/*
* Display a Trust Settings array as obtained from
* SecTrustSettingsCopyTrustSettings().
*/
static int displayTrustSettings(
CFArrayRef trustSettings)
{
/* must always be there though it may be empty */
if(trustSettings == NULL) {
fprintf(stderr, "***displayTrustSettings: missing trust settings array");
return -1;
}
if(CFGetTypeID(trustSettings) != CFArrayGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed trust settings array");
return -1;
}
int ourRtn = 0;
CFIndex numUseConstraints = CFArrayGetCount(trustSettings);
indentIncr();
indent(); printf("Number of trust settings : %ld\n", (long)numUseConstraints);
OSStatus ortn;
SecPolicyRef certPolicy;
SecTrustedApplicationRef certApp;
CFDictionaryRef ucDict;
CFStringRef policyStr;
CFNumberRef cfNum;
CFIndex ucDex;
/* grind thru the trust settings dictionaries */
for(ucDex=0; ucDex<numUseConstraints; ucDex++) {
indent(); printf("Trust Setting %ld:\n", (long)ucDex);
indentIncr();
ucDict = (CFDictionaryRef)CFArrayGetValueAtIndex(trustSettings, ucDex);
if(CFGetTypeID(ucDict) != CFDictionaryGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed usage constraints dictionary");
ourRtn = -1;
goto nextAp;
}
/* policy - optional */
certPolicy = (SecPolicyRef)CFDictionaryGetValue(ucDict, kSecTrustSettingsPolicy);
if(certPolicy != NULL) {
if(CFGetTypeID(certPolicy) != SecPolicyGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed certPolicy");
ourRtn = -1;
goto nextAp;
}
CSSM_OID policyOid;
ortn = SecPolicyGetOID(certPolicy, &policyOid);
if(ortn) {
cssmPerror("SecPolicyGetOID", ortn);
ourRtn = -1;
goto nextAp;
}
indent(); printf("Policy OID : %s\n",
oidToOidString(&policyOid));
}
/* app - optional */
certApp = (SecTrustedApplicationRef)CFDictionaryGetValue(ucDict,
kSecTrustSettingsApplication);
if(certApp != NULL) {
if(CFGetTypeID(certApp) != SecTrustedApplicationGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed certApp");
ourRtn = -1;
goto nextAp;
}
CFDataRef appPath = NULL;
ortn = SecTrustedApplicationCopyData(certApp, &appPath);
if(ortn) {
cssmPerror("SecTrustedApplicationCopyData", ortn);
ourRtn = -1;
goto nextAp;
}
indent(); printf("Application : %s", CFDataGetBytePtr(appPath));
printf("\n");
CFRelease(appPath);
}
/* policy string */
policyStr = (CFStringRef)CFDictionaryGetValue(ucDict, kSecTrustSettingsPolicyString);
if(policyStr != NULL) {
if(CFGetTypeID(policyStr) != CFStringGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed policyStr");
ourRtn = -1;
goto nextAp;
}
indent(); printf("Policy String : ");
printCfStr(policyStr); printf("\n");
}
/* Allowed error */
cfNum = (CFNumberRef)CFDictionaryGetValue(ucDict, kSecTrustSettingsAllowedError);
if(cfNum != NULL) {
if(CFGetTypeID(cfNum) != CFNumberGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed allowedError");
ourRtn = -1;
goto nextAp;
}
indent(); printf("Allowed Error : ");
printCssmErr(cfNum); printf("\n");
}
/* ResultType */
cfNum = (CFNumberRef)CFDictionaryGetValue(ucDict, kSecTrustSettingsResult);
if(cfNum != NULL) {
if(CFGetTypeID(cfNum) != CFNumberGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed ResultType");
ourRtn = -1;
goto nextAp;
}
indent(); printf("Result Type : ");
printResultType(cfNum); printf("\n");
}
/* key usage */
cfNum = (CFNumberRef)CFDictionaryGetValue(ucDict, kSecTrustSettingsKeyUsage);
if(cfNum != NULL) {
if(CFGetTypeID(cfNum) != CFNumberGetTypeID()) {
fprintf(stderr, "***displayTrustSettings: malformed keyUsage");
ourRtn = -1;
goto nextAp;
}
indent(); printf("Key Usage : ");
printKeyUsage(cfNum); printf("\n");
}
nextAp:
indentDecr();
}
indentDecr();
return ourRtn;
}
/***********************************************************************
* copy_display_modes
*
* Wrapper around CGDisplayCopyAllDisplayModes() to include additional
* modes on Retina-capable systems, but filter those which would confuse
* Windows apps (basically duplicates at different DPIs).
*
* For example, some Retina Macs support a 1920x1200 mode, but it's not
* returned from CGDisplayCopyAllDisplayModes() without special options.
* This is especially bad if that's the user's default mode, since then
* no "available" mode matches the initial settings.
*/
static CFArrayRef copy_display_modes(CGDirectDisplayID display)
{
CFArrayRef modes = NULL;
#if defined(MAC_OS_X_VERSION_10_8) && MAC_OS_X_VERSION_MAX_ALLOWED >= MAC_OS_X_VERSION_10_8
if (&kCGDisplayShowDuplicateLowResolutionModes != NULL &&
CGDisplayModeGetPixelWidth != NULL && CGDisplayModeGetPixelHeight != NULL)
{
CFDictionaryRef options;
CFMutableDictionaryRef modes_by_size;
CFIndex i, count;
CGDisplayModeRef* mode_array;
options = CFDictionaryCreate(NULL, (const void**)&kCGDisplayShowDuplicateLowResolutionModes,
(const void**)&kCFBooleanTrue, 1, &kCFTypeDictionaryKeyCallBacks,
&kCFTypeDictionaryValueCallBacks);
modes = CGDisplayCopyAllDisplayModes(display, options);
if (options)
CFRelease(options);
if (!modes)
return NULL;
modes_by_size = CFDictionaryCreateMutable(NULL, 0, &kCFTypeDictionaryKeyCallBacks, &kCFTypeDictionaryValueCallBacks);
count = CFArrayGetCount(modes);
for (i = 0; i < count; i++)
{
BOOL better = TRUE;
CGDisplayModeRef new_mode = (CGDisplayModeRef)CFArrayGetValueAtIndex(modes, i);
uint32_t new_flags = CGDisplayModeGetIOFlags(new_mode);
CFStringRef pixel_encoding;
size_t width_points;
size_t height_points;
CFDictionaryRef key;
CGDisplayModeRef old_mode;
if (!(new_flags & kDisplayModeDefaultFlag) && (pixel_encoding = CGDisplayModeCopyPixelEncoding(new_mode)))
{
BOOL bpp30 = CFEqual(pixel_encoding, CFSTR(kIO30BitDirectPixels));
CFRelease(pixel_encoding);
if (bpp30)
{
/* This is an odd pixel encoding. It seems it's only returned
when using kCGDisplayShowDuplicateLowResolutionModes. It's
32bpp in terms of the actual raster layout, but it's 10
bits per component. I think that no Windows program is
likely to need it and they will probably be confused by it.
Skip it. */
continue;
}
}
width_points = CGDisplayModeGetWidth(new_mode);
height_points = CGDisplayModeGetHeight(new_mode);
key = create_mode_dict(new_mode);
old_mode = (CGDisplayModeRef)CFDictionaryGetValue(modes_by_size, key);
if (old_mode)
{
uint32_t old_flags = CGDisplayModeGetIOFlags(old_mode);
/* If a given mode is the user's default, then always list it in preference to any similar
modes that may exist. */
if ((new_flags & kDisplayModeDefaultFlag) && !(old_flags & kDisplayModeDefaultFlag))
better = TRUE;
else if (!(new_flags & kDisplayModeDefaultFlag) && (old_flags & kDisplayModeDefaultFlag))
better = FALSE;
else
{
/* Otherwise, prefer a mode whose pixel size equals its point size over one which
is scaled. */
size_t new_width_pixels = CGDisplayModeGetPixelWidth(new_mode);
size_t new_height_pixels = CGDisplayModeGetPixelHeight(new_mode);
size_t old_width_pixels = CGDisplayModeGetPixelWidth(old_mode);
size_t old_height_pixels = CGDisplayModeGetPixelHeight(old_mode);
BOOL new_size_same = (new_width_pixels == width_points && new_height_pixels == height_points);
BOOL old_size_same = (old_width_pixels == width_points && old_height_pixels == height_points);
if (new_size_same && !old_size_same)
better = TRUE;
else if (!new_size_same && old_size_same)
better = FALSE;
else
{
/* Otherwise, prefer the mode with the smaller pixel size. */
if (old_width_pixels < new_width_pixels || old_height_pixels < new_height_pixels)
better = FALSE;
}
}
}
if (better)
CFDictionarySetValue(modes_by_size, key, new_mode);
CFRelease(key);
}
CFRelease(modes);
count = CFDictionaryGetCount(modes_by_size);
mode_array = HeapAlloc(GetProcessHeap(), 0, count * sizeof(mode_array[0]));
CFDictionaryGetKeysAndValues(modes_by_size, NULL, (const void **)mode_array);
modes = CFArrayCreate(NULL, (const void **)mode_array, count, &kCFTypeArrayCallBacks);
HeapFree(GetProcessHeap(), 0, mode_array);
CFRelease(modes_by_size);
}
else
#endif
modes = CGDisplayCopyAllDisplayModes(display, NULL);
return modes;
}
/***********************************************************************
* EnumDisplaySettingsEx (MACDRV.@)
*
*/
BOOL CDECL macdrv_EnumDisplaySettingsEx(LPCWSTR devname, DWORD mode,
LPDEVMODEW devmode, DWORD flags)
{
static const WCHAR dev_name[CCHDEVICENAME] =
{ 'W','i','n','e',' ','M','a','c',' ','d','r','i','v','e','r',0 };
struct macdrv_display *displays = NULL;
int num_displays;
CGDisplayModeRef display_mode;
int display_mode_bpp;
BOOL synthesized = FALSE;
double rotation;
uint32_t io_flags;
TRACE("%s, %u, %p + %hu, %08x\n", debugstr_w(devname), mode, devmode, devmode->dmSize, flags);
memcpy(devmode->dmDeviceName, dev_name, sizeof(dev_name));
devmode->dmSpecVersion = DM_SPECVERSION;
devmode->dmDriverVersion = DM_SPECVERSION;
devmode->dmSize = FIELD_OFFSET(DEVMODEW, dmICMMethod);
devmode->dmDriverExtra = 0;
memset(&devmode->dmFields, 0, devmode->dmSize - FIELD_OFFSET(DEVMODEW, dmFields));
if (mode == ENUM_REGISTRY_SETTINGS)
{
TRACE("mode %d (registry) -- getting default mode\n", mode);
return read_registry_settings(devmode);
}
if (macdrv_get_displays(&displays, &num_displays))
goto failed;
if (mode == ENUM_CURRENT_SETTINGS)
{
TRACE("mode %d (current) -- getting current mode\n", mode);
display_mode = CGDisplayCopyDisplayMode(displays[0].displayID);
display_mode_bpp = display_mode_bits_per_pixel(display_mode);
}
else
{
DWORD count, i;
EnterCriticalSection(&modes_section);
if (mode == 0 || !modes)
{
if (modes) CFRelease(modes);
modes = copy_display_modes(displays[0].displayID);
modes_has_8bpp = modes_has_16bpp = FALSE;
if (modes)
{
count = CFArrayGetCount(modes);
for (i = 0; i < count && !(modes_has_8bpp && modes_has_16bpp); i++)
{
CGDisplayModeRef mode = (CGDisplayModeRef)CFArrayGetValueAtIndex(modes, i);
int bpp = display_mode_bits_per_pixel(mode);
if (bpp == 8)
modes_has_8bpp = TRUE;
else if (bpp == 16)
modes_has_16bpp = TRUE;
}
}
}
display_mode = NULL;
if (modes)
{
int default_bpp = get_default_bpp();
DWORD seen_modes = 0;
count = CFArrayGetCount(modes);
for (i = 0; i < count; i++)
{
CGDisplayModeRef candidate = (CGDisplayModeRef)CFArrayGetValueAtIndex(modes, i);
io_flags = CGDisplayModeGetIOFlags(candidate);
if (!(flags & EDS_RAWMODE) &&
(!(io_flags & kDisplayModeValidFlag) || !(io_flags & kDisplayModeSafeFlag)))
continue;
seen_modes++;
if (seen_modes > mode)
{
display_mode = (CGDisplayModeRef)CFRetain(candidate);
display_mode_bpp = display_mode_bits_per_pixel(display_mode);
break;
}
/* We only synthesize modes from those having the default bpp. */
if (display_mode_bits_per_pixel(candidate) != default_bpp)
continue;
if (!modes_has_8bpp)
{
seen_modes++;
if (seen_modes > mode)
{
display_mode = (CGDisplayModeRef)CFRetain(candidate);
display_mode_bpp = 8;
synthesized = TRUE;
break;
}
}
if (!modes_has_16bpp)
{
seen_modes++;
if (seen_modes > mode)
{
display_mode = (CGDisplayModeRef)CFRetain(candidate);
display_mode_bpp = 16;
synthesized = TRUE;
break;
}
}
}
}
LeaveCriticalSection(&modes_section);
}
if (!display_mode)
goto failed;
/* We currently only report modes for the primary display, so it's at (0, 0). */
devmode->dmPosition.x = 0;
devmode->dmPosition.y = 0;
devmode->dmFields |= DM_POSITION;
rotation = CGDisplayRotation(displays[0].displayID);
devmode->dmDisplayOrientation = ((int)((rotation / 90) + 0.5)) % 4;
devmode->dmFields |= DM_DISPLAYORIENTATION;
io_flags = CGDisplayModeGetIOFlags(display_mode);
if (io_flags & kDisplayModeStretchedFlag)
devmode->dmDisplayFixedOutput = DMDFO_STRETCH;
else
devmode->dmDisplayFixedOutput = DMDFO_CENTER;
devmode->dmFields |= DM_DISPLAYFIXEDOUTPUT;
devmode->dmBitsPerPel = display_mode_bpp;
if (devmode->dmBitsPerPel)
devmode->dmFields |= DM_BITSPERPEL;
devmode->dmPelsWidth = CGDisplayModeGetWidth(display_mode);
devmode->dmPelsHeight = CGDisplayModeGetHeight(display_mode);
devmode->dmFields |= DM_PELSWIDTH | DM_PELSHEIGHT;
devmode->dmDisplayFlags = 0;
if (io_flags & kDisplayModeInterlacedFlag)
devmode->dmDisplayFlags |= DM_INTERLACED;
devmode->dmFields |= DM_DISPLAYFLAGS;
devmode->dmDisplayFrequency = CGDisplayModeGetRefreshRate(display_mode);
if (!devmode->dmDisplayFrequency)
devmode->dmDisplayFrequency = 60;
devmode->dmFields |= DM_DISPLAYFREQUENCY;
CFRelease(display_mode);
macdrv_free_displays(displays);
TRACE("mode %d -- %dx%dx%dbpp @%d Hz", mode,
devmode->dmPelsWidth, devmode->dmPelsHeight, devmode->dmBitsPerPel,
devmode->dmDisplayFrequency);
if (devmode->dmDisplayOrientation)
TRACE(" rotated %u degrees", devmode->dmDisplayOrientation * 90);
if (devmode->dmDisplayFixedOutput == DMDFO_STRETCH)
TRACE(" stretched");
if (devmode->dmDisplayFlags & DM_INTERLACED)
TRACE(" interlaced");
if (synthesized)
TRACE(" (synthesized)");
TRACE("\n");
return TRUE;
failed:
TRACE("mode %d -- not present\n", mode);
if (displays) macdrv_free_displays(displays);
SetLastError(ERROR_NO_MORE_FILES);
return FALSE;
}
// utility routine to dump device info
void HIDDumpDeviceInfo( IOHIDDeviceRef inIOHIDDeviceRef )
{
char cstring[256];
printf( "Device: %p = { ", inIOHIDDeviceRef );
char manufacturer[256] = ""; // name of manufacturer
CFStringRef tCFStringRef = IOHIDDevice_GetManufacturer( inIOHIDDeviceRef );
if ( tCFStringRef ) {
verify( CFStringGetCString( tCFStringRef, manufacturer, sizeof( manufacturer ), kCFStringEncodingUTF8 ) );
}
char product[256] = ""; // name of product
tCFStringRef = IOHIDDevice_GetProduct( inIOHIDDeviceRef );
if ( tCFStringRef ) {
verify( CFStringGetCString( tCFStringRef, product, sizeof( product ), kCFStringEncodingUTF8 ) );
}
printf( "%s - %s, ", manufacturer, product );
long vendorID = IOHIDDevice_GetVendorID( inIOHIDDeviceRef );
if ( vendorID ) {
#if 1
printf( " vendorID: 0x%04lX, ", vendorID );
#else
if ( HIDGetVendorNameFromVendorID( vendorID, cstring ) ) {
printf( " vendorID: 0x%04lX (\"%s\"), ", vendorID, cstring );
} else {
printf( " vendorID: 0x%04lX, ", vendorID );
}
#endif
}
long productID = IOHIDDevice_GetProductID( inIOHIDDeviceRef );
if ( productID ) {
#if 1
printf( " productID: 0x%04lX, ", productID );
#else
if ( HIDGetProductNameFromVendorProductID( vendorID, productID, cstring ) ) {
printf( " productID: 0x%04lX (\"%s\"), ", productID, cstring );
} else {
printf( " productID: 0x%04lX, ", productID );
}
#endif
}
uint32_t usagePage = IOHIDDevice_GetUsagePage( inIOHIDDeviceRef );
uint32_t usage = IOHIDDevice_GetUsage( inIOHIDDeviceRef );
if ( !usagePage || !usage ) {
usagePage = IOHIDDevice_GetPrimaryUsagePage( inIOHIDDeviceRef );
usage = IOHIDDevice_GetPrimaryUsage( inIOHIDDeviceRef );
}
printf( "usage: 0x%04lX:0x%04lX, ", (long unsigned int) usagePage, (long unsigned int) usage );
#if 1
tCFStringRef = HIDCopyUsageName( usagePage, usage );
if ( tCFStringRef ) {
verify( CFStringGetCString( tCFStringRef, cstring, sizeof( cstring ), kCFStringEncodingUTF8 ) );
printf( "\"%s\", ", cstring );
CFRelease( tCFStringRef );
}
#endif
#if 1
tCFStringRef = IOHIDDevice_GetTransport( inIOHIDDeviceRef );
if ( tCFStringRef ) {
verify( CFStringGetCString( tCFStringRef, cstring, sizeof( cstring ), kCFStringEncodingUTF8 ) );
printf( "Transport: \"%s\", ", cstring );
}
long vendorIDSource = IOHIDDevice_GetVendorIDSource( inIOHIDDeviceRef );
if ( vendorIDSource ) {
printf( "VendorIDSource: %ld, ", vendorIDSource );
}
long version = IOHIDDevice_GetVersionNumber( inIOHIDDeviceRef );
if ( version ) {
printf( "version: %ld, ", version );
}
tCFStringRef = IOHIDDevice_GetSerialNumber( inIOHIDDeviceRef );
if ( tCFStringRef ) {
verify( CFStringGetCString( tCFStringRef, cstring, sizeof( cstring ), kCFStringEncodingUTF8 ) );
printf( "SerialNumber: \"%s\", ", cstring );
}
long country = IOHIDDevice_GetCountryCode( inIOHIDDeviceRef );
if ( country ) {
printf( "CountryCode: %ld, ", country );
}
long locationID = IOHIDDevice_GetLocationID( inIOHIDDeviceRef );
if ( locationID ) {
printf( "locationID: 0x%08lX, ", locationID );
}
#if 0
CFArrayRef pairs = IOHIDDevice_GetUsagePairs( inIOHIDDeviceRef );
if ( pairs ) {
CFIndex idx, cnt = CFArrayGetCount(pairs);
for ( idx = 0; idx < cnt; idx++ ) {
const void * pair = CFArrayGetValueAtIndex(pairs, idx);
CFShow( pair );
}
}
#endif
long maxInputReportSize = IOHIDDevice_GetMaxInputReportSize( inIOHIDDeviceRef );
if ( maxInputReportSize ) {
printf( "MaxInputReportSize: %ld, ", maxInputReportSize );
}
long maxOutputReportSize = IOHIDDevice_GetMaxOutputReportSize( inIOHIDDeviceRef );
if ( maxOutputReportSize ) {
printf( "MaxOutputReportSize: %ld, ", maxOutputReportSize );
}
long maxFeatureReportSize = IOHIDDevice_GetMaxFeatureReportSize( inIOHIDDeviceRef );
if ( maxFeatureReportSize ) {
printf( "MaxFeatureReportSize: %ld, ", maxOutputReportSize );
}
long reportInterval = IOHIDDevice_GetReportInterval( inIOHIDDeviceRef );
if ( reportInterval ) {
printf( "ReportInterval: %ld, ", reportInterval );
}
IOHIDQueueRef queueRef = IOHIDDevice_GetQueue( inIOHIDDeviceRef );
if ( queueRef ) {
printf( "queue: %p, ", queueRef);
}
IOHIDTransactionRef transactionRef = IOHIDDevice_GetTransaction( inIOHIDDeviceRef );
if ( transactionRef ) {
printf( "transaction: %p, ", transactionRef);
}
#endif
printf( "}\n" );
fflush( stdout );
} // HIDDumpDeviceInfo
/*
* Creates a vector of driver bundle info structures from the hot-plug driver
* directory.
*
* Returns NULL on error and a pointer to an allocated HPDriver vector on
* success. The caller must free the HPDriver with a call to
* HPDriversRelease().
*/
static HPDriverVector HPDriversGetFromDirectory(const char *driverBundlePath)
{
int i;
#ifdef DEBUG_HOTPLUG
Log2(PCSC_LOG_DEBUG, "Entering HPDriversGetFromDirectory: %s",
driverBundlePath);
#endif
int readersNumber = 0;
HPDriverVector bundleVector = NULL;
CFArrayRef bundleArray;
CFStringRef driverBundlePathString =
CFStringCreateWithCString(kCFAllocatorDefault,
driverBundlePath,
kCFStringEncodingMacRoman);
CFURLRef pluginUrl = CFURLCreateWithFileSystemPath(kCFAllocatorDefault,
driverBundlePathString,
kCFURLPOSIXPathStyle, TRUE);
CFRelease(driverBundlePathString);
if (!pluginUrl)
{
Log1(PCSC_LOG_ERROR, "error getting plugin directory URL");
return NULL;
}
bundleArray = CFBundleCreateBundlesFromDirectory(kCFAllocatorDefault,
pluginUrl, NULL);
if (!bundleArray)
{
Log1(PCSC_LOG_ERROR, "error getting plugin directory bundles");
return NULL;
}
CFRelease(pluginUrl);
size_t bundleArraySize = CFArrayGetCount(bundleArray);
/* get the number of readers (including aliases) */
for (i = 0; i < bundleArraySize; i++)
{
CFBundleRef currBundle =
(CFBundleRef) CFArrayGetValueAtIndex(bundleArray, i);
CFDictionaryRef dict = CFBundleGetInfoDictionary(currBundle);
const void * blobValue = CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_MANUKEY_NAME));
if (!blobValue)
{
Log1(PCSC_LOG_ERROR, "error getting vendor ID from bundle");
return NULL;
}
if (CFGetTypeID(blobValue) == CFArrayGetTypeID())
{
/* alias found, each reader count as 1 */
CFArrayRef propertyArray = blobValue;
readersNumber += CFArrayGetCount(propertyArray);
}
else
/* No alias, only one reader supported */
readersNumber++;
}
#ifdef DEBUG_HOTPLUG
Log2(PCSC_LOG_DEBUG, "Total of %d readers supported", readersNumber);
#endif
/* The last entry is an end marker (m_vendorId = 0)
* see checks in HPDriversMatchUSBDevices:503
* and HPDriverVectorRelease:376 */
readersNumber++;
bundleVector = (HPDriver *) calloc(readersNumber, sizeof(HPDriver));
if (!bundleVector)
{
Log1(PCSC_LOG_ERROR, "memory allocation failure");
return NULL;
}
HPDriver *driverBundle = bundleVector;
for (i = 0; i < bundleArraySize; i++)
{
CFBundleRef currBundle =
(CFBundleRef) CFArrayGetValueAtIndex(bundleArray, i);
CFDictionaryRef dict = CFBundleGetInfoDictionary(currBundle);
CFURLRef bundleUrl = CFBundleCopyBundleURL(currBundle);
CFStringRef bundlePath = CFURLCopyPath(bundleUrl);
driverBundle->m_libPath = strdup(CFStringGetCStringPtr(bundlePath,
CFStringGetSystemEncoding()));
const void * blobValue = CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_MANUKEY_NAME));
if (!blobValue)
{
Log1(PCSC_LOG_ERROR, "error getting vendor ID from bundle");
return bundleVector;
}
if (CFGetTypeID(blobValue) == CFArrayGetTypeID())
{
CFArrayRef vendorArray = blobValue;
CFArrayRef productArray;
CFArrayRef friendlyNameArray;
char *libPath = driverBundle->m_libPath;
#ifdef DEBUG_HOTPLUG
Log2(PCSC_LOG_DEBUG, "Driver with aliases: %s", libPath);
#endif
/* get list of ProductID */
productArray = CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_PRODKEY_NAME));
if (!productArray)
{
Log1(PCSC_LOG_ERROR, "error getting product ID from bundle");
return bundleVector;
}
/* get list of FriendlyName */
friendlyNameArray = CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_NAMEKEY_NAME));
if (!friendlyNameArray)
{
Log1(PCSC_LOG_ERROR, "error getting product ID from bundle");
return bundleVector;
}
int reader_nb = CFArrayGetCount(vendorArray);
if (reader_nb != CFArrayGetCount(productArray))
{
Log3(PCSC_LOG_ERROR,
"Malformed Info.plist: %d vendors and %d products",
reader_nb, CFArrayGetCount(productArray));
return bundleVector;
}
if (reader_nb != CFArrayGetCount(friendlyNameArray))
{
Log3(PCSC_LOG_ERROR,
"Malformed Info.plist: %d vendors and %d friendlynames",
reader_nb, CFArrayGetCount(friendlyNameArray));
return bundleVector;
}
int j;
for (j=0; j<reader_nb; j++)
{
CFStringRef strValue = CFArrayGetValueAtIndex(vendorArray, j);
driverBundle->m_vendorId = strtoul(CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding()), NULL, 16);
strValue = CFArrayGetValueAtIndex(productArray, j);
driverBundle->m_productId = strtoul(CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding()), NULL, 16);
strValue = CFArrayGetValueAtIndex(friendlyNameArray, j);
const char *cstr = CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding());
driverBundle->m_friendlyName = strdup(cstr);
if (!driverBundle->m_libPath)
driverBundle->m_libPath = strdup(libPath);
#ifdef DEBUG_HOTPLUG
Log2(PCSC_LOG_DEBUG, "VendorID: 0x%04X",
driverBundle->m_vendorId);
Log2(PCSC_LOG_DEBUG, "ProductID: 0x%04X",
driverBundle->m_productId);
Log2(PCSC_LOG_DEBUG, "Friendly name: %s",
driverBundle->m_friendlyName);
Log2(PCSC_LOG_DEBUG, "Driver: %s", driverBundle->m_libPath);
#endif
/* go to next bundle in the vector */
driverBundle++;
}
}
else
{
CFStringRef strValue = blobValue;
#ifdef DEBUG_HOTPLUG
Log3(PCSC_LOG_DEBUG, "Driver without alias: %s",
driverBundle, driverBundle->m_libPath);
#endif
driverBundle->m_vendorId = strtoul(CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding()), NULL, 16);
strValue = (CFStringRef) CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_PRODKEY_NAME));
if (!strValue)
{
Log1(PCSC_LOG_ERROR, "error getting product ID from bundle");
return bundleVector;
}
driverBundle->m_productId = strtoul(CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding()), NULL, 16);
strValue = (CFStringRef) CFDictionaryGetValue(dict,
CFSTR(PCSCLITE_HP_NAMEKEY_NAME));
if (!strValue)
{
Log1(PCSC_LOG_ERROR, "error getting product friendly name from bundle");
driverBundle->m_friendlyName = strdup("unnamed device");
}
else
{
const char *cstr = CFStringGetCStringPtr(strValue,
CFStringGetSystemEncoding());
driverBundle->m_friendlyName = strdup(cstr);
}
#ifdef DEBUG_HOTPLUG
Log2(PCSC_LOG_DEBUG, "VendorID: 0x%04X", driverBundle->m_vendorId);
Log2(PCSC_LOG_DEBUG, "ProductID: 0x%04X", driverBundle->m_productId);
Log2(PCSC_LOG_DEBUG, "Friendly name: %s", driverBundle->m_friendlyName);
Log2(PCSC_LOG_DEBUG, "Driver: %s", driverBundle->m_libPath);
#endif
/* go to next bundle in the vector */
driverBundle++;
}
}
CFRelease(bundleArray);
return bundleVector;
}
__private_extern__ CFArrayRef _CFPreferencesCreateDomainList(CFStringRef userName, CFStringRef hostName) {
CFAllocatorRef prefAlloc = __CFPreferencesAllocator();
CFArrayRef domains;
CFMutableArrayRef marray;
CFStringRef *cachedDomainKeys;
CFPreferencesDomainRef *cachedDomains;
SInt32 idx, cnt;
CFStringRef suffix;
UInt32 suffixLen;
CFURLRef prefDir = _preferencesDirectoryForUserHost(userName, hostName);
if (!prefDir) {
return NULL;
}
if (hostName == kCFPreferencesAnyHost) {
suffix = CFStringCreateWithCString(prefAlloc, ".plist", kCFStringEncodingASCII);
} else if (hostName == kCFPreferencesCurrentHost) {
CFStringRef hostID = _CFPreferencesGetByHostIdentifierString();
suffix = CFStringCreateWithFormat(prefAlloc, NULL, CFSTR(".%@.plist"), hostID);
} else {
suffix = CFStringCreateWithFormat(prefAlloc, NULL, CFSTR(".%@.plist"), hostName); // sketchy - this allows someone to create a domain list for an arbitrary hostname.
}
suffixLen = CFStringGetLength(suffix);
domains = (CFArrayRef)CFURLCreatePropertyFromResource(prefAlloc, prefDir, kCFURLFileDirectoryContents, NULL);
CFRelease(prefDir);
if (domains){
marray = CFArrayCreateMutableCopy(prefAlloc, 0, domains);
CFRelease(domains);
} else {
marray = CFArrayCreateMutable(prefAlloc, 0, & kCFTypeArrayCallBacks);
}
for (idx = CFArrayGetCount(marray)-1; idx >= 0; idx --) {
CFURLRef url = (CFURLRef)CFArrayGetValueAtIndex(marray, idx);
CFStringRef string = CFURLCopyFileSystemPath(url, kCFURLPOSIXPathStyle);
if (!CFStringHasSuffix(string, suffix)) {
CFArrayRemoveValueAtIndex(marray, idx);
} else {
CFStringRef dom = CFStringCreateWithSubstring(prefAlloc, string, CFRangeMake(0, CFStringGetLength(string) - suffixLen));
if (CFEqual(dom, CFSTR(".GlobalPreferences"))) {
CFArraySetValueAtIndex(marray, idx, kCFPreferencesAnyApplication);
} else {
CFArraySetValueAtIndex(marray, idx, dom);
}
CFRelease(dom);
}
CFRelease(string);
}
CFRelease(suffix);
// Now add any domains added in the cache; delete any that have been deleted in the cache
__CFSpinLock(&domainCacheLock);
if (!domainCache) {
__CFSpinUnlock(&domainCacheLock);
return marray;
}
cnt = CFDictionaryGetCount(domainCache);
cachedDomainKeys = (CFStringRef *)CFAllocatorAllocate(prefAlloc, 2 * cnt * sizeof(CFStringRef), 0);
cachedDomains = (CFPreferencesDomainRef *)(cachedDomainKeys + cnt);
CFDictionaryGetKeysAndValues(domainCache, (const void **)cachedDomainKeys, (const void **)cachedDomains);
__CFSpinUnlock(&domainCacheLock);
suffix = _CFPreferencesCachePrefixForUserHost(userName, hostName);
suffixLen = CFStringGetLength(suffix);
for (idx = 0; idx < cnt; idx ++) {
CFStringRef domainKey = cachedDomainKeys[idx];
CFPreferencesDomainRef domain = cachedDomains[idx];
CFStringRef domainName;
CFIndex keyCount = 0;
if (!CFStringHasPrefix(domainKey, suffix)) continue;
domainName = CFStringCreateWithSubstring(prefAlloc, domainKey, CFRangeMake(suffixLen, CFStringGetLength(domainKey) - suffixLen));
if (CFEqual(domainName, CFSTR("*"))) {
CFRelease(domainName);
domainName = (CFStringRef)CFRetain(kCFPreferencesAnyApplication);
} else if (CFEqual(domainName, kCFPreferencesCurrentApplication)) {
CFRelease(domainName);
domainName = (CFStringRef)CFRetain(_CFProcessNameString());
}
CFDictionaryRef d = _CFPreferencesDomainDeepCopyDictionary(domain);
keyCount = d ? CFDictionaryGetCount(d) : 0;
if (keyCount) CFRelease(d);
if (keyCount == 0) {
// Domain was deleted
SInt32 firstIndexOfValue = CFArrayGetFirstIndexOfValue(marray, CFRangeMake(0, CFArrayGetCount(marray)), domainName);
if (0 <= firstIndexOfValue) {
CFArrayRemoveValueAtIndex(marray, firstIndexOfValue);
}
} else if (!CFArrayContainsValue(marray, CFRangeMake(0, CFArrayGetCount(marray)), domainName)) {
CFArrayAppendValue(marray, domainName);
}
CFRelease(domainName);
}
CFRelease(suffix);
CFAllocatorDeallocate(prefAlloc, cachedDomainKeys);
return marray;
}
// get the first element of device passed in as parameter
// returns NULL if no list exists or device does not exists or is NULL
IOHIDElementRef HIDGetFirstDeviceElement( IOHIDDeviceRef inIOHIDDeviceRef, HIDElementTypeMask typeMask )
{
IOHIDElementRef result = NULL;
if ( inIOHIDDeviceRef ) {
assert( IOHIDDeviceGetTypeID() == CFGetTypeID( inIOHIDDeviceRef ) );
gElementCFArrayRef = IOHIDDeviceCopyMatchingElements( inIOHIDDeviceRef, NULL, kIOHIDOptionsTypeNone );
if ( gElementCFArrayRef ) {
CFIndex idx, cnt = CFArrayGetCount( gElementCFArrayRef );
for ( idx = 0; idx < cnt; idx++ ) {
IOHIDElementRef tIOHIDElementRef = ( IOHIDElementRef ) CFArrayGetValueAtIndex( gElementCFArrayRef, idx );
if ( !tIOHIDElementRef ) {
continue;
}
IOHIDElementType type = IOHIDElementGetType( tIOHIDElementRef );
switch ( type ) {
case kIOHIDElementTypeInput_Misc:
case kIOHIDElementTypeInput_Button:
case kIOHIDElementTypeInput_Axis:
case kIOHIDElementTypeInput_ScanCodes:
{
if ( typeMask & kHIDElementTypeInput ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeOutput:
{
if ( typeMask & kHIDElementTypeOutput ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeFeature:
{
if ( typeMask & kHIDElementTypeFeature ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeCollection:
{
if ( typeMask & kHIDElementTypeCollection ) {
result = tIOHIDElementRef;
}
break;
}
} // switch ( type )
if ( result ) {
break; // DONE!
}
} // next idx
CFRelease( gElementCFArrayRef );
gElementCFArrayRef = NULL;
} // if ( gElementCFArrayRef )
} // if ( inIOHIDDeviceRef )
return result;
} /* HIDGetFirstDeviceElement */
void wxHIDJoystick::MakeCookies(CFArrayRef Array)
{
int i, nUsage, nPage;
for (i = 0; i < CFArrayGetCount(Array); ++i)
{
const void* ref = CFDictionaryGetValue(
(CFDictionaryRef)CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementKey)
);
if (ref != NULL)
{
MakeCookies((CFArrayRef) ref);
}
else
{
CFNumberGetValue(
(CFNumberRef)
CFDictionaryGetValue(
(CFDictionaryRef) CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementUsageKey)
),
kCFNumberIntType,
&nUsage );
CFNumberGetValue(
(CFNumberRef)
CFDictionaryGetValue(
(CFDictionaryRef) CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementUsagePageKey)
),
kCFNumberIntType,
&nPage );
#if 0
wxLogSysError(wxT("[%i][%i]"), nUsage, nPage);
#endif
if (nPage == kHIDPage_Button && nUsage <= 40)
AddCookieInQueue(CFArrayGetValueAtIndex(Array, i), nUsage-1 );
else if (nPage == kHIDPage_GenericDesktop)
{
//axis...
switch(nUsage)
{
case kHIDUsage_GD_X:
AddCookieInQueue(CFArrayGetValueAtIndex(Array, i), wxJS_AXIS_X);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMaxKey),
&m_nXMax);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMinKey),
&m_nXMin);
break;
case kHIDUsage_GD_Y:
AddCookieInQueue(CFArrayGetValueAtIndex(Array, i), wxJS_AXIS_Y);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMaxKey),
&m_nYMax);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMinKey),
&m_nYMin);
break;
case kHIDUsage_GD_Z:
AddCookieInQueue(CFArrayGetValueAtIndex(Array, i), wxJS_AXIS_Z);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMaxKey),
&m_nZMax);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMinKey),
&m_nZMin);
break;
default:
break;
}
}
else if (nPage == kHIDPage_Simulation && nUsage == kHIDUsage_Sim_Rudder)
{
//rudder...
AddCookieInQueue(CFArrayGetValueAtIndex(Array, i), wxJS_AXIS_RUDDER );
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMaxKey),
&m_nRudderMax);
wxGetIntFromCFDictionary(CFArrayGetValueAtIndex(Array, i),
CFSTR(kIOHIDElementMinKey),
&m_nRudderMin);
}
}
}
}
int OnBattery (void)
{
#if defined (__APPLE__)
/* The following copyright applies to the battery detection code below. I did modify */
/* substantially as it did far more than I needed. */
/* Copyright (c) 2003 Thomas Runge ([email protected])
* Mach and Darwin specific code is Copyright (c) 2006 Eric Pooch ([email protected])
*
* 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 author 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.
*/
CFTypeRef blob = IOPSCopyPowerSourcesInfo();
CFArrayRef sources = IOPSCopyPowerSourcesList(blob);
int i, acstat;
CFDictionaryRef pSource = NULL;
const void *psValue;
acstat = TRUE;
for(i = 0; i < CFArrayGetCount(sources); i++)
{
pSource = IOPSGetPowerSourceDescription(blob, CFArrayGetValueAtIndex(sources, i));
if(!pSource) break;
psValue = (CFStringRef)CFDictionaryGetValue(pSource, CFSTR(kIOPSNameKey));
if (CFDictionaryGetValueIfPresent(pSource, CFSTR(kIOPSIsPresentKey), &psValue) && (CFBooleanGetValue(psValue) > 0))
{
psValue = (CFStringRef)CFDictionaryGetValue(pSource, CFSTR(kIOPSPowerSourceStateKey));
if (CFStringCompare(psValue,CFSTR(kIOPSBatteryPowerValue),0)==kCFCompareEqualTo)
{
/* We are running on a battery power source. */
acstat = FALSE;
}
}
}
CFRelease(blob);
CFRelease(sources);
return(!acstat);
#elif defined (__linux__)
FILE *fd;
char buf[180];
int ac_state;
ac_state = -1;
fd = fopen ("/sys/class/power_supply/AC/online", "r");
if (fd != NULL) {
fscanf (fd, "%d", &ac_state);
fclose (fd);
return (ac_state == 0);
}
fd = fopen ("/proc/acpi/battery/BAT0/state", "r");
if (fd != NULL) {
while (fgets (buf, sizeof (buf), fd) != NULL) {
char *p;
p = strstr (buf, "charging state:");
if (p == NULL) continue;
if (strstr (p+14, "discharging") != NULL) ac_state = 0;
else if (strstr (p+14, "charging") != NULL) ac_state = 1;
else if (strstr (p+14, "charged") != NULL) ac_state = 1;
}
fclose (fd);
}
return (ac_state == 0);
#else
return (FALSE); /* Assume we're on AC power */
#endif
}
CFDataRef APCreateHashFromDictionary(CFDictionaryRef dict)
{
__block CFErrorRef error = NULL;
__block SecTransformRef hashFunction = NULL;
void(^cleanup)(void) = ^(void) {
if (error != NULL) {
CFShow(error);
CFRelease(error);
error = NULL;
}
if (hashFunction != NULL) {
CFRelease(hashFunction);
hashFunction = NULL;
}
};
// Get the number of elements
CFIndex count = CFDictionaryGetCount(dict);
// Load the keys and build up the key array
CFMutableArrayRef keyArray = CFArrayCreateMutable(kCFAllocatorDefault, count, NULL);
CFStringRef keys[count];
CFDictionaryGetKeysAndValues(dict, (const void**)&keys, NULL);
for (int idx = 0; idx < count; idx++)
{
// Skip the signature key
if (CFStringCompare(keys[idx], CFSTR("Signature"), 0) == kCFCompareEqualTo) {
continue;
}
CFArrayAppendValue(keyArray, keys[idx]);
}
// Sort the array
CFStringCompareFlags context = kCFCompareCaseInsensitive;
CFArraySortValues(keyArray, CFRangeMake(0, count-1), (CFComparatorFunction)CFStringCompare, (void*)context);
// Build the data
CFMutableDataRef dictData = CFDataCreateMutable(kCFAllocatorDefault, 0);
int keyCount = CFArrayGetCount(keyArray);
for (int keyIndex = 0; keyIndex < keyCount; keyIndex++)
{
CFStringRef key = CFArrayGetValueAtIndex(keyArray, keyIndex);
CFStringRef value = CFDictionaryGetValue(dict, key);
CFDataRef valueData = CFStringCreateExternalRepresentation(kCFAllocatorDefault,
value,
kCFStringEncodingUTF8,
0);
const UInt8 *valueBuffer = CFDataGetBytePtr(valueData);
CFDataAppendBytes(dictData, valueBuffer, CFDataGetLength(valueData));
CFRelease(valueData);
}
// Hash the data
hashFunction = SecDigestTransformCreate(kSecDigestSHA1, 0, &error);
if (error != NULL) {
CFRelease(dictData);
cleanup();
return NULL;
}
SecTransformSetAttribute(hashFunction,
kSecTransformInputAttributeName,
dictData,
&error);
CFDataRef hashData = SecTransformExecute(hashFunction, &error);
CFRelease(dictData);
if (error != NULL) {
cleanup();
if (hashData) {
CFRelease(hashData);
}
return NULL;
}
cleanup();
return hashData;
}
Boolean APSetKey(CFStringRef key)
{
hash = CFSTR("");
blacklist = CFArrayCreateMutable(kCFAllocatorDefault, 0, &kCFTypeArrayCallBacks);
CFMutableStringRef mutableKey = CFStringCreateMutableCopy(kCFAllocatorDefault, 0, key);
CFStringRef preparedKey = CFStringCreateMutableCopy(kCFAllocatorDefault, 0, key);
CFLocaleRef currentLocale = CFLocaleCopyCurrent();
CFStringLowercase(mutableKey, currentLocale);
CFRelease(currentLocale);
if (CFStringHasPrefix(mutableKey, CFSTR("0x")) && CFStringGetLength(mutableKey) > 2)
{
CFStringDelete(mutableKey, CFRangeMake(0, 2));
}
if (CFStringGetLength(mutableKey) == 1024/8*2)
{
CFRelease(preparedKey);
preparedKey = APPEMKeyCreateFromHexKey(mutableKey);
}
CFRelease(mutableKey);
SecItemImportExportKeyParameters params = {0};
params.version = SEC_KEY_IMPORT_EXPORT_PARAMS_VERSION;
params.flags = kSecKeyNoAccessControl;
SecExternalItemType itemType = kSecItemTypePublicKey;
SecExternalFormat externalFormat = kSecFormatPEMSequence;
CFArrayRef tempArray = NULL;
OSStatus oserr = noErr;
// Set the key as extractable. Looking through the source code in SecImportExportUtils.cpp
// it looks like this isn't handled, yet it seems to be documented to me. One day the code
// may catch up, so I'm leaving this here to show the intention.
CFNumberRef attributeFlags[1];
uint32 flag0value = CSSM_KEYATTR_EXTRACTABLE;
CFNumberRef flag0 = CFNumberCreate(kCFAllocatorDefault, kCFNumberIntType, &flag0value);
attributeFlags[0] = flag0;
CFArrayRef keyAttributes = CFArrayCreate(kCFAllocatorDefault, (const void **)attributeFlags, 1, &kCFTypeArrayCallBacks);
CFRelease(flag0);
params.keyAttributes = keyAttributes;
CFDataRef keyData = CFStringCreateExternalRepresentation(kCFAllocatorDefault, preparedKey, kCFStringEncodingUTF8, 0);
CFRelease(preparedKey);
oserr = SecItemImport(keyData,
NULL,
&externalFormat,
&itemType,
0,
¶ms,
NULL,
&tempArray);
CFRelease(keyAttributes);
CFRelease(keyData);
if (oserr != noErr) {
CFStringRef errorString = CFStringCreateWithFormat(kCFAllocatorDefault, NULL, CFSTR("Unable to import key. Error %d"), oserr);
CFShow(errorString);
CFRelease(errorString);
return FALSE;
}
publicKeyRef = (SecKeyRef)CFArrayGetValueAtIndex(tempArray, 0);
CFRetain(publicKeyRef);
CFRelease(tempArray);
return TRUE;
}
int Printer_print (void (*draw) (void *boss, Graphics g), void *boss) {
#if defined (UNIX)
structMelderFile tempFile = { 0 };
char tempPath_utf8 [] = "/tmp/picXXXXXX";
close (mkstemp (tempPath_utf8));
Melder_pathToFile (Melder_peekUtf8ToWcs (tempPath_utf8), & tempFile);
thePrinter. graphics = Graphics_create_postscriptjob (& tempFile, thePrinter. resolution,
thePrinter. spots, thePrinter. paperSize, thePrinter. orientation, thePrinter. magnification);
if (! thePrinter. graphics) return Melder_error1 (L"Cannot create temporary PostScript file for printing.");
draw (boss, thePrinter. graphics);
forget (thePrinter. graphics);
char command [500];
sprintf (command, Melder_peekWcsToUtf8 (Site_getPrintCommand ()), tempPath_utf8);
system (command);
MelderFile_delete (& tempFile);
#elif defined (_WIN32)
int postScriptCode = POSTSCRIPT_PASSTHROUGH;
DOCINFO docInfo;
DEVMODE *devMode;
initPrinter ();
if (! theWinPrint. hDevMode) {
memset (& theWinPrint, 0, sizeof (PRINTDLG));
theWinPrint. lStructSize = sizeof (PRINTDLG);
theWinPrint. Flags = PD_RETURNDEFAULT;
if (! PrintDlg (& theWinPrint)) return Melder_error1 (L"Cannot initialize printer.");
}
if (Melder_backgrounding) {
theWinPrint. Flags = PD_RETURNDEFAULT | PD_RETURNDC;
if (! PrintDlg (& theWinPrint) || theWinPrint. hDC == NULL) {
return Melder_error1 (L"Cannot print from a script on this computer.");
}
} else {
theWinPrint. Flags &= ~ PD_RETURNDEFAULT;
theWinPrint. Flags |= PD_RETURNDC;
if (! PrintDlg (& theWinPrint)) return 1;
}
theWinDC = theWinPrint. hDC;
thePrinter. postScript = thePrinter. allowDirectPostScript &&
Escape (theWinDC, QUERYESCSUPPORT, sizeof (int), (LPSTR) & postScriptCode, NULL);
/*
* The HP colour inkjet printer returns in dmFields:
* 0, 1, 8, 9, 10, 11, 12, 13, 14, 15, 23, 24, 25, 26 = DM_ORIENTATION |
* DM_PAPERSIZE | DM_COPIES | DM_DEFAULTSOURCE | DM_PRINTQUALITY |
* DM_COLOR | DM_DUPLEX | DM_YRESOLUTION | DM_TTOPTION | DM_COLLATE |
* DM_ICMMETHOD | DM_ICMINTENT | DM_MEDIATYPE | DM_DITHERTYPE
*/
devMode = * (DEVMODE **) theWinPrint. hDevMode;
thePrinter. resolution = devMode -> dmFields & DM_YRESOLUTION ? devMode -> dmYResolution :
devMode -> dmFields & DM_PRINTQUALITY ?
( devMode -> dmPrintQuality > 0 ? devMode -> dmPrintQuality : 300 ) : 300;
if (devMode -> dmFields & DM_PAPERWIDTH) {
thePrinter. paperWidth = devMode -> dmPaperWidth * thePrinter. resolution / 254;
thePrinter. paperHeight = devMode -> dmPaperLength * thePrinter. resolution / 254;
} else if (devMode -> dmFields & DM_PAPERSIZE) {
static struct { float width, height; } sizes [] = { { 0, 0 }, { 8.5, 11 }, { 8.5, 11 }, { 11, 17 },
{ 17, 11 }, { 8.5, 14 }, { 5.5, 8.5 }, { 7.25, 10.5 }, { 297/25.4, 420/25.4 },
{ 210/25.4, 297/25.4 }, { 210/25.4, 297/25.4 }, { 148.5/25.4, 210/25.4 },
{ 250/25.4, 354/25.4 }, { 182/25.4, 257/25.4 }, { 8.5, 13 },
{ 215/25.4, 275/25.4 }, { 10, 14 }, { 11, 17 }, { 8.5, 11 }, { 3.875, 8.875 },
{ 4.125, 9.5 }, { 4.5, 10.375 } };
int paperSize = devMode -> dmPaperSize;
if (paperSize <= 0 || paperSize > 21) paperSize = 1;
thePrinter. paperWidth = sizes [paperSize]. width * thePrinter. resolution;
thePrinter. paperHeight = sizes [paperSize]. height * thePrinter. resolution;
if (devMode -> dmOrientation == DMORIENT_LANDSCAPE) {
long dummy = thePrinter. paperWidth;
thePrinter. paperWidth = thePrinter. paperHeight;
thePrinter. paperHeight = dummy;
}
} else {
thePrinter. paperWidth = 1000;
thePrinter. paperHeight = 1000;
}
EnableWindow ((HWND) XtWindow (theCurrentPraatApplication -> topShell), FALSE);
SetAbortProc (theWinDC, AbortFunc);
memset (& docInfo, 0, sizeof (DOCINFO));
docInfo. cbSize = sizeof (DOCINFO);
docInfo. lpszDocName = L"Praatjes";
docInfo. lpszOutput = NULL;
if (thePrinter. postScript) {
StartDoc (theWinDC, & docInfo);
StartPage (theWinDC);
initPostScriptPage ();
thePrinter. graphics = Graphics_create_postscriptprinter ();
if (! thePrinter. graphics) return Melder_error1 (L"Cannot open printer.");
draw (boss, thePrinter. graphics);
forget (thePrinter. graphics);
exitPostScriptPage ();
EndPage (theWinDC);
EndDoc (theWinDC);
} else {
StartDoc (theWinDC, & docInfo);
StartPage (theWinDC);
thePrinter. graphics = Graphics_create_screenPrinter (NULL, (unsigned long) theWinDC);
if (! thePrinter. graphics) return Melder_error1 (L"Cannot open printer.");
draw (boss, thePrinter. graphics);
forget (thePrinter. graphics);
if (EndPage (theWinDC) < 0) {
Melder_error1 (L"Cannot print page.");
} else {
EndDoc (theWinDC);
}
}
EnableWindow ((HWND) XtWindow (theCurrentPraatApplication -> topShell), TRUE);
DeleteDC (theWinDC), theWinDC = NULL;
#elif defined (macintosh)
Boolean result;
initPrinter ();
if (Melder_backgrounding) {
PMSessionValidatePageFormat (theMacPrintSession, theMacPageFormat, & result);
PMSessionValidatePrintSettings (theMacPrintSession, theMacPrintSettings, & result);
} else {
Boolean accepted;
PMSessionPrintDialog (theMacPrintSession, theMacPrintSettings, theMacPageFormat, & accepted);
if (! accepted) return 1; /* Normal cancelled return. */
}
PMSessionValidatePageFormat (theMacPrintSession, theMacPageFormat, & result);
PMSessionValidatePrintSettings (theMacPrintSession, theMacPrintSettings, & result);
PMResolution res;
PMGetResolution (theMacPageFormat, & res);
thePrinter. resolution = res. hRes;
PMGetAdjustedPaperRect (theMacPageFormat, & paperSize);
thePrinter. paperWidth = paperSize. right - paperSize. left;
thePrinter. paperHeight = paperSize. bottom - paperSize. top;
Boolean isPostScriptDriver = FALSE;
//PMSessionIsDocumentFormatSupported (theMacPrintSession,
// kPMDocumentFormatPICTPS, & isPostScriptDriver);
CFArrayRef supportedFormats;
PMSessionGetDocumentFormatGeneration (theMacPrintSession, & supportedFormats);
CFIndex numberOfSupportedFormats = CFArrayGetCount (supportedFormats);
if (Melder_debug == 21) {
MelderInfo_open ();
MelderInfo_writeLine1 (L"Supported document formats:");
}
for (CFIndex i = 0; i < numberOfSupportedFormats; i ++) {
CFStringRef supportedFormat = CFArrayGetValueAtIndex (supportedFormats, i);
if (CFStringCompare (supportedFormat, kPMDocumentFormatPICTPS, 0) == 0) {
isPostScriptDriver = TRUE;
}
if (Melder_debug == 21) {
MelderInfo_writeLine3 (Melder_integer (i), L": ",
Melder_peekUtf8ToWcs (CFStringGetCStringPtr (supportedFormat, kCFStringEncodingUTF8)));
}
}
if (Melder_debug == 21) {
MelderInfo_close ();
}
CFRelease (supportedFormats);
isPostScriptDriver = FALSE; // OVERRIDE, because from 10.4 on we have something better: we'll be sending PDF
thePrinter. postScript = thePrinter. allowDirectPostScript && isPostScriptDriver;
if (thePrinter. postScript) {
CFStringRef strings [1];
strings [0] = kPMGraphicsContextQuickdraw;
CFArrayRef array = CFArrayCreate (kCFAllocatorDefault, (const void **) strings, 1, & kCFTypeArrayCallBacks);
OSStatus err = PMSessionSetDocumentFormatGeneration (theMacPrintSession, kPMDocumentFormatPICTPS, array, NULL);
CFRelease (array);
if (err != 0) {
return Melder_error2 (L"PMSessionSetDocumentFormatGeneration: error ", Melder_integer (err));
}
}
PMOrientation orientation;
PMGetOrientation (theMacPageFormat, & orientation);
thePrinter. orientation = orientation == kPMLandscape ||
orientation == kPMReverseLandscape ? kGraphicsPostscript_orientation_LANDSCAPE : kGraphicsPostscript_orientation_PORTRAIT;
PMSessionBeginDocument (theMacPrintSession, theMacPrintSettings, theMacPageFormat);
PMSessionBeginPage (theMacPrintSession, theMacPageFormat, NULL);
PMSessionGetGraphicsContext (theMacPrintSession, kPMGraphicsContextQuickdraw, (void **) & theMacPort);
/*
* On PostScript, the point (0, 0) is the bottom left corner of the paper, which is fine.
* On the screen, however, the point (0, 0) is the top left corner of the writable page.
* Since we want paper-related margins, not writable-page-related margins,
* we require that this point gets the coordinates (250, 258) or so,
* so that the top left corner of the paper gets coordinates (0, 0).
* The "left" and "top" attributes of rPaper are negative values (e.g. -250 and -258),
* so multiply them by -1.
*
* Under Carbon, the port has to be set inside the page.
*/
SetPort (theMacPort);
if (! thePrinter. postScript) SetOrigin (- paperSize. left, - paperSize. top);
if (thePrinter. postScript) {
if (! openPostScript ()) error1 (L"Cannot print PostScript.")
thePrinter. graphics = Graphics_create_postscriptprinter ();
if (! thePrinter. graphics) goto end;
draw (boss, thePrinter. graphics);
forget (thePrinter. graphics);
closePostScript ();
} else {
thePrinter. graphics = Graphics_create_screenPrinter (NULL, (unsigned long) theMacPort);
draw (boss, thePrinter. graphics);
forget (thePrinter. graphics);
}
end:
if (theMacPort) {
PMSessionEndPage (theMacPrintSession);
PMSessionEndDocument (theMacPrintSession);
theMacPort = NULL;
}
#endif
iferror return 0;
return 1;
}
CFStringRef CFUserNotificationGetResponseValue(CFUserNotificationRef userNotification, CFStringRef key, CFIndex idx) {
CHECK_FOR_FORK();
CFStringRef retval = NULL;
CFTypeRef value = NULL;
if (userNotification && userNotification->_responseDictionary) {
value = CFDictionaryGetValue(userNotification->_responseDictionary, key);
if (CFGetTypeID(value) == CFStringGetTypeID()) {
if (0 == idx) retval = (CFStringRef)value;
} else if (CFGetTypeID(value) == CFArrayGetTypeID()) {
if (0 <= idx && idx < CFArrayGetCount((CFArrayRef)value)) retval = (CFStringRef)CFArrayGetValueAtIndex((CFArrayRef)value, idx);
}
}
return retval;
}
QList<QNetworkProxy> macQueryInternal(const QNetworkProxyQuery &query)
{
QList<QNetworkProxy> result;
// obtain a dictionary to the proxy settings:
CFDictionaryRef dict = SCDynamicStoreCopyProxies(NULL);
if (!dict) {
qWarning("QNetworkProxyFactory::systemProxyForQuery: SCDynamicStoreCopyProxies returned NULL");
return result; // failed
}
if (isHostExcluded(dict, query.peerHostName())) {
CFRelease(dict);
return result; // no proxy for this host
}
// is there a PAC enabled? If so, use it first.
CFNumberRef pacEnabled;
if ((pacEnabled = (CFNumberRef)CFDictionaryGetValue(dict, kSCPropNetProxiesProxyAutoConfigEnable))) {
int enabled;
if (CFNumberGetValue(pacEnabled, kCFNumberIntType, &enabled) && enabled) {
// PAC is enabled
// kSCPropNetProxiesProxyAutoConfigURLString returns the URL string
// as entered in the system proxy configuration dialog
CFStringRef pacLocationSetting = (CFStringRef)CFDictionaryGetValue(dict, kSCPropNetProxiesProxyAutoConfigURLString);
QCFType<CFStringRef> cfPacLocation = CFURLCreateStringByAddingPercentEscapes(kCFAllocatorDefault, pacLocationSetting, NULL, NULL,
kCFStringEncodingUTF8);
if (QSysInfo::MacintoshVersion >= QSysInfo::MV_10_5) {
QCFType<CFDataRef> pacData;
QCFType<CFURLRef> pacUrl = CFURLCreateWithString(kCFAllocatorDefault, cfPacLocation, NULL);
if (!pacUrl) {
qWarning("Invalid PAC URL \"%s\"", qPrintable(QCFString::toQString(cfPacLocation)));
return result;
}
SInt32 errorCode;
if (!CFURLCreateDataAndPropertiesFromResource(kCFAllocatorDefault, pacUrl, &pacData, NULL, NULL, &errorCode)) {
QString pacLocation = QCFString::toQString(cfPacLocation);
qWarning("Unable to get the PAC script at \"%s\" (%s)", qPrintable(pacLocation), cfurlErrorDescription(errorCode));
return result;
}
if (!pacData) {
qWarning("\"%s\" returned an empty PAC script", qPrintable(QCFString::toQString(cfPacLocation)));
return result;
}
QCFType<CFStringRef> pacScript = CFStringCreateFromExternalRepresentation(kCFAllocatorDefault, pacData, kCFStringEncodingISOLatin1);
if (!pacScript) {
// This should never happen, but the documentation says it may return NULL if there was a problem creating the object.
QString pacLocation = QCFString::toQString(cfPacLocation);
qWarning("Unable to read the PAC script at \"%s\"", qPrintable(pacLocation));
return result;
}
QByteArray encodedURL = query.url().toEncoded(); // converted to UTF-8
if (encodedURL.isEmpty()) {
return result; // Invalid URL, abort
}
QCFType<CFURLRef> targetURL = CFURLCreateWithBytes(kCFAllocatorDefault, (UInt8*)encodedURL.data(), encodedURL.size(), kCFStringEncodingUTF8, NULL);
if (!targetURL) {
return result; // URL creation problem, abort
}
QCFType<CFErrorRef> pacError;
QCFType<CFArrayRef> proxies = CFNetworkCopyProxiesForAutoConfigurationScript(pacScript, targetURL, &pacError);
if (!proxies) {
QString pacLocation = QCFString::toQString(cfPacLocation);
QCFType<CFStringRef> pacErrorDescription = CFErrorCopyDescription(pacError);
qWarning("Execution of PAC script at \"%s\" failed: %s", qPrintable(pacLocation), qPrintable(QCFString::toQString(pacErrorDescription)));
return result;
}
CFIndex size = CFArrayGetCount(proxies);
for (CFIndex i = 0; i < size; ++i) {
CFDictionaryRef proxy = (CFDictionaryRef)CFArrayGetValueAtIndex(proxies, i);
result << proxyFromDictionary(proxy);
}
return result;
} else {
QString pacLocation = QCFString::toQString(cfPacLocation);
qWarning("Mac system proxy: PAC script at \"%s\" not handled", qPrintable(pacLocation));
}
}
}
// no PAC, decide which proxy we're looking for based on the query
bool isHttps = false;
QString protocol = query.protocolTag().toLower();
// try the protocol-specific proxy
QNetworkProxy protocolSpecificProxy;
if (protocol == QLatin1String("ftp")) {
protocolSpecificProxy =
proxyFromDictionary(dict, QNetworkProxy::FtpCachingProxy,
kSCPropNetProxiesFTPEnable,
kSCPropNetProxiesFTPProxy,
kSCPropNetProxiesFTPPort);
} else if (protocol == QLatin1String("http")) {
protocolSpecificProxy =
proxyFromDictionary(dict, QNetworkProxy::HttpProxy,
kSCPropNetProxiesHTTPEnable,
kSCPropNetProxiesHTTPProxy,
kSCPropNetProxiesHTTPPort);
} else if (protocol == QLatin1String("https")) {
isHttps = true;
protocolSpecificProxy =
proxyFromDictionary(dict, QNetworkProxy::HttpProxy,
kSCPropNetProxiesHTTPSEnable,
kSCPropNetProxiesHTTPSProxy,
kSCPropNetProxiesHTTPSPort);
}
if (protocolSpecificProxy.type() != QNetworkProxy::DefaultProxy)
result << protocolSpecificProxy;
// let's add SOCKSv5 if present too
QNetworkProxy socks5 = proxyFromDictionary(dict, QNetworkProxy::Socks5Proxy,
kSCPropNetProxiesSOCKSEnable,
kSCPropNetProxiesSOCKSProxy,
kSCPropNetProxiesSOCKSPort);
if (socks5.type() != QNetworkProxy::DefaultProxy)
result << socks5;
// let's add the HTTPS proxy if present (and if we haven't added
// yet)
if (!isHttps) {
QNetworkProxy https = proxyFromDictionary(dict, QNetworkProxy::HttpProxy,
kSCPropNetProxiesHTTPSEnable,
kSCPropNetProxiesHTTPSProxy,
kSCPropNetProxiesHTTPSPort);
if (https.type() != QNetworkProxy::DefaultProxy && https != protocolSpecificProxy)
result << https;
}
CFRelease(dict);
return result;
}
static bool
switchPartition(char * diskName, char * partitionType)
{
char wholeDevicePath[256];
sprintf(wholeDevicePath, "/dev/%s", diskName);
unsigned int partitionNumber = 0;
char * c = wholeDevicePath + 5 + 4; // skip over "/dev/disk"
while (*c != 's' && *c++); // look for 's'
if (*c == 's') {
*c = 0; // clip off remainder
sscanf(c+1, "%u", &partitionNumber); // get partition number
}
if (!partitionNumber) return true; // just assume it is a raid disk
#define LIVERAID
#ifdef LIVERAID
char * optionString = "<dict> <key>Writable</key> <true/> <key>Shared Writer</key> <true/></dict>";
#else
char * optionString = "<dict> <key>Writable</key> <true/> </dict>";
#endif
CFDictionaryRef options = IOCFUnserialize(optionString, kCFAllocatorDefault, 0, NULL);
if (!options) exit(1);
int32_t err;
MKMediaRef device = MKMediaCreateWithPath(nil, wholeDevicePath, options, &err);
CFRelease(options);
if (!device || err) return false;
options = NULL;
MKStatus err2;
CFMutableDictionaryRef media = MKCFReadMedia(options, device, &err2);
if (!media || err2) goto Failure;
// find and extract the 'Schemes' array
CFMutableArrayRef Schemes = (CFMutableArrayRef) CFDictionaryGetValue(media, CFSTR("Schemes"));
if (!Schemes) goto Failure;
// DMTool just grabs the first "default" scheme, so do the same
CFMutableDictionaryRef Scheme = (CFMutableDictionaryRef) CFArrayGetValueAtIndex(Schemes, 0);
if (!Scheme) goto Failure;
// Then find and extract the 'Sections' array of that scheme:
CFMutableArrayRef Sections = (CFMutableArrayRef) CFDictionaryGetValue(Scheme, CFSTR("Sections"));
if (!Sections) goto Failure;
// Every scheme can have multiple sections to it, we need to find the 'MAP' section:
CFMutableDictionaryRef Section = (CFMutableDictionaryRef) CFArrayDictionarySearch(Sections, CFSTR("ID"), CFSTR("MAP"));
if (!Section) goto Failure;
// Then find and extract the 'Partitions' array of that section:
CFMutableArrayRef Partitions = (CFMutableArrayRef) CFDictionaryGetValue(Section, CFSTR("Partitions"));
if (!Partitions) goto Failure;
CFNumberRef partitionIndex = CFNumberCreate(nil, kCFNumberSInt32Type, &partitionNumber);
if (!partitionIndex) goto Failure;
CFMutableDictionaryRef Partition = (CFMutableDictionaryRef) CFArrayDictionarySearch(Partitions, CFSTR("Partition ID"), partitionIndex);
if (!Partition) goto Failure;
// change the partition type (finally!)
CFStringRef Type = CFStringCreateWithCString(nil, partitionType, kCFStringEncodingUTF8);
if (!Type) goto Failure;
CFDictionarySetValue(Partition, CFSTR("Type"), Type);
CFMutableDictionaryRef woptions = CFDictionaryCreateMutable(kCFAllocatorDefault,
2,
&kCFTypeDictionaryKeyCallBacks,
&kCFTypeDictionaryValueCallBacks);
if (!woptions) goto Failure;
CFDictionarySetValue(woptions, CFSTR("Retain existing content"), kCFBooleanTrue);
CFDictionarySetValue(woptions, CFSTR("Direct Mode"), kCFBooleanTrue);
err2 = MKCFWriteMedia(media, nil, nil, woptions, device);
MKCFDisposeMedia(media);
CFRelease(woptions);
CFRelease(device);
return !err2;
Failure:
if (media) MKCFDisposeMedia(media);
if (device) CFRelease(device);
return false;
}
/* Reads certificates from the list of known locations into store. Stops when
* any location contains any certificates, to prevent spending unnecessary time
* adding redundant certificates, e.g. when both a certificate bundle and
* individual certificates exist in the same directory.
*/
static void read_trusted_roots_from_known_locations(HCERTSTORE store)
{
HCERTSTORE from = CertOpenStore(CERT_STORE_PROV_MEMORY,
X509_ASN_ENCODING, 0, CERT_STORE_CREATE_NEW_FLAG, NULL);
if (from)
{
DWORD i;
BOOL ret = FALSE;
#ifdef __APPLE__
OSStatus status;
CFArrayRef rootCerts;
KeychainExportFunc exportFunc = NULL;
#ifdef HAVE_DLFCN_H
/* SecKeychainItemExport is deprecated on OS X 10.7, replaced by SecItemExport.
* Since their parameters match, we can simply get the function pointer.
*/
exportFunc = dlsym(RTLD_DEFAULT, "SecItemExport");
if (exportFunc == NULL)
{
exportFunc = dlsym(RTLD_DEFAULT, "SecKeychainItemExport");
if (exportFunc == NULL)
WARN("unable to load a keychain export function: root certificates not loaded from Keychain\n");
else
TRACE("using SecKeychainItemExport()\n");
}
else
TRACE("using SecItemExport()\n");
#else
exportFunc = SecKeychainItemExport;
#endif
status = SecTrustCopyAnchorCertificates(&rootCerts);
if (status == noErr && exportFunc != NULL)
{
int i;
for (i = 0; i < CFArrayGetCount(rootCerts); i++)
{
SecCertificateRef cert = (SecCertificateRef)CFArrayGetValueAtIndex(rootCerts, i);
CFDataRef certData;
if ((status = exportFunc(cert, kSecFormatX509Cert, 0, NULL, &certData)) == noErr)
{
if (CertAddEncodedCertificateToStore(store, X509_ASN_ENCODING,
CFDataGetBytePtr(certData), CFDataGetLength(certData),
CERT_STORE_ADD_NEW, NULL))
ret = TRUE;
else
WARN("adding root cert %d failed: %08x\n", i, GetLastError());
CFRelease(certData);
}
else
WARN("could not export certificate %d to X509 format: 0x%08x\n", i, (unsigned int)status);
}
CFRelease(rootCerts);
}
#endif
for (i = 0; !ret &&
i < sizeof(CRYPT_knownLocations) / sizeof(CRYPT_knownLocations[0]);
i++)
ret = import_certs_from_path(CRYPT_knownLocations[i], from, TRUE);
check_and_store_certs(from, store);
}
CertCloseStore(from, 0);
}
static void
createSet(char * levelCString, char * nameCString, int argc, char* argv[])
{
if (!levelCString || !nameCString || argc < 2) {
usage();
exit(1);
}
CFStringRef level = CFStringCreateWithCString(kCFAllocatorDefault, levelCString, kCFStringEncodingUTF8);
CFStringRef name = CFStringCreateWithCString(kCFAllocatorDefault, nameCString, kCFStringEncodingUTF8);
if (!level || !name) exit(1);
// get list of available raid set descriptions
CFMutableArrayRef descriptionArray = AppleRAIDGetSetDescriptions();
CFIndex dCount = CFArrayGetCount(descriptionArray);
CFIndex dIndex = 0;
CFStringRef dLevel = 0;
for (dIndex = 0; dIndex < dCount; dIndex++) {
CFMutableDictionaryRef setDescription = (CFMutableDictionaryRef)CFArrayGetValueAtIndex(descriptionArray, dIndex);
dLevel = (CFStringRef)CFDictionaryGetValue(setDescription, CFSTR(kAppleRAIDLevelNameKey));
if (!dLevel) break;
if (CFStringCompare(dLevel, level, kCFCompareCaseInsensitive) == kCFCompareEqualTo) break;
dLevel = 0;
}
if (dLevel == 0) {
printf("raid level \"%s\" is not valid?.\n", levelCString);
exit(1);
}
CFMutableDictionaryRef setInfo = AppleRAIDCreateSet(dLevel, name);
if (!setInfo) exit(1);
char **firstPartition = argv;
int partitionCount = argc;
while (argc--) {
printf("adding partition \"%s\"\n", *argv);
CFStringRef partitionName = CFStringCreateWithCString(kCFAllocatorDefault, *argv, kCFStringEncodingUTF8);
AppleRAIDMemberRef member = AppleRAIDAddMember(setInfo, partitionName, CFSTR(kAppleRAIDMembersKey));
if (!member) {
printf("there was problem adding partition \"%s\"\n", *argv);
exit(1);
}
CFShow(member);
bool success = switchPartition(*argv, kRAID_OFFLINE);
if (!success) {
printf("switching the partition on \"%s\" to %s FAILED.\n", *argv, kRAID_OFFLINE);
exit(1);
}
argv++;
}
if (autoRebuild == AUTO_YES) AppleRAIDModifySet(setInfo, CFSTR(kAppleRAIDSetAutoRebuildKey), (void *)kCFBooleanTrue);
if (quickRebuild == AUTO_YES) AppleRAIDModifySet(setInfo, CFSTR(kAppleRAIDSetQuickRebuildKey), (void *)kCFBooleanTrue);
if (blockSize) {
CFNumberRef blockSizeCF = CFNumberCreate(kCFAllocatorDefault, kCFNumberSInt64Type, &blockSize);
if (blockSizeCF) AppleRAIDModifySet(setInfo, CFSTR(kAppleRAIDChunkSizeKey), (void *)blockSizeCF);
}
if (hint) {
CFStringRef hintCF = CFStringCreateWithCString(kCFAllocatorDefault, hint, kCFStringEncodingUTF8);
if (hintCF) AppleRAIDModifySet(setInfo, CFSTR(kAppleRAIDSetContentHintKey), (void *)hintCF);
}
if (timeout) {
CFNumberRef timeoutCF = CFNumberCreate(kCFAllocatorDefault, kCFNumberSInt64Type, &timeout);
if (timeoutCF) AppleRAIDModifySet(setInfo, CFSTR(kAppleRAIDSetTimeoutKey), (void *)timeoutCF);
}
printf("creating the set \"%s\".\n", nameCString);
AppleRAIDSetRef set = AppleRAIDUpdateSet(setInfo);
CFPrintf(CFSTR("created set %@\n"), set);
CFRelease(setInfo);
if (!set) {
printf("something went wrong creating the set\n");
exit(0);
}
while (partitionCount--) {
printf("switching the partition on \"%s\" to %s.\n", *firstPartition, kRAID_ONLINE);
bool success = switchPartition(*firstPartition, kRAID_ONLINE);
if (!success) {
printf("switching the partition on \"%s\" to %s FAILED.\n", *firstPartition, kRAID_ONLINE);
exit(1);
}
firstPartition++;
}
// at this point the code should wait for notifications that members and the set are available
}
launch_data_t GTMLaunchDataCreateFromCFType(CFTypeRef cf_type_ref,
CFErrorRef *error) {
launch_data_t result = NULL;
CFErrorRef local_error = NULL;
if (cf_type_ref == NULL) {
local_error = GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("NULL CFType"));
goto exit;
}
CFTypeID cf_type = CFGetTypeID(cf_type_ref);
if (cf_type == CFStringGetTypeID()) {
CFIndex length = CFStringGetLength(cf_type_ref);
CFIndex max_length
= CFStringGetMaximumSizeForEncoding(length, kCFStringEncodingUTF8) + 1;
char *buffer = calloc(max_length, sizeof(char));
size_t buffer_size = max_length * sizeof(char);
if (buffer) {
if (CFStringGetCString(cf_type_ref,
buffer,
buffer_size,
kCFStringEncodingUTF8)) {
result = launch_data_alloc(LAUNCH_DATA_STRING);
launch_data_set_string(result, buffer);
} else {
local_error
= GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("CFStringGetCString failed %@"),
cf_type_ref);
}
free(buffer);
} else {
local_error = GTMCFLaunchCreateUnlocalizedError(ENOMEM,
CFSTR("calloc of %lu failed"),
(unsigned long)buffer_size);
}
} else if (cf_type == CFBooleanGetTypeID()) {
result = launch_data_alloc(LAUNCH_DATA_BOOL);
launch_data_set_bool(result, CFBooleanGetValue(cf_type_ref));
} else if (cf_type == CFArrayGetTypeID()) {
CFIndex count = CFArrayGetCount(cf_type_ref);
result = launch_data_alloc(LAUNCH_DATA_ARRAY);
for (CFIndex i = 0; i < count; i++) {
CFTypeRef array_value = CFArrayGetValueAtIndex(cf_type_ref, i);
if (array_value) {
launch_data_t launch_value
= GTMLaunchDataCreateFromCFType(array_value, &local_error);
if (local_error) break;
launch_data_array_set_index(result, launch_value, i);
}
}
} else if (cf_type == CFDictionaryGetTypeID()) {
result = launch_data_alloc(LAUNCH_DATA_DICTIONARY);
GTMCFToLDictContext context = { result, &local_error };
CFDictionaryApplyFunction(cf_type_ref,
GTMConvertCFDictEntryToLaunchDataDictEntry,
&context);
} else if (cf_type == CFDataGetTypeID()) {
result = launch_data_alloc(LAUNCH_DATA_OPAQUE);
launch_data_set_opaque(result,
CFDataGetBytePtr(cf_type_ref),
CFDataGetLength(cf_type_ref));
} else if (cf_type == CFNumberGetTypeID()) {
CFNumberType cf_number_type = CFNumberGetType(cf_type_ref);
switch (cf_number_type) {
case kCFNumberSInt8Type:
case kCFNumberSInt16Type:
case kCFNumberSInt32Type:
case kCFNumberSInt64Type:
case kCFNumberCharType:
case kCFNumberShortType:
case kCFNumberIntType:
case kCFNumberLongType:
case kCFNumberLongLongType:
case kCFNumberCFIndexType:
case kCFNumberNSIntegerType:{
long long value;
if (CFNumberGetValue(cf_type_ref, kCFNumberLongLongType, &value)) {
result = launch_data_alloc(LAUNCH_DATA_INTEGER);
launch_data_set_integer(result, value);
} else {
local_error
= GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("Unknown to convert: %@"),
cf_type_ref);
}
break;
}
case kCFNumberFloat32Type:
case kCFNumberFloat64Type:
case kCFNumberFloatType:
case kCFNumberDoubleType:
case kCFNumberCGFloatType: {
double value;
if (CFNumberGetValue(cf_type_ref, kCFNumberDoubleType, &value)) {
result = launch_data_alloc(LAUNCH_DATA_REAL);
launch_data_set_real(result, value);
} else {
local_error
= GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("Unknown to convert: %@"),
cf_type_ref);
}
break;
}
default:
local_error
= GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("Unknown CFNumberType %lld"),
(long long)cf_number_type);
break;
}
} else {
local_error
= GTMCFLaunchCreateUnlocalizedError(EINVAL,
CFSTR("Unknown CFTypeID %lu"),
(unsigned long)cf_type);
}
exit:
if (error) {
*error = local_error;
} else if (local_error) {
#ifdef DEBUG
CFShow(local_error);
#endif // DEBUG
CFRelease(local_error);
}
return result;
}
QVariant
QMacPasteboard::retrieveData(const QString &format, QVariant::Type) const
{
if (!paste)
return QVariant();
sync();
ItemCount cnt = 0;
if(PasteboardGetItemCount(paste, &cnt) || !cnt)
return QByteArray();
#ifdef DEBUG_PASTEBOARD
qDebug("Pasteboard: retrieveData [%s]", qPrintable(format));
#endif
const QList<QMacPasteboardMime *> mimes = QMacPasteboardMime::all(mime_type);
for(int mime = 0; mime < mimes.size(); ++mime) {
QMacPasteboardMime *c = mimes.at(mime);
QString c_flavor = c->flavorFor(format);
if(!c_flavor.isEmpty()) {
// Handle text/plain a little differently. Try handling Unicode first.
bool checkForUtf16 = (c_flavor == QLatin1String("com.apple.traditional-mac-plain-text")
|| c_flavor == QLatin1String("public.utf8-plain-text"));
if (checkForUtf16 || c_flavor == QLatin1String("public.utf16-plain-text")) {
// Try to get the NSStringPboardType from NSPasteboard, newlines are mapped
// correctly (as '\n') in this data. The 'public.utf16-plain-text' type
// usually maps newlines to '\r' instead.
QString str = qt_mac_get_pasteboardString(paste);
if (!str.isEmpty())
return str;
}
if (checkForUtf16 && hasFlavor(QLatin1String("public.utf16-plain-text")))
c_flavor = QLatin1String("public.utf16-plain-text");
QVariant ret;
QList<QByteArray> retList;
for(uint index = 1; index <= cnt; ++index) {
PasteboardItemID id;
if(PasteboardGetItemIdentifier(paste, index, &id) != noErr)
continue;
QCFType<CFArrayRef> types;
if(PasteboardCopyItemFlavors(paste, id, &types ) != noErr)
continue;
const int type_count = CFArrayGetCount(types);
for(int i = 0; i < type_count; ++i) {
CFStringRef flavor = static_cast<CFStringRef>(CFArrayGetValueAtIndex(types, i));
if(c_flavor == QCFString::toQString(flavor)) {
QCFType<CFDataRef> macBuffer;
if(PasteboardCopyItemFlavorData(paste, id, flavor, &macBuffer) == noErr) {
QByteArray buffer((const char *)CFDataGetBytePtr(macBuffer), CFDataGetLength(macBuffer));
if(!buffer.isEmpty()) {
#ifdef DEBUG_PASTEBOARD
qDebug(" - %s [%s] (%s)", qPrintable(format), qPrintable(QCFString::toQString(flavor)), qPrintable(c->convertorName()));
#endif
buffer.detach(); //detach since we release the macBuffer
retList.append(buffer);
break; //skip to next element
}
}
} else {
#ifdef DEBUG_PASTEBOARD
qDebug(" - NoMatch %s [%s] (%s)", qPrintable(c_flavor), qPrintable(QCFString::toQString(flavor)), qPrintable(c->convertorName()));
#endif
}
}
}
if (!retList.isEmpty()) {
ret = c->convertToMime(format, retList, c_flavor);
return ret;
}
}
}
return QVariant();
}
extern pascal OSStatus MoreSCCreateCCLArray(CFArrayRef *result, CFIndex *indexOfDefaultCCL)
// See comment in header.
{
OSStatus err;
CFMutableArrayRef localResult;
UInt32 domainIndex;
FSRef folderRef;
static const SInt16 kFolderDomains[] = {kUserDomain, kNetworkDomain, kLocalDomain, kSystemDomain, 0};
assert( result != NULL);
assert(*result == NULL);
// Create an array containing the names of the CCLs from the Modem Scripts
// folder in each domain.
localResult = NULL;
err = CFQArrayCreateMutable(&localResult);
if (err == noErr) {
UInt32 scannedFolders;
scannedFolders = 0;
domainIndex = 0;
do {
err = FSFindFolder(kFolderDomains[domainIndex], kModemScriptsFolderType, false, &folderRef);
if (err != noErr) {
// If we can't find the folder in this domain, just ignore the domain.
err = noErr;
} else {
scannedFolders += 1;
// If we found the folder, add each CCL in it to the array.
err = AddCCLsInFolderToArray(&folderRef, localResult);
}
domainIndex += 1;
} while (err == noErr && kFolderDomains[domainIndex] != 0);
// Testing reveals that under certain circumstances, the above loop
// will never find any folders. The specific case I saw was on
// Mac OS 9.1 with CarbonLib 1.6 when running the application off
// the non-boot volume. So, if FSFindFolder never returns any
// folders in the domains we looped over above, let's do it the old
// way and call FSFindFolder with kOnSystemDisk.
//
// I didn't file a bug against FSFindFolder because traditional Mac OS
// bugs are no longer being fixed at this time.
// -- Quinn, 10 Dec 2002
if ( (err == noErr) && (scannedFolders == 0) ) {
if (FSFindFolder(kOnSystemDisk, kModemScriptsFolderType, false, &folderRef) == noErr) {
err = AddCCLsInFolderToArray(&folderRef, localResult);
}
}
}
// Sort the resulting array and delete any duplicates.
if (err == noErr) {
CFIndex cursor;
CFArraySortValues(localResult, CFRangeMake(0, CFArrayGetCount(localResult)),
(CFComparatorFunction) CFStringCompare, (void *) kMyStringCompareOptions);
cursor = 1;
while (cursor < CFArrayGetCount(localResult)) {
if ( CFEqual(CFArrayGetValueAtIndex(localResult, cursor), CFArrayGetValueAtIndex(localResult, cursor - 1)) ) {
CFArrayRemoveValueAtIndex(localResult, cursor);
} else {
cursor += 1;
}
}
}
// Find the index of the default CCL (or use the first CCL if the default
// isn't found). The array is already sorted for user presentation, so
// we can use CFArrayBSearchValues rather than searching by hand. This
// might even be a relevant speed increase because the number of CCLs can
// range into the hundreds.
if (err == noErr && indexOfDefaultCCL != NULL) {
CFStringRef defaultCCLName;
CFIndex itemIndex;
if (gDefaultCCL == NULL) {
defaultCCLName = CFSTR("Apple Internal 56K Modem (v.90)");
} else {
defaultCCLName = gDefaultCCL;
}
itemIndex = CFArrayBSearchValues(localResult, CFRangeMake(0, CFArrayGetCount(localResult)),
defaultCCLName,
(CFComparatorFunction) CFStringCompare, (void *) kMyStringCompareOptions);
// itemIndex is either:
//
// o pointing directly at the correct element, if an exact match is found, or
//
// o if no exact match is found, pointing after the element that's immediately
// less than defaultCCLName
//
// So, to confirm that we have the default script we check that the item is in
// bounds and that its value matches defaultCCLName. If either of these
// checks fails, we return the index of the first CCL.
if ( (itemIndex < CFArrayGetCount(localResult))
&& (CFStringCompare(defaultCCLName,
(CFStringRef) CFArrayGetValueAtIndex(localResult, itemIndex),
kMyStringCompareOptions) == kCFCompareEqualTo)) {
*indexOfDefaultCCL = itemIndex;
} else {
*indexOfDefaultCCL = 0;
}
}
// Clean up.
if (err != noErr) {
CFQRelease(localResult);
localResult = NULL;
}
*result = localResult;
assert( (err == noErr) == (*result != NULL) );
assert( (err != noErr) // either we got an error
|| (indexOfDefaultCCL == NULL) // or the user didn't ask for the default CCL
|| (CFArrayGetCount(*result) == 0) // or there are no CCLs
|| (*indexOfDefaultCCL >= 0 && *indexOfDefaultCCL < CFArrayGetCount(*result)) );
// or the default CCL we're returning is in bounds
return err;
}
// get next element of given device in list given current element as parameter
// will walk down each collection then to next element or collection (depthwise traverse)
// returns NULL if end of list
// uses mask of HIDElementTypeMask to restrict element found
// use kHIDElementTypeIO to get previous HIDGetNextDeviceElement functionality
IOHIDElementRef HIDGetNextDeviceElement( IOHIDElementRef inIOHIDElementRef, HIDElementTypeMask typeMask )
{
IOHIDElementRef result = NULL;
if ( inIOHIDElementRef ) {
assert( IOHIDElementGetTypeID() == CFGetTypeID( inIOHIDElementRef ) );
IOHIDDeviceRef tIOHIDDeviceRef = IOHIDElementGetDevice( inIOHIDElementRef );
if ( tIOHIDDeviceRef ) {
Boolean found = FALSE;
gElementCFArrayRef = IOHIDDeviceCopyMatchingElements( tIOHIDDeviceRef, NULL, kIOHIDOptionsTypeNone );
if ( gElementCFArrayRef ) {
CFIndex idx, cnt = CFArrayGetCount( gElementCFArrayRef );
for ( idx = 0; idx < cnt; idx++ ) {
IOHIDElementRef tIOHIDElementRef = ( IOHIDElementRef ) CFArrayGetValueAtIndex( gElementCFArrayRef, idx );
if ( !tIOHIDElementRef ) {
continue;
}
if ( !found ) {
if ( inIOHIDElementRef == tIOHIDElementRef ) {
found = TRUE;
}
continue; // next element
} else {
// we've found the current element; now find the next one of the right type
IOHIDElementType type = IOHIDElementGetType( tIOHIDElementRef );
switch ( type ) {
case kIOHIDElementTypeInput_Misc:
case kIOHIDElementTypeInput_Button:
case kIOHIDElementTypeInput_Axis:
case kIOHIDElementTypeInput_ScanCodes:
{
if ( typeMask & kHIDElementTypeInput ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeOutput:
{
if ( typeMask & kHIDElementTypeOutput ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeFeature:
{
if ( typeMask & kHIDElementTypeFeature ) {
result = tIOHIDElementRef;
}
break;
}
case kIOHIDElementTypeCollection:
{
if ( typeMask & kHIDElementTypeCollection ) {
result = tIOHIDElementRef;
}
break;
}
} // switch ( type )
if ( result ) {
break; // DONE!
}
} // if ( !found )
} // next idx
CFRelease( gElementCFArrayRef );
gElementCFArrayRef = NULL;
} // if ( gElementCFArrayRef )
} // if ( inIOHIDDeviceRef )
} // if ( inIOHIDElementRef )
return result;
} /* HIDGetNextDeviceElement */
static QVariant qtValue(CFPropertyListRef cfvalue)
{
if (!cfvalue)
return QVariant();
CFTypeID typeId = CFGetTypeID(cfvalue);
/*
Sorted grossly from most to least frequent type.
*/
if (typeId == CFStringGetTypeID()) {
return QSettingsPrivate::stringToVariant(QCFString::toQString(static_cast<CFStringRef>(cfvalue)));
} else if (typeId == CFNumberGetTypeID()) {
CFNumberRef cfnumber = static_cast<CFNumberRef>(cfvalue);
if (CFNumberIsFloatType(cfnumber)) {
double d;
CFNumberGetValue(cfnumber, kCFNumberDoubleType, &d);
return d;
} else {
int i;
qint64 ll;
if (CFNumberGetValue(cfnumber, kCFNumberIntType, &i))
return i;
CFNumberGetValue(cfnumber, kCFNumberLongLongType, &ll);
return ll;
}
} else if (typeId == CFArrayGetTypeID()) {
CFArrayRef cfarray = static_cast<CFArrayRef>(cfvalue);
QList<QVariant> list;
CFIndex size = CFArrayGetCount(cfarray);
bool metNonString = false;
for (CFIndex i = 0; i < size; ++i) {
QVariant value = qtValue(CFArrayGetValueAtIndex(cfarray, i));
if (value.type() != QVariant::String)
metNonString = true;
list << value;
}
if (metNonString)
return list;
else
return QVariant(list).toStringList();
} else if (typeId == CFBooleanGetTypeID()) {
return (bool)CFBooleanGetValue(static_cast<CFBooleanRef>(cfvalue));
} else if (typeId == CFDataGetTypeID()) {
CFDataRef cfdata = static_cast<CFDataRef>(cfvalue);
return QByteArray(reinterpret_cast<const char *>(CFDataGetBytePtr(cfdata)),
CFDataGetLength(cfdata));
} else if (typeId == CFDictionaryGetTypeID()) {
CFDictionaryRef cfdict = static_cast<CFDictionaryRef>(cfvalue);
CFTypeID arrayTypeId = CFArrayGetTypeID();
int size = (int)CFDictionaryGetCount(cfdict);
QVarLengthArray<CFPropertyListRef> keys(size);
QVarLengthArray<CFPropertyListRef> values(size);
CFDictionaryGetKeysAndValues(cfdict, keys.data(), values.data());
QMultiMap<QString, QVariant> map;
for (int i = 0; i < size; ++i) {
QString key = QCFString::toQString(static_cast<CFStringRef>(keys[i]));
if (CFGetTypeID(values[i]) == arrayTypeId) {
CFArrayRef cfarray = static_cast<CFArrayRef>(values[i]);
CFIndex arraySize = CFArrayGetCount(cfarray);
for (CFIndex j = arraySize - 1; j >= 0; --j)
map.insert(key, qtValue(CFArrayGetValueAtIndex(cfarray, j)));
} else {
map.insert(key, qtValue(values[i]));
}
}
return map;
} else if (typeId == CFDateGetTypeID()) {
QDateTime dt;
dt.setTime_t((uint)kCFAbsoluteTimeIntervalSince1970);
return dt.addSecs((int)CFDateGetAbsoluteTime(static_cast<CFDateRef>(cfvalue)));
}
return QVariant();
}
/* Resolve IPv4/IPv6 address */
PJ_DEF(pj_status_t) pj_getaddrinfo(int af, const pj_str_t *nodename,
unsigned *count, pj_addrinfo ai[])
{
#if defined(PJ_SOCK_HAS_GETADDRINFO) && PJ_SOCK_HAS_GETADDRINFO!=0
char nodecopy[PJ_MAX_HOSTNAME];
pj_bool_t has_addr = PJ_FALSE;
unsigned i;
#if defined(PJ_GETADDRINFO_USE_CFHOST) && PJ_GETADDRINFO_USE_CFHOST!=0
CFStringRef hostname;
CFHostRef hostRef;
pj_status_t status = PJ_SUCCESS;
#else
int rc;
struct addrinfo hint, *res, *orig_res;
#endif
PJ_ASSERT_RETURN(nodename && count && *count && ai, PJ_EINVAL);
PJ_ASSERT_RETURN(nodename->ptr && nodename->slen, PJ_EINVAL);
PJ_ASSERT_RETURN(af==PJ_AF_INET || af==PJ_AF_INET6 ||
af==PJ_AF_UNSPEC, PJ_EINVAL);
/* Check if nodename is IP address */
pj_bzero(&ai[0], sizeof(ai[0]));
if ((af==PJ_AF_INET || af==PJ_AF_UNSPEC) &&
pj_inet_pton(PJ_AF_INET, nodename,
&ai[0].ai_addr.ipv4.sin_addr) == PJ_SUCCESS)
{
af = PJ_AF_INET;
has_addr = PJ_TRUE;
} else if ((af==PJ_AF_INET6 || af==PJ_AF_UNSPEC) &&
pj_inet_pton(PJ_AF_INET6, nodename,
&ai[0].ai_addr.ipv6.sin6_addr) == PJ_SUCCESS)
{
af = PJ_AF_INET6;
has_addr = PJ_TRUE;
}
if (has_addr) {
pj_str_t tmp;
tmp.ptr = ai[0].ai_canonname;
pj_strncpy_with_null(&tmp, nodename, PJ_MAX_HOSTNAME);
ai[0].ai_addr.addr.sa_family = (pj_uint16_t)af;
*count = 1;
return PJ_SUCCESS;
}
/* Copy node name to null terminated string. */
if (nodename->slen >= PJ_MAX_HOSTNAME)
return PJ_ENAMETOOLONG;
pj_memcpy(nodecopy, nodename->ptr, nodename->slen);
nodecopy[nodename->slen] = '\0';
#if defined(PJ_GETADDRINFO_USE_CFHOST) && PJ_GETADDRINFO_USE_CFHOST!=0
hostname = CFStringCreateWithCStringNoCopy(kCFAllocatorDefault, nodecopy,
kCFStringEncodingASCII,
kCFAllocatorNull);
hostRef = CFHostCreateWithName(kCFAllocatorDefault, hostname);
if (CFHostStartInfoResolution(hostRef, kCFHostAddresses, nil)) {
CFArrayRef addrRef = CFHostGetAddressing(hostRef, nil);
i = 0;
if (addrRef != nil) {
CFIndex idx, naddr;
naddr = CFArrayGetCount(addrRef);
for (idx = 0; idx < naddr && i < *count; idx++) {
struct sockaddr *addr;
addr = (struct sockaddr *)
CFDataGetBytePtr(CFArrayGetValueAtIndex(addrRef, idx));
/* This should not happen. */
pj_assert(addr);
/* Ignore unwanted address families */
if (af!=PJ_AF_UNSPEC && addr->sa_family != af)
continue;
/* Store canonical name */
pj_ansi_strcpy(ai[i].ai_canonname, nodecopy);
/* Store address */
PJ_ASSERT_ON_FAIL(sizeof(*addr) <= sizeof(pj_sockaddr),
continue);
pj_memcpy(&ai[i].ai_addr, addr, sizeof(*addr));
PJ_SOCKADDR_RESET_LEN(&ai[i].ai_addr);
i++;
}
}
*count = i;
} else {
void printKextInfo(CFDictionaryRef kextInfo, KextstatArgs * toolArgs)
{
CFBooleanRef isKernelComponent = NULL; // do not release
CFNumberRef loadTag = NULL; // do not release
CFNumberRef retainCount = NULL; // do not release
CFNumberRef loadAddress = NULL; // do not release
CFNumberRef loadSize = NULL; // do not release
CFNumberRef wiredSize = NULL; // do not release
CFStringRef bundleID = NULL; // do not release
CFStringRef bundleVersion = NULL; // do not release
CFArrayRef dependencyLoadTags = NULL; // do not release
CFMutableArrayRef sortedLoadTags = NULL; // must release
uint32_t loadTagValue = kOSKextInvalidLoadTag;
uint32_t retainCountValue = (uint32_t)-1;
uint64_t loadAddressValue = (uint64_t)-1;
uint32_t loadSizeValue = (uint32_t)-1;
uint32_t wiredSizeValue = (uint32_t)-1;
uint32_t cpuTypeValue = (uint32_t)-1;
uint32_t cpuSubTypeValue = (uint32_t)-1;
char * bundleIDCString = NULL; // must free
char * bundleVersionCString = NULL; // must free
CFIndex count, i;
loadTag = (CFNumberRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleLoadTagKey));
retainCount = (CFNumberRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleRetainCountKey));
loadAddress = (CFNumberRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleLoadAddressKey));
loadSize = (CFNumberRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleLoadSizeKey));
wiredSize = (CFNumberRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleWiredSizeKey));
bundleID = (CFStringRef)CFDictionaryGetValue(kextInfo,
kCFBundleIdentifierKey);
bundleVersion = (CFStringRef)CFDictionaryGetValue(kextInfo,
kCFBundleVersionKey);
dependencyLoadTags = (CFArrayRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSBundleDependenciesKey));
/* If the -k flag was given, skip any kernel components unless
* they are explicitly requested.
*/
if (toolArgs->flagNoKernelComponents) {
isKernelComponent = (CFBooleanRef)CFDictionaryGetValue(kextInfo,
CFSTR(kOSKernelResourceKey));
if (isKernelComponent && CFBooleanGetValue(isKernelComponent)) {
if (bundleID &&
kCFNotFound == CFArrayGetFirstIndexOfValue(toolArgs->bundleIDs,
RANGE_ALL(toolArgs->bundleIDs), bundleID)) {
goto finish;
}
}
}
if (!getNumValue(loadTag, kCFNumberSInt32Type, &loadTagValue)) {
loadTagValue = kOSKextInvalidLoadTag;
}
/* Never print the info for the kernel (loadTag 0, id __kernel__).
*/
if (loadTagValue == 0) {
goto finish;
}
if (!getNumValue(retainCount, kCFNumberSInt32Type, &retainCountValue)) {
retainCountValue = (uint32_t)-1;
}
if (!getNumValue(loadAddress, kCFNumberSInt64Type, &loadAddressValue)) {
loadAddressValue = (uint64_t)-1;
}
if (!getNumValue(loadSize, kCFNumberSInt32Type, &loadSizeValue)) {
loadSizeValue = (uint32_t)-1;
}
if (!getNumValue(wiredSize, kCFNumberSInt32Type, &wiredSizeValue)) {
wiredSizeValue = (uint32_t)-1;
}
if (!getNumValue(((CFNumberRef)CFDictionaryGetValue(kextInfo, CFSTR(kOSBundleCPUTypeKey))), kCFNumberSInt32Type, &cpuTypeValue)) {
cpuTypeValue = (uint32_t)-1;
}
if (!getNumValue(((CFNumberRef)CFDictionaryGetValue(kextInfo, CFSTR(kOSBundleCPUSubtypeKey))), kCFNumberSInt32Type, &cpuSubTypeValue)) {
cpuSubTypeValue = (uint32_t)-1;
}
bundleIDCString = createUTF8CStringForCFString(bundleID);
bundleVersionCString = createUTF8CStringForCFString(bundleVersion);
/* First column has no leading space.
*
* These field widths are from the old kextstat, may want to change them.
*/
if (loadTagValue == kOSKextInvalidLoadTag) {
fprintf(stdout, "%5s", kStringInvalidShort);
} else {
fprintf(stdout, "%5d", loadTagValue);
}
if (retainCountValue == (uint32_t)-1) {
fprintf(stdout, " %4s", kStringInvalidShort);
} else {
fprintf(stdout, " %4d", retainCountValue);
}
if (toolArgs->runningKernelArch->cputype & CPU_ARCH_ABI64) {
if (loadAddressValue == (uint64_t)-1) {
fprintf(stdout, " %-18s", kStringInvalidLong);
} else {
fprintf(stdout, " %#-18llx", (uint64_t)loadAddressValue);
}
} else {
if (loadAddressValue == (uint64_t)-1) {
fprintf(stdout, " %-10s", kStringInvalidLong);
} else {
fprintf(stdout, " %#-10x", (uint32_t)loadAddressValue);
}
}
if (loadSizeValue == (uint32_t)-1) {
fprintf(stdout, " %-10s", kStringInvalidLong);
} else {
fprintf(stdout, " %#-10x", loadSizeValue);
}
if (wiredSizeValue == (uint32_t)-1) {
fprintf(stdout, " %-10s", kStringInvalidLong);
} else {
fprintf(stdout, " %#-10x", wiredSizeValue);
}
if (toolArgs->flagShowArchitecture) {
// include kext cputype/cpusubtype info
if (cpuTypeValue == (uint32_t) -1) {
fprintf(stdout, " %10s/%-7s", kStringInvalidLong, kStringInvalidLong);
}
else {
const NXArchInfo * archName = NXGetArchInfoFromCpuType(cpuTypeValue, cpuSubTypeValue);
if (archName != NULL) {
fprintf(stdout, " %-18s", archName->name);
}
else {
fprintf(stdout, " %#010x/%#-7x", cpuTypeValue, cpuSubTypeValue);
}
}
}
fprintf(stdout, " %s",
bundleIDCString ? bundleIDCString : kStringInvalidLong);
fprintf(stdout, " (%s)",
bundleVersionCString ? bundleVersionCString : kStringInvalidLong);
if (dependencyLoadTags && CFArrayGetCount(dependencyLoadTags)) {
sortedLoadTags = CFArrayCreateMutableCopy(kCFAllocatorDefault, 0,
dependencyLoadTags);
if (!sortedLoadTags) {
OSKextLogMemError();
goto finish;
}
CFArraySortValues(sortedLoadTags, RANGE_ALL(sortedLoadTags),
&compareNumbers, /* context */ NULL);
fprintf(stdout, " <");
count = CFArrayGetCount(sortedLoadTags);
for (i = 0; i < count; i++) {
loadTag = (CFNumberRef)CFArrayGetValueAtIndex(sortedLoadTags, i);
if (!getNumValue(loadTag, kCFNumberSInt32Type, &loadTagValue)) {
loadTagValue = kOSKextInvalidLoadTag;
}
if (loadTagValue == kOSKextInvalidLoadTag) {
fprintf(stdout, "%s%s", i == 0 ? "" : " ", kStringInvalidShort);
} else {
fprintf(stdout, "%s%d", i == 0 ? "" : " ", loadTagValue);
}
}
fprintf(stdout, ">");
}
fprintf(stdout, "\n");
finish:
SAFE_RELEASE(sortedLoadTags);
SAFE_FREE(bundleIDCString);
SAFE_FREE(bundleVersionCString);
return;
}
void wxOSXPrintData::TransferPaperInfoFrom( const wxPrintData &data )
{
PMPrinter printer;
PMSessionGetCurrentPrinter(m_macPrintSession, &printer);
wxSize papersize = wxDefaultSize;
const wxPaperSize paperId = data.GetPaperId();
if ( paperId != wxPAPER_NONE && wxThePrintPaperDatabase )
{
papersize = wxThePrintPaperDatabase->GetSize(paperId);
if ( papersize != wxDefaultSize )
{
papersize.x /= 10;
papersize.y /= 10;
}
}
else
{
papersize = data.GetPaperSize();
}
if ( papersize != wxDefaultSize )
{
papersize.x = (wxInt32) (papersize.x * mm2pt);
papersize.y = (wxInt32) (papersize.y * mm2pt);
double height, width;
PMPaperGetHeight(m_macPaper, &height);
PMPaperGetWidth(m_macPaper, &width);
if ( fabs( width - papersize.x ) >= 5 ||
fabs( height - papersize.y ) >= 5 )
{
// we have to change the current paper
CFArrayRef paperlist = 0 ;
if ( PMPrinterGetPaperList( printer, &paperlist ) == noErr )
{
PMPaper bestPaper = kPMNoData ;
CFIndex top = CFArrayGetCount(paperlist);
for ( CFIndex i = 0 ; i < top ; ++ i )
{
PMPaper paper = (PMPaper) CFArrayGetValueAtIndex( paperlist, i );
PMPaperGetHeight(paper, &height);
PMPaperGetWidth(paper, &width);
if ( fabs( width - papersize.x ) < 5 &&
fabs( height - papersize.y ) < 5 )
{
// TODO test for duplicate hits and use additional
// criteria for best match
bestPaper = paper;
}
}
PMPaper paper = kPMNoData;
if ( bestPaper == kPMNoData )
{
const PMPaperMargins margins = { 0.0, 0.0, 0.0, 0.0 };
wxString id, name(wxT("Custom paper"));
id.Printf(wxT("wxPaperCustom%dx%d"), papersize.x, papersize.y);
if ( PMPaperCreateCustom
(
printer,
wxCFStringRef(id, wxFont::GetDefaultEncoding()),
wxCFStringRef(name, wxFont::GetDefaultEncoding()),
papersize.x, papersize.y,
&margins,
&paper
) )
{
bestPaper = paper;
}
}
if ( bestPaper != kPMNoData )
{
PMPageFormat pageFormat;
PMCreatePageFormatWithPMPaper(&pageFormat, bestPaper);
PMCopyPageFormat( pageFormat, m_macPageFormat );
PMRelease(pageFormat);
PMGetPageFormatPaper(m_macPageFormat, &m_macPaper);
}
PMRelease(paper);
}
}
}
PMSetCopies( m_macPrintSettings , data.GetNoCopies() , false ) ;
PMSetCollate(m_macPrintSettings, data.GetCollate());
if ( data.IsOrientationReversed() )
PMSetOrientation( m_macPageFormat , ( data.GetOrientation() == wxLANDSCAPE ) ?
kPMReverseLandscape : kPMReversePortrait , false ) ;
else
PMSetOrientation( m_macPageFormat , ( data.GetOrientation() == wxLANDSCAPE ) ?
kPMLandscape : kPMPortrait , false ) ;
PMDuplexMode mode = 0 ;
switch( data.GetDuplex() )
{
case wxDUPLEX_HORIZONTAL :
mode = kPMDuplexNoTumble ;
break ;
case wxDUPLEX_VERTICAL :
mode = kPMDuplexTumble ;
break ;
case wxDUPLEX_SIMPLEX :
default :
mode = kPMDuplexNone ;
break ;
}
PMSetDuplex( m_macPrintSettings, mode ) ;
if ( data.IsOrientationReversed() )
PMSetOrientation( m_macPageFormat , ( data.GetOrientation() == wxLANDSCAPE ) ?
kPMReverseLandscape : kPMReversePortrait , false ) ;
else
PMSetOrientation( m_macPageFormat , ( data.GetOrientation() == wxLANDSCAPE ) ?
kPMLandscape : kPMPortrait , false ) ;
}
nsresult
nsWifiMonitor::DoScanOld()
{
void *apple_80211_library = dlopen(
"/System/Library/PrivateFrameworks/Apple80211.framework/Apple80211",
RTLD_LAZY);
if (!apple_80211_library)
return NS_ERROR_NOT_AVAILABLE;
WirelessContextPtr wifi_context_;
WirelessAttachFunction WirelessAttach_function_ = reinterpret_cast<WirelessAttachFunction>(dlsym(apple_80211_library, "WirelessAttach"));
WirelessScanSplitFunction WirelessScanSplit_function_ = reinterpret_cast<WirelessScanSplitFunction>(dlsym(apple_80211_library, "WirelessScanSplit"));
WirelessDetachFunction WirelessDetach_function_ = reinterpret_cast<WirelessDetachFunction>(dlsym(apple_80211_library, "WirelessDetach"));
if (!WirelessAttach_function_ || !WirelessScanSplit_function_ || !WirelessDetach_function_) {
dlclose(apple_80211_library);
return NS_ERROR_NOT_AVAILABLE;
}
WIErr err = 0;
err = (*WirelessAttach_function_)(&wifi_context_, 0);
if (err != noErr) {
printf("Error: WirelessAttach: %d\n", (int) err);
dlclose(apple_80211_library);
return NS_ERROR_FAILURE;
}
// Regularly get the access point data.
nsCOMArray<nsWifiAccessPoint> lastAccessPoints;
nsCOMArray<nsWifiAccessPoint> accessPoints;
do {
accessPoints.Clear();
CFArrayRef managed_access_points = NULL;
CFArrayRef adhoc_access_points = NULL;
if ((*WirelessScanSplit_function_)(wifi_context_,
&managed_access_points,
&adhoc_access_points,
0) != noErr) {
return NS_ERROR_FAILURE;
}
if (managed_access_points == NULL) {
return NS_ERROR_FAILURE;
}
int accessPointsCount = CFArrayGetCount(managed_access_points);
for (int i = 0; i < accessPointsCount; ++i) {
nsWifiAccessPoint* ap = new nsWifiAccessPoint();
if (!ap)
continue;
const WirelessNetworkInfo *access_point_info =
reinterpret_cast<const WirelessNetworkInfo*>(CFDataGetBytePtr(reinterpret_cast<const CFDataRef>(CFArrayGetValueAtIndex(managed_access_points, i))));
ap->setMac(access_point_info->macAddress);
// WirelessNetworkInfo::signal appears to be signal strength in dBm.
ap->setSignal(access_point_info->signal);
ap->setSSID(reinterpret_cast<const char*>(access_point_info->name),
access_point_info->nameLen);
accessPoints.AppendObject(ap);
}
PRBool accessPointsChanged = !AccessPointsEqual(accessPoints, lastAccessPoints);
nsCOMArray<nsIWifiListener> currentListeners;
{
nsAutoMonitor mon(mMonitor);
for (PRUint32 i = 0; i < mListeners.Length(); i++) {
if (!mListeners[i].mHasSentData || accessPointsChanged) {
mListeners[i].mHasSentData = PR_TRUE;
currentListeners.AppendObject(mListeners[i].mListener);
}
}
}
ReplaceArray(lastAccessPoints, accessPoints);
if (currentListeners.Count() > 0)
{
PRUint32 resultCount = lastAccessPoints.Count();
nsIWifiAccessPoint** result = static_cast<nsIWifiAccessPoint**> (nsMemory::Alloc(sizeof(nsIWifiAccessPoint*) * resultCount));
if (!result) {
dlclose(apple_80211_library);
return NS_ERROR_OUT_OF_MEMORY;
}
for (PRUint32 i = 0; i < resultCount; i++)
result[i] = lastAccessPoints[i];
for (PRInt32 i = 0; i < currentListeners.Count(); i++) {
LOG(("About to send data to the wifi listeners\n"));
nsCOMPtr<nsIWifiListener> proxy;
nsCOMPtr<nsIProxyObjectManager> proxyObjMgr = do_GetService("@mozilla.org/xpcomproxy;1");
proxyObjMgr->GetProxyForObject(NS_PROXY_TO_MAIN_THREAD,
NS_GET_IID(nsIWifiListener),
currentListeners[i],
NS_PROXY_SYNC | NS_PROXY_ALWAYS,
getter_AddRefs(proxy));
if (!proxy) {
LOG(("There is no proxy available. this should never happen\n"));
}
else
{
nsresult rv = proxy->OnChange(result, resultCount);
LOG( ("... sent %d\n", rv));
}
}
nsMemory::Free(result);
}
// wait for some reasonable amount of time. pref?
LOG(("waiting on monitor\n"));
nsAutoMonitor mon(mMonitor);
mon.Wait(PR_SecondsToInterval(60));
}
while (mKeepGoing);
(*WirelessDetach_function_)(wifi_context_);
dlclose(apple_80211_library);
return NS_OK;
}
/***********************************************************************
* ChangeDisplaySettingsEx (MACDRV.@)
*
*/
LONG CDECL macdrv_ChangeDisplaySettingsEx(LPCWSTR devname, LPDEVMODEW devmode,
HWND hwnd, DWORD flags, LPVOID lpvoid)
{
LONG ret = DISP_CHANGE_BADMODE;
int bpp;
DEVMODEW dm;
BOOL def_mode = TRUE;
struct macdrv_display *displays;
int num_displays;
CFArrayRef display_modes;
CFIndex count, i, safe, best;
CGDisplayModeRef best_display_mode;
uint32_t best_io_flags;
TRACE("%s %p %p 0x%08x %p\n", debugstr_w(devname), devmode, hwnd, flags, lpvoid);
if (devmode)
{
/* this is the minimal dmSize that XP accepts */
if (devmode->dmSize < FIELD_OFFSET(DEVMODEW, dmFields))
return DISP_CHANGE_FAILED;
if (devmode->dmSize >= FIELD_OFFSET(DEVMODEW, dmFields) + sizeof(devmode->dmFields))
{
if (((devmode->dmFields & DM_BITSPERPEL) && devmode->dmBitsPerPel) ||
((devmode->dmFields & DM_PELSWIDTH) && devmode->dmPelsWidth) ||
((devmode->dmFields & DM_PELSHEIGHT) && devmode->dmPelsHeight) ||
((devmode->dmFields & DM_DISPLAYFREQUENCY) && devmode->dmDisplayFrequency))
def_mode = FALSE;
}
}
if (def_mode)
{
if (!macdrv_EnumDisplaySettingsEx(devname, ENUM_REGISTRY_SETTINGS, &dm, 0))
{
ERR("Default mode not found!\n");
return DISP_CHANGE_BADMODE;
}
TRACE("Return to original display mode\n");
devmode = &dm;
}
if ((devmode->dmFields & (DM_PELSWIDTH | DM_PELSHEIGHT)) != (DM_PELSWIDTH | DM_PELSHEIGHT))
{
WARN("devmode doesn't specify the resolution: %04x\n", devmode->dmFields);
return DISP_CHANGE_BADMODE;
}
if (macdrv_get_displays(&displays, &num_displays))
return DISP_CHANGE_FAILED;
display_modes = copy_display_modes(displays[0].displayID);
if (!display_modes)
{
macdrv_free_displays(displays);
return DISP_CHANGE_FAILED;
}
bpp = get_default_bpp();
if ((devmode->dmFields & DM_BITSPERPEL) && devmode->dmBitsPerPel != bpp)
TRACE("using default %d bpp instead of caller's request %d bpp\n", bpp, devmode->dmBitsPerPel);
TRACE("looking for %dx%dx%dbpp @%d Hz",
(devmode->dmFields & DM_PELSWIDTH ? devmode->dmPelsWidth : 0),
(devmode->dmFields & DM_PELSHEIGHT ? devmode->dmPelsHeight : 0),
bpp,
(devmode->dmFields & DM_DISPLAYFREQUENCY ? devmode->dmDisplayFrequency : 0));
if (devmode->dmFields & DM_DISPLAYFIXEDOUTPUT)
TRACE(" %sstretched", devmode->dmDisplayFixedOutput == DMDFO_STRETCH ? "" : "un");
if (devmode->dmFields & DM_DISPLAYFLAGS)
TRACE(" %sinterlaced", devmode->dmDisplayFlags & DM_INTERLACED ? "" : "non-");
TRACE("\n");
safe = -1;
best_display_mode = NULL;
count = CFArrayGetCount(display_modes);
for (i = 0; i < count; i++)
{
CGDisplayModeRef display_mode = (CGDisplayModeRef)CFArrayGetValueAtIndex(display_modes, i);
uint32_t io_flags = CGDisplayModeGetIOFlags(display_mode);
int mode_bpp = display_mode_bits_per_pixel(display_mode);
size_t width = CGDisplayModeGetWidth(display_mode);
size_t height = CGDisplayModeGetHeight(display_mode);
if (!(io_flags & kDisplayModeValidFlag) || !(io_flags & kDisplayModeSafeFlag))
continue;
safe++;
if (bpp != mode_bpp)
continue;
if (devmode->dmFields & DM_PELSWIDTH)
{
if (devmode->dmPelsWidth != width)
continue;
}
if (devmode->dmFields & DM_PELSHEIGHT)
{
if (devmode->dmPelsHeight != height)
continue;
}
if ((devmode->dmFields & DM_DISPLAYFREQUENCY) && devmode->dmDisplayFrequency != 0)
{
double refresh_rate = CGDisplayModeGetRefreshRate(display_mode);
if (!refresh_rate)
refresh_rate = 60;
if (devmode->dmDisplayFrequency != (DWORD)refresh_rate)
continue;
}
if (devmode->dmFields & DM_DISPLAYFLAGS)
{
if (!(devmode->dmDisplayFlags & DM_INTERLACED) != !(io_flags & kDisplayModeInterlacedFlag))
continue;
}
else if (best_display_mode)
{
if (io_flags & kDisplayModeInterlacedFlag && !(best_io_flags & kDisplayModeInterlacedFlag))
continue;
else if (!(io_flags & kDisplayModeInterlacedFlag) && best_io_flags & kDisplayModeInterlacedFlag)
goto better;
}
if (devmode->dmFields & DM_DISPLAYFIXEDOUTPUT)
{
if (!(devmode->dmDisplayFixedOutput == DMDFO_STRETCH) != !(io_flags & kDisplayModeStretchedFlag))
continue;
}
else if (best_display_mode)
{
if (io_flags & kDisplayModeStretchedFlag && !(best_io_flags & kDisplayModeStretchedFlag))
continue;
else if (!(io_flags & kDisplayModeStretchedFlag) && best_io_flags & kDisplayModeStretchedFlag)
goto better;
}
if (best_display_mode)
continue;
better:
best_display_mode = display_mode;
best = safe;
best_io_flags = io_flags;
}
if (best_display_mode)
{
/* we have a valid mode */
TRACE("Requested display settings match mode %ld\n", best);
if ((flags & CDS_UPDATEREGISTRY) && !write_registry_settings(devmode))
{
WARN("Failed to update registry\n");
ret = DISP_CHANGE_NOTUPDATED;
}
else if (flags & (CDS_TEST | CDS_NORESET))
ret = DISP_CHANGE_SUCCESSFUL;
else if (macdrv_set_display_mode(&displays[0], best_display_mode))
{
int mode_bpp = display_mode_bits_per_pixel(best_display_mode);
size_t width = CGDisplayModeGetWidth(best_display_mode);
size_t height = CGDisplayModeGetHeight(best_display_mode);
SendMessageW(GetDesktopWindow(), WM_MACDRV_UPDATE_DESKTOP_RECT, mode_bpp,
MAKELPARAM(width, height));
ret = DISP_CHANGE_SUCCESSFUL;
}
else
{
WARN("Failed to set display mode\n");
ret = DISP_CHANGE_FAILED;
}
}
else
{
/* no valid modes found */
ERR("No matching mode found %ux%ux%d @%u!\n", devmode->dmPelsWidth, devmode->dmPelsHeight,
bpp, devmode->dmDisplayFrequency);
}
CFRelease(display_modes);
macdrv_free_displays(displays);
return ret;
}
__private_extern__ kern_return_t _io_pm_hid_event_report_activity(
mach_port_t server,
audit_token_t token,
int _action)
{
pid_t callerPID;
CFNumberRef appPID = NULL;
int _app_pid_;
CFMutableDictionaryRef foundDictionary = NULL;
CFMutableArrayRef bucketsArray = NULL;
CFDataRef dataEvent = NULL;
IOPMHIDPostEventActivityWindow *ev = NULL;
CFAbsoluteTime timeNow = CFAbsoluteTimeGetCurrent();
int arrayCount = 0;
int i = 0;
// Unwrapping big data structure...
if (!gHIDEventHistory) {
gHIDEventHistory = CFArrayCreateMutable(0, 1, &kCFTypeArrayCallBacks);
}
if (!gHIDEventHistory) {
goto exit;
}
audit_token_to_au32(token, NULL, NULL, NULL, NULL, NULL, &callerPID, NULL, NULL);
if (0 !=(arrayCount = CFArrayGetCount(gHIDEventHistory)))
{
// Scan through the array to find an existing dictionary for the given pid
for (i=0; i<arrayCount; i++)
{
CFMutableDictionaryRef dictionaryForApp = NULL;
dictionaryForApp = (CFMutableDictionaryRef)CFArrayGetValueAtIndex(gHIDEventHistory, i);
if (!dictionaryForApp) {
break;
}
appPID = CFDictionaryGetValue(dictionaryForApp, kIOPMHIDAppPIDKey);
if (appPID) {
CFNumberGetValue(appPID, kCFNumberIntType, &_app_pid_);
if (callerPID == _app_pid_) {
foundDictionary = dictionaryForApp;
break;
}
}
}
}
// Unwrapping big data structure...
if (!foundDictionary) {
foundDictionary = CFDictionaryCreateMutable(0, 3, &kCFTypeDictionaryKeyCallBacks, &kCFTypeDictionaryValueCallBacks);
CFArrayAppendValue(gHIDEventHistory, foundDictionary);
CFRelease(foundDictionary);
/* Tag our pid */
appPID = CFNumberCreate(0, kCFNumberIntType, &callerPID);
if (appPID) {
CFDictionarySetValue(foundDictionary, kIOPMHIDAppPIDKey, appPID);
CFRelease(appPID);
}
/* Tag the process name */
CFStringRef appName = NULL;
char appBuf[MAXPATHLEN];
int len = proc_name(callerPID, appBuf, MAXPATHLEN);
if (0 != len) {
appName = CFStringCreateWithCString(0, appBuf, kCFStringEncodingMacRoman);
if (appName) {
CFDictionarySetValue(foundDictionary, kIOPMHIDAppPathKey, appName);
CFRelease(appName);
}
}
}
if (!foundDictionary)
goto exit;
// Unwrapping big data structure...
bucketsArray = (CFMutableArrayRef)CFDictionaryGetValue(foundDictionary, kIOPMHIDHistoryArrayKey);
if (!bucketsArray) {
bucketsArray = CFArrayCreateMutable(0, 1, &kCFTypeArrayCallBacks);
CFDictionarySetValue(foundDictionary, kIOPMHIDHistoryArrayKey, bucketsArray);
CFRelease(bucketsArray);
}
if (!bucketsArray)
goto exit;
// Check last HID event bucket timestamp - is it more than 5 minutes old?
bool foundWindowForEvent = false;
if (0 < CFArrayGetCount(bucketsArray)) {
dataEvent = (CFDataRef)CFArrayGetValueAtIndex(bucketsArray, 0);
}
if (dataEvent) {
ev = (IOPMHIDPostEventActivityWindow *)CFDataGetBytePtr(dataEvent);
if (timeNow < (ev->eventWindowStart + kFiveMinutesInSeconds))
{
// This HID event gets dropped into this existing 5 minute bucket.
// We bump the count for HID activity!
if (__NX_NULL_EVENT == _action) {
ev->nullEventCount++;
} else {
ev->hidEventCount++;
}
foundWindowForEvent = true;
}
}
if (!foundWindowForEvent) {
IOPMHIDPostEventActivityWindow newv;
// We align the starts of our windows with 5 minute intervals
newv.eventWindowStart = ((int)timeNow / (int)kFiveMinutesInSeconds) * kFiveMinutesInSeconds;
newv.nullEventCount = newv.hidEventCount = 0;
if (__NX_NULL_EVENT == _action) {
newv.nullEventCount++;
} else {
newv.hidEventCount++;
}
dataEvent = CFDataCreate(0, (const UInt8 *)&newv, sizeof(IOPMHIDPostEventActivityWindow));
if (dataEvent) {
CFArrayInsertValueAtIndex(bucketsArray, 0, dataEvent);
CFRelease(dataEvent);
}
// If we've recorded more than kMaxFiveMinutesWindowsCount activity windows for this process, delete the old ones.
while (kMaxFiveMinutesWindowsCount < CFArrayGetCount(bucketsArray)) {
CFArrayRemoveValueAtIndex(bucketsArray, CFArrayGetCount(bucketsArray) - 1);
}
}
exit:
return KERN_SUCCESS;
}
static SCNetworkServiceRef
_find_service(char *match)
{
Boolean allowIndex = TRUE;
CFIndex i;
CFIndex n;
CFStringRef select_name = NULL;
SCNetworkServiceRef selected = NULL;
if (services == NULL) {
if (net_set == NULL) {
SCPrint(TRUE, stdout, CFSTR("set not selected\n"));
return NULL;
}
services = SCNetworkSetCopyServices(net_set);
if (services == NULL) {
SCPrint(TRUE, stdout, CFSTR("%s\n"), SCErrorString(SCError()));
return NULL;
}
allowIndex = FALSE;
}
// try to select the service by its serviceID
select_name = CFStringCreateWithCString(NULL, match, kCFStringEncodingUTF8);
n = CFArrayGetCount(services);
for (i = 0; i < n; i++) {
SCNetworkServiceRef service;
CFStringRef serviceID;
service = CFArrayGetValueAtIndex(services, i);
serviceID = SCNetworkServiceGetServiceID(service);
if (CFEqual(select_name, serviceID)) {
selected = service;
goto done;
}
}
// try to select the service by its name
for (i = 0; i < n; i++) {
SCNetworkServiceRef service;
CFStringRef serviceName;
service = CFArrayGetValueAtIndex(services, i);
serviceName = SCNetworkServiceGetName(service);
if ((serviceName != NULL) && CFEqual(select_name, serviceName)) {
if (selected == NULL) {
selected = service;
} else {
// if multiple services match
selected = NULL;
SCPrint(TRUE, stdout, CFSTR("multiple services match\n"));
goto done;
}
}
}
if (selected != NULL) {
goto done;
}
// try to select the service by its name (case insensitive)
for (i = 0; i < n; i++) {
SCNetworkServiceRef service;
CFStringRef serviceName;
service = CFArrayGetValueAtIndex(services, i);
serviceName = SCNetworkServiceGetName(service);
if ((serviceName != NULL) &&
CFStringCompare(select_name,
serviceName,
kCFCompareCaseInsensitive) == kCFCompareEqualTo) {
if (selected == NULL) {
selected = service;
} else {
// if multiple services match
selected = NULL;
SCPrint(TRUE, stdout, CFSTR("multiple services match\n"));
goto done;
}
}
}
if (selected != NULL) {
goto done;
}
// try to select the service by its [BSD] interface name
for (i = 0; i < n; i++) {
SCNetworkInterfaceRef interface;
CFStringRef interfaceName = NULL;
SCNetworkServiceRef service;
service = CFArrayGetValueAtIndex(services, i);
interface = SCNetworkServiceGetInterface(service);
while ((interface != NULL) && (interfaceName == NULL)) {
interfaceName = SCNetworkInterfaceGetBSDName(interface);
if (interfaceName == NULL) {
interface = SCNetworkInterfaceGetInterface(interface);
}
}
if (interfaceName == NULL) {
continue;
}
if (CFStringCompare(select_name,
interfaceName,
kCFCompareCaseInsensitive) == kCFCompareEqualTo) {
if (selected == NULL) {
selected = service;
} else {
// if multiple services match
selected = NULL;
SCPrint(TRUE, stdout, CFSTR("multiple services match\n"));
goto done;
}
}
}
if (selected != NULL) {
goto done;
}
// try to select the service by its index
if (allowIndex) {
char *end;
char *str = match;
long val;
errno = 0;
val = strtol(str, &end, 10);
if ((*str != '\0') && (*end == '\0') && (errno == 0)) {
if ((val > 0) && (val <= n)) {
selected = CFArrayGetValueAtIndex(services, val - 1);
}
}
}
if (selected != NULL) {
goto done;
}
SCPrint(TRUE, stdout, CFSTR("no match, which service?\n"));
done :
if (select_name != NULL) CFRelease(select_name);
return selected;
}
int
trusted_cert_dump(int argc, char * const *argv)
{
CFArrayRef certArray = NULL;
OSStatus ortn = noErr;
CFIndex numCerts;
CFIndex dex;
CFArrayRef trustSettings;
int ourRtn = 0;
SecTrustSettingsDomain domain = kSecTrustSettingsDomainUser;
extern char *optarg;
extern int optind;
int arg;
optind = 1;
while ((arg = getopt(argc, argv, "sdh")) != -1) {
switch (arg) {
case 's':
domain = kSecTrustSettingsDomainSystem;
break;
case 'd':
domain = kSecTrustSettingsDomainAdmin;
break;
default:
case 'h':
return 2; /* @@@ Return 2 triggers usage message. */
}
}
if(optind != argc) {
return 2; /* @@@ Return 2 triggers usage message. */
}
ortn = SecTrustSettingsCopyCertificates(domain, &certArray);
if(ortn) {
cssmPerror("SecTrustSettingsCopyCertificates", ortn);
return 1;
}
numCerts = CFArrayGetCount(certArray);
printf("Number of trusted certs = %ld\n", (long)numCerts);
for(dex=0; dex<numCerts; dex++) {
SecCertificateRef certRef =
(SecCertificateRef)CFArrayGetValueAtIndex(certArray, dex);
if(CFGetTypeID(certRef) != SecCertificateGetTypeID()) {
fprintf(stderr, "***Bad CFGetTypeID for cert %ld\n", (long)dex);
ourRtn = -1;
break;
}
/* always print the cert's label */
printf("Cert %ld: ", dex);
printCertLabel(certRef);
printf("\n");
/* see if the cert has any usage constraints (it should!) */
ortn = SecTrustSettingsCopyTrustSettings(certRef, domain, &trustSettings);
if(ortn) {
cssmPerror("SecTrustSettingsCopyTrustSettings", ortn);
ourRtn = -1;
continue;
}
if(displayTrustSettings(trustSettings)) {
ourRtn = -1;
}
}
CFRelease(certArray);
return ourRtn;
}
