registerCustomTypeAutoAssembler([[
alloc(TypeName,256)
alloc(ByteSize,4)
alloc(ConvertRoutine,1024)
alloc(ConvertBackRoutine,1024)

TypeName:
db 'Money',0

ByteSize:
dd 4

//The convert routine should hold a routine that converts the data to an nteger (in eax)
//function declared as: stdcall int ConvertRoutine(unsigned char *input);

//Note: Keep in mind that this routine can be called by multiple threads at the same time.

ConvertRoutine:
[32-bit]
push ebp
mov ebp,esp
push ecx
mov ecx,[ebp+8]
[/32-bit]

//at this point ecx contains the address where the bytes are stored
//save the used registers
push edx //fun fact about ce's assembler, because push ebx does not exist in 64-bit it becomes the 64-bit push rdx automatically
push ebx

//put the bytes into the eax register
mov eax,[ecx] //second fun fact, addressing with 32-bit registers doesn't work in 64-bit, it becomes a 64-bit automatically (most of the time)

xor edx,edx
mov ebx,#100
div ebx //divide eax by 100 and put the result in eax (and leftover in edx)

pop ebx
pop edx
//and now exit the routine
[64-bit]
ret
[/64-bit]
[32-bit]
pop ecx
pop ebp
ret 4
[/32-bit]

//The convert back routine should hold a routine that converts the given integer back to a row of bytes (e.g when the user wats to write a new value)
//function declared as: stdcall void ConvertBackRoutine(int i, unsigned char *output);
ConvertBackRoutine:
[32-bit]
push ebp
mov ebp,esp
push edx //save the registers
push ecx
mov edx,[ebp+0c]
mov ecx,[ebp+08]
[/32-bit]

//at this point edx contains the address to write the value to
//and ecx contains the value
push eax
push edx
push ecx

mov eax,ecx //eax gets the given value
xor edx,edx //clear edx
mov ecx,#100
mul ecx //multiply eax and put the results into edx:eax (edx is ignored for this routine)

pop ecx
pop edx
mov [edx],eax
pop eax

[64-bit]
//everything is back to what it was, so exit
ret
[/64-bit]

[32-bit]
//cleanup first
pop ecx
pop edx
pop ebp
ret 8
[/32-bit]
]])