blob: b6854c9834a2637fd3b0fcc4f3011463ae0c7984 [file] [edit]
/*
* \file mem_acc_test.cpp
* \brief OpenCSD : Component tests for memory accessor and caching
*
* \copyright Copyright (c) 2023, ARM Limited. All Rights Reserved.
*/
/*
* Redistribution and use in source and binary forms, with or without modification,
* are permitted provided that the following conditions are met:
*
* 1. Redistributions of source code must retain the above copyright notice,
* this list of conditions and the following disclaimer.
*
* 2. 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.
*
* 3. Neither the name of the copyright holder 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 HOLDER 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.
*/
/*
* Test program to validate the memory accessor and caching.
*
* Checks for memory spaces, overlapping VA, cache sizes
*/
#include <cstdio>
#include <string>
#include <iostream>
#include <sstream>
#include <cstring>
#include "opencsd.h"
// logging
static ocsdMsgLogger logger;
static ocsdDefaultErrorLogger err_log;
static ocsd_hndl_err_log_t err_log_handle;
static int logOpts = ocsdMsgLogger::OUT_STDOUT | ocsdMsgLogger::OUT_FILE;
static std::string logfileName = "mem_acc_test.ppl";
// test pass fail counts
static int tests_passed = 0;
static int tests_failed = 0;
// number of blocks per memory area
#define NUM_BLOCKS 2
// number of 32 but words in each block
#define BLOCK_NUM_WORDS 8192
// size of block in bytes
#define BLOCK_SIZE_BYTES (4 * BLOCK_NUM_WORDS)
// some memory areas to use for testing
static uint32_t el01_ns_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el2_ns_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el01_s_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el2_s_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el3_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el01_r_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el2_r_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
static uint32_t el3_root_blocks[NUM_BLOCKS][BLOCK_NUM_WORDS];
#define BLOCK_VAL(mem_space, block_num, index) (uint32_t)(((uint32_t)mem_space << 24) | ((uint32_t)block_num << 16) | (uint32_t)index)
// memory access mapper - used for tests
static TrcMemAccMapGlobalSpace mapper;
void populate_block(const ocsd_mem_space_acc_t mem_space, uint32_t block_array[NUM_BLOCKS][BLOCK_NUM_WORDS])
{
for (int i = 0; i < NUM_BLOCKS; i++) {
for (int j = 0; j < BLOCK_NUM_WORDS; j++)
block_array[i][j] = BLOCK_VAL(mem_space, i, j);
}
}
void populate_all_blocks()
{
populate_block(OCSD_MEM_SPACE_EL1N, el01_ns_blocks);
populate_block(OCSD_MEM_SPACE_EL2, el2_ns_blocks);
populate_block(OCSD_MEM_SPACE_EL1S, el01_s_blocks);
populate_block(OCSD_MEM_SPACE_EL2S, el2_s_blocks);
populate_block(OCSD_MEM_SPACE_EL3, el3_blocks);
populate_block(OCSD_MEM_SPACE_EL1R, el01_r_blocks);
populate_block(OCSD_MEM_SPACE_EL2R, el2_r_blocks);
populate_block(OCSD_MEM_SPACE_ROOT, el3_root_blocks);
}
bool process_cmd_line_logger_opts(int argc, char* argv[])
{
bool goodLoggerOpts = true;
bool bChangingOptFlags = false;
int newlogOpts = ocsdMsgLogger::OUT_NONE;
std::string opt;
if (argc > 1)
{
int options_to_process = argc - 1;
int optIdx = 1;
while (options_to_process > 0)
{
opt = argv[optIdx];
if (opt == "-logstdout")
{
newlogOpts |= ocsdMsgLogger::OUT_STDOUT;
bChangingOptFlags = true;
}
else if (opt == "-logstderr")
{
newlogOpts |= ocsdMsgLogger::OUT_STDERR;
bChangingOptFlags = true;
}
else if (opt == "-logfile")
{
newlogOpts |= ocsdMsgLogger::OUT_FILE;
bChangingOptFlags = true;
}
else if (opt == "-logfilename")
{
options_to_process--;
optIdx++;
if (options_to_process)
{
logfileName = argv[optIdx];
newlogOpts |= ocsdMsgLogger::OUT_FILE;
bChangingOptFlags = true;
}
else
{
goodLoggerOpts = false;
}
}
options_to_process--;
optIdx++;
}
}
if (bChangingOptFlags)
logOpts = newlogOpts;
return goodLoggerOpts;
}
void log_error(const ocsdError& err)
{
err_log.LogError(err_log_handle, &err);
}
void log_test_start(const char* testname)
{
std::ostringstream oss;
oss << "*** Test " << testname << " Starting.\n";
logger.LogMsg(oss.str());
}
void log_test_end(const char* testname, const int pass, const int fail)
{
std::ostringstream oss;
oss << "*** Test " << testname << " complete. (Pass: " << pass << "; Fail:" << fail << ")\n";
logger.LogMsg(oss.str());
}
void test_overlap_regions()
{
// test adding regions that overlap
// overlap in difference memory spaces is ok, otherwise fail
TrcMemAccBufPtr Acc1, Acc2, Acc3, Acc4;
ocsd_err_t err;
std::ostringstream oss;
int passed = 0, failed = 0;
log_test_start(__FUNCTION__);
// add single accessor
Acc1.initAccessor(0x0000, (const uint8_t*)&el01_ns_blocks[0], BLOCK_SIZE_BYTES);
Acc1.setMemSpace(OCSD_MEM_SPACE_EL1N);
err = mapper.AddAccessor(&Acc1, 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set memory accessor"));
failed++;
}
else
passed++;
// overlapping region - same memory space.
Acc2.initAccessor(0x1000, (const uint8_t*)&el01_ns_blocks[1], BLOCK_SIZE_BYTES);
Acc2.setMemSpace(OCSD_MEM_SPACE_EL1N);
err = mapper.AddAccessor(&Acc2, 0);
if (err != OCSD_ERR_MEM_ACC_OVERLAP) {
oss.str("");
oss << "Error: expected OCSD_ERR_MEM_ACC_OVERLAP error for overlapping accessor range.\n";
logger.LogMsg(oss.str());
failed++;
}
else
passed++;
// non overlapping region - same memory space.
Acc2.setRange(0x8000, 0x8000 + BLOCK_SIZE_BYTES - 1);
err = mapper.AddAccessor(&Acc2, 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set non overlapping memory accessor"));
failed++;
}
else
passed++;
// overlapping region - different memory space
Acc3.initAccessor(0x0000, (const uint8_t*)&el01_s_blocks[0], BLOCK_SIZE_BYTES);
Acc3.setMemSpace(OCSD_MEM_SPACE_EL1S);
err = mapper.AddAccessor(&Acc3, 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set overlapping memory accessor in other memory space"));
failed++;
}
else
passed++;
// overlapping region - more general memory space.
Acc4.initAccessor(0x0000, (const uint8_t*)&el2_s_blocks[0], BLOCK_SIZE_BYTES);
Acc4.setMemSpace(OCSD_MEM_SPACE_S);
err = mapper.AddAccessor(&Acc4, 0);
if (err != OCSD_ERR_MEM_ACC_OVERLAP) {
oss.str("");
oss << "Error: expected OCSD_ERR_MEM_ACC_OVERLAP error for overlapping general _S accessor range.\n";
logger.LogMsg(oss.str());
failed++;
}
else
passed++;
// clean up mapper
mapper.RemoveAllAccessors();
tests_passed += passed;
tests_failed += failed;
log_test_end(__FUNCTION__, passed, failed);
}
/************************************************************************
* Test trcID specific memory regions - using callback function.
* Emulates clinets such as perf where memory regions change over the
* trace run as tasks switched in and out. Tests caching mechanisms in
* mapper.
*/
typedef struct test_range {
ocsd_vaddr_t s_address;
uint32_t size;
const uint8_t* buffer;
ocsd_mem_space_acc_t mem_space;
uint8_t trcID;
} test_range_t;
typedef struct test_range_array {
int num_ranges;
test_range_t* ranges;
} test_range_array_t;
#define IN_MEM_SPACE(m1, m2) (bool)(((uint32_t)m1)&((uint32_t)m2))
static int AccCallbackCount = 0;
uint32_t TestMemAccCB(const void* p_context, const ocsd_vaddr_t address, const ocsd_mem_space_acc_t mem_space, const uint8_t trcID, const uint32_t reqBytes, uint8_t* byteBuffer)
{
test_range_array_t* ranges = (test_range_array_t*)p_context;
uint32_t bytes_read = 0;
for (int i = 0; i < ranges->num_ranges; i++)
{
if ( IN_MEM_SPACE(mem_space, ranges->ranges[i].mem_space) &&
(trcID == ranges->ranges[i].trcID)
)
{
if ( (address >= ranges->ranges[i].s_address) &&
(address < (ranges->ranges[i].s_address + ranges->ranges[i].size))
)
{
// in range - get offset into buffer
uint32_t offset = (uint32_t)address - (uint32_t)(ranges->ranges[i].s_address);
// copy all bytes if enough left in range - otherwise what if left
if (ranges->ranges[i].size - offset >= reqBytes)
bytes_read = reqBytes;
else
bytes_read = ranges->ranges[i].size - offset;
memcpy(byteBuffer, &(ranges->ranges[i].buffer[offset]), bytes_read);
break;
}
}
}
AccCallbackCount++;
return bytes_read;
}
void set_test_range(test_range_t& range, ocsd_vaddr_t s_address, uint32_t size,
const uint8_t* buffer, ocsd_mem_space_acc_t mem_space, uint8_t trcID)
{
range.s_address = s_address;
range.size = size;
range.buffer = buffer;
range.mem_space = mem_space;
range.trcID = trcID;
}
// read value through mapper and direct from range - check value and callback happened
// allows testing of expected caching and callback events
bool read_and_check_from_range(const int test_idx, const int range, test_range_array_t& ranges, const ocsd_vaddr_t byte_offset, bool callback)
{
uint32_t read_val, num_bytes_read, expected_val;
uint8_t* p_local_buff = (uint8_t*)&read_val;
int PrevAccCallbackCount = AccCallbackCount;
ocsd_err_t err;
ocsd_vaddr_t read_address;
bool pass = true, mem_callback_occurred = false;
std::ostringstream oss;
std::string memSpaceStr;
ocsd_mem_space_acc_t mem_space;
uint8_t traceID;
mem_space = ranges.ranges[range].mem_space;
read_address = ranges.ranges[range].s_address + byte_offset; // set address value
num_bytes_read = 4; // request 4 bytes
expected_val = *((uint32_t *)(&(ranges.ranges[range].buffer[byte_offset])));
traceID = ranges.ranges[range].trcID;
TrcMemAccessorBase::getMemAccSpaceString(memSpaceStr, mem_space);
oss << "Read Test(" << test_idx << "): Address 0x" << std::hex << std::setw(8) << std::setfill('0') << read_address << "; ";
oss << memSpaceStr << "; Traced ID 0x" << std::setw(2) << (uint32_t)traceID << "; ";
logger.LogMsg(oss.str());
err = mapper.ReadTargetMemory(read_address, ranges.ranges[range].trcID, OCSD_MEM_SPACE_EL1N, &num_bytes_read, p_local_buff);
mem_callback_occurred = (bool)(PrevAccCallbackCount != AccCallbackCount);
if (mem_callback_occurred)
oss.str("MemCB read; ");
else
oss.str("No MemCB; ");
logger.LogMsg(oss.str());
if (err != OCSD_OK) {
oss.str("");
oss << "Error reading target memory\n";
logger.LogMsg(oss.str());
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, oss.str()));
pass = false;
goto exit_test;
}
if (num_bytes_read != 4) {
oss.str("");
oss << "Read Fail: Requested bytes not found (4 != " << num_bytes_read << ")\n";
logger.LogMsg(oss.str());
pass = false;
goto exit_test;
}
if (expected_val != read_val) {
oss.str("");
oss << "Read Fail: value read mismatch; 0x" << std::hex << read_val << " != 0x" << expected_val << "\n";
logger.LogMsg(oss.str());
pass = false;
goto exit_test;
}
if (callback && !mem_callback_occurred) {
oss.str("");
oss << "Read Fail: Expected callback to access memory\n";
logger.LogMsg(oss.str());
pass = false;
goto exit_test;
}
if (!callback && mem_callback_occurred) {
oss.str("");
oss << "Read Fail: Unexpected callback to access memory\n";
logger.LogMsg(oss.str());
pass = false;
goto exit_test;
}
if (pass) {
oss.str("\n");
logger.LogMsg(oss.str());
}
exit_test:
return pass;
}
void test_trcid_cache_mem_cb()
{
TrcMemAccCB CBAcc;
test_range_array_t ranges;
int passed = 0, failed = 0;
std::ostringstream oss;
ocsd_err_t err;
int read_test_idx = 1;
log_test_start(__FUNCTION__);
// set up the ranges
ranges.num_ranges = 6;
ranges.ranges = new test_range_t[6];
// 1st range 0x0000, EL1N, trcID 0x10 - 1st CPU
set_test_range(ranges.ranges[0], 0x0000, BLOCK_SIZE_BYTES, (const uint8_t*)&el01_ns_blocks[0], OCSD_MEM_SPACE_EL1N, 0x10);
// 2nd range 0x0000, EL1N, trcID 0x11 - 2nd cpu, same addresses, different data.
set_test_range(ranges.ranges[1], 0x0000, BLOCK_SIZE_BYTES, (const uint8_t*)&el01_ns_blocks[1], OCSD_MEM_SPACE_EL1N, 0x11);
// 2nd range 0x8000, EL2N, trcID 0x10 - 2nd cpu, same addresses, different data.
set_test_range(ranges.ranges[2], 0x8000, BLOCK_SIZE_BYTES, (const uint8_t*)&el2_ns_blocks[0], OCSD_MEM_SPACE_EL2, 0x10);
// 2nd range 0x10000, EL2N, trcID 0x11 - 2nd cpu,
set_test_range(ranges.ranges[3], 0x10000, BLOCK_SIZE_BYTES, (const uint8_t*)&el2_ns_blocks[1], OCSD_MEM_SPACE_EL2, 0x11);
// 2nd range 0x0000, EL1 realm, trcID 0x10 - cpu 1 realm
set_test_range(ranges.ranges[4], 0x0000, BLOCK_SIZE_BYTES, (const uint8_t*)&el01_r_blocks[0], OCSD_MEM_SPACE_EL1R, 0x10);
// 2nd range 0x0000, EL2 realm, trcID 0x11 - 2nd cpu - realm .
set_test_range(ranges.ranges[5], 0x0000, BLOCK_SIZE_BYTES, (const uint8_t*)&el2_r_blocks[0], OCSD_MEM_SPACE_EL2R, 0x11);
// add the callback to the mapper
CBAcc.initAccessor(0, 0xFFFFFFFF, OCSD_MEM_SPACE_ANY);
CBAcc.setCBIDIfFn(TestMemAccCB, (void*)&ranges);
err = mapper.AddAccessor(&CBAcc, 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set callback memory accessor"));
failed++;
goto cleanup;
}
// run some tests
// initial read - should callback and load cache page
read_and_check_from_range(read_test_idx++, 0, ranges, 0, true) ? passed++ : failed++;
// next read - should not callback but use cache
read_and_check_from_range(read_test_idx++, 0, ranges, 0x10, false) ? passed++ : failed++;
// different cpu - same address - should callback for cache load
read_and_check_from_range(read_test_idx++, 1, ranges, 0x10, true) ? passed++ : failed++;
// different cpu - same address - use cache
read_and_check_from_range(read_test_idx++, 1, ranges, 0x10, false) ? passed++ : failed++;
// clean up mapper
cleanup:
mapper.RemoveAllAccessors();
tests_passed += passed;
tests_failed += failed;
delete[] ranges.ranges;
log_test_end(__FUNCTION__, passed, failed);
}
/************************************************************************
* Test trcID specific memory regions - using callback function.
* Emulates clinets such as perf where memory regions change over the
* trace run as tasks switched in and out. Tests caching mechanisms in
* mapper.
*/
#define TEST_ADDR_COMMON 0x000000
#define TEST_ADDR_EL1N 0x008000
#define TEST_ADDR_EL2 0x010000
#define TEST_ADDR_EL1S 0x018000
#define TEST_ADDR_EL2S 0x020000
#define TEST_ADDR_EL3 0x028000
#define TEST_ADDR_EL1R 0x030000
#define TEST_ADDR_EL2R 0x038000
#define TEST_ADDR_EL3R 0x040000
bool read_and_check_value(ocsd_vaddr_t addr, const uint8_t* p_block_buffer, ocsd_mem_space_acc_t space)
{
ocsd_err_t err;
uint32_t read_val, check_val, num_bytes;
std::ostringstream oss;
std::string memSpaceStr;
TrcMemAccessorBase::getMemAccSpaceString(memSpaceStr, space);
oss << "Read Test: Address 0x" << std::hex << std::setw(8) << std::setfill('0') << addr << "; ";
oss << std::setw(4) << std::setfill(' ') << memSpaceStr << ";" ;
logger.LogMsg(oss.str());
num_bytes = 4;
err = mapper.ReadTargetMemory(addr, 0, space, &num_bytes, (uint8_t*)&read_val);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to read from mapper"));
return false;
}
check_val = *((uint32_t *)p_block_buffer);
if (check_val != read_val)
{
oss.str("");
oss << "Read Fail: value read mismatch; 0x" << std::hex << read_val << " != 0x" << check_val << "\n";
logger.LogMsg(oss.str());
return false;
}
oss.str("");
oss << " [0x" << std::hex << std::setw(8) << std::setfill('0') << read_val << "]\n";
logger.LogMsg(oss.str());
return true;
}
void test_mem_spaces()
{
ocsd_err_t err;
int passed = 0, failed = 0;
std::ostringstream oss;
log_test_start(__FUNCTION__);
// check each memory space, 8 of them, and a each block.
#define NUM_ACCS (NUM_BLOCKS * 8)
TrcMemAccBufPtr accs[NUM_ACCS];
// set-up accessors - block 0 in each space is the same - the next will have no overlap
accs[0].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el01_ns_blocks[0], BLOCK_SIZE_BYTES);
accs[0].setMemSpace(OCSD_MEM_SPACE_EL1N);
accs[1].initAccessor(TEST_ADDR_EL1N, (const uint8_t*)&el01_ns_blocks[1], BLOCK_SIZE_BYTES);
accs[1].setMemSpace(OCSD_MEM_SPACE_EL1N);
accs[2].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el2_ns_blocks[0], BLOCK_SIZE_BYTES);
accs[2].setMemSpace(OCSD_MEM_SPACE_EL2);
accs[3].initAccessor(TEST_ADDR_EL2, (const uint8_t*)&el2_ns_blocks[1], BLOCK_SIZE_BYTES);
accs[3].setMemSpace(OCSD_MEM_SPACE_EL2);
accs[4].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el01_s_blocks[0], BLOCK_SIZE_BYTES);
accs[4].setMemSpace(OCSD_MEM_SPACE_EL1S);
accs[5].initAccessor(TEST_ADDR_EL1S, (const uint8_t*)&el01_s_blocks[1], BLOCK_SIZE_BYTES);
accs[5].setMemSpace(OCSD_MEM_SPACE_EL1S);
accs[6].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el2_s_blocks[0], BLOCK_SIZE_BYTES);
accs[6].setMemSpace(OCSD_MEM_SPACE_EL2S);
accs[7].initAccessor(TEST_ADDR_EL2S, (const uint8_t*)&el2_s_blocks[1], BLOCK_SIZE_BYTES);
accs[7].setMemSpace(OCSD_MEM_SPACE_EL2S);
accs[8].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el3_blocks[0], BLOCK_SIZE_BYTES);
accs[8].setMemSpace(OCSD_MEM_SPACE_EL3);
accs[9].initAccessor(TEST_ADDR_EL3, (const uint8_t*)&el3_blocks[1], BLOCK_SIZE_BYTES);
accs[9].setMemSpace(OCSD_MEM_SPACE_EL3);
accs[10].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el01_r_blocks[0], BLOCK_SIZE_BYTES);
accs[10].setMemSpace(OCSD_MEM_SPACE_EL1R);
accs[11].initAccessor(TEST_ADDR_EL1R, (const uint8_t*)&el01_r_blocks[1], BLOCK_SIZE_BYTES);
accs[11].setMemSpace(OCSD_MEM_SPACE_EL1R);
accs[12].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el2_r_blocks[0], BLOCK_SIZE_BYTES);
accs[12].setMemSpace(OCSD_MEM_SPACE_EL2R);
accs[13].initAccessor(TEST_ADDR_EL2R, (const uint8_t*)&el2_r_blocks[1], BLOCK_SIZE_BYTES);
accs[13].setMemSpace(OCSD_MEM_SPACE_EL2R);
accs[14].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el3_root_blocks[0], BLOCK_SIZE_BYTES);
accs[14].setMemSpace(OCSD_MEM_SPACE_ROOT);
accs[15].initAccessor(TEST_ADDR_EL3R, (const uint8_t*)&el3_root_blocks[1], BLOCK_SIZE_BYTES);
accs[15].setMemSpace(OCSD_MEM_SPACE_ROOT);
// add accessors to mapper.
for (int i = 0; i < NUM_ACCS; i++) {
err = mapper.AddAccessor(&accs[i], 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set callback memory accessor"));
failed++;
}
else
passed++;
}
// test a bunch of reads - use specific space then check match if more global spaces are used.
oss.str("Test EL1N registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el01_ns_blocks[0], OCSD_MEM_SPACE_EL1N) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1N, (const uint8_t*)&el01_ns_blocks[1], OCSD_MEM_SPACE_EL1N) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1N, (const uint8_t*)&el01_ns_blocks[1], OCSD_MEM_SPACE_N) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1N, (const uint8_t*)&el01_ns_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL1N registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el2_ns_blocks[0], OCSD_MEM_SPACE_EL2) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2, (const uint8_t*)&el2_ns_blocks[1], OCSD_MEM_SPACE_EL2) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2, (const uint8_t*)&el2_ns_blocks[1], OCSD_MEM_SPACE_N) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2, (const uint8_t*)&el2_ns_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL1S registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el01_s_blocks[0], OCSD_MEM_SPACE_EL1S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1S, (const uint8_t*)&el01_s_blocks[1], OCSD_MEM_SPACE_EL1S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1S, (const uint8_t*)&el01_s_blocks[1], OCSD_MEM_SPACE_S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1S, (const uint8_t*)&el01_s_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL2S registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el2_s_blocks[0], OCSD_MEM_SPACE_EL2S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2S, (const uint8_t*)&el2_s_blocks[1], OCSD_MEM_SPACE_EL2S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2S, (const uint8_t*)&el2_s_blocks[1], OCSD_MEM_SPACE_S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2S, (const uint8_t*)&el2_s_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL3 registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el3_blocks[0], OCSD_MEM_SPACE_EL3) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL3, (const uint8_t*)&el3_blocks[1], OCSD_MEM_SPACE_EL3) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL3, (const uint8_t*)&el3_blocks[1], OCSD_MEM_SPACE_S) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL3, (const uint8_t*)&el3_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL1R registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el01_r_blocks[0], OCSD_MEM_SPACE_EL1R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1R, (const uint8_t*)&el01_r_blocks[1], OCSD_MEM_SPACE_EL1R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1R, (const uint8_t*)&el01_r_blocks[1], OCSD_MEM_SPACE_R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL1R, (const uint8_t*)&el01_r_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test EL2R registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el2_r_blocks[0], OCSD_MEM_SPACE_EL2R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2R, (const uint8_t*)&el2_r_blocks[1], OCSD_MEM_SPACE_EL2R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2R, (const uint8_t*)&el2_r_blocks[1], OCSD_MEM_SPACE_R) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL2R, (const uint8_t*)&el2_r_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
oss.str("Test ROOT registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON, (const uint8_t*)&el3_root_blocks[0], OCSD_MEM_SPACE_ROOT) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL3R, (const uint8_t*)&el3_root_blocks[1], OCSD_MEM_SPACE_ROOT) ? passed++ : failed++;
read_and_check_value(TEST_ADDR_EL3R, (const uint8_t*)&el3_root_blocks[1], OCSD_MEM_SPACE_ANY) ? passed++ : failed++;
// clear for this test
mapper.RemoveAllAccessors();
// test access more global from specific - set ANY, N S and R spaces
accs[0].initAccessor(TEST_ADDR_COMMON, (const uint8_t*)&el01_ns_blocks[0], BLOCK_SIZE_BYTES);
accs[0].setMemSpace(OCSD_MEM_SPACE_ANY);
accs[1].initAccessor(TEST_ADDR_EL1N, (const uint8_t*)&el01_ns_blocks[1], BLOCK_SIZE_BYTES);
accs[1].setMemSpace(OCSD_MEM_SPACE_N);
accs[2].initAccessor(TEST_ADDR_EL2, (const uint8_t*)&el2_ns_blocks[0], BLOCK_SIZE_BYTES);
accs[2].setMemSpace(OCSD_MEM_SPACE_S);
accs[3].initAccessor(TEST_ADDR_EL3, (const uint8_t*)&el2_ns_blocks[1], BLOCK_SIZE_BYTES);
accs[3].setMemSpace(OCSD_MEM_SPACE_R);
for (int i = 0; i < 4; i++) {
err = mapper.AddAccessor(&accs[i], 0);
if (err != OCSD_OK) {
log_error(ocsdError(OCSD_ERR_SEV_ERROR, err, "Failed to set callback memory accessor"));
failed++;
}
else
passed++;
}
// for ANY space should match all other spaces
uint32_t offset = 0;
oss.str("Test ANY registered block\n");
logger.LogMsg(oss.str());
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) +offset, OCSD_MEM_SPACE_EL1N) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL2) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL1S) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL2S) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL3) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL1R) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL2R) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_S) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_N) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_R) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_COMMON + offset, ((const uint8_t*)&el01_ns_blocks[0]) + offset, OCSD_MEM_SPACE_ROOT) ? passed++ : failed++;
oss.str("Test Any N registered block\n");
logger.LogMsg(oss.str());
offset = 0;
read_and_check_value(TEST_ADDR_EL1N + offset, ((const uint8_t*)&el01_ns_blocks[1]) + offset, OCSD_MEM_SPACE_EL1N) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL1N + offset, ((const uint8_t*)&el01_ns_blocks[1]) + offset, OCSD_MEM_SPACE_EL2) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL1N + offset, ((const uint8_t*)&el01_ns_blocks[1]) + offset, OCSD_MEM_SPACE_N) ? passed++ : failed++;
oss.str("Test Any S registered block\n");
logger.LogMsg(oss.str());
offset = 0;
read_and_check_value(TEST_ADDR_EL2 + offset, ((const uint8_t*)&el2_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL1S) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL2 + offset, ((const uint8_t*)&el2_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL2S) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL2 + offset, ((const uint8_t*)&el2_ns_blocks[0]) + offset, OCSD_MEM_SPACE_EL3) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL2 + offset, ((const uint8_t*)&el2_ns_blocks[0]) + offset, OCSD_MEM_SPACE_S) ? passed++ : failed++;
oss.str("Test Any R registered block\n");
logger.LogMsg(oss.str());
offset = 0;
read_and_check_value(TEST_ADDR_EL3 + offset, ((const uint8_t*)&el2_ns_blocks[1]) + offset, OCSD_MEM_SPACE_EL1R) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL3 + offset, ((const uint8_t*)&el2_ns_blocks[1]) + offset, OCSD_MEM_SPACE_EL2R) ? passed++ : failed++;
offset += 4;
read_and_check_value(TEST_ADDR_EL3 + offset, ((const uint8_t*)&el2_ns_blocks[1]) + offset, OCSD_MEM_SPACE_R) ? passed++ : failed++;
offset += 4;
// clean up
mapper.RemoveAllAccessors();
tests_passed += passed;
tests_failed += failed;
log_test_end(__FUNCTION__, passed, failed);
}
/************************************************************************
* main program
*/
int main(int argc, char* argv[])
{
std::ostringstream oss;
if (!process_cmd_line_logger_opts(argc, argv))
{
std::cout << "Bad logger command line options\nProgram Exiting\n";
return -1;
}
// init the loggers.
logger.setLogOpts(logOpts);
logger.setLogFileName(logfileName.c_str());
err_log.initErrorLogger(OCSD_ERR_SEV_INFO);
err_log_handle = err_log.RegisterErrorSource("MEMACCTEST");
err_log.setOutputLogger(&logger);
oss << "OpenCSD memory access tests.\n";
oss << "----------------------------\n\n";
oss << "Library Version : " << ocsdVersion::vers_str() << "\n\n";
logger.LogMsg(oss.str());
// set up test data
populate_all_blocks();
// init the mapper
mapper.setErrorLog(&err_log);
mapper.enableCaching(true);
// call the test routines
test_overlap_regions();
test_trcid_cache_mem_cb();
test_mem_spaces();
oss.str("");
oss << "\n*** Memory access tests complete.***\nPassed: " << tests_passed << "; Failed: " << tests_failed << "\n";
logger.LogMsg(oss.str());
return (tests_failed == 0) ? 0 : -2;
}