Control_Keys *control_CreateKeys(int numKeys, int pollType, int eventType)
{
Control_Keys *newKeys = (Control_Keys *)mem_Malloc(sizeof(Control_Keys), __LINE__, __FILE__);
newKeys->numKeys = numKeys;
newKeys->pollType = pollType;
if(eventType < 0)
{
if(eventType == C_BUTTON_STATES)
{
newKeys->useKeystates = 1;
newKeys->eventType = eventType;
}
else
{
newKeys->eventType = control_GetSDLEventType(pollType, eventType);
newKeys->useKeystates = 0;
}
}
else
{
newKeys->useKeystates = 0;
newKeys->eventType = eventType;
}
if(numKeys > 0)
newKeys->keys = (int *)mem_Malloc(sizeof(int) * numKeys, __LINE__, __FILE__);
else
newKeys->keys = NULL;
return newKeys;
}
memp_malloc_fn(memp_t type, const char* file, const int line)
#endif
{
void* ptr;
rt_uint32_t size, level;
size = memp_sizes[type];
LWIP_DEBUGF(MEMP_DEBUG, ("memp malloc %s, size %d, ", memp_desc[type], memp_sizes[type]));
level = rt_hw_interrupt_disable();
if (type == MEMP_TCP_PCB)
{
if (tcp_pcbs >= MEMP_NUM_TCP_PCB)
{
rt_hw_interrupt_enable(level);
return RT_NULL;
}
else
{
/* increased tcp pcb allocated number */
tcp_pcbs ++;
}
}
rt_hw_interrupt_enable(level);
ptr = mem_Malloc(size);
LWIP_DEBUGF(MEMP_DEBUG, ("mem 0x%x\n", ptr));
return ptr;
}
Ui_ButtonChain *uiButtonChain_Create(unsigned int numButtons, ...)
{
Ui_ButtonChain *newChain = (Ui_ButtonChain *)mem_Malloc(sizeof(Ui_ButtonChain), __LINE__, __FILE__);
Ui_Button *button = NULL;
va_list args;
unsigned int x = 0;
va_start(args, numButtons);
button = va_arg( args, Ui_Button *);
newChain->bList = NULL;
newChain->currentButton = button;
list_Stack(&newChain->bList, button, 0);
for(x = 1; x < numButtons; x++)
{
button = va_arg( args, Ui_Button *);
/*Put the buttons in the list*/
list_Stack(&newChain->bList, button, 0);
}
newChain->currentList = newChain->bList;
va_end(args); /*Always call this in the same function as va_start.*/
return newChain;
}
void list_Insert(struct list **head, struct list *insertBefore, void *data, int info)
{
#ifdef MEM_TRACK
struct list *listNew = (struct list *)mem_Malloc(sizeof(struct list),__LINE__,__FILE__);
#else
struct list *listNew = (struct list *)malloc(sizeof(struct list));
#endif
if(insertBefore == *head) //Same as placing it at the start
{
list_Push_Node(head, listNew, data, info);
return;
}
else if(insertBefore == NULL) //Same as placing it at the end
{
list_Stack_Node(head, listNew, data, info);
return;
}
listNew->previous = insertBefore->previous;
insertBefore->previous->next = listNew;
insertBefore->previous = listNew;
listNew->next = insertBefore;
listNew->data = data;
listNew->info = info;
return;
}
/*
Function: aiState_UnitAttack_Setup
Description -
This function sets up the variables for an ai state ment for a unit.
The behaviour of the state is to have the unit attack any enemy units or buildings
within a specific range.
7 arguments:
Ai_State *a - The ai state to setup
int group - The group ID of the ai state.
int priority - The priority of this state.
int completeType - The completion type of this state.
Vent_Unit *entity - The unit that this ai will control.
Vent_Game *game - The game structure.
int searchRange - The max distance the unit will fire at another unit.
int targetFirst - if 0 will target enemy units first, if 1 will target enemy buildings first.
*/
Ai_State *aiState_UnitAttack_Setup(Ai_State *a,
int group,
int priority,
int completeType,
Vent_Unit *entity,
Vent_Game *game,
int searchRange,
int targetFirst
)
{
void (*init)(Ai_State *AiState) = &aiState_UnitAttack_Init;
void (*mainLoop)(Ai_State *AiState) = &aiState_UnitAttack_Main;
void (*exit)(Ai_State *AiState) = &aiState_UnitAttack_Exit;
/*Setup custom attributes*/
AiAttributes_UnitAttack *extraStructure = (AiAttributes_UnitAttack *)mem_Malloc(sizeof(AiAttributes_UnitAttack), __LINE__, __FILE__);
extraStructure->searchRange = searchRange;
extraStructure->targetFirst = targetFirst;
extraStructure->game = game;
/*Setup the state*/
aiState_Setup(a,
group,
priority,
completeType,
entity,
extraStructure,
init,
mainLoop,
exit
);
return a;
}
void *mem_Realloc(void *pOld, uint_t nSize)
#endif
{
void *p;
if (pOld == NULL)
#if DEBUG_MEMORY_ENABLE
return _mem_Malloc(nSize, fn, line);
#else
return mem_Malloc(nSize);
#endif
if (nSize == 0) {
#if DEBUG_MEMORY_ENABLE
_mem_Free(pOld, fn, line);
#else
mem_Free(pOld);
#endif
return NULL;
}
mem_Lock();
#if DEBUG_MEMORY_ENABLE
p = _rt_realloc(pOld, nSize);
#else
p = rt_realloc(pOld, nSize);
#endif
mem_Unlock();
#if DEBUG_MEMORY_ENABLE
mem_DebugRealloc(p, pOld, fn, line);
#endif
return p;
}
STATIC void mptask_pre_init (void) {
#if MICROPY_HW_ENABLE_RTC
pybrtc_init();
#endif
// Create the simple link spawn task
ASSERT (OSI_OK == VStartSimpleLinkSpawnTask(SIMPLELINK_SPAWN_TASK_PRIORITY));
// Allocate memory for the flash file system
ASSERT ((sflash_fatfs = mem_Malloc(sizeof(FATFS))) != NULL);
// this one allocates memory for the nvic vault
pybsleep_pre_init();
// this one allocates mameory for the WLAN semaphore
wlan_pre_init();
#if MICROPY_HW_HAS_SDCARD
pybsd_init0();
#endif
#ifdef DEBUG
ASSERT (OSI_OK == osi_TaskCreate(TASK_Servers,
(const signed char *)"Servers",
SERVERS_STACK_SIZE, NULL, SERVERS_PRIORITY, &svTaskHandle));
#else
ASSERT (OSI_OK == osi_TaskCreate(TASK_Servers,
(const signed char *)"Servers",
SERVERS_STACK_SIZE, NULL, SERVERS_PRIORITY, NULL));
#endif
}
STATIC void mptask_pre_init (void) {
// this one only makes sense after a poweron reset
pyb_rtc_pre_init();
// Create the simple link spawn task
ASSERT (OSI_OK == VStartSimpleLinkSpawnTask(SIMPLELINK_SPAWN_TASK_PRIORITY));
// Allocate memory for the flash file system
ASSERT ((sflash_vfs_fat = mem_Malloc(sizeof(*sflash_vfs_fat))) != NULL);
// this one allocates memory for the nvic vault
pyb_sleep_pre_init();
// this one allocates memory for the WLAN semaphore
wlan_pre_init();
// this one allocates memory for the updater semaphore
updater_pre_init();
// this one allocates memory for the socket semaphore
modusocket_pre_init();
//CRYPTOHASH_Init();
#ifndef DEBUG
OsiTaskHandle svTaskHandle;
#endif
svTaskHandle = xTaskCreateStatic(TASK_Servers, "Servers",
SERVERS_STACK_LEN, NULL, SERVERS_PRIORITY, svTaskStack, &svTaskTCB);
ASSERT(svTaskHandle != NULL);
}
STATIC void mptask_pre_init (void) {
// this one only makes sense after a poweron reset
pyb_rtc_pre_init();
// Create the simple link spawn task
ASSERT (OSI_OK == VStartSimpleLinkSpawnTask(SIMPLELINK_SPAWN_TASK_PRIORITY));
// Allocate memory for the flash file system
ASSERT ((sflash_fatfs = mem_Malloc(sizeof(FATFS))) != NULL);
// this one allocates memory for the nvic vault
pyb_sleep_pre_init();
// this one allocates memory for the WLAN semaphore
wlan_pre_init();
// this one allocates memory for the updater semaphore
updater_pre_init();
// this one allocates memory for the socket semaphore
modusocket_pre_init();
//CRYPTOHASH_Init();
#ifdef DEBUG
ASSERT (OSI_OK == osi_TaskCreate(TASK_Servers,
(const signed char *)"Servers",
SERVERS_STACK_SIZE, NULL, SERVERS_PRIORITY, &svTaskHandle));
#else
ASSERT (OSI_OK == osi_TaskCreate(TASK_Servers,
(const signed char *)"Servers",
SERVERS_STACK_SIZE, NULL, SERVERS_PRIORITY, NULL));
#endif
}
/*Push the node into the front of the list, making it the head*/
void list_Push(struct list **head,void *data,int info)
{
struct list *listNew = NULL;
#ifdef MEM_TRACK
listNew = (struct list *)mem_Malloc(sizeof(struct list),__LINE__,__FILE__);
#else
listNew = (struct list *)malloc(sizeof(struct list));
#endif
if(*head == NULL)
{
listNew->next = NULL;
listNew->previous = NULL;
}
else
{
if((*head)->previous == NULL) /*First catch*/
listNew->previous = *head; /*The new head->previous now points to the end of the list*/
else
listNew->previous = (*head)->previous; /*Same here*/
(*head)->previous = listNew; /*Moving the previous head forward*/
listNew->next = *head; /*Linking them together*/
}
listNew->info = info;
listNew->data = data;
*head = listNew;
return;
}
/*
Function: control_Load
Description -
Load the keys of a control from a file.
The FILE pointer should be located at the start of where the control was saved.
2 arguments:
Control_Event *c - The control that has been setup already and is to have keys loaded in from the file.
FILE *load - The FILE holding the keys, must point to the start of where the control was saved.
*/
void control_Load(Control_Event *c, FILE *load)
{
Control_Keys cKey;
struct list *controlList = NULL;
int nameLength = 0;
int x = 0;
int y = 0;
char controlName[255];
int totalControls = 0;
int *key = NULL;
/*First load in the name and controls*/
fscanf(load, "%d ", &nameLength);
if(nameLength < 0 || nameLength > 253)
{
nameLength = 0;
}
else
nameLength += 1;
fgets(controlName , nameLength, load);
fscanf(load, "%d", &totalControls);
string_ReplaceChar(controlName, '%', ' ');
if(strcmp(c->name, controlName) != 0)
{
printf("Error loading keys for (%s) ment for (%s)\n", c->name, controlName);
return;
}
/*Now load in each control event*/
for(x = 0; x < totalControls; x++)
{
/*Load in the details of the key/s*/
fscanf(load, "%d %d %d", &cKey.numKeys, &cKey.eventType, &cKey.pollType);
/*Load in the values of each key*/
for(y = 0; y < cKey.numKeys; y++)
{
key = (int *)mem_Malloc(sizeof(int), __LINE__, __FILE__);
fscanf(load, "%d", key);
/*Insert each value into a list so that they can all be added*/
list_Stack(&controlList, key, 0);
}
/*Place the loaded keys into the control*/
control_AddKeyList(c, cKey.pollType, cKey.eventType, controlList);
list_ClearAll(&controlList);
}
return;
}
/*
Function: control_CopyEvent
Description -
Create a new SDL_Event and copy the contents of the perameter event to it.
Return the new event.
1 argument:
SDL_Event *copyEvent - The event to be copied.
*/
SDL_Event *control_CopyEvent(SDL_Event *copyEvent)
{
SDL_Event *newEvent = (SDL_Event *)mem_Malloc(sizeof(SDL_Event), __LINE__, __FILE__);
*newEvent = *copyEvent;
return newEvent;
}
/*
Function: uiTextInput_Create
Description -
Allocates memory and returns a Ui_TextInput structure defining a text input region.
11 arguments:
int x - The x axis location of the text input region.
int y - The y axis location of the text input region.
int layer - Layer of the graphics.
char *text - The text that will be displayed before the input region.
TTF_Font *font - Font of the text displayed by the input region.
int maxLength - Max amount of characters allowed to be in the region.
int outputType - Whether the output variable is an integer(UI_OUTPUT_INT) or string(UI_OUTPUT_STR).
void *outputVar - The address of the output variable, this variable receives the value of the text input once finished. Can be NULL and then set later.
Control_Event *cActivate - The control to be used to enter and exit the input state.
Ui_Pointer *pnt - The pointer that will be used to activate the text region.
Timer *srcTimer - Source timer used for input delay.
*/
Ui_TextInput *uiTextInput_Create(int x, int y, int layer, char *text, TTF_Font *font, int maxLength, int outputType, void *outputVar, Control_Event *cActivate, Ui_Pointer *pnt, Timer *srcTimer)
{
Ui_TextInput *textInput = mem_Malloc(sizeof(Ui_TextInput), __LINE__, __FILE__);
uiTextInput_Setup(textInput, x, y, layer, text, font, maxLength, outputType, outputVar, cActivate, pnt, srcTimer);
return textInput;
}
void uiTextInput_Setup(Ui_TextInput *textInput, int x, int y, int layer, char *text, TTF_Font *font, int maxLength, int outputType, void *outputVar, Control_Event *cActivate, Ui_Pointer *pnt, Timer *srcTimer)
{
int i = 0;
int buttonWidth = 0;
int buttonHeight = 0;
Sprite *buttonSprite = NULL;
Ui_TextBox *textBox = NULL;
/*Setup the input buffer*/
textInput->textLength = maxLength;
textInput->inputText = (char *)mem_Malloc((maxLength + 1) * sizeof(char), __LINE__, __FILE__);
for(i = 0; i < maxLength + 1; i++)
textInput->inputText[i] = '\0';
/*Setup output variable*/
textInput->outputType = outputType;
textInput->outputVar = outputVar;
/*Setup the letter marking graphic*/
sprite_Setup(&textInput->sMarker, 0, layer, srcTimer, 1,
frame_CreateBasic(0, surf_SimpleBox(2, 2, &colourBlack, &colourBlack, 1), A_FREE));
/*Create the text box that is to be linked to the button*/
textBox = uiTextBox_CreateBase(0, 0, layer, 0, NULL, font, tColourBlack, srcTimer);
uiTextBox_AddText(textBox,
0, 0, text, NULL);
/*Make sure the text starts to the left of the button*/
uiTextBox_SetPos(textBox, -(int)sprite_Width(textBox->graphic) - 5, 0);
buttonSprite = sprite_Setup(sprite_Create(), 1, layer, srcTimer, 1,
frame_CreateBasic(0, NULL, M_FREE)
);
/*Approximate the needed button width by using the '0' character width then
multiplying it by the maximum text length*/
TTF_SizeText(font,"0", &buttonWidth, &buttonHeight);
buttonWidth *= maxLength;
uiRect_SetDim(&textInput->rect, buttonWidth, buttonHeight);
uiButton_Setup(&textInput->button, x, y, buttonWidth, buttonHeight, BFA_EnterPoll, BFA_Hover, dataStruct_Create(2, textInput, pnt), buttonSprite, 0, 250, srcTimer);
uiButton_AddText(&textInput->button, textBox);
uiButton_CopyControl(&textInput->button, cActivate, BC_POINTER);
uiButton_CopyControl(&textInput->button, cActivate, BC_KEY);
uiTextInput_SetPos(textInput, x, y);
uiTextInput_SetState(textInput, pnt, UI_TEXTINPUT_BASE);
uiTextInput_AssignInput(textInput);
depWatcher_Setup(&textInput->dW, textInput);
return;
}
//-------------------------------------------------------------------------
//
//-------------------------------------------------------------------------
int reg_ArithmeticCopy(uint_t nDestDa, uint_t nDestReg, uint_t nSrcDa, uint_t nSrcReg, uint_t nType, uint32_t nParam, uint_t nSave)
{
int nLen;
uint64_t nTemp;
void *pBuf;
nLen = reg_GetRegSize(nSrcReg);
if (nLen < 0)
return 0;
if (nType == REG_O_COPY) {
pBuf = mem_Malloc(nLen);
if (pBuf == NULL)
return 0;
reg_Get(nSrcDa, nSrcReg, pBuf);
reg_Set(nDestDa, nDestReg, pBuf, nSave);
mem_Free(pBuf);
} else {
if (nLen > 8)
return 0;
nTemp = 0;
reg_Get(nSrcDa, nSrcReg, &nTemp);
switch (nType) {
case REG_O_ADD:
nTemp += nParam;
break;
case REG_O_SUB:
nTemp -= nParam;
break;
case REG_O_MUL:
nTemp *= nParam;
break;
case REG_O_DIV:
nTemp /= nParam;
break;
case REG_O_OR:
//或
nTemp |= nParam;
break;
case REG_O_AND:
//与
nTemp &= nParam;
break;
case REG_O_SETBIT:
//置位
SETBIT(nTemp, nParam);
break;
case REG_O_CLRBIT:
//清位
CLRBIT(nTemp, nParam);
break;
default:
break;
}
reg_Set(nDestDa, nDestReg, &nTemp, nSave);
}
return nLen;
}
int surf_Init(const char *rootDIR)
{
surf_C.surfacesDIR = (char *)mem_Malloc(256, __LINE__, __FILE__);
strncpy(surf_C.surfacesDIR, rootDIR, 255);
surf_C.surfaceList = NULL;
surf_C.totalSurfacesInList = 0;
return 0;
}
/*
Function: vLevel_LoadHeader
Description -
Loads a level header from a file.
3 arguments:
Vent_Level_Header *header - The level header to be loaded into.
char *directory - The directory name of the level to load.
char *name - The file name of the level to load.
*/
void vLevel_LoadHeader(Vent_Level_Header *header, char *directory, char *name)
{
char *loadFolder = directory;
char *loadName = (char *)mem_Malloc(strlen(loadFolder) + strlen(name) + 1, __LINE__, __FILE__);
int finishedLoading = 0;
FILE *load = NULL;
Level_Tag tag;
/*Setup the default values of the header*/
vLevel_SetupHeader(header, NULL, 0, 0);
/*Find the level file*/
strcpy(loadName, loadFolder);
strcat(loadName, name);
load = fopen(loadName, "r");
if(load == NULL)
{
file_Log(ker_Log(), 1, "Error: Could not load level file for header. (%s)\n", loadName);
return;
}
while(vLevel_TagVerify(&tag, load) == 1 && finishedLoading == 0)
{
switch(tag.type)
{
case TAG_HEADER:
if(tag.version < HEADER_VERSIONS)
{
vLevel_LoadHeaderVer[tag.version](header, &tag, load);
finishedLoading = 1;
}
break;
default:
file_Log(ker_Log(), 1, "Error unknown tag type (while searching for header) %s -> %d\n", tag.name, tag.type);
break;
}
}
fclose(load);
mem_Free(loadName);
return;
}
/*
Function: drawLayer_Create
Description -
Creates and returns a new layer for the draw manager.
2 arguments:
int layer - The 'height' of the layer.
int *totalObjectLocations - Should point to the draw managers variable that holds the total amount of space that has been created for objects to draw.
*/
Draw_Layer *drawLayer_Create(int layer, int *totalObjectLocations)
{
Draw_Layer *drawLayer = (Draw_Layer *)mem_Malloc(sizeof(Draw_Layer), __LINE__, __FILE__);
drawLayer->objectList = NULL;
drawLayer->totalNodes = 0;
drawLayer->totalObjectLocations = totalObjectLocations;
drawLayer->layer = layer;
return drawLayer;
}
/*
Function: vLevel_Save
Description -
Function that saves a level in the /Level/ folder.
3 arguments:
Vent_Level *l - the level to save
char *directory - the name of the directory to save the level in
char *name - the name to save the level as, .map will be appended to this
*/
void vLevel_Save(Vent_Level *l, char *directory, char *name)
{
char *saveFolder = directory;
char *saveName = (char *)mem_Malloc(strlen(saveFolder) + strlen(name) + strlen(".map") + 1, __LINE__, __FILE__);
int x = 0;
FILE *save = NULL;
strcpy(saveName, saveFolder);
strcat(saveName, name);
strcat(saveName, ".map");
save = fopen(saveName, "w");
if(save == NULL)
{
printf("Error could not save level %s\n", saveName);
return;
}
l->header.numCustomSurfaces = vLevel_GetCustomSurfaces(l);
/*Structure of the level in a file -
First write the object tag - [TAGNAME] objectAmount tagVersion
Then below that write all the object data.
*/
vLevel_SaveHeader(&l->header, save);
vLevel_SaveCustomSurface(l, save);
vLevel_SaveTile(l, save);
vLevel_SaveSupply(l, save);
vLevel_SaveNode(l, save);
vLevel_SaveEdge(l, save);
vLevel_SaveTag(save, 0, TAG_END);
fclose(save);
mem_Free(saveName);
return;
}
DRESULT sflash_disk_init (void) {
_i32 fileHandle;
SlFsFileInfo_t FsFileInfo;
if (!sflash_init_done) {
// Allocate space for the block cache
ASSERT ((sflash_block_cache = mem_Malloc(SFLASH_BLOCK_SIZE)) != NULL);
sflash_init_done = true;
sflash_prblock = UINT32_MAX;
sflash_cache_is_dirty = false;
// In order too speed up booting, check the last block, if exists, then
// it means that the file system has been already created
print_block_name (SFLASH_BLOCK_COUNT - 1);
sl_LockObjLock (&wlan_LockObj, SL_OS_WAIT_FOREVER);
if (!sl_FsGetInfo(sflash_block_name, 0, &FsFileInfo)) {
sl_LockObjUnlock (&wlan_LockObj);
return RES_OK;
}
sl_LockObjUnlock (&wlan_LockObj);
// Proceed to format the memory
for (int i = 0; i < SFLASH_BLOCK_COUNT; i++) {
print_block_name (i);
sl_LockObjLock (&wlan_LockObj, SL_OS_WAIT_FOREVER);
// Create the block file if it doesn't exist
if (sl_FsGetInfo(sflash_block_name, 0, &FsFileInfo) != 0) {
if (!sl_FsOpen(sflash_block_name, FS_MODE_OPEN_CREATE(SFLASH_BLOCK_SIZE, 0), NULL, &fileHandle)) {
sl_FsClose(fileHandle, NULL, NULL, 0);
sl_LockObjUnlock (&wlan_LockObj);
memset(sflash_block_cache, 0xFF, SFLASH_BLOCK_SIZE);
if (!sflash_access(FS_MODE_OPEN_WRITE, sl_FsWrite)) {
return RES_ERROR;
}
}
else {
// Unexpected failure while creating the file
sl_LockObjUnlock (&wlan_LockObj);
return RES_ERROR;
}
}
sl_LockObjUnlock (&wlan_LockObj);
}
}
return RES_OK;
}
/*
Function - node_Create
Description -
Returns a pointer to a new base node of structure B_Node.
3 arguments:
int index - this is the unique index to give the node
int x - this is the x location of the node
int y - the y location of the node
*/
B_Node *node_Create(int index, int x, int y)
{
B_Node *newNode = (B_Node *)mem_Malloc(sizeof(B_Node), __LINE__, __FILE__);
if(newNode == NULL)
return NULL;
newNode->index = index;
newNode->x = x;
newNode->y = y;
newNode->degree = 0;
newNode->edges = NULL;
newNode->adv = NULL;
return newNode;
}
static void MM_QuitCampaign(Ui_Button *button)
{
Base_State *gState = button->info->dataArray[0];
int accepted = (int)button->info->dataArray[1];
struct menu_Game *menu = gState->info;
char *campaignName = (char *)mem_Malloc(strlen(menu->selectedCampaign) + 1, __LINE__, __FILE__);
strcpy(campaignName, menu->selectedCampaign);
/*Fix the campaign name*/
string_RemoveExt(campaignName);
/*Revert to the main ui section*/
uiSpine_Close(uiSpine_GetEntity(&menu->spine, "Spine:Campaign"));
/*If the campaign chosen was accepted*/
if(accepted == 1)
{
vPlayer_LoadCampaign(menu->player, campaignName);
if(menu->player->playCampaign == 1 && menu->player->campaign != NULL)
{
menu->selectedCampaign = menu->player->campaign->name;
menu->player->levelDirectory = kernel_GetPath("PTH_VentLevels");
}
else
{
menu->player->levelDirectory = kernel_GetPath("PTH_VentCustomLevels");
}
/*Repopulate the level scroll*/
MM_RepopulateLevels(gState);
}
timer_StopSkip(&menu->spine.sTimer, 0, 1);
control_Pause(500);
mem_Free(campaignName);
return;
}
void list_Stack(struct list **head,void *data,int info)
{
struct list *listNew = NULL;
struct list *listStart = *head;
struct list *listCurrentEnd = NULL;
#ifdef MEM_TRACK
listNew = (struct list *)mem_Malloc(sizeof(struct list),__LINE__,__FILE__);
#else
listNew = (struct list *)malloc(sizeof(struct list));
#endif
if(*head == NULL)
{
*head = listNew;
(*head)->previous = NULL;
}
else
{
listCurrentEnd = (*head)->previous;
(*head)->previous = listNew;
if(listCurrentEnd == NULL)
{
(*head)->next = listNew;
listNew->previous = *head;
}
else
{
listCurrentEnd->next = listNew;
listNew->previous = listCurrentEnd;
}
}
listNew->info = info;
listNew->data = data;
listNew->next = NULL;
return;
}
void control_CopyKeys(Control_Keys *destKeys, Control_Keys *sourceKeys)
{
int x = 0;
destKeys->numKeys = sourceKeys->numKeys;
destKeys->pollType = sourceKeys->pollType;
destKeys->useKeystates = sourceKeys->useKeystates;
destKeys->eventType = sourceKeys->eventType;
if(destKeys->numKeys > 0)
destKeys->keys = (int *)mem_Malloc(sizeof(int) * destKeys->numKeys, __LINE__, __FILE__);
else
destKeys->keys = NULL;
for(x = 0; x < destKeys->numKeys; x++)
{
destKeys->keys[x] = sourceKeys->keys[x];
}
return;
}
/*
Function: aiState_UnitAttackArea_Setup
Description -
This function sets up the variables for an ai state ment for a unit.
The behaviour of the state is to have the unit move to a specific area and attack the
enemy units that are within range.
10 arguments:
Ai_State *a - The ai state to setup
int group - The group ID of the ai state.
int priority - The priority of this state.
int completeType - The completion type of this state.
Vent_Unit *entity - The unit that this ai will control.
Vent_Game *game - The game structure.
int xArea - The x-axis location of the centre of the area.
int yArea - The y-axis location of the centre of the area.
int attackRangeSqr - The radius of the area to attack in (squared)
unsigned int maxDurationTime - The maximum time that the unit will wait if there are no units in range.
*/
Ai_State *aiState_UnitAttackArea_Setup(Ai_State *a,
int group,
int priority,
int completeType,
Vent_Unit *entity,
Vent_Game *game,
int xArea,
int yArea,
int attackRangeSqr,
unsigned int maxDurationTime
)
{
void (*init)(Ai_State *AiState) = &aiState_UnitAttackArea_Init;
void (*mainLoop)(Ai_State *AiState) = &aiState_UnitAttackArea_Main;
void (*exit)(Ai_State *AiState) = &aiState_UnitAttackArea_Exit;
/*Setup custom attributes*/
AiAttributes_UnitAttackArea *extraStructure = (AiAttributes_UnitAttackArea *)mem_Malloc(sizeof(AiAttributes_UnitAttackArea), __LINE__, __FILE__);
extraStructure->attackRangeSqr = attackRangeSqr;
extraStructure->durationTimer = timer_Setup(&game->gTimer, 0, maxDurationTime, 0);
extraStructure->game = game;
extraStructure->areaLocation.x = xArea;
extraStructure->areaLocation.y = yArea;
/*Setup the state*/
aiState_Setup(a,
group,
priority,
completeType,
entity,
extraStructure,
init,
mainLoop,
exit
);
return a;
}
int surf_Load(SDL_Surface **image, char *name, int autoFreeID)
{
char *imageLoc;
SDL_Surface *optimizedImage = NULL;
imageLoc = (char *)mem_Malloc(strlen(surf_C.surfacesDIR) + strlen(name) + 1, __LINE__, __FILE__);
strcpy(imageLoc, surf_C.surfacesDIR);
strcat(imageLoc, name);
*image = IMG_Load(imageLoc);
mem_Free(imageLoc);
if(*image == NULL)
{
printf("\nError - could not load image\n\t%s. (%s)\n", name, SDL_GetError());
file_Log(ker_Log(), 0, "\nError - could not load image\n\t%s. (%s)\n", name, SDL_GetError());
return 1;
}
optimizedImage = SDL_DisplayFormat(*image);
SDL_FreeSurface(*image);
if(optimizedImage == NULL)
return 2;
SDL_SetColorKey(optimizedImage, SDL_SRCCOLORKEY | SDL_RLEACCEL, *ker_colourKey());
*image = optimizedImage;
if(autoFreeID == A_FREE)
list_Push(&surf_C.surfaceList, *image, autoFreeID);
return 0;
}
/*
Function: aiState_UnitAttackBuilding_Setup
Description -
This function sets up the variables for an ai state ment for a unit.
The behaviour of the state is to have the unit find an enemy building/tile and move towards it
with the attack area state.
6 arguments:
Ai_State *a - The ai state to setup
int group - The group ID of the ai state.
int priority - The priority of this state.
int completeType - The completion type of this state.
Vent_Unit *entity - The unit that this ai will control.
Vent_Game *game - The game structure. Contains the buildings and tiles.
*/
Ai_State *aiState_UnitAttackBuilding_Setup(Ai_State *a,
int group,
int priority,
int completeType,
Vent_Unit *entity,
Vent_Game *game
)
{
void (*init)(Ai_State *AiState) = &aiState_UnitAttackBuilding_Init;
void (*mainLoop)(Ai_State *AiState) = &aiState_UnitAttackBuilding_Main;
void (*exit)(Ai_State *AiState) = &aiState_UnitAttackBuilding_Exit;
/*Setup custom attributes*/
AiAttributes_UnitAttackBuilding *extraStructure = (AiAttributes_UnitAttackBuilding *)mem_Malloc(sizeof(AiAttributes_UnitAttackBuilding), __LINE__, __FILE__);
extraStructure->target = NULL;
extraStructure->game = game;
extraStructure->moveState = NULL;
extraStructure->attackRangeSqr = 0;
/*Setup the state*/
aiState_Setup(a,
group,
priority,
completeType,
entity,
extraStructure,
init,
mainLoop,
exit
);
return a;
}
/******************************************************************************
DEFINE PUBLIC FUNCTIONS
******************************************************************************/
void telnet_init (void) {
// Allocate memory for the receive buffer (from the RTOS heap)
ASSERT ((telnet_data.rxBuffer = mem_Malloc(TELNET_RX_BUFFER_SIZE)) != NULL);
telnet_data.state = E_TELNET_STE_DISABLED;
}
void list_Push_SortL(struct list **head, void *data, int info)
{
struct list *listCurrent = *head;
struct list *listNew = NULL;
int *sortCompare[2];
#ifdef MEM_TRACK
listNew = (struct list *)mem_Malloc(sizeof(struct list),__LINE__,__FILE__);
#else
listNew = (struct list *)malloc(sizeof(struct list));
#endif
if(*head == NULL)
{
listNew->next = NULL;
listNew->previous = NULL;
*head = listNew;
}
else
{
sortCompare[0] = data;
while(listCurrent != NULL)
{
sortCompare[1] = listCurrent->data;
if(*sortCompare[0] <= *sortCompare[1])
{
listNew->previous = listCurrent->previous;
if(listCurrent->previous != NULL)
listCurrent->previous->next = listNew;
listCurrent->previous = listNew;
listNew->next = listCurrent;
if(listCurrent == *head)
*head = listNew;
listCurrent = NULL;
}
else
{
if(listCurrent->next == NULL)
{
(*head)->previous = listNew; /*Correct the list*/
listCurrent->next = listNew;
listNew->previous = listCurrent;
listNew->next = NULL;
listCurrent = NULL;
}
else
listCurrent = listCurrent->next;
}
}
}
listNew->info = info;
listNew->data = data;
return;
}
/*Smallest first, based on the number given to info*/
void list_Push_Sort(struct list **head, void *data, int info)
{
struct list *listCurrent = *head;
struct list *listNew = NULL;
#ifdef MEM_TRACK
listNew = (struct list *)mem_Malloc(sizeof(struct list),__LINE__,__FILE__);
#else
listNew = (struct list *)malloc(sizeof(struct list));
#endif
if(*head == NULL)
{
listNew->next = NULL;
listNew->previous = NULL;
*head = listNew;
}
else
{
while(listCurrent != NULL)
{
if(info <= listCurrent->info)
{
listNew->previous = listCurrent->previous;
if(listNew->previous != NULL)
listNew->previous->next = listNew;
listCurrent->previous = listNew;
listNew->next = listCurrent;
if(listCurrent == *head)
{
*head = listNew;
if(listNew->previous != NULL)
{ /*Linking in a node that will become the new head, so the new end node should always point to null*/
listNew->previous->next = NULL; /*Ie what if the second node was the end node? There would be an endless loop if this was the case*/
}
else
{
listNew->previous = listCurrent;
}
}
listCurrent = NULL;
}
else
{
if(listCurrent->next == NULL) /*We are at the end of the list*/
{
(*head)->previous = listNew; /*Correct the list*/
listCurrent->next = listNew;
listNew->previous = listCurrent;
listNew->next = NULL;
listCurrent = NULL;
}
else
listCurrent = listCurrent->next;
}
}
}
listNew->info = info;
listNew->data = data;
return;
}
