Hello computer science experts, I need you to create a $*$full$*$ and $*$complete$*$ Python AI program for a Python battle game $($please do not use ChatGPT to make the program!$).$Here is the context, including the requirements, explanation of required functions, Python Battle game code, and the code for randombot and hunterbot. Please start with the hunterbot code as a base $($it is the last picture$)$ and call the other functions as the requirements ask.

Movement

Did you call all the functions? $($lookAtSpace$()$ is optional$)$

Do any movement functions get called when they shouldn't, e$.$g$.$ does your bot try to move forward into a

wall?

Does your bot move appropriately as if a human is controlling it$?$

Non$-$Movement

Did you call at least four of the eight non$-$movement functions including the required attack$()$ function?

Do any of the functions get called when they shouldn't, e$.$g$.$ an ability is called without enough energy or

an attack is called when the enemy is in the wrong spot?

Are the non$-$movement abilities used logically and do they vary depending on the situation?

Elegance

Does your code go beyond basic movement and attacking?

Did you add attributes to your own Al class for various reasons?

Did you add in your own extra functions?

Did you write your code like a chess match, i$.$e$.$ you anticipate how your opponent will behave?

Al Opponents $-$

Does your code beat randombot?

Does your code beat hunterbot?

Hunterbot:

class AI:

def init$($self$)$:

self.isFirstTurn $=$ True

def turn$($self$)$:

if self.robot.lookInFront$()==$ "bot":

self.robot.attack$()$

else:

self.goTowards$($self$.$robot.locateEnemy$()$

$[0])$

def checkDelta$($self$,$enemyLocation$)$:

myLocation $=$ self.robot.position

delta $=($enemyLocation$[0]-$

myLocation$[0],$enemyLocation$[1]-$myLocation$[1])$

return delta

def goTowards$($self$,$enemyLocation$)$:

myLocation $=$ self.robot.position

delta $=($enemyLocation$[0]-$

myLocation$[0],$enemyLocation$[1]-$myLocation$[1])$

if abs$($delta$[0])>$ abs$($delta$[1])$:

if delta$[0]<mtext></mtext><mn>0</mn>$:

targetOrientation $=3$ #face left

else:

targetOrientation $=1$ #face right

else:

if delta$[1]<mtext></mtext><mn>0</mn>$:

targetOrientation $=0$ #face up

else:

targetOrientation $=2$ #face down

if self.robot.rotation $==$ targetOrientation:

self.robot.goForth$()$

else:

leftTurnsNeeded $=($self$.$robot.rotation $-$

targetOrientation$)\%4$

if leftTurnsNeeded :

self.robot.turnLeft$()$

else:

self.robot.turnRight$()$