Boen_Shi 8be2866433 feat(base): 初始化 MSPM0 开发环境
- 添加头文件和配置文件支持
- 更新.gitignore忽略编译和IDE相关文件
- 添加基础的bsp代码
2026-07-16 14:45:26 +08:00

559 lines
17 KiB
C

/*
* Copyright (c) 2023, Texas Instruments Incorporated
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
*
* * Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in the
* documentation and/or other materials provided with the distribution.
*
* * Neither the name of Texas Instruments Incorporated nor the names of
* its contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
* AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO,
* THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
* PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
* CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
* EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
* PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS;
* OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
* WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR
* OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE,
* EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/
#include <ti/driverlib/dl_aesadv.h>
#ifdef __MSPM0_HAS_AESADV__
static void DL_AESADV_loadData(
volatile uint32_t *destPtr, const uint32_t *srcPtr, uint8_t numWords);
static void DL_AESADV_readData(
uint32_t *destPtr, volatile const uint32_t *srcPtr, uint8_t numWords);
static const uint32_t *DL_AESADV_checkAlignmentAndReturnConstPtr(
const uint8_t *ptr);
static uint32_t *DL_AESADV_checkAlignmentAndReturnPtr(const uint8_t *ptr);
DL_AESADV_STATUS DL_AESADV_setKey(
AESADV_Regs *aesadv, const uint8_t *key, DL_AESADV_KEY_SIZE keySize)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
const uint32_t *keyAligned;
keyAligned = DL_AESADV_checkAlignmentAndReturnConstPtr(key);
if (keyAligned != NULL) {
DL_AESADV_setKeyAligned(aesadv, keyAligned, keySize);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_setKeyAligned(AESADV_Regs *aesadv, const uint32_t *keyAligned,
DL_AESADV_KEY_SIZE keySize)
{
uint8_t numWords;
switch (keySize) {
case DL_AESADV_KEY_SIZE_128_BIT:
numWords = 4U;
break;
case DL_AESADV_KEY_SIZE_256_BIT:
numWords = 8U;
break;
default:
/* invalid key size*/
numWords = 0U;
break;
}
DL_Common_updateReg(
&aesadv->CTRL, (uint32_t) keySize, AESADV_CTRL_KEYSIZE_MASK);
DL_AESADV_loadData(&aesadv->KEY0, keyAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_setGCMHashKey(
AESADV_Regs *aesadv, const uint8_t *hashKey)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
const uint32_t *hashKeyAligned;
hashKeyAligned = DL_AESADV_checkAlignmentAndReturnConstPtr(hashKey);
if (hashKeyAligned != NULL) {
DL_AESADV_setGCMHashKeyAligned(aesadv, hashKeyAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_setGCMHashKeyAligned(
AESADV_Regs *aesadv, const uint32_t *hashKeyAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->GHASH_H0, hashKeyAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_setSecondKey(
AESADV_Regs *aesadv, const uint8_t *secondKey)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
const uint32_t *secondKeyAligned;
secondKeyAligned = DL_AESADV_checkAlignmentAndReturnConstPtr(secondKey);
if (secondKeyAligned != NULL) {
DL_AESADV_setSecondKeyAligned(aesadv, secondKeyAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_setSecondKeyAligned(
AESADV_Regs *aesadv, const uint32_t *secondKeyAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->GHASH_H0, secondKeyAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_setThirdKey(
AESADV_Regs *aesadv, const uint8_t *thirdKey)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
const uint32_t *thirdKeyAligned;
thirdKeyAligned = DL_AESADV_checkAlignmentAndReturnConstPtr(thirdKey);
if (thirdKeyAligned != NULL) {
DL_AESADV_setThirdKeyAligned(aesadv, thirdKeyAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_setThirdKeyAligned(
AESADV_Regs *aesadv, const uint32_t *thirdKeyAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->GCMCCM_TAG0, thirdKeyAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_loadIntermediateTAG(
AESADV_Regs *aesadv, const uint8_t *tag)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
const uint32_t *tagAligned;
tagAligned = DL_AESADV_checkAlignmentAndReturnConstPtr(tag);
if (tagAligned != NULL) {
DL_AESADV_loadIntermediateTAGAligned(aesadv, tagAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_loadIntermediateTAGAligned(
AESADV_Regs *aesadv, const uint32_t *tagAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->GCMCCM_TAG0, tagAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_loadInitializationVector(
AESADV_Regs *aesadv, const uint8_t *iv)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
uint32_t *ivAligned;
ivAligned = DL_AESADV_checkAlignmentAndReturnPtr(iv);
if (ivAligned != NULL) {
DL_AESADV_loadInitializationVectorAligned(aesadv, ivAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_loadInitializationVectorAligned(
AESADV_Regs *aesadv, const uint32_t *ivAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->IV0, ivAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_readInitializationVector(
AESADV_Regs *aesadv, const uint8_t *iv)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
uint32_t *ivAligned;
ivAligned = DL_AESADV_checkAlignmentAndReturnPtr(iv);
if (ivAligned != NULL) {
DL_AESADV_readInitializationVectorAligned(aesadv, ivAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_readInitializationVectorAligned(
AESADV_Regs *aesadv, uint32_t *ivAligned)
{
uint8_t numWords = 4U;
volatile uint32_t *sourcePtr;
sourcePtr = (volatile uint32_t *) &aesadv->IV0;
DL_AESADV_readData(ivAligned, sourcePtr, numWords);
return;
}
void DL_AESADV_loadCCMNonceAndCounter(
AESADV_Regs *aesadv, uint8_t *nonce, DL_AESADV_CCM_CTR_WIDTH ctrWidth)
{
uint8_t *noncePtr = nonce;
uint8_t numWords = 4U;
uint32_t ivArray[4];
uint8_t *ivPtr = (uint8_t *) &ivArray[0];
uint8_t i;
/* calculation of the nonce length. (Length described in table in header) */
uint8_t ccml = (uint8_t)((uint32_t) ctrWidth >> AESADV_CTRL_CCML_OFS);
uint8_t counterWidthInBytes = (ccml + 1U);
/* subtracting the counterWidth in bytes as well as the flag byte */
uint8_t nonceWidthInBytes = 14U - ccml;
*ivPtr++ = ccml;
/* addition of the Nonce */
for (i = 0; i < nonceWidthInBytes; i++) {
*ivPtr++ = *noncePtr++;
}
/* Counter is always initialized to zeros */
for (i = 0; i < counterWidthInBytes; i++) {
*ivPtr++ = 0x00;
}
DL_AESADV_loadData(&aesadv->IV0, ivArray, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_loadInputData(
AESADV_Regs *aesadv, const uint8_t *data)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
uint32_t *dataAligned;
dataAligned = DL_AESADV_checkAlignmentAndReturnPtr(data);
if (dataAligned != NULL) {
DL_AESADV_loadInputDataAligned(aesadv, dataAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_loadInputDataAligned(
AESADV_Regs *aesadv, const uint32_t *dataAligned)
{
uint8_t numWords = 4U;
DL_AESADV_loadData(&aesadv->DATA0, dataAligned, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_readOutputData(
const AESADV_Regs *aesadv, const uint8_t *data)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
uint32_t *dataAligned;
dataAligned = DL_AESADV_checkAlignmentAndReturnPtr(data);
if (dataAligned != NULL) {
DL_AESADV_readOutputDataAligned(aesadv, dataAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_readOutputDataAligned(
const AESADV_Regs *aesadv, uint32_t *dataAligned)
{
uint8_t numWords = 4U;
DL_AESADV_readData(dataAligned, &aesadv->DATA0, numWords);
return;
}
DL_AESADV_STATUS DL_AESADV_readTAG(
const AESADV_Regs *aesadv, const uint8_t *tag)
{
DL_AESADV_STATUS status = DL_AESADV_STATUS_SUCCESS;
uint32_t *tagAligned;
tagAligned = DL_AESADV_checkAlignmentAndReturnPtr(tag);
if (tagAligned != NULL) {
DL_AESADV_readTAGAligned(aesadv, tagAligned);
} else {
status = DL_AESADV_STATUS_UNALIGNED_ACCESS;
}
return status;
}
void DL_AESADV_readTAGAligned(const AESADV_Regs *aesadv, uint32_t *tagAligned)
{
uint8_t numWords = 4U;
DL_AESADV_readData(tagAligned, &aesadv->TAG0, numWords);
return;
}
void DL_AESADV_initECB(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
((uint32_t) DL_AESADV_MODE_ECB | config->direction),
((uint32_t) DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initCBC(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
((uint32_t) DL_AESADV_MODE_CBC | config->direction),
((uint32_t) DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initCFB(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
(((uint32_t) DL_AESADV_MODE_CFB) | ((uint32_t) config->direction) |
((uint32_t) config->cfb_fbWidth)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_CTR_WIDTH_MASK | AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initOFB(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
(((uint32_t) DL_AESADV_MODE_OFB) | ((uint32_t) config->direction) |
((uint32_t) config->cfb_fbWidth)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_CTR_WIDTH_MASK | AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initCTR(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
(((uint32_t) DL_AESADV_MODE_CTR) | ((uint32_t) config->direction) |
((uint32_t) config->ctr_ctrWidth)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_CTR_WIDTH_MASK | AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initICM(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
DL_Common_updateReg(&aesadv->CTRL,
((uint32_t) DL_AESADV_MODE_ICM | ((uint32_t) config->direction)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initCMAC(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
uint32_t zeroArray[4] = {0x00000000, 0x00000000, 0x00000000, 0x00000000};
/* Set the second and third keys, and zero out the initialization vector */
DL_AESADV_setSecondKey(aesadv, config->k1);
DL_AESADV_setThirdKey(aesadv, config->k2);
DL_AESADV_loadInitializationVectorAligned(aesadv, &zeroArray[0]);
DL_Common_updateReg(&aesadv->CTRL,
((uint32_t) DL_AESADV_MODE_CMAC | ((uint32_t) DL_AESADV_DIR_ENCRYPT) |
((uint32_t) AESADV_CTRL_SAVE_CNTXT_ENABLE)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initCBCMAC(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
uint32_t zeroArray[4] = {0x00000000, 0x00000000, 0x00000000, 0x00000000};
/* Zero out the second and third keys and the IV for CBC-MAC as per spec */
DL_AESADV_setSecondKeyAligned(aesadv, &zeroArray[0]);
DL_AESADV_setThirdKeyAligned(aesadv, &zeroArray[0]);
DL_AESADV_loadInitializationVectorAligned(aesadv, &zeroArray[0]);
DL_Common_updateReg(&aesadv->CTRL,
((uint32_t) DL_AESADV_MODE_CBCMAC |
((uint32_t) DL_AESADV_DIR_ENCRYPT) |
((uint32_t) AESADV_CTRL_SAVE_CNTXT_ENABLE)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
}
void DL_AESADV_initGCM(AESADV_Regs *aesadv, const DL_AESADV_Config *config)
{
uint32_t zeroArray[4] = {0x00000000, 0x00000000, 0x00000000, 0x00000000};
/* Zero out the intermediate TAG for GCM as per spec */
DL_AESADV_loadIntermediateTAGAligned(aesadv, &zeroArray[0]);
DL_AESADV_loadInitializationVector(aesadv, config->iv);
DL_Common_updateReg(&aesadv->CTRL,
(((uint32_t) config->mode) | ((uint32_t) config->direction) |
((uint32_t) DL_AESADV_CTR_WIDTH_32_BIT |
(uint32_t) AESADV_CTRL_SAVE_CNTXT_ENABLE)),
((uint32_t) DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK |
AESADV_CTRL_CTR_WIDTH_MASK | AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
DL_AESADV_setAADLength(aesadv, config->aadLength);
}
void DL_AESADV_initCCM(AESADV_Regs *aesadv, DL_AESADV_Config *config)
{
DL_AESADV_loadCCMNonceAndCounter(
aesadv, config->nonce, config->ccm_ctrWidth);
DL_Common_updateReg(&aesadv->CTRL,
(((uint32_t) DL_AESADV_MODE_CCM) | ((uint32_t) config->direction) |
((uint32_t) config->ccm_ctrWidth) |
((uint32_t) config->ccm_tagWidth) |
((uint32_t) DL_AESADV_CTR_WIDTH_64_BIT) |
((uint32_t) AESADV_CTRL_SAVE_CNTXT_ENABLE)),
(DL_AESADV_MODE_MASK | AESADV_CTRL_DIR_MASK | AESADV_CTRL_CCML_MASK |
AESADV_CTRL_CCMM_MASK | AESADV_CTRL_CTR_WIDTH_MASK |
AESADV_CTRL_SAVE_CNTXT_MASK));
DL_AESADV_setUpperCryptoLength(aesadv, config->upperCryptoLength);
DL_AESADV_setLowerCryptoLength(aesadv, config->lowerCryptoLength);
DL_AESADV_setAADLength(aesadv, config->aadLength);
}
static void DL_AESADV_loadData(
volatile uint32_t *destPtr, const uint32_t *srcPtr, uint8_t numWords)
{
uint8_t i;
for (i = 0; i < numWords; i++) {
*destPtr++ = *srcPtr++;
}
return;
}
static void DL_AESADV_readData(
uint32_t *destPtr, volatile const uint32_t *srcPtr, uint8_t numWords)
{
uint8_t i;
for (i = 0; i < numWords; i++) {
*destPtr++ = *srcPtr++;
}
return;
}
static const uint32_t *DL_AESADV_checkAlignmentAndReturnConstPtr(
const uint8_t *ptr)
{
uint32_t address = (uint32_t) ptr;
const uint32_t *alignedPtr;
if ((address << 30) != 0x00000000u) {
/* Unaligned access */
alignedPtr = NULL;
} else {
/* Aligned Access */
alignedPtr = (const uint32_t *) address;
}
return alignedPtr;
}
static uint32_t *DL_AESADV_checkAlignmentAndReturnPtr(const uint8_t *ptr)
{
uint32_t address = (uint32_t) ptr;
uint32_t *alignedPtr;
if ((address << 30) != 0x00000000u) {
/* Unaligned access */
alignedPtr = NULL;
} else {
/* Aligned Access */
alignedPtr = (uint32_t *) address;
}
return alignedPtr;
}
#endif /* __MSPM0_HAS_AESADV__ */