void enableNifi()
{
Wifi_InitDefault(false);
// Wifi_SetPromiscuousMode: Allows the DS to enter or leave a "promsicuous" mode, in which
// all data that can be received is forwarded to the arm9 for user processing.
// Best used with Wifi_RawSetPacketHandler, to allow user code to use the data
// (well, the lib won't use 'em, so they're just wasting CPU otherwise.)
// int enable: 0 to disable promiscuous mode, nonzero to engage
Wifi_SetPromiscuousMode(1);
// Wifi_EnableWifi: Instructs the ARM7 to go into a basic "active" mode, not actually
// associated to an AP, but actively receiving and potentially transmitting
Wifi_EnableWifi();
// Wifi_RawSetPacketHandler: Set a handler to process all raw incoming packets
// WifiPacketHandler wphfunc: Pointer to packet handler (see WifiPacketHandler definition for more info)
Wifi_RawSetPacketHandler(packetHandler);
// Wifi_SetChannel: If the wifi system is not connected or connecting to an access point, instruct
// the chipset to change channel
// int channel: the channel to change to, in the range of 1-13
Wifi_SetChannel(10);
transferWaiting = false;
nifiEnabled = true;
}
int
wifi_init(void)
{
struct links *channel = CHANNELS + CHANNEL_WIFI;
#ifdef _WIN32
WSADATA wsaData;
if (WSAStartup(MAKEWORD(2,2), &wsaData) != NO_ERROR) {
confirm_error("WIFI: Error at WSAStartup()\n", 0);
return DSH_CONNECTION_FAILED;
}
#else
char readtext[33];
char iptext[33]; // ip address ONLY
int ret, i, j, oldstatus;
FILE *fp;
unsigned char BUF[6];
iprintf("WIFI: Finding AP...\n");
fp = fopen("DallShell_Conf.txt","rb");
if(fp == NULL)
{
ret = Wifi_InitDefault(WFC_CONNECT);
}
else
{
Wifi_InitDefault(INIT_ONLY);
Wifi_EnableWifi();
for(i=0;i<8;i++)
{
// DallShell Conf ������� txt���� ���,
// �ԷµǴ� ���ڿ� �迭�� ũ�⸦ �÷��� (11.08.29)
fgets(readtext,33,fp);
memset(iptext,0,33); // iptext�� memory�ʱ�ȭ (11.08.29)
switch(i){
case 0 : strcpy(ap.ssid,readtext); break;
case 1 : ap.ssid_len = atoi(readtext); break;
case 2 : ap.channel = atoi(readtext); break;
case 3 : memcpy(iptext, readtext, strlen(readtext)-1);
MyIP.s_addr = inet_addr(iptext);
break;
case 4 : memcpy(iptext, readtext, strlen(readtext)-1);
gateway.s_addr = inet_addr(iptext);
break;
case 5 : memcpy(iptext, readtext, strlen(readtext)-1);
mask.s_addr = inet_addr(iptext);
break;
case 6 : memcpy(iptext, readtext, strlen(readtext)-1);
dns1.s_addr = inet_addr(iptext);
break;
case 7 : memcpy(iptext, readtext, strlen(readtext)-1);
dns2.s_addr = inet_addr(iptext);
break;
}
}
ret = Wifi_ConnectAP(&ap,WEPMODE_NONE,0,0);
}
iprintf("MAC : ");
Wifi_GetData(WIFIGETDATA_MACADDRESS, 6, BUF);
for (i = 0; i < 6; i++) {
iprintf("%02X", BUF[i]);
if (i < 5)
iprintf(":");
}
iprintf("\n\n");
if(fp == NULL)
{
if(ret == 0)
{
confirm_error("WIFI:Failed to connect AP!\n", 0);
return DSH_CONNECTION_FAILED;
}
iprintf("NULL");
MyIP = Wifi_GetIPInfo(&gateway, &mask, &dns1, &dns2);
}
else
{
if(ret != -1)
{
iprintf("AP Connecting...\n");
while(j != ASSOCSTATUS_ASSOCIATED && j!= ASSOCSTATUS_CANNOTCONNECT)
{
oldstatus = j;
j = Wifi_AssocStatus();
if(oldstatus != j) {
iprintf("%s\n",ASSOCSTATUS_STRINGS[j]);
if(j == ASSOCSTATUS_ASSOCIATED )
{
Wifi_SetIP(MyIP.s_addr,gateway.s_addr,mask.s_addr,dns1.s_addr,dns2.s_addr);
}
}
}
}
}
iprintf("WIFI: Connected to AP\n"); // Mark that WIFI is available
iprintf("IP : %s\n", inet_ntoa(MyIP));
iprintf("SVIP: %s\n", DOWNLOAD_IP);
#endif
channel->name = channel_name(CHANNEL_WIFI);
channel->number =number_connect; // number connect
channel->connect = wifi_connect;
channel->read = wifi_read;
channel->write = wifi_write;
channel->disconnect = wifi_disconnect;
channel->cleanup = wifi_cleanup;
return 0;
}
