HRESULT service_pause_service( IWbemClassObject *obj, IWbemClassObject *in, IWbemClassObject **out )
{
VARIANT name, retval;
IWbemClassObject *sig;
HRESULT hr;
TRACE("%p, %p, %p\n", obj, in, out);
hr = IWbemClassObject_Get( obj, prop_nameW, 0, &name, NULL, NULL );
if (hr != S_OK) return hr;
hr = create_signature( class_serviceW, method_pauseserviceW, PARAM_OUT, &sig );
if (hr != S_OK)
{
VariantClear( &name );
return hr;
}
hr = IWbemClassObject_SpawnInstance( sig, 0, out );
if (hr != S_OK)
{
VariantClear( &name );
IWbemClassObject_Release( sig );
return hr;
}
hr = control_service( V_BSTR(&name), SERVICE_CONTROL_PAUSE, &retval );
if (hr != S_OK) goto done;
hr = IWbemClassObject_Put( *out, param_returnvalueW, 0, &retval, CIM_UINT32 );
done:
VariantClear( &name );
IWbemClassObject_Release( sig );
if (hr != S_OK) IWbemClassObject_Release( *out );
return hr;
}
/*@
* @deftypemethod jit_function void create ()
* Create this function if it doesn't already exist. This version will
* call the virtual @code{create_signature()} method to obtain the
* signature from the subclass.
* @end deftypemethod
@*/
void jit_function::create()
{
if(!func)
{
jit_type_t signature = create_signature();
create(signature);
if(!func)
{
jit_type_free(signature);
}
}
}
HRESULT process_get_owner( IWbemClassObject *obj, IWbemClassObject *in, IWbemClassObject **out )
{
VARIANT user, domain, retval;
IWbemClassObject *sig, *out_params = NULL;
HRESULT hr;
TRACE("%p, %p, %p\n", obj, in, out);
hr = create_signature( class_processW, method_getownerW, PARAM_OUT, &sig );
if (hr != S_OK) return hr;
if (out)
{
hr = IWbemClassObject_SpawnInstance( sig, 0, &out_params );
if (hr != S_OK)
{
IWbemClassObject_Release( sig );
return hr;
}
}
VariantInit( &user );
VariantInit( &domain );
hr = get_owner( &user, &domain, &retval );
if (hr != S_OK) goto done;
if (out_params)
{
if (!V_UI4( &retval ))
{
hr = IWbemClassObject_Put( out_params, param_userW, 0, &user, CIM_STRING );
if (hr != S_OK) goto done;
hr = IWbemClassObject_Put( out_params, param_domainW, 0, &domain, CIM_STRING );
if (hr != S_OK) goto done;
}
hr = IWbemClassObject_Put( out_params, param_returnvalueW, 0, &retval, CIM_UINT32 );
}
done:
VariantClear( &user );
VariantClear( &domain );
IWbemClassObject_Release( sig );
if (hr == S_OK && out)
{
*out = out_params;
IWbemClassObject_AddRef( out_params );
}
if (out_params) IWbemClassObject_Release( out_params );
return hr;
}
HRESULT reg_get_stringvalue( IWbemClassObject *obj, IWbemClassObject *in, IWbemClassObject **out )
{
VARIANT defkey, subkey, name, value, retval;
IWbemClassObject *sig;
HRESULT hr;
TRACE("%p, %p\n", in, out);
hr = IWbemClassObject_Get( in, param_defkeyW, 0, &defkey, NULL, NULL );
if (hr != S_OK) return hr;
hr = IWbemClassObject_Get( in, param_subkeynameW, 0, &subkey, NULL, NULL );
if (hr != S_OK) return hr;
hr = IWbemClassObject_Get( in, param_valuenameW, 0, &name, NULL, NULL );
if (hr != S_OK) return hr;
hr = create_signature( class_stdregprovW, method_getstringvalueW, PARAM_OUT, &sig );
if (hr != S_OK)
{
VariantClear( &name );
VariantClear( &subkey );
return hr;
}
hr = IWbemClassObject_SpawnInstance( sig, 0, out );
if (hr != S_OK)
{
VariantClear( &name );
VariantClear( &subkey );
IWbemClassObject_Release( sig );
return hr;
}
VariantInit( &value );
hr = get_stringvalue( (HKEY)(INT_PTR)V_I4(&defkey), V_BSTR(&subkey), V_BSTR(&name), &value, &retval );
if (hr != S_OK) goto done;
if (!V_UI4( &retval ))
{
hr = IWbemClassObject_Put( *out, param_valueW, 0, &value, CIM_STRING );
if (hr != S_OK) goto done;
}
hr = IWbemClassObject_Put( *out, param_returnvalueW, 0, &retval, CIM_UINT32 );
done:
VariantClear( &name );
VariantClear( &subkey );
IWbemClassObject_Release( sig );
if (hr != S_OK) IWbemClassObject_Release( *out );
return hr;
}
HRESULT service_stop_service( IWbemClassObject *obj, IWbemClassObject *in, IWbemClassObject **out )
{
VARIANT name, retval;
IWbemClassObject *sig, *out_params = NULL;
HRESULT hr;
TRACE("%p, %p, %p\n", obj, in, out);
hr = IWbemClassObject_Get( obj, prop_nameW, 0, &name, NULL, NULL );
if (hr != S_OK) return hr;
hr = create_signature( class_serviceW, method_stopserviceW, PARAM_OUT, &sig );
if (hr != S_OK)
{
VariantClear( &name );
return hr;
}
if (out)
{
hr = IWbemClassObject_SpawnInstance( sig, 0, &out_params );
if (hr != S_OK)
{
VariantClear( &name );
IWbemClassObject_Release( sig );
return hr;
}
}
hr = control_service( V_BSTR(&name), SERVICE_CONTROL_STOP, &retval );
if (hr != S_OK) goto done;
if (out_params)
hr = IWbemClassObject_Put( out_params, param_returnvalueW, 0, &retval, CIM_UINT32 );
done:
VariantClear( &name );
IWbemClassObject_Release( sig );
if (hr == S_OK && out)
{
*out = out_params;
IWbemClassObject_AddRef( out_params );
}
if (out_params) IWbemClassObject_Release( out_params );
return hr;
}
static dpl_status_t
dpl_s3_insert_signature_v4_params(const dpl_req_t *req, dpl_dict_t *query_params,
struct tm *tm, char *date_str, char *signature)
{
int item;
dpl_status_t ret;
dpl_vec_t *canonical_params;
char canonical_request[4096] = "";
char sign_request[1024] = "";
canonical_params = get_canonical_params(req->subresource, query_params, 0);
if (canonical_params == NULL)
return DPL_FAILURE;
ret = create_canonical_request(req, NULL, NULL, canonical_params,
canonical_request, sizeof(canonical_request));
if (ret == DPL_SUCCESS) {
DPRINTF("Canonical request:\n%s\n", canonical_request);
ret = create_sign_request(req, canonical_request, tm, date_str,
sign_request, sizeof(sign_request));
}
if (ret == DPL_SUCCESS) {
DPRINTF("Signing request:\n%s\n", sign_request);
ret = create_signature(req, tm, sign_request, signature);
}
if (ret == DPL_SUCCESS)
DPRINTF("Signature: %s\n", signature);
for (item = 0; item < canonical_params->n_items; item++) {
dpl_dict_var_t *param = (dpl_dict_var_t *) dpl_vec_get(canonical_params, item);
free(param->key);
dpl_dict_var_free(param);
}
dpl_vec_free(canonical_params);
return ret;
}
bool AssociatedRelayConsumer::check_authentication(const std::multimap<std::string, std::string> ¶ms) {
// Try to find our assoc handle.
const std::string *assoc_handle_ptr = lookup_assoc_handle(openid_provider());
if(!assoc_handle_ptr)
assoc_handle_ptr = associate();
// If the handle is "DUMB", we have to fall back to the dumb consumer.
if(assoc_handle_ptr->compare("DUMB") == 0) {
delete assoc_handle_ptr;
return DumbRelayConsumer::check_authentication(params);
}
// Move the string to the stack, so that return can free it.
std::string assoc_handle(*assoc_handle_ptr);
delete assoc_handle_ptr;
// Not possible to be missing the assoc_handle
std::multimap<std::string, std::string>::const_iterator assoc_iter = params.find(std::string("openid.assoc_handle"));
if(assoc_iter == params.end())
return false;
if(assoc_handle.compare(assoc_iter->second) == 0) {
// make sure this request was signed.
std::multimap<std::string, std::string>::const_iterator sig_iter = params.find(std::string("openid.sig"));
if(sig_iter == params.end())
return false;
std::string their_signature(sig_iter->second);
// Look for the signed fields.
sig_iter = params.find(std::string("openid.signed"));
if(sig_iter == params.end())
return false;
std::string signed_params(sig_iter->second), key;
// construct the message that was signed.
std::ostringstream message;
std::string::const_iterator iter = signed_params.begin();
while(iter != signed_params.end()) {
char c = *iter;
++iter;
// We hit a non-key character,
if(c == '\n' || c == ',' || iter == signed_params.end()) {
// store the last char in the string.
if(iter == signed_params.end()) key.push_back(c);
// look for the param
std::string key_to_find("openid.");
key_to_find.append(key);
sig_iter = params.find(key_to_find);
if(sig_iter == params.end())
return false;
// add to the message data.
message << key << ":" << sig_iter->second << "\n";
// clear the key to start over.
key.clear();
} else {
key.push_back(c);
}
}
// attempt to recreate the signature.
Association *assoc = lookup_association(assoc_handle);
if(!assoc)
return false;
std::string our_signature(create_signature(message.str(), assoc->secret));
delete assoc;
// Test that the signature created matches the one given.
return (their_signature.compare(our_signature) == 0);
} else if(assoc_handle.compare(assoc_iter->second) != 0 &&
(assoc_iter = params.find("openid.invalidate_handle")) != params.end()) {
// Prepare the verification post data.
std::ostringstream data;
CURL *curl = new_curl_handle();
data << "openid.mode=check_authentication";
for(std::multimap<std::string, std::string>::const_iterator iter = params.begin();
iter != params.end();
++iter) {
if(iter->first.compare("openid.mode") == 0) continue;
char *tmp;
tmp = curl_easy_escape(curl, iter->first.c_str(), iter->first.size());
data << "&" << tmp << "=";
curl_free(tmp);
tmp = curl_easy_escape(curl, iter->second.c_str(), iter->second.size());
data << tmp;
curl_free(tmp);
}
// Clean up after curl.
curl_easy_cleanup(curl);
// execute.
std::string content = contact_openid_provider(data.str());
// Check for invalidating the handle.
std::string invalidate_substring("\ninvalidate_handle:");
invalidate_substring.append(assoc_iter->second).append("\n");
if(content.find(invalidate_substring) != content.npos)
invalidate_assoc_handle(assoc_iter->second);
// Test for is_valid.
return content.find("\nis_valid:true\n") != content.npos;
}
// If we didn't match any other cases, return false.
return false;
}
/*
Returns -1 if somethings fails otherwise 0
*/
int sign_image(char* in, char* out){
/*
An int is enough because the partitions shouldn't be bigger than 4GB
*/
int finalimagesize = 0;
/*
Load an image at given path
*/
FILE *imageinput;
imageinput = fopen(in, "rb");
if (imageinput == NULL){
std::cerr << "[ ERROR ] Image does not exist at given location" << std::endl;
return -1;
}
/*
Check if file has contents
*/
unsigned imagefilesize = get_file_size(imageinput);
if (imagefilesize == 0){
std::cerr << "[ ERROR ] Image has no size" << std::endl;
return -1;
}
/*
Extract image header first to determine if the final image is bigger than the orignal
*/
boot_img_hdr* hdr = NULL;
hdr = (boot_img_hdr*)malloc(sizeof(boot_img_hdr));
fread(hdr, sizeof(boot_img_hdr), 1, imageinput);
/*
Reposition pointer at start
*/
fseek(imageinput, 0, SEEK_SET);
/*
Check if image is an Android bootimage
*/
if (memcmp((char*)hdr->magic, "ANDROID!", 8) != 0){
std::cerr << "[ ERROR ] File is not an Android boot image" << std::endl;
return -1;
}
/*
Load necessary variables from header and delete header
*/
unsigned kernel_actual;
unsigned ramdisk_actual;
unsigned imagesize_actual;
unsigned dt_actual;
unsigned page_size = hdr->page_size;
unsigned page_mask = hdr->page_size - 1;
kernel_actual = ROUND_TO_PAGE(hdr->kernel_size, page_mask);
ramdisk_actual = ROUND_TO_PAGE(hdr->ramdisk_size, page_mask);
dt_actual = ROUND_TO_PAGE(hdr->dt_size, page_mask);
free(hdr);
/*
Calculate size of the "real" image
*/
imagesize_actual = (page_size + kernel_actual + ramdisk_actual + dt_actual);
/*
If the "real" image is bigger than the file, the file is probably corrupted
*/
if (imagefilesize < imagesize_actual){
std::cerr << "[ ERROR ] File is invalid (is it corrupted?)" << std::endl;
return -1;
}
/*
If the file is smaller than the "real" image + one page, a buffer with the size of the image would be too small we need allocate a new bigger one
*/
if (imagefilesize < imagesize_actual + page_size){
finalimagesize = imagefilesize + page_size;
} else {
finalimagesize = imagefilesize;
}
/*
Load image in buffer and close file
*/
unsigned char* image = NULL;
image = (unsigned char*)malloc(finalimagesize);
fread(image, 1, imagefilesize, imageinput);
fclose(imageinput);
/*
Create output file
*/
FILE *imageoutput;
imageoutput = fopen(out, "wb");
if (imageoutput == NULL){
std::cerr << "[ ERROR ] Can't write output image to disk" << std::endl;
return -1;
}
/*
Hash the real image
*/
unsigned char hash[65];
unsigned char signature[SIGNATURE_SIZE];
memset(signature, 0, SIGNATURE_SIZE);
sha256_buffer(image, imagesize_actual, hash);
/*
Create signature with given hash
*/
int sig = create_signature(hash, signature);
/*
If the signature is created successfully AND the signature passes the check, the signature will be written into the image buffer, which will written to the output file
*/
if (sig != -1){
std::cerr << std::endl << "[ STATUS ] Checking created signature... ";
if (verify_image(image, signature, imagesize_actual) == 0){
memcpy(image + imagesize_actual, signature, SIGNATURE_SIZE);
fwrite(image, finalimagesize, 1, imageoutput);
}
}
/*
Cleanup
*/
fclose(imageoutput);
free(image);
/*
Final check of the output file
*/
std::cerr << std::endl << "[ STATUS ] Checking created image... ";
check_image(out);
return 0;
}
dpl_status_t
dpl_s3_add_authorization_v4_to_headers(const dpl_req_t *req,
dpl_dict_t *headers,
const dpl_dict_t *query_params,
struct tm *i_tm)
{
int item;
dpl_status_t ret;
char canonical_request[4096] = "";
char sign_request[1024] = "";
char signature[DPL_HEX_LENGTH(SHA256_DIGEST_LENGTH) + 1];
char authorization[1024] = "";
char date_str[32] = "";
dpl_vec_t *canonical_headers;
dpl_vec_t *canonical_params;
struct tm tm;
ret = add_payload_signature_to_headers(req, headers);
if (ret != DPL_SUCCESS)
return ret;
ret = get_current_utc_date(&tm, i_tm, date_str, sizeof(date_str));
if (ret != DPL_SUCCESS)
return ret;
ret = dpl_dict_add(headers, "x-amz-date", date_str, 0);
if (ret != DPL_SUCCESS)
return ret;
canonical_headers = get_canonical_headers(headers);
if (canonical_headers == NULL)
return DPL_FAILURE;
canonical_params = get_canonical_params(req->subresource, query_params, 1);
if (canonical_params == NULL) {
dpl_vec_free(canonical_headers);
return DPL_FAILURE;
}
ret = create_canonical_request(req, headers,
canonical_headers, canonical_params,
canonical_request, sizeof(canonical_request));
if (ret == DPL_SUCCESS) {
DPRINTF("Canonical request:\n%s\n", canonical_request);
ret = create_sign_request(req, canonical_request, &tm, date_str,
sign_request, sizeof(sign_request));
}
if (ret == DPL_SUCCESS) {
DPRINTF("Signing request:\n%s\n", sign_request);
ret = create_signature(req, &tm, sign_request, signature);
}
if (ret == DPL_SUCCESS) {
DPRINTF("Signature: %s\n", signature);
ret = create_authorization(req, &tm, canonical_headers, signature,
authorization, sizeof(authorization));
}
if (ret == DPL_SUCCESS)
ret = dpl_dict_add(headers, "Authorization", authorization, 0);
for (item = 0; item < canonical_params->n_items; item++) {
dpl_dict_var_t *param = (dpl_dict_var_t *) dpl_vec_get(canonical_params, item);
free(param->key);
dpl_dict_var_free(param);
}
dpl_vec_free(canonical_params);
dpl_vec_free(canonical_headers);
return ret;
}
bool test() {
unsigned char buf[256], sig[256], buf2[8];
unsigned long address, count, chipsize, blocksize;
unsigned long usec;
bool first;
// Read the chip identification
Serial.println();
Serial.println("Read Chip Identification:");
SerialFlash.readID(buf);
Serial.print(" JEDEC ID: ");
Serial.print(buf[0], HEX);
Serial.print(" ");
Serial.print(buf[1], HEX);
Serial.print(" ");
Serial.println(buf[2], HEX);
Serial.print(" Part Nummber: ");
Serial.println(id2chip(buf));
Serial.print(" Memory Size: ");
chipsize = SerialFlash.capacity(buf);
Serial.print(chipsize);
Serial.println(" bytes");
if (chipsize == 0) return false;
Serial.print(" Block Size: ");
blocksize = SerialFlash.blockSize();
Serial.print(blocksize);
Serial.println(" bytes");
// Read the entire chip. Every test location must be
// erased, or have a previously tested signature
Serial.println();
Serial.println("Reading Chip...");
memset(buf, 0, sizeof(buf));
memset(sig, 0, sizeof(sig));
memset(buf2, 0, sizeof(buf2));
address = 0;
count = 0;
first = true;
while (address < chipsize) {
SerialFlash.read(address, buf, 8);
//Serial.print(" addr = ");
//Serial.print(address, HEX);
//Serial.print(", data = ");
//printbuf(buf, 8);
create_signature(address, sig);
if (is_erased(buf, 8) == false) {
if (equal_signatures(buf, sig) == false) {
Serial.print(" Previous data found at address ");
Serial.println(address);
Serial.println(" You must fully erase the chip before this test");
Serial.print(" found this: ");
printbuf(buf, 8);
Serial.print(" correct: ");
printbuf(sig, 8);
return false;
}
} else {
count = count + 1; // number of blank signatures
}
if (first) {
address = address + (testIncrement - 8);
first = false;
} else {
address = address + 8;
first = true;
}
}
// Write any signatures that were blank on the original check
if (count > 0) {
Serial.println();
Serial.print("Writing ");
Serial.print(count);
Serial.println(" signatures");
memset(buf, 0, sizeof(buf));
memset(sig, 0, sizeof(sig));
memset(buf2, 0, sizeof(buf2));
address = 0;
first = true;
while (address < chipsize) {
SerialFlash.read(address, buf, 8);
if (is_erased(buf, 8)) {
create_signature(address, sig);
//Serial.printf("write %08X: data: ", address);
//printbuf(sig, 8);
SerialFlash.write(address, sig, 8);
while (!SerialFlash.ready()) ; // wait
SerialFlash.read(address, buf, 8);
if (equal_signatures(buf, sig) == false) {
Serial.print(" error writing signature at ");
Serial.println(address);
Serial.print(" Read this: ");
printbuf(buf, 8);
Serial.print(" Expected: ");
printbuf(sig, 8);
return false;
}
}
if (first) {
address = address + (testIncrement - 8);
first = false;
} else {
address = address + 8;
first = true;
}
}
} else {
Serial.println(" all signatures present from prior tests");
}
// Read all the signatures again, just to be sure
// checks prior writing didn't corrupt any other data
Serial.println();
Serial.println("Double Checking All Signatures:");
memset(buf, 0, sizeof(buf));
memset(sig, 0, sizeof(sig));
memset(buf2, 0, sizeof(buf2));
count = 0;
address = 0;
first = true;
while (address < chipsize) {
SerialFlash.read(address, buf, 8);
create_signature(address, sig);
if (equal_signatures(buf, sig) == false) {
Serial.print(" error in signature at ");
Serial.println(address);
Serial.print(" Read this: ");
printbuf(buf, 8);
Serial.print(" Expected: ");
printbuf(sig, 8);
return false;
}
count = count + 1;
if (first) {
address = address + (testIncrement - 8);
first = false;
} else {
address = address + 8;
first = true;
}
}
Serial.print(" all ");
Serial.print(count);
Serial.println(" signatures read ok");
// Read pairs of adjacent signatures
// check read works across boundaries
Serial.println();
Serial.println("Checking Signature Pairs");
memset(buf, 0, sizeof(buf));
memset(sig, 0, sizeof(sig));
memset(buf2, 0, sizeof(buf2));
count = 0;
address = testIncrement - 8;
first = true;
while (address < chipsize - 8) {
SerialFlash.read(address, buf, 16);
create_signature(address, sig);
create_signature(address + 8, sig + 8);
if (memcmp(buf, sig, 16) != 0) {
Serial.print(" error in signature pair at ");
Serial.println(address);
Serial.print(" Read this: ");
printbuf(buf, 16);
Serial.print(" Expected: ");
printbuf(sig, 16);
return false;
}
count = count + 1;
address = address + testIncrement;
}
Serial.print(" all ");
Serial.print(count);
Serial.println(" signature pairs read ok");
// Write data and read while write in progress
Serial.println();
Serial.println("Checking Read-While-Write (Program Suspend)");
address = 256;
while (address < chipsize) { // find a blank space
SerialFlash.read(address, buf, 256);
if (is_erased(buf, 256)) break;
address = address + 256;
}
if (address >= chipsize) {
Serial.println(" error, unable to find any blank space!");
return false;
}
for (int i=0; i < 256; i += 8) {
create_signature(address + i, sig + i);
}
Serial.print(" write 256 bytes at ");
Serial.println(address);
Serial.flush();
SerialFlash.write(address, sig, 256);
usec = micros();
if (SerialFlash.ready()) {
Serial.println(" error, chip did not become busy after write");
return false;
}
SerialFlash.read(0, buf2, 8); // read while busy writing
while (!SerialFlash.ready()) ; // wait
usec = micros() - usec;
Serial.print(" write time was ");
Serial.print(usec);
Serial.println(" microseconds.");
SerialFlash.read(address, buf, 256);
if (memcmp(buf, sig, 256) != 0) {
Serial.println(" error writing to flash");
Serial.print(" Read this: ");
printbuf(buf, 256);
Serial.print(" Expected: ");
printbuf(sig, 256);
return false;
}
create_signature(0, sig);
if (memcmp(buf2, sig, 8) != 0) {
Serial.println(" error, incorrect read while writing");
Serial.print(" Read this: ");
printbuf(buf2, 256);
Serial.print(" Expected: ");
printbuf(sig, 256);
return false;
}
Serial.print(" read-while-writing: ");
printbuf(buf2, 8);
Serial.println(" test passed, good read while writing");
// Erase a block and read while erase in progress
if (chipsize >= 262144 + blocksize + testIncrement) {
Serial.println();
Serial.println("Checking Read-While-Erase (Erase Suspend)");
memset(buf, 0, sizeof(buf));
memset(sig, 0, sizeof(sig));
memset(buf2, 0, sizeof(buf2));
SerialFlash.eraseBlock(262144);
usec = micros();
delayMicroseconds(50);
if (SerialFlash.ready()) {
Serial.println(" error, chip did not become busy after erase");
return false;
}
SerialFlash.read(0, buf2, 8); // read while busy writing
while (!SerialFlash.ready()) ; // wait
usec = micros() - usec;
Serial.print(" erase time was ");
Serial.print(usec);
Serial.println(" microseconds.");
// read all signatures, check ones in this block got
// erased, and all the others are still intact
address = 0;
first = true;
while (address < chipsize) {
SerialFlash.read(address, buf, 8);
if (address >= 262144 && address < 262144 + blocksize) {
if (is_erased(buf, 8) == false) {
Serial.print(" error in erasing at ");
Serial.println(address);
Serial.print(" Read this: ");
printbuf(buf, 8);
return false;
}
} else {
create_signature(address, sig);
if (equal_signatures(buf, sig) == false) {
Serial.print(" error in signature at ");
Serial.println(address);
Serial.print(" Read this: ");
printbuf(buf, 8);
Serial.print(" Expected: ");
printbuf(sig, 8);
return false;
}
}
if (first) {
address = address + (testIncrement - 8);
first = false;
} else {
address = address + 8;
first = true;
}
}
Serial.print(" erase correctly erased ");
Serial.print(blocksize);
Serial.println(" bytes");
// now check if the data we read during erase is good
create_signature(0, sig);
if (memcmp(buf2, sig, 8) != 0) {
Serial.println(" error, incorrect read while erasing");
Serial.print(" Read this: ");
printbuf(buf2, 256);
Serial.print(" Expected: ");
printbuf(sig, 256);
return false;
}
Serial.print(" read-while-erasing: ");
printbuf(buf2, 8);
Serial.println(" test passed, good read while erasing");
} else {
Serial.println("Skip Read-While-Erase, this chip is too small");
}
return true;
}
