test/simulator/simulator.cpp

#include "simulator.hpp"

#include <util/hei_includes.hpp>

#include <fstream> // std::ifstream

namespace libhei
{

//------------------------------------------------------------------------------

// Paths are relative from the build/ directory
const std::map<SimulatorData::SimChipType, const char*>
    SimulatorData::cv_chipPath = {
        {SAMPLE, "../test/simulator/sample_data/sample.cdb"},
        {EXPLORER_11, "xml/chip_data_explorer_11.cdb"},
        {EXPLORER_20, "xml/chip_data_explorer_20.cdb"},
        {P10_10, "xml/chip_data_p10_10.cdb"},
        {P10_20, "xml/chip_data_p10_20.cdb"},
};

//------------------------------------------------------------------------------

void SimulatorData::addChip(const Chip& i_chip)
{
    // First check if this entry already exists.
    auto chip_itr = std::find(iv_chipList.begin(), iv_chipList.end(), i_chip);
    ASSERT_EQ(iv_chipList.end(), chip_itr);

    // Add the new entry.
    iv_chipList.push_back(i_chip);

    // Check if this chip type has been initialized.
    ChipType_t chipType = i_chip.getType();
    auto type_itr = std::find(iv_typeList.begin(), iv_typeList.end(), chipType);
    if (iv_typeList.end() != type_itr)
    {
        return; // No need to continue.
    }

    // Add the new entry.
    iv_typeList.push_back(chipType);

    // Look for the file path
    auto itr2 = cv_chipPath.find(static_cast<SimChipType>(chipType));
    ASSERT_NE(cv_chipPath.end(), itr2);
    const char* path = itr2->second;

    // Open the Chip Data File
    std::ifstream cdf{path, std::ifstream::binary};
    ASSERT_TRUE(cdf.good());

    // Get the length of file
    cdf.seekg(0, cdf.end);
    size_t sz_buffer = cdf.tellg();
    cdf.seekg(0, cdf.beg);

    // Allocate memory
    char* buffer = new char[sz_buffer];

    // Read data as a block
    cdf.read(buffer, sz_buffer);

    // Close the Chip Data File
    cdf.close();

    // Initilize the chip with this Chip Data File.
    initialize(buffer, sz_buffer);

    // Clean up the buffer
    delete[] buffer;
}

//------------------------------------------------------------------------------

void SimulatorData::endIteration()
{
    // Start by calling libhei::isolate().
    IsolationData isoData{};
    isolate(iv_chipList, isoData);

    /* TODO: Currently used for debug. Eventually, we want this written to file.
    for (const auto& e : isoData.getRegisterDump())
    {
        HEI_INF("Chip: %s", (const char*)e.first.getChip());

        for (const auto& r : e.second)
        {
            HEI_INF("  Reg: 0x%06x  %d  0x%016" PRIx64, r.regId, r.regInst,
                    r.data->getFieldRight(0, 64));
        }
    }
    */

    // Get the list of signatures found in isolation.
    std::vector<Signature> givenSigList = isoData.getSignatureList();

    // Verify the expected list and given list are the same.
    ASSERT_EQ(iv_expSigList.size(), givenSigList.size());

    std::sort(iv_expSigList.begin(), iv_expSigList.end());
    std::sort(givenSigList.begin(), givenSigList.end());

    /* TODO: Currently used for debug. Eventually, we want this written to file.
    for (const auto& s : givenSigList)
    {
        HEI_INF("Signature: %s 0x%04x %u %u %u",
                (const char*)s.getChip().getChip(), s.getId(), s.getInstance(),
                s.getBit(), s.getAttnType());
    }
    */

    ASSERT_TRUE(std::equal(givenSigList.begin(), givenSigList.end(),
                           iv_expSigList.begin()));

    // The iteration is complete so we can flush the data.
    flushIterationData();
}

} // end namespace libhei