in range( farmside ): move(North) if get_pos_y() % 2 == 0: print("even number") plant(Entities.Tree) move(East) for y_counter in range( farmside ): move(North) if get_pos_y() % 2 > 0: print("odd number") plant(Entities.Tree) #--- [||] PAUSE --- [|>] Run the program then proceed #using varibles to making a for loop max_loop = 3 loop = 0 while loop < max_loop: pet_the_piggy() #imcrement counter ➡️ reassign loop as loop number plus one loop = loop + 1 print(loop) #--- [||] PAUSE --- [|>] Run the program then proceed #,_,_, SOWING PHASE ,_,_,_,_,_,_, # Trees # [ i ] ➡️ Unlocks ➡️ Trees # [ i ] ➡️ Entities ➡️ Tree #Field prep map with x, y cordinates: # 🥕🌲🥕🌲 | 0,3 Carrot | 1,3 Tree__ | 2,3 Carrot | 1,3 Tree__ | # 🌲🌾🌲🌾 | 0,2 Tree__ | 1,2 Hay___ | 2,2 Tree__ | 1,2 Hay___ | # 🥕🌲🥕🌲 | 0,1 Carrot | 1,1 Tree__ | 2,1 Carrot | 1,1 Tree__ | # 🌲🌾🌲🌾 | 0,0 Tree__ | 1,0 Hay___ | 2,0 Tree__ | 3,0 Hay___ | # Sowing Locations: #🌲 Tree (x-even and y-even) #🌲 Tree (x-odd and y-odd) #🥕 Carrot (x-even and y-odd) #🌾 Hay (x-odd and y-even) automatic -- leave alone #create a nested for loop, an x-row outer loop an y-column inner loop #define 3 if/elif statments: # checks for odd or even number with modulo operator for x,y pair # then check the x,y pair against the Sowing Locations table above for x_counter in range(farmside): for y_counter in range(farmside): #(x-even, y-even) if get_pos_x() % 2 == 0 and get_pos_y() % 2 == 0: plant(Entities.Tree) #(x-odd, y-odd) elif get_pos_x() % 2 > 0 and get_pos_y() % 2 > 0: plant(Entities.Tree) #(x-even, y-odd) elif get_pos_x() % 2 == 0 and get_pos_y() % 2 > 0: till() plant(Entities.Carrot) move(North) move(East) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| # Speed 4 - 500 Carrot # Grass 4 - 2500 Wood # Expand 4 - 100 Wood 50 Carrot # Carrot 4 - 1250 Wood # Trees 2 - 300 Hay # Watering 2 - 200 Wood # Pumpkin - 500 Wood 200 Carrot # Fertilizer - 500 Wood # Lists - 500 Carrot # Functions - 40 Carrot #==================== # 300 Hay, 5050 Wood, & 1290 Carrot #put on your work hat, the Staw Hat #print reaping goals change_hat(Hats.Straw_Hat) hay_goal = ( num_items(Items.Hay) + 300 ) wood_goal = ( num_items(Items.Wood) + 5050 ) carrot_goal = ( num_items(Items.Wood) + 1290 ) print( "Reaping goals --", hay_goal , "Hay", wood_goal , "Wood", carrot_goal , "Carrot" ) #verify - [ i ] ➡️ Unlocks ➡️ Debug ➡️ Variables ➡️ output.txt #--- [||] PAUSE --- [|>] Run the program then proceed #Hay costs zero to produce and thus is not monitored while ( (num_items(Items.Wood) < wood_goal) or (num_items(Items.Carrot) < carrot_goal) ): for x_counter in range(farmside): for y_counter in range(farmside): #Wood reaping if get_entity_type() == Entities.Tree: #water here if get_water() < 0.25: use_item(Items.Water) if can_harvest(): harvest() plant(Entities.Tree) #Carrot reaping elif get_entity_type() == Entities.Carrot: if can_harvest(): harvest() plant(Entities.Carrot) #Hay reaping else: harvest() move(North) move(East)

#Program P10 -- Pumpkin Patch #Explore - Pumpkin, Fertilizer, Lists, & Functions #Unlock Goal - Fertilizer, Dictionaries, Import, Utilities #Reaping goal -- # 1200 Hay, 22050 Wood, 1080 Carrot, & 4500 Pumpkin #Note: this field is self suffcient provifing all inputs needed for carrot 🥕 and pumpkin 🎃. # »»---------------► PRACTICE #reset the field clear() # Functions # [ i ] ➡️ Unlocks ➡️ Functions # [ i ] ➡ Programming ➡️ Name Scopes #simple function to find if a number is odd #input an intger and the function will return true or false def oddity(integer): # take arugment, interger return integer % 2 != 0 #invoke oddity function with an argument and print it print(oddity(5), "-- is odd" ) move(North) print(oddity(2), "-- is even" ) do_a_flip() #Scope #what happens when variables are delcared inside of a function #assign tip to 0.10 then reassign tip as 0.50 inside the function tip = 0.11 def tipper(number): tip = 0.55 return number * tip #invoke tipper function with an argument and print it, then print tip variable print(tipper(1000)) move(North) print(tip) do_a_flip() #observe that outside of function, variables tip is unchanged # Lists # [ i ] ➡️ Unlocks ➡️ Lists # create a list with three elements # access elements by position, index numbers 0, 1, 2 easyas = [1, 2, 3] move(North) print( easyas[0], "...", easyas[2] ) do_a_flip() # create an empty list warehouse = [] print(warehouse) move(North) # add Items.Hay, Items.Carrot, Items.Carrot, Items.Water then print warehouse # add the following to the end of the list (append): warehouse.append(Items.Hay) warehouse.append(Items.Carrot) warehouse.append(Items.Pumpkin) warehouse.append(Items.Carrot) warehouse.append(Items.Carrot) warehouse.append("multipass") warehouse.append(Items.Water) warehouse.append(Items.Water) #how many elements are in the array?? print(len(warehouse)) #print the array before we change it move(North) print(warehouse) # change the list and print each time: # remove the 5th element warehouse.pop(5) print(warehouse) move(North) # remove the last element warehouse.pop() print(warehouse) move(North) # remove the first occurance of Carrot warehouse.remove(Items.Carrot) print(warehouse) move(North) # remove the first occurance of Carrot, again warehouse.remove(Items.Carrot) print(warehouse) move(North) # add Items.Wood at index 2 warehouse.insert(2, Items.Wood) print(warehouse) move(North) # remove first instance of pumpkin warehouse.remove(Items.Pumpkin) # print final size and content of the array print(len(warehouse), "--", warehouse) #--- [||] PAUSE --- [|>] Run the program then proceed #,_,_, SOWING PHASE ,_,_,_,_,_,_, #Field prep map P-umpkin, T-ree, C-arrot, G-rass: # | 🌲T | 🥕C | 🌲T | 🥕C | 🌲T | 🥕C | # | 🥕C | 🌲T | 🥕C | 🌲T | 🥕C | 🌲T | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌲T | 🥕C | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌾G | 🌲T | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌲T | 🌾G | # | 🎃P | 🎃P | 🎃P | 🎃P | 🌾G | 🌲T | # Coordinates Table: # | 0,5 | 1,5 | 2,5 | 3,5 | 4,5 | 5,5 | # | 0,4 | 1,4 | 2,4 | 3,4 | 4,4 | 5,4 | # | 0,3 | 1,3 | 2,3 | 3,3 | 4,3 | 5,3 | # | 0,2 | 1,2 | 2,2 | 3,2 | 4,3 | 5,2 | # | 0,1 | 1,1 | 2,1 | 3,1 | 4,1 | 5,1 | # | 0,0 | 1,0 | 2,0 | 3,0 | 4,0 | 5,0 | # Sowing Locations: # 1 southwest - 0,0 to 3,3 - pumpkin patch # 2 southeast - 4,0 to 5,5 - trees, grass, and carrots # 3 north - 0,4 to 5,5 - trees and carrots # Pumpkins require retangualr space, see docs: # [ i ] ➡️ Unlocks ➡️ Pumpkins # [ i ] ➡️ Entities ➡️ Pumpkin 🎃 # create a nested for loop, an x-row outer loop an y-column inner loop # define 3 if/elif statments: # checks for odd or even numbers # then check the x,y pair against the SCoordinates Table above clear() farmside = get_world_size() # x + y, if x or y is odd, the sume is aslo odd thus use modulus of x+y to find odd numbers # define odditor function that modifies the oddity function to take in two numbers as arguments then add it. def odditor(num1, num2): return ( num1 + num2 ) % 2 != 0 # southwest - 0,0 to 3,3 - pumpkin patch # you ned to move North more than once to wrap around for x_counter in range(farmside - 2): for y_counter in range(farmside - 2): if get_ground_type() == Grounds.Grassland: till() plant(Entities.Pumpkin) harvest() plant(Entities.Pumpkin) move(North) move(East) move(North) move(North) # southeast - 4,0 to 5,5 - trees, grass, and carrots # you need to move North more than once to wrap around # exception -- carrot on plot 5,3 for x_counter in range(farmside - 4): for y_counter in range(farmside - 2): if odditor( get_pos_x(), get_pos_y() ) == True: plant(Entities.Tree) elif get_pos_x() == 5 and get_pos_y() == 3: till() plant(Entities.Carrot) move(North) move(East) if get_pos_x() == 0: break move(North) move(North) #north - 0,4 to 5,5 - trees and carrots for y_counter in range(farmside - 4): for x_counter in range(farmside): if odditor( get_pos_x(), get_pos_y() ) == True: plant(Entities.Tree) else: till() plant(Entities.Carrot) move(East) move(North) #--- [||] PAUSE --- [|>] Run the program then proceed #|_|_| REAPING PHASE |_|_|_|_|_|_| # Speed 5 1000 Carrot # Grass 5 12500 Wood # Expand 5 1000 Pumpkin # Carrot 4 6250 Wood # Watering 3 800 Wood # Trees 3 1200 Hay # Fertilizer 2 1500 Wood # Dictionaries 2500 Pumpkin # Import 80 Carrot # Utilities 1000 Pumpkin #==================== # 1200 Hay, 22050 Wood, 1080 Carrot, & 4500 Pumpkin #put on your work hat, the Straw Hat #print reaping goals change_hat(Hats.Straw_Hat) hay_goal = ( num_items(Items.Hay) + 1200 ) wood_goal = ( num_items(Items.Wood) + 22050 ) carrot_goal = ( num_items(Items.Wood) + 1080 ) pumpkin_goal = ( num_items(Items.Pumpkin) + 4500 ) print( "Reaping goals --", reap[0] , "Hay", reap[1] , "Wood", reap[2] , "Carrot", reap[3] , "Pumpkin" ) #verify - [ i ] ➡️ Unlocks ➡️ Debug ➡️ Variables ➡️ output.txt #--- [||] PAUSE --- [|>] Run the program then proceed # Hay costs zero to produce and thus is not monitored # dead pumpkins -- sow pumpkin, cannot harvest # harvesting a pumpkin larger than one plot will leave multiple plots empty # Pumpkins are in x <4 and y<4 reap = [ hay_goal, wood_goal, carrot_goal, pumpkin_goal ] while ( num_items(Items.Wood) < reap[1] or num_items(Items.Carrot) < reap[2] or num_items(Items.Wood) < reap[3] ): for x_counter in range(farmside): for y_counter in range(farmside): #Wood reaping if get_entity_type() == Entities.Tree: #water here if get_water() < 0.21: use_item(Items.Water) if can_harvest(): harvest() plant(Entities.Tree) #Carrot reaping elif get_entity_type() == Entities.Carrot: if can_harvest(): harvest() plant(Entities.Carrot) #pumpkin reaping #deap pumpkin - sow elif ( get_pos_x() < 4 and get_pos_y() < 4 ): if get_entity_type() != Entities.Pumpkin: plant(Entities.Pumpkin) if get_water() < 0.41: use_item(Items.Water) if can_harvest(): harvest() plant(Entities.Pumpkin) #Hay reaping else: harvest() move(North) move(East)