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// User-facing error handling
#include "n64dd.h"
#include "z_locale.h"
u8 B_801E0F80[0x600];
u8 B_801E1580[0x2800];
u8 B_801E3D80[0x1400];
/**
* Converts a number in decimal to a hexadecimal number with the same digits, e.g. 1234 -> 0x1234.
*
* Will only work on nonnegative numbers.
*
* @param decNumber Number in decimal to convert, e.g. 1234
* @return s32 Hexadecimal number with the same digits as decNumber, e.g. 0x1234
*/
s32 func_801C9B70(s32 decNumber) {
s32 currPlaceValue;
s32 currExponent = 0;
s32 accumulatedHexDigits = 0;
s32 remainingDecDigits;
// Nothing to do if only one digit.
if (decNumber < 10) {
return decNumber;
}
// Find the place value / exponent of the most significant digit in decNumber.
for (currPlaceValue = 1; 10 * currPlaceValue <= decNumber; currPlaceValue *= 10) {
currExponent++;
}
remainingDecDigits = decNumber;
// Transfer the digits to hex one at a time.
while (currExponent--) {
// Place the most significant remaining digit at the end of the hex output.
accumulatedHexDigits |= remainingDecDigits / currPlaceValue;
accumulatedHexDigits *= 0x10; // Shift left one hex digit.
remainingDecDigits %= currPlaceValue; // Remove most significant of the remaining digits.
currPlaceValue /= 10;
}
accumulatedHexDigits += remainingDecDigits; // Only one digit left in the remainingDecDigits.
return accumulatedHexDigits;
}
// n64ddError_GetLanguage
s32 func_801C9C48(void) {
return (gCurrentRegion == 1) ? 0 : 1;
}
// n64ddError_Memset
void func_801C9C74(u8* dest, u8 value, u32 count) {
while (count--) {
*dest++ = value;
}
}
// n64ddError_GetErrorHeader
const char* func_801C9CA4(void) {
return gN64DDLocalizedErrorNumberHeaders[func_801C9C48()];
}
// n64ddError_WriteNumberJP
// Writes a 2-digit number to the char buffer provided
// Character indices for numbers in the error code (EUC-JP)
void func_801C9CD4(u8* buf, s32 number) {
s32 temp_v0 = func_801C9B70(number);
u16 character;
if (number >= 10) {
character = ((temp_v0 >> 4) + 0xA3B0); // '０'
} else {
character = 0xA1A1; // ' '
}
func_801C94F8(buf, character);
buf += 2;
func_801C94F8(buf, ((temp_v0 & 0xF) + 0xA3B0)); // '０'
}
// n64ddError_WriteNumberEN
// Writes a 2-digit number to the char buffer provided
// Character indices for numbers in the error code (ASCII)
void func_801C9D54(u8* buf, s32 number) {
s32 temp_v0 = func_801C9B70(number);
if (number >= 10) {
*buf = (temp_v0 >> 4) + '0';
} else {
*buf = ' ';
}
buf++;
*buf = (temp_v0 & 0xF) + '0';
}
void func_801C9DB8(u8* arg0, s32 errorNum) {
u8* errorHeader = (u8*)func_801C9CA4();
//! @bug: both of these functions will write to the pointer target, but errorHeader points to a string literal,
//! which is meant to be const.
if (gCurrentRegion == 1) {
func_801C9CD4(&errorHeader[12], errorNum);
} else {
func_801C9D54(&errorHeader[13], errorNum);
}
func_801C9A10(arg0, 192, errorHeader);
}
u8* func_801C9E28(s32 errorNum) {
func_801C9EC0();
if (errorNum == 41) {
return (u8*)gN64DDError41Texs[func_801C9C48()];
}
// 31,32, 37,38,39,40
if (((errorNum >= 37) && (errorNum < 41)) || (errorNum == 31) || (errorNum == 32)) {
return B_801E0F80;
} else {
func_801C9DB8(B_801E0F80, errorNum);
return B_801E0F80;
}
}
// Clear something
u8* func_801C9EC0(void) {
func_801C9C74(B_801E0F80, 0, 0x600);
return B_801E0F80;
}
// Prints the error message body (?)
void func_801C9EF4(u8* arg0, s32 errorNum, s32 lineCount) {
s32 i;
for (i = 0; i < lineCount; i++, arg0 += 0xA00) {
u8* line = (u8*)D_801D2EE0[func_801C9C48()][errorNum][i];
if (1) {}
func_801C9A10(arg0, 320, line);
}
}
u8* func_801C9F90(s32 errorNum) {
func_801C9FFC();
if (errorNum == 3) {
return (u8*)gN64DDPleaseReadManualTexs[func_801C9C48()];
}
func_801C9EF4(B_801E1580, errorNum, 4);
return B_801E1580;
}
// Clear something
u8* func_801C9FFC(void) {
func_801C9C74(B_801E1580, 0, 0x2800);
return B_801E1580;
}
u8* func_801CA030(s32 errorNum) {
func_801CA070();
func_801C9EF4(B_801E3D80, errorNum, 2);
return B_801E3D80;
}
// Clear something
u8* func_801CA070(void) {
func_801C9C74(B_801E3D80, 0, 0x1400);
return B_801E3D80;
}
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