36 int rijndaelKeySched(word8 k[MAXKC][4], word8 W[MAXROUNDS+1][4][4], int ROUNDS) {  in rijndaelKeySched()  argument
46 	int KC = ROUNDS - 6;  in rijndaelKeySched()
54 	for (j = 0; (j < KC) && (r < ROUNDS + 1); ) {  in rijndaelKeySched()
64 	while (r < ROUNDS + 1) { /* while not enough round key material calculated */  in rijndaelKeySched()
89 		for (j = 0; (j < KC) && (r < ROUNDS + 1); ) {  in rijndaelKeySched()
103 int rijndaelKeyEncToDec(word8 W[MAXROUNDS+1][4][4], int ROUNDS) {  in rijndaelKeyEncToDec()  argument
107 	for (r = 1; r < ROUNDS; r++) {  in rijndaelKeyEncToDec()
142 int rijndaelEncrypt(word8 in[16], word8 out[16], word8 rk[MAXROUNDS+1][4][4], int ROUNDS) {  in rijndaelEncrypt()  argument
178 	for (r = 1; r < ROUNDS-1; r++) {  in rijndaelEncrypt()
202 	*((word32*)temp[0]) = *((word32*)(b   )) ^ *((word32*)rk[ROUNDS-1][0]);  in rijndaelEncrypt()
203 	*((word32*)temp[1]) = *((word32*)(b+ 4)) ^ *((word32*)rk[ROUNDS-1][1]);  in rijndaelEncrypt()
204 	*((word32*)temp[2]) = *((word32*)(b+ 8)) ^ *((word32*)rk[ROUNDS-1][2]);  in rijndaelEncrypt()
205 	*((word32*)temp[3]) = *((word32*)(b+12)) ^ *((word32*)rk[ROUNDS-1][3]);  in rijndaelEncrypt()
222 	*((word32*)(b   )) ^= *((word32*)rk[ROUNDS][0]);  in rijndaelEncrypt()
223 	*((word32*)(b+ 4)) ^= *((word32*)rk[ROUNDS][1]);  in rijndaelEncrypt()
224 	*((word32*)(b+ 8)) ^= *((word32*)rk[ROUNDS][2]);  in rijndaelEncrypt()
225 	*((word32*)(b+12)) ^= *((word32*)rk[ROUNDS][3]);  in rijndaelEncrypt()
240 int rijndaelEncryptRound(word8 a[4][4], word8 rk[MAXROUNDS+1][4][4], int ROUNDS, int rounds) {  in rijndaelEncryptRound()  argument
245 	if (rounds > ROUNDS) {  in rijndaelEncryptRound()
246 		rounds = ROUNDS;  in rijndaelEncryptRound()
254 	for (r = 1; (r <= rounds) && (r < ROUNDS); r++) {  in rijndaelEncryptRound()
276 	if (rounds == ROUNDS) {  in rijndaelEncryptRound()
294 		*((word32*)a[0]) = *((word32*)temp[0]) ^ *((word32*)rk[ROUNDS][0]);  in rijndaelEncryptRound()
295 		*((word32*)a[1]) = *((word32*)temp[1]) ^ *((word32*)rk[ROUNDS][1]);  in rijndaelEncryptRound()
296 		*((word32*)a[2]) = *((word32*)temp[2]) ^ *((word32*)rk[ROUNDS][2]);  in rijndaelEncryptRound()
297 		*((word32*)a[3]) = *((word32*)temp[3]) ^ *((word32*)rk[ROUNDS][3]);  in rijndaelEncryptRound()
307 int rijndaelDecrypt(word8 in[16], word8 out[16], word8 rk[MAXROUNDS+1][4][4], int ROUNDS) {  in rijndaelDecrypt()  argument
323     *((word32*)temp[0]) = *((word32*)(a   )) ^ *((word32*)rk[ROUNDS][0]);  in rijndaelDecrypt()
324     *((word32*)temp[1]) = *((word32*)(a+ 4)) ^ *((word32*)rk[ROUNDS][1]);  in rijndaelDecrypt()
325     *((word32*)temp[2]) = *((word32*)(a+ 8)) ^ *((word32*)rk[ROUNDS][2]);  in rijndaelDecrypt()
326     *((word32*)temp[3]) = *((word32*)(a+12)) ^ *((word32*)rk[ROUNDS][3]);  in rijndaelDecrypt()
344 	for (r = ROUNDS-1; r > 1; r--) {  in rijndaelDecrypt()
409 int rijndaelDecryptRound(word8 a[4][4], word8 rk[MAXROUNDS+1][4][4], int ROUNDS, int rounds) {  in rijndaelDecryptRound()  argument
414 	if (rounds > ROUNDS) {  in rijndaelDecryptRound()
415 		rounds = ROUNDS;  in rijndaelDecryptRound()
418 	*(word32 *)a[0] ^= *(word32 *)rk[ROUNDS][0];  in rijndaelDecryptRound()
419 	*(word32 *)a[1] ^= *(word32 *)rk[ROUNDS][1];  in rijndaelDecryptRound()
420 	*(word32 *)a[2] ^= *(word32 *)rk[ROUNDS][2];  in rijndaelDecryptRound()
421 	*(word32 *)a[3] ^= *(word32 *)rk[ROUNDS][3];  in rijndaelDecryptRound()
440 	for (r = ROUNDS-1; r > rounds; r--) {  in rijndaelDecryptRound()