/*
mark an existing keySet before merging in a new keySet, so
we can determine new userids, sigs / revocations
*/
PGPError pgpMarkKeySet( PGPKeySetRef keySet )
{
PGPError err,er2;
PGPKeyRef key;
PGPKeyListRef keylist;
PGPKeyIterRef iter;
err = PGPOrderKeySet( keySet, kPGPAnyOrdering, &keylist );
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &iter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( iter );
pgpAssertNoErr(err);
PGPKeyIterNext( iter, &key);
/*if err, there are none.*/
while( key )
{
err = pgpMarkKey( iter, key );
if(err)
break;
PGPKeyIterNext( iter, &key);
/*if err, there are no more.*/
}
er2 = PGPFreeKeyIter( iter );
pgpAssertNoErr(err);
er2 = PGPFreeKeyList( keylist );
pgpAssertNoErr(err);
return err;
}
static PGPError
sAddAllKeysToGroup(
PGPGroupSetRef set,
PGPGroupID id,
PGPKeySetRef keySet )
{
PGPError err = kPGPError_NoErr;
PGPKeyListRef keyList;
err = PGPOrderKeySet( keySet, kPGPAnyOrdering, &keyList );
if( IsntPGPError( err ) )
{
PGPKeyIterRef iter;
err = PGPNewKeyIter( keyList, &iter );
if( IsntPGPError( err ) )
{
PGPKeyRef key;
while( IsntPGPError( err = PGPKeyIterNext( iter, &key ) ) )
{
PGPKeyID keyID;
err = PGPGetKeyIDFromKey( key, &keyID );
if ( IsntPGPError( err ) )
{
PGPGroupItem item;
PGPInt32 algorithm;
item.type = kPGPGroupItem_KeyID;
item.u.key.keyID = keyID;
PGPGetKeyNumber( key, kPGPKeyPropAlgID, &algorithm);
item.u.key.algorithm = (PGPPublicKeyAlgorithm) algorithm;
err = PGPAddItemToGroup( set, &item, id);
if ( IsPGPError( err ) )
break;
}
}
if( err == kPGPError_EndOfIteration )
err = kPGPError_NoErr;
(void) PGPFreeKeyIter( iter );
}
(void) PGPFreeKeyList( keyList );
}
return( err );
}
PGPError printSignatureChains(struct pgpmainBones *mainbPtr,
PGPKeySetRef bothRingsSet,
PGPFilterRef depthFilter)
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPKeyListRef depthList;
PGPKeySetRef depthSet;
PGPKeyRef key;
PGPKeyIterRef keyiter;
PGPKeyID keyID;
PGPUserValue traceValue;
PGPError err;
char useridstr[ kPGPMaxUserIDSize ];
char nulluseridstr[kPGPMaxUserIDSize];
nulluseridstr[0] = '\0';
err = PGPFilterKeySet( bothRingsSet, depthFilter, &depthSet);
pgpAssertNoErr(err);
err = PGPOrderKeySet(depthSet, kPGPAnyOrdering, &depthList);
pgpAssertNoErr(err);
err = PGPNewKeyIter( depthList, &keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key );
while (key != NULL) {
err = pgpGetUserIDStringFromKey( key, useridstr );
pgpAssertNoErr(err);
fprintf(filebPtr->pgpout, LANG("* %s\n"), useridstr);
err = PGPGetKeyIDFromKey( key, &keyID);
pgpAssertNoErr(err);
traceValue = (PGPUserValue)( VISITED_MASK | 0 );
err = PGPSetKeyUserVal(key, traceValue);
pgpAssertNoErr(err);
err = printNextSignatureChainLink(mainbPtr, bothRingsSet, key, 0, 1);
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key );
}
return 0;
} /* printSignatureChains */
PGPError pgpShowKeySetMarked( struct pgpfileBones *filebPtr, PGPKeySetRef
keySet, PGPSize *newKeyCount, PGPSize *newUIDCount, PGPSize
*newSigCount, PGPSize *newRevokeCount )
{
PGPError err;
PGPKeyRef key;
PGPKeyListRef keylist = NULL;
PGPKeyIterRef keyiter = NULL;
*newKeyCount = 0;
*newUIDCount = 0;
*newSigCount = 0;
*newRevokeCount = 0;
err = PGPOrderKeySet( keySet, kPGPAnyOrdering, &keylist );
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
PGPKeyIterNext( keyiter, &key);
/*if err, there are none.*/
while( key )
{
PGPSize keyc, uidc, sigc, rvkc;
err = pgpShowKeyMarked( filebPtr, keyiter, key, &keyc, &uidc,
&sigc, &rvkc );
(*newKeyCount) += uidc;
(*newUIDCount) += uidc;
(*newSigCount) += sigc;
(*newRevokeCount) += rvkc;
if(err)
break;
PGPKeyIterNext( keyiter, &key);
/*if err, there are no more.*/
}
if( keyiter )
PGPFreeKeyIter( keyiter );
if( keylist )
PGPFreeKeyList( keylist );
pgpAssertNoErr(err);
return err;
}
static PGPError
sRevokeKeySplit (
PGPContextRef context,
PGPKeySetRef keyset,
PGPKeyRef key,
PGPByte* passkey,
PGPSize sizePasskey)
{
UINT u;
PGPKeyListRef keylist;
PGPKeyIterRef keyiter;
PGPSubKeyRef subkey;
PGPError err;
err = PGPRevokeKey (key,
PGPOPasskeyBuffer (context, passkey, sizePasskey),
PGPOLastOption (context));
if (IsPGPError (err)) return err;
PGPGetKeyNumber (key, kPGPKeyPropAlgID, &u);
switch (u) {
case kPGPPublicKeyAlgorithm_RSA :
break;
case kPGPPublicKeyAlgorithm_DSA :
PGPOrderKeySet (keyset, kPGPAnyOrdering, &keylist);
PGPNewKeyIter (keylist, &keyiter);
PGPKeyIterSeek (keyiter, key);
PGPKeyIterNextSubKey (keyiter, &subkey);
while (subkey) {
err = PGPRevokeSubKey (subkey,
PGPOPasskeyBuffer (context, passkey, sizePasskey),
PGPOLastOption (context));
PGPKeyIterNextSubKey (keyiter, &subkey);
}
PGPFreeKeyIter (keyiter);
PGPFreeKeyList (keylist);
break;
default :
break;
}
return err;
}
PGPBoolean
InitSigningKeyComboBox (CPGPKeySetPassphraseDialogOptions *options)
{
PGPKeyListRef KeyList;
PGPKeyIterRef KeyIter;
PGPKeyRef Key;
PGPBoolean bSecret, bRevoked, bExpired, bCanSign;
PGPBoolean bAtLeastOneSecretKey;
char szNameFinal[kPGPMaxUserIDSize];
PGPOrderKeySet (options->mKeySet, kPGPValidityOrdering, &KeyList);
PGPNewKeyIter (KeyList, &KeyIter);
bAtLeastOneSecretKey = FALSE;
PGPKeyIterNext (KeyIter, &Key);
while (Key) {
PGPGetKeyBoolean (Key, kPGPKeyPropIsSecret, &bSecret);
if (bSecret) {
PGPGetKeyBoolean (Key, kPGPKeyPropIsRevoked,
(unsigned char *)&bRevoked);
PGPGetKeyBoolean (Key, kPGPKeyPropIsExpired,
(unsigned char *)&bExpired);
PGPGetKeyBoolean (Key, kPGPKeyPropCanSign,
(unsigned char *)&bCanSign);
if (!bRevoked && !bExpired && bCanSign) {
bAtLeastOneSecretKey = TRUE;
GetKeyString(Key,szNameFinal);
fprintf(stdout, "\n%s\n", szNameFinal);
}
}
PGPKeyIterNext (KeyIter, &Key);
}
PGPFreeKeyIter (KeyIter);
PGPFreeKeyList (KeyList);
return (bAtLeastOneSecretKey);
}
PGPError findUltimatelyTrustedKeys(struct pgpmainBones *mainbPtr,
PGPKeySetRef secRingSet,
PGPKeySetRef bothRingsSet,
PGPFilterRef *depthFilter)
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPKeyIterRef keyiter;
PGPKeyRef skey;
PGPKeyListRef secKeylist;
PGPKeyListRef bothKeylist;
PGPError err;
PGPUInt32 trust;
PGPBoolean compatible = mainbPtr->envbPtr->compatible;
char kstr[kPGPMaxKeyIDStringSize];
char useridstr[ kPGPMaxUserIDSize ];
PGPContextRef context = mainbPtr->pgpContext;
PGPKeyID kid;
PGPBoolean firstUltimatelyTrustedKey = TRUE;
PGPFilterRef singletonFilter = NULL;
/* Pass 1: locate ultimately-trusted keys. */
fprintf(filebPtr->pgpout,
LANG("\nPass 1: Looking for the \"ultimately-trusted\" keys...\n"));
err = PGPOrderKeySet( secRingSet, kPGPAnyOrdering, &secKeylist );
if( IsPGPError(err) )
return -1;
err = PGPOrderKeySet( bothRingsSet, kPGPAnyOrdering, &bothKeylist );
if( IsPGPError(err) )
return -1;
err = PGPNewKeyIter( secKeylist, &keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &skey);
/*if error, no keys found.*/
if (err) {
fprintf(filebPtr->pgpout, LANG("No ultimately-trusted keys.") );
return err;
}
while( skey != NULL )
{
err = PGPGetKeyNumber( skey, kPGPKeyPropTrust, &trust);
pgpAssertNoErr(err);
if (trust == kPGPKeyTrust_Ultimate) {
err = pgpGetKeyIDStringCompatFromKey( skey, TRUE, compatible,
kstr );
pgpAssertNoErr(err);
err = pgpGetUserIDStringFromKey( skey, useridstr );
pgpAssertNoErr(err);
/* '*' means axiomatically trusted. */
fprintf(filebPtr->pgpout, LANG("* %s %s\n") ,kstr,useridstr);
/* Make filter for depth 0 (=ultimately-trusted) keys. */
err = PGPGetKeyIDFromKey (skey, &kid);
pgpAssertNoErr(err);
if (firstUltimatelyTrustedKey) {
err = PGPNewKeyIDFilter( context, &kid, depthFilter );
pgpAssertNoErr(err);
firstUltimatelyTrustedKey = FALSE;
}
else {
err = PGPNewKeyIDFilter( context, &kid, &singletonFilter );
pgpAssertNoErr(err);
err = PGPUnionFilters ( singletonFilter, *depthFilter,
depthFilter );
pgpAssertNoErr(err);
}
}
err = PGPKeyIterNext( keyiter, &skey);
}
err = PGPFreeKeyList( bothKeylist );
pgpAssertNoErr(err);
err = PGPFreeKeyList( secKeylist );
pgpAssertNoErr(err);
return 0;
} /* findUltimatelyTrustedKeys */
static PGPError
sChangeKeyPhrase (
PGPContextRef context,
PGPKeySetRef keyset,
PGPKeyRef key,
LPSTR szOld,
PGPByte* pPasskeyOld,
PGPSize sizePasskeyOld,
PGPByte* pPasskey,
PGPSize sizePasskey)
{
UINT u;
PGPKeyListRef keylist;
PGPKeyIterRef keyiter;
PGPSubKeyRef subkey;
PGPError err;
if (szOld) {
err = PGPChangePassphrase (key,
PGPOPassphrase (context, szOld),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
else if (sizePasskeyOld > 0) {
err = PGPChangePassphrase (key,
PGPOPasskeyBuffer (context, pPasskeyOld, sizePasskeyOld),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
else {
err = PGPChangePassphrase (key,
PGPOPassphrase (context, ""),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
if (IsPGPError (err)) return err;
PGPGetKeyNumber (key, kPGPKeyPropAlgID, &u);
switch (u) {
case kPGPPublicKeyAlgorithm_RSA :
break;
case kPGPPublicKeyAlgorithm_DSA :
PGPOrderKeySet (keyset, kPGPAnyOrdering, &keylist);
PGPNewKeyIter (keylist, &keyiter);
PGPKeyIterSeek (keyiter, key);
PGPKeyIterNextSubKey (keyiter, &subkey);
while (subkey) {
if (szOld) {
err = PGPChangeSubKeyPassphrase (subkey,
PGPOPassphrase (context, szOld),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
else if (sizePasskeyOld > 0) {
err = PGPChangeSubKeyPassphrase (subkey,
PGPOPasskeyBuffer (context,
pPasskeyOld, sizePasskeyOld),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
else {
err = PGPChangeSubKeyPassphrase (subkey,
PGPOPassphrase (context, ""),
PGPOPasskeyBuffer (context, pPasskey, sizePasskey),
PGPOLastOption (context));
}
PGPKeyIterNextSubKey (keyiter, &subkey);
}
PGPFreeKeyIter (keyiter);
PGPFreeKeyList (keylist);
break;
default :
break;
}
return err;
}
// Signer combo box
PGPError
pgpSigningPassphraseCL(
PGPContextRef context,
CPGPSigningPassphraseDialogOptions *options)
{
PGPError err = 0;
GPP gpp;
memset(&gpp,0x00,sizeof(GPP));
gpp.context=context;
gpp.options=options;
/*
* XXX
* Currently expects to display only *ONE* key.
* The caller must set the keyset in the options to consist
* of the signing key that the caller wants this routine
* to verify
*/
// Initialize stuff
if (!InitSigningKeyComboBox (options)) {
return kPGPError_UserAbort; // kPGPError_Win32_NoSecret_Key
}
if (options->mPrompt)
puts(options->mPrompt);
else
printf("Need a pass phrase to use this key\n");
// Need to ask and get Passphrase
PGPKeyListRef KeyList;
PGPKeyIterRef KeyIter;
PGPKeyRef key;
PGPOrderKeySet (options->mKeySet,kPGPValidityOrdering,&KeyList);
PGPNewKeyIter (KeyList, &KeyIter);
PGPKeyIterNext (KeyIter, &key);
while (1) {
FreePassphrases(&gpp);
gpp.pszPassPhrase = (char *)secAlloc (gpp.context, KEYSIZE);
if (gpp.pszPassPhrase) {
PGPBoolean bShared;
PGPInt32 len = pgpCLGetPass(stdout, gpp.pszPassPhrase, KEYSIZE);
if (len < 0) {
err = kPGPError_UserAbort;
break;
}
*(options->mPassphrasePtr) = gpp.pszPassPhrase;
// Check Shared status
err = PGPGetKeyBoolean(key, kPGPKeyPropIsSecretShared, &bShared);
if (IsntPGPError(err) && bShared) {
// So, they want to do a shared key
*(options->mPassphraseKeyPtr) = key;
err = kPGPError_KeyUnusableForSignature;
break;
}
if (PassphraseLengthAndQualityOK(options,gpp.pszPassPhrase)) {
if (!options->mVerifyPassphrase) {
err = kPGPError_NoErr;
break;
}
err = ValidateSigningPhrase(&gpp,gpp.pszPassPhrase,key);
if (IsntPGPError(err)) {
err = kPGPError_NoErr;
break;
}
} else {
ClearPassphrases(&gpp);
FreePassphrases(&gpp);
break;
}
} else {
err = kPGPError_OutOfMemory;
break;
}
}
PGPFreeKeyIter(KeyIter);
PGPFreeKeyList(KeyList);
ClearPassphrases(&gpp);
if (err != kPGPError_NoErr)
FreePassphrases(&gpp);
return(err);
}
PGPError pgpUserChooseAndDisableKeys( struct pgpmainBones *mainbPtr,
PGPKeySetRef keysToDisable )
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPError err;
PGPKeyListRef keylist;
PGPKeyIterRef keyiter;
PGPKeyRef key;
err = PGPOrderKeySet( keysToDisable, kPGPAnyOrdering, &keylist );
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key );
while( key != NULL ) {
PGPBoolean propData = FALSE;
pgpShowKeyBrief( filebPtr, key );
err = PGPGetKeyBoolean( key, kPGPKeyPropIsDisabled, &propData );
pgpAssertNoErr( err );
if( propData ) {
fprintf( filebPtr->pgpout,
LANG("\nKey is already disabled.\n"
"Do you want to enable this key again (y/N)? "));
if( getyesno( filebPtr,'n',0) ) {
if( mainbPtr->workingKeyServer ) {
PGPKeySetRef single,failed=NULL;
err = PGPNewSingletonKeySet( key, &single );
pgpAssertNoErr(err);
/* does it get re-enabled??*/
err = PGPDisableFromKeyServer(
mainbPtr->workingKeyServer, single, &failed );
if( IsPGPError(err) ) {
pgpShowError( filebPtr, err, 0,0);
if( failed )
PGPFreeKeySet(failed);
}
PGPFreeKeySet( single );
} else {
err = PGPEnableKey( key );
pgpAssertNoErr( err );
}
}
} else {
fprintf( filebPtr->pgpout,
LANG("\nDisable this key (y/N)? "));
if( getyesno( filebPtr,'n',0) ) {
if( mainbPtr->workingKeyServer ) {
PGPKeySetRef single,failed=NULL;
err = PGPNewSingletonKeySet( key, &single );
pgpAssertNoErr(err);
err = PGPDisableFromKeyServer(
mainbPtr->workingKeyServer, single, &failed );
if( IsPGPError(err) ) {
pgpShowError( filebPtr, err, 0,0);
if( failed )
PGPFreeKeySet(failed);
}
PGPFreeKeySet( single );
} else {
err = PGPDisableKey( key );
pgpAssertNoErr( err );
}
}
}
err = PGPKeyIterNext( keyiter, &key );
}
if( err == kPGPError_EndOfIteration )
err = kPGPError_NoErr;
return err;
}
void ShowKeyring(HWND hWnd,
int nListCtrl,
PGPContextRef pgpContext,
PGPKeySetRef onlyThisKeySet,
PGPBoolean bShowRSA,
PGPBoolean bShowDH,
PGPBoolean bMustEncrypt,
PGPBoolean bMustSign)
{
PGPKeyRef newKey = NULL;
PGPKeyID newKeyID;
PGPSubKeyRef newSubKey = NULL;
PGPError err;
PGPKeySetRef userKeySet = NULL;
PGPKeyListRef klist;
PGPKeyIterRef kiter;
unsigned char szUserID[kPGPMaxUserIDSize+1];
char szTempKeyID[kPGPMaxKeyIDStringSize+1];
char szSize[64];
char szCreation[64];
char szTitle[255];
UINT nLength;
HWND hList;
HDC hDC;
int iNumBits;
LV_ITEM lviKey;
LV_COLUMN lvcKey;
UINT nItem;
HIMAGELIST hImages;
HBITMAP hBmp;
PGPInt32 nSignSize;
PGPInt32 nEncryptSize;
PGPTime tCreation;
PGPUInt16 year, month, day;
PGPBoolean bIsRevoked;
PGPBoolean bIsDisabled;
PGPBoolean bIsExpired;
PGPBoolean bIsEncryptKey;
PGPBoolean bIsSigningKey;
PGPPublicKeyAlgorithm lAlg;
if(IsPGPError(err = PGPOpenDefaultKeyRings(pgpContext,
(PGPKeyRingOpenFlags) 0, &userKeySet)))
{
MessageBox(NULL, "PGPOpenDefaultKeyRings error", "debug", MB_OK);
return;
}
hList = GetDlgItem(hWnd, nListCtrl);
ListView_DeleteAllItems(hList);
ListView_DeleteColumn(hList, 2);
ListView_DeleteColumn(hList, 1);
ListView_DeleteColumn(hList, 0);
hDC = GetDC (NULL); // DC for desktop
iNumBits = GetDeviceCaps (hDC, BITSPIXEL) * GetDeviceCaps (hDC, PLANES);
ReleaseDC (NULL, hDC);
if (iNumBits <= 8)
{
hImages = ImageList_Create (16, 16, ILC_COLOR | ILC_MASK,
NUM_BITMAPS, 0);
hBmp = LoadBitmap (g_hInstance, MAKEINTRESOURCE (IDB_IMAGES4BIT));
ImageList_AddMasked (hImages, hBmp, RGB(255, 0, 255));
DeleteObject (hBmp);
}
else
{
hImages = ImageList_Create (16, 16, ILC_COLOR24 | ILC_MASK,
NUM_BITMAPS, 0);
hBmp = LoadBitmap (g_hInstance, MAKEINTRESOURCE (IDB_IMAGES24BIT));
ImageList_AddMasked (hImages, hBmp, RGB(255, 0, 255));
DeleteObject (hBmp);
}
ListView_SetImageList(hList, hImages, LVSIL_SMALL);
// Setup the list control columns
LoadString(g_hInstance, IDS_USERID, szTitle, 254);
lvcKey.mask = LVCF_FMT | LVCF_TEXT | LVCF_WIDTH | LVCF_SUBITEM;
lvcKey.fmt = LVCFMT_LEFT;
lvcKey.cx = 175;
lvcKey.pszText = szTitle;
lvcKey.iSubItem = -1;
ListView_InsertColumn(hList, 0, &lvcKey);
LoadString(g_hInstance, IDS_CREATION, szTitle, 254);
lvcKey.mask = LVCF_FMT | LVCF_TEXT | LVCF_WIDTH | LVCF_SUBITEM;
lvcKey.fmt = LVCFMT_CENTER;
lvcKey.cx = 75;
lvcKey.pszText = szTitle;
lvcKey.iSubItem = 1;
ListView_InsertColumn(hList, 1, &lvcKey);
LoadString(g_hInstance, IDS_KEYSIZE, szTitle, 254);
lvcKey.mask = LVCF_FMT | LVCF_TEXT | LVCF_WIDTH | LVCF_SUBITEM;
lvcKey.fmt = LVCFMT_CENTER;
lvcKey.cx = 75;
lvcKey.pszText = szTitle;
lvcKey.iSubItem = 2;
ListView_InsertColumn(hList, 2, &lvcKey);
/* Initialize keyrings */
PGPOrderKeySet(userKeySet, kPGPUserIDOrdering, &klist);
PGPNewKeyIter(klist, &kiter);
PGPKeyIterNext(kiter, &newKey);
nItem = 0;
while (newKey)
{
PGPGetKeyBoolean(newKey, kPGPKeyPropIsRevoked, &bIsRevoked);
PGPGetKeyBoolean(newKey, kPGPKeyPropIsDisabled, &bIsDisabled);
PGPGetKeyBoolean(newKey, kPGPKeyPropIsExpired, &bIsExpired);
PGPGetKeyBoolean(newKey, kPGPKeyPropIsEncryptionKey, &bIsEncryptKey);
PGPGetKeyBoolean(newKey, kPGPKeyPropIsSigningKey, &bIsSigningKey);
if ((bIsRevoked || bIsDisabled || bIsExpired) ||
(!bIsEncryptKey && bMustEncrypt) ||
(!bIsSigningKey && bMustSign))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
PGPGetKeyNumber(newKey, kPGPKeyPropAlgID, (PGPInt32 *) &lAlg);
if ((bShowRSA && (lAlg == kPGPPublicKeyAlgorithm_RSA)) ||
(bShowDH && (lAlg == kPGPPublicKeyAlgorithm_DSA)))
{
if (IsPGPError(PGPGetPrimaryUserIDNameBuffer(newKey,
kPGPMaxUserIDSize, (char*)szUserID, &nLength)))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
szUserID[nLength] = 0;
if (IsPGPError(PGPGetKeyNumber(newKey, kPGPKeyPropBits,
&nSignSize)))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
if (lAlg == kPGPPublicKeyAlgorithm_DSA)
{
PGPKeyIterNextSubKey(kiter, &newSubKey);
if (newSubKey) {
if (IsPGPError(PGPGetSubKeyNumber(newSubKey,
kPGPKeyPropBits, &nEncryptSize)))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
wsprintf(szSize, "%d/%d", nEncryptSize, nSignSize);
}
else
wsprintf(szSize, "%d", nSignSize);
}
else
wsprintf(szSize, "%d", nSignSize);
if (IsPGPError(PGPGetKeyTime(newKey, kPGPKeyPropCreation,
&tCreation)))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
PGPGetYMDFromPGPTime(tCreation, &year, &month, &day);
wsprintf(szCreation, "%d/%d/%d", month, day, year);
if (onlyThisKeySet != NULL)
{
if (!PGPKeySetIsMember(newKey, onlyThisKeySet))
{
PGPKeyIterNext(kiter, &newKey);
continue;
}
}
PGPGetKeyIDFromKey(newKey, &newKeyID);
PGPGetKeyIDString(&newKeyID, kPGPKeyIDString_Full, szTempKeyID);
lviKey.mask = LVIF_TEXT | LVIF_PARAM | LVIF_IMAGE;
lviKey.pszText = (char *) szUserID;
lviKey.iItem = nItem;
lviKey.iSubItem = 0;
if (lAlg == kPGPPublicKeyAlgorithm_RSA)
lviKey.iImage = IDX_RSAPUBKEY;
if (lAlg == kPGPPublicKeyAlgorithm_DSA)
lviKey.iImage = IDX_DSAPUBKEY;
lviKey.lParam = (long) pgpAlloc(strlen(szTempKeyID)+1);
strcpy((char *) lviKey.lParam, szTempKeyID);
ListView_InsertItem(hList, &lviKey);
lviKey.mask = LVIF_TEXT;
lviKey.pszText = szCreation;
lviKey.iItem = nItem;
lviKey.iSubItem = 1;
ListView_SetItem(hList, &lviKey);
lviKey.mask = LVIF_TEXT;
lviKey.pszText = szSize;
lviKey.iItem = nItem;
lviKey.iSubItem = 2;
ListView_SetItem(hList, &lviKey);
nItem++;
}
PGPKeyIterNext(kiter, &newKey);
}
PGPFreeKeyIter( kiter );
PGPFreeKeyList( klist );
/* Everything was OK */
err = kPGPError_NoErr;
PGPFreeKeySet(userKeySet);
return;
}
PGPError addToWorkingRingSet(struct pgpmainBones *mainbPtr, PGPKeySetRef
keySet, PGPBoolean bAddToDefault )
{
PGPContextRef context = mainbPtr->pgpContext;
PGPEnv *env = pgpContextGetEnvironment( context );
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
struct pgpenvBones *envbPtr = mainbPtr->envbPtr;
PGPKeyIterRef iter = NULL;
PGPError err;
PGPKeyRef key = 0;
PGPKeyRef origkey = 0;
PGPKeyID keyid;
int copying = 0;
int newkeys = 0, newsigs = 0, newuids = 0, newrvks = 0;
PGPKeyListRef keylist = 0;
char* ringfile = "";
PGPInt32 pri;
PGPInt32 verbose = pgpenvGetInt( env, PGPENV_VERBOSE, &pri, &err );
PGPInt32 interactive = envbPtr->interactiveAdd;
PGPBoolean batchmode = pgpenvGetInt( env, PGPENV_BATCHMODE, &pri, &err );
PGPKeySetRef keepset = NULL, origset = NULL;
PGPBoolean ans;
PGPKeySetRef defKeySet = kPGPInvalidRef;
err = PGPOpenDefaultKeyRings(context, kPGPKeyRingOpenFlags_Mutable, &defKeySet);
if(IsPGPError(err))
goto done;
if(bAddToDefault)
mainbPtr->workingRingSet = defKeySet;
pgpAssertAddrValid( mainbPtr, struct pgpmainBones );
pgpAssertAddrValid( mainbPtr->workingRingSet, PGPKeySetRef );
err = PGPNewEmptyKeySet( mainbPtr->workingRingSet, &origset );
pgpAssertNoErr(err);
err = PGPOrderKeySet( keySet, kPGPAnyOrdering, &keylist );
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &iter );
pgpAssertNoErr(err);
if(verbose)
fprintf(filebPtr->pgpout,
LANG("\nPASS 1.. find the existing keys\n"));
err = PGPKeyIterRewind( iter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( iter, &key);
if( err ) {
fprintf( filebPtr->pgpout,LANG("Could not read key from keyfile."));
goto done;
}
while( key ) {
err = PGPGetKeyIDFromKey( key, &keyid );
pgpAssertNoErr(err);
err = PGPGetKeyByKeyID( defKeySet, &keyid,
kPGPPublicKeyAlgorithm_Invalid,
&origkey );
if(err == 0 )
err = pgpAddKeyToKeySet( origkey, origset );
err = PGPKeyIterNext( iter, &key );
}
if(verbose)
fprintf(filebPtr->pgpout,
LANG("\nPASS 2.. ask whether to add the new keys\n"));
err = PGPKeyIterRewind( iter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( iter, &key);
if( err ) {
fprintf( filebPtr->pgpout,LANG("Could not read key from keyfile."));
goto done;
}
while( key ) {
PGPBoolean isnew;
err = PGPGetKeyIDFromKey( key, &keyid );
pgpAssertNoErr(err);
err = PGPGetKeyByKeyID( defKeySet, &keyid,
kPGPPublicKeyAlgorithm_Invalid,
&origkey );
/* Copy if all criteria are met */
copying = 0;
isnew = FALSE;
if(err == 0 ) {
copying = 1;
} else {
/* is a new key*/
err = pgpShowKeyListFormat( filebPtr,
mainbPtr->workingRingSet, iter, key, kShow_Sigs |
kShow_Checks );
if( interactive ) {
fprintf( filebPtr->pgpout, LANG(
"\nDo you want to add this key to keyring '%s' (y/N)? "), ringfile);
copying = getyesno(filebPtr,'n', batchmode ) ? 1 : 0;
} else
copying = 1;
if(copying) {
isnew=TRUE;
newkeys++;
}
}
if( copying ) {
if(keepset == NULL) {
err = PGPNewKeySet( context, &keepset );
pgpAssertNoErr(err);
}
err = pgpAddKeyToKeySet( key, keepset );
if(IsPGPError(err)) {
pgpShowError(filebPtr, err,__FILE__,__LINE__);
}
if( isnew && !batchmode ) {
/* This is not efficient, because it loops on
keepset, so avoid calling it in batchmode. */
err = pgpMarkKeyInSet( keepset, key );
}
}
err = PGPKeyIterNext( iter, &key );
if( err != 0 || key == 0 ) {
break;
}
}
if(err == kPGPError_EndOfIteration)
err = 0;
if( newkeys > 0 && !interactive ) {
fprintf( filebPtr->pgpout, LANG("\nkeyfile contains %d new keys. "),
newkeys);
fprintf( filebPtr->pgpout, LANG(
"Add these keys to keyring ? (Y/n) "));
fflush( filebPtr->pgpout );
ans = getyesno(filebPtr, 'y', batchmode);
/* add a newline to make it easier to read */
fprintf(filebPtr->pgpout, "\n");
fflush(filebPtr->pgpout);
if(!ans)
goto done;
}
if(verbose)
fprintf(filebPtr->pgpout, LANG(
"\nPASS 3.. show the new userids and new sigs\n"));
{
PGPSize keys,uids,sigs,rvks;
err = pgpMarkKeySet( origset );
pgpAssertNoErr(err);
err = PGPAddKeys( origset, keepset );
pgpAssertNoErr(err);
/*
* mark default key set to determine which keys are
* being added in, need to do this because mainbPtr->workingRingSet
* might be a in memory key set
*/
err = pgpMarkKeySet( defKeySet );
pgpAssertNoErr(err);
err = PGPAddKeys( keepset, defKeySet );
pgpAssertNoErr(err);
err = pgpShowKeySetUnmarked( filebPtr, defKeySet, &keys, &uids,
&sigs, &rvks );
pgpAssertNoErr(err);
/*newkeys += keys;*/
newuids += uids;
newsigs += sigs;
newrvks += rvks;
}
if(verbose)
fprintf(filebPtr->pgpout,
LANG("\nPASS 4... add them to the keyring\n"));
if(!bAddToDefault)
{
err = PGPAddKeys( keepset, mainbPtr->workingRingSet );
pgpAssertNoErr(err);
}
/* For now AddKeys should be more or less the same as mergekeys */
/* User feedback */
if( newsigs == 0 && newkeys == 0 && newuids == 0 && newrvks == 0 ) {
goto done;
}
/* Check signatures */
PGPCheckKeyRingSigs( keepset, mainbPtr->workingRingSet, 0, NULL, NULL );
if( err ) {
if( verbose ) {
fprintf(filebPtr->pgpout, LANG(
"addToWorkingRingSet: pgpDoCheckKeySet() returned %d\n"), err);
}
goto done;
}
/* More user feedback */
fprintf(filebPtr->pgpout, LANG("\nKeyfile contains:\n"));
if (newkeys)
fprintf(filebPtr->pgpout, LANG("%4d new key(s)\n"), newkeys);
if (newsigs)
fprintf(filebPtr->pgpout, LANG("%4d new signatures(s)\n"), newsigs);
if (newuids)
fprintf(filebPtr->pgpout, LANG("%4d new user ID(s)\n"), newuids);
if (newrvks)
fprintf(filebPtr->pgpout, LANG("%4d new revocation(s)\n"), newrvks);
err = PGPPropagateTrust( mainbPtr->workingRingSet );
pgpAssertNoErr(err);
/* mainbPtr->workingRingSet = ringSet;*/
/* mainbPtr->workingGroupSet = NULL;*/
err = pgpProcessUncertifiedKeys( mainbPtr, keepset );
if( IsPGPError(err)) {
if(err == kPGPError_UserAbort)
err = kPGPError_NoErr;
goto done;
}
err = pgpProcessUntrustedKeys( mainbPtr, keepset,
mainbPtr->workingRingSet );
done:
if(PGPKeySetNeedsCommit(mainbPtr->workingRingSet))
PGPCommitKeyRingChanges(mainbPtr->workingRingSet);
if(defKeySet != kPGPInvalidRef)
PGPFreeKeySet(defKeySet);
if(keepset != NULL)
PGPFreeKeySet( keepset );
if( iter )
PGPFreeKeyIter( iter );
if( keylist)
PGPFreeKeyList( keylist );
if( origset )
PGPFreeKeySet( origset );
/* The event handler will call addToRingSetFinish( ringSet ); before
this is done */
return err;
}
/*
Examines the keys in keyset and updates the trust of corresponding
keys in ringSet.
It is not assumed that parameter keyset comes from the same key
database as ringSet.
*/
PGPError pgpProcessUntrustedKeys( struct pgpmainBones *mainbPtr,
PGPKeySetRef keyset, PGPKeySetRef ringSet )
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPKeyRef key,origkey;
PGPKeyID keyid;
PGPKeyIterRef keyiter = NULL;
PGPKeyListRef keylist = NULL;
PGPError err;
err = PGPOrderKeySet( keyset, kPGPAnyOrdering, &keylist);
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &keyiter );
pgpAssertNoErr(err);
for(;;) {
PGPBoolean endloop;
/* loop while there are any (at least marginally valid) keys
whose trust has not been set. */
/* while keys still with undefined trust, allow wetware editing
of trust parameter (avoid iterating main ringSet due to ldap
servers and potential size of set) */
endloop = TRUE;
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key);
while( key ) {
PGPInt32 validity;
PGPUserValue val;
err = PGPGetKeyIDFromKey( key, &keyid );
if( err ) {
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto next;
}
err = PGPGetKeyByKeyID( ringSet, &keyid,
kPGPPublicKeyAlgorithm_Invalid, &origkey );
if( err ) {
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto next;
}
err = PGPGetKeyNumber( key, kPGPKeyPropValidity, &validity);
pgpAssertNoErr(err);
err = PGPGetKeyUserVal( key, &val );
pgpAssertNoErr(err);
if( (validity > kPGPValidity_Invalid) && ! ((PGPInt32)val &
kMark_Trust ) ) /* key has not been processed*/
{
PGPUserIDRef userid;
PGPSize scrap;
char useridstr[ kPGPMaxUserIDSize ];
err = PGPGetPrimaryUserID( origkey, &userid );
pgpAssertNoErr(err);
err = PGPGetUserIDStringBuffer( userid,
kPGPUserIDPropName, kPGPMaxUserIDSize, useridstr,
&scrap);
pgpAssertNoErr(err);
if( pgpGetKeyTrust( origkey ) <= kPGPKeyTrust_Unknown ) {
err = pgpShowKeyBrief( filebPtr, key );
pgpAssertNoErr(err);
err = pgpEditPublicTrustParameter( filebPtr,
useridstr, key );
if( err ) {
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto done;
}
PGPPropagateTrust( ringSet );
PGPSetKeyUserVal( key, (PGPUserValue)( (PGPInt32)val |
kMark_Trust )); /* key has been processed*/
endloop = FALSE;
}
}
next:
err = PGPKeyIterNext( keyiter, &key );
/*if err, no more*/
}
if( endloop == TRUE ) break;
}
done:
if( keyiter )
PGPFreeKeyIter( keyiter );
if( keylist )
PGPFreeKeyList( keylist );
return err;
}
PGPError pgpProcessUncertifiedKeys( struct pgpmainBones *mainbPtr,
PGPKeySetRef keyset )
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPKeyRef key,origkey;
PGPKeyID keyid;
PGPKeyIterRef keyiter = NULL;
PGPKeyListRef keylist = NULL;
PGPError err;
PGPBoolean ask_first_latch = TRUE;
pgpAssertAddrValid( mainbPtr, struct pgpmainBones );
pgpAssertAddrValid( mainbPtr->workingRingSet, PGPKeySetRef );
err = PGPOrderKeySet( keyset, kPGPAnyOrdering, &keylist);
pgpAssertNoErr(err);
err = PGPNewKeyIter( keylist, &keyiter );
pgpAssertNoErr(err);
/* Sign unverifiable keys by hand */
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key);
pgpAssertNoErr(err);
while( key ) {
PGPBoolean issec;
PGPGetKeyBoolean( key, kPGPKeyPropIsSecret, &issec );
if(issec)
goto next;
err = PGPGetKeyIDFromKey( key, &keyid );
if( IsPGPError(err) ) {
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto next;
}
err = PGPGetKeyByKeyID( mainbPtr->workingRingSet, &keyid,
kPGPPublicKeyAlgorithm_Invalid, &origkey );
if( IsPGPError(err) ) {
if( err != kPGPError_ItemNotFound )
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto next;
}
/*mainbPtr->workingRingSet=ringSet;*/
/*mainbPtr->workingGroupSet=NULL;*/
err=askToSign( mainbPtr, origkey, ask_first_latch );
switch(err) {
case kPGPError_NoErr:
break;
case kPGPError_UserAbort:
/*err = kPGPError_NoErr;*/
goto done;
case kPGPError_ItemAlreadyExists:
goto next;
default:
pgpShowError( filebPtr, err,__FILE__,__LINE__ );
goto done;
}
ask_first_latch = FALSE; /* should stay false now */
next:
err = PGPKeyIterNext( keyiter, &key );
/*if err, there are no more*/
}
if( err == kPGPError_EndOfIteration )
err = kPGPError_NoErr;
done:
if( keyiter )
PGPFreeKeyIter( keyiter );
if( keylist )
PGPFreeKeyList( keylist );
return err;
}
PGPError PGPclExport
PGPclSendKeysToServer (
PGPContextRef context,
PGPtlsContextRef tlsContext,
HWND hwndParent,
UINT uServer,
PGPKeyServerEntry* pkeyserver,
PGPKeySetRef keysetMain,
PGPKeySetRef keysetToSend)
{
PGPError err = kPGPError_NoErr;
PGPKeySetRef keyset = kInvalidPGPKeySetRef;
PGPKeyListRef keylist = kInvalidPGPKeyListRef;
PGPKeyIterRef keyiter = kInvalidPGPKeyIterRef;
PGPValidatePtr (keysetToSend);
PGPValidatePtr (context);
PGPValidatePtr (pkeyserver);
// derive server from userid
if (uServer == PGPCL_USERIDBASEDSERVER) {
PGPKeyRef key = kInvalidPGPKeyRef;
CHAR szUserID[kPGPMaxUserIDSize+1];
PGPSize size;
err = PGPOrderKeySet (keysetToSend,
kPGPAnyOrdering, &keylist); CKERR;
err = PGPNewKeyIter (keylist, &keyiter); CKERR;
while ( IsntPGPError (PGPKeyIterNext (keyiter, &key)) &&
PGPKeyRefIsValid (key))
{
err = PGPNewSingletonKeySet (key, &keyset); CKERR;
err = PGPGetPrimaryUserIDNameBuffer (key, kPGPMaxUserIDSize,
szUserID, &size); CKERR;
err = sSendToServerInternal (hwndParent,
context,
tlsContext,
uServer,
pkeyserver,
szUserID,
keysetMain,
keyset); CKERR;
}
}
// use indicated or caller-supplied server
else {
err = sSendToServerInternal (hwndParent,
context,
tlsContext,
uServer,
pkeyserver,
"",
keysetMain,
keysetToSend);
}
done :
if (PGPKeyListRefIsValid (keylist))
PGPFreeKeyList (keylist);
if (PGPKeyIterRefIsValid (keyiter))
PGPFreeKeyIter (keyiter);
if (PGPKeySetRefIsValid (keyset))
PGPFreeKeySet (keyset);
return err;
}
PGPError PGPclExport
PGPclUpdateKeySetFromServer (
PGPContextRef context,
PGPtlsContextRef tlsContext,
HWND hwndParent,
PGPKeySetRef keysetToUpdate,
UINT uServer,
PGPKeySetRef keysetMain,
PGPKeySetRef* pkeysetResult)
{
PGPError err = kPGPError_NoErr;
PGPKeySetRef keysetCollect = kInvalidPGPKeySetRef;
PGPOptionListRef optionSearch = kInvalidPGPOptionListRef;
PGPKeyListRef keylist = kInvalidPGPKeyListRef;
PGPKeyIterRef keyiter = kInvalidPGPKeyIterRef;
PGPKeySetRef keyset = kInvalidPGPKeySetRef;
PGPKeyID keyid;
// initialize return keyset
PGPValidatePtr (pkeysetResult);
*pkeysetResult = kInvalidPGPKeySetRef;
if (uServer == PGPCL_USERIDBASEDSERVER) {
PGPKeyRef key = kInvalidPGPKeyRef;
CHAR szUserID[kPGPMaxUserIDSize+1];
PGPSize size;
err = PGPNewKeySet (context, &keysetCollect); CKERR;
err = PGPOrderKeySet (keysetToUpdate,
kPGPAnyOrdering, &keylist); CKERR;
err = PGPNewKeyIter (keylist, &keyiter); CKERR;
while ( IsntPGPError (err) &&
IsntPGPError (PGPKeyIterNext (keyiter, &key)) &&
PGPKeyRefIsValid (key))
{
err = PGPGetPrimaryUserIDNameBuffer (key, kPGPMaxUserIDSize,
szUserID, &size); CKERR;
err = PGPGetKeyIDFromKey (key, &keyid); CKERR;
optionSearch = PGPOUIKeyServerSearchKeyIDList (context,
1, &keyid);
if (PGPOptionListRefIsValid (optionSearch)) {
err = sQueryServerInternal (hwndParent,
context,
tlsContext,
optionSearch,
uServer,
szUserID,
keysetMain,
&keyset);
if (IsPGPError (PGPclErrorBox (hwndParent, err)))
err = kPGPError_NoErr;
if (IsntPGPError (err))
{
if (PGPKeySetRefIsValid (keyset))
{
err = PGPAddKeys (keyset, keysetCollect);
if (IsntPGPError (PGPclErrorBox (hwndParent, err)))
{
err = PGPCommitKeyRingChanges (keysetCollect);
PGPclErrorBox (hwndParent, err);
}
}
}
if (PGPKeySetRefIsValid (keyset))
{
PGPFreeKeySet (keyset);
keyset = kInvalidPGPKeySetRef;
}
}
}
if (PGPKeySetRefIsValid (keysetCollect))
{
*pkeysetResult = keysetCollect;
keysetCollect = kInvalidPGPKeySetRef;
}
}
else {
optionSearch = PGPOUIKeyServerSearchKeySet (context, keysetToUpdate);
if (PGPOptionListRefIsValid (optionSearch)) {
err = sQueryServerInternal (hwndParent,
context,
tlsContext,
optionSearch,
uServer,
"",
keysetMain,
&keysetCollect);
if (IsntPGPError (err))
{
*pkeysetResult = keysetCollect;
keysetCollect = kInvalidPGPKeySetRef;
}
}
}
done :
if (PGPKeyListRefIsValid (keylist))
PGPFreeKeyList (keylist);
if (PGPKeyIterRefIsValid (keyiter))
PGPFreeKeyIter (keyiter);
if (PGPKeySetRefIsValid (keyset))
PGPFreeKeySet (keyset);
if (PGPKeySetRefIsValid (keysetCollect))
PGPFreeKeySet (keysetCollect);
return err;
}
PGPError
PGPX509CertFromExport(
PGPContextRef context,
PGPUInt32 uX509Alg,
PGPByte* expkeyidX509,
PGPByte* pIASNX509,
PGPUInt32 uX509IASNLength,
PGPKeySetRef keyset,
PGPKeyRef* pkeyX509,
PGPSigRef* psigX509 )
{
PGPKeyListRef keylist = kInvalidPGPKeyListRef;
PGPKeyIterRef keyiter = kInvalidPGPKeyIterRef;
PGPKeySetRef keysetX509 = kInvalidPGPKeySetRef;
PGPKeyRef key = kInvalidPGPKeyRef;
PGPUserIDRef userid = kInvalidPGPUserIDRef;
PGPSigRef sig = kInvalidPGPSigRef;
PGPError err = kPGPError_NoErr;
PGPByte* pIASN = NULL;
PGPKeyID keyid;
PGPSize size;
PGPValidatePtr (pkeyX509);
PGPValidatePtr (psigX509);
*pkeyX509 = kInvalidPGPKeyRef;
*psigX509 = kInvalidPGPSigRef;
// get X.509 key
if ((pIASNX509 != NULL) &&
(uX509Alg != kPGPPublicKeyAlgorithm_Invalid))
{
err = PGPImportKeyID (expkeyidX509, &keyid); CKERR;
err = PGPGetKeyByKeyID (
keyset, &keyid, (PGPPublicKeyAlgorithm)uX509Alg,
pkeyX509); CKERR;
}
// get X.509 sig
if (PGPKeyRefIsValid (*pkeyX509))
{
err = PGPNewSingletonKeySet (*pkeyX509, &keysetX509); CKERR;
err = PGPOrderKeySet (keysetX509, kPGPAnyOrdering, &keylist); CKERR;
err = PGPNewKeyIter (keylist, &keyiter); CKERR;
err = PGPKeyIterNext (keyiter, &key); CKERR;
err = PGPKeyIterNextUserID (keyiter, &userid); CKERR;
while (userid)
{
PGPKeyIterNextUIDSig (keyiter, &sig);
while ( (sig != kInvalidPGPSigRef) &&
(*psigX509 == kInvalidPGPSigRef))
{
size = 0;
PGPGetSigPropertyBuffer (sig,
kPGPSigPropX509IASN, 0, NULL, &size);
if (size == uX509IASNLength)
{
pIASN = (PGPByte *)PGPNewData (
PGPGetContextMemoryMgr (context),
size, kPGPMemoryMgrFlags_Clear);
if (pIASN)
{
err = PGPGetSigPropertyBuffer (sig,
kPGPSigPropX509IASN, size, pIASN, &size); CKERR;
if (pgpMemoryEqual (pIASN, pIASNX509, size))
{
*psigX509 = sig;
}
PGPFreeData (pIASN);
pIASN = NULL;
}
}
PGPKeyIterNextUIDSig (keyiter, &sig);
}
PGPKeyIterNextUserID (keyiter, &userid);
}
}
done :
if (pIASN != NULL)
PGPFreeData (pIASN);
if (PGPKeySetRefIsValid (keysetX509))
PGPFreeKeySet (keysetX509);
if (PGPKeyIterRefIsValid (keyiter))
PGPFreeKeyIter (keyiter);
if (PGPKeyListRefIsValid (keylist))
PGPFreeKeyList (keylist);
return err;
}
BOOL
AddKeySetToRecipientsTable (HWND hDlg,
PGPKeySetRef KeySet,
CPGPDecryptionPassphraseDialogOptions *options)
{
BOOL bAtLeastOneValidSecretKey = FALSE;
UINT uUnknownKeys = 0;
PGPKeyListRef KeyList;
PGPKeyIterRef KeyIter;
PGPKeyRef Key;
PGPSubKeyRef SubKey;
UINT u, uIndex, uKeyBits, uAlgorithm;
INT iKeyDefault, iKeySelected;
PGPBoolean bSecret, bCanDecrypt;
CHAR szName[kPGPMaxUserIDSize];
CHAR sz[128];
PGPOrderKeySet (KeySet, kPGPValidityOrdering, &KeyList);
PGPNewKeyIter (KeyList, &KeyIter);
iKeySelected = -1;
iKeyDefault = -1;
PGPKeyIterNext (KeyIter, &Key);
while (Key)
{
PGPGetKeyBoolean (Key, kPGPKeyPropIsSecret, &bSecret);
PGPGetKeyBoolean (Key, kPGPKeyPropCanDecrypt, &bCanDecrypt);
PGPGetKeyNumber (Key, kPGPKeyPropAlgID, (int *)&uAlgorithm);
if (bSecret && bCanDecrypt) bAtLeastOneValidSecretKey = TRUE;
// get name on key
PGPGetPrimaryUserIDNameBuffer (Key, sizeof(szName),
szName, &u);
if (u > MAXDECRYPTIONNAMECHAR)
{
u = MAXDECRYPTIONNAMECHAR;
lstrcat (szName, "...");
}
else
szName[u] = '\0';
// append key type / size info to name
lstrcat (szName, " (");
switch (uAlgorithm)
{
case kPGPPublicKeyAlgorithm_RSA :
LoadString (gPGPsdkUILibInst, IDS_RSA, sz, sizeof(sz));
lstrcat (szName, sz);
lstrcat (szName, "/");
PGPGetKeyNumber (Key, kPGPKeyPropBits, (int *)&uKeyBits);
wsprintf (sz, "%i", uKeyBits);
lstrcat (szName, sz);
break;
case kPGPPublicKeyAlgorithm_DSA :
LoadString (gPGPsdkUILibInst, IDS_DH, sz, sizeof(sz));
lstrcat (szName, sz);
lstrcat (szName, "/");
PGPKeyIterNextSubKey (KeyIter, &SubKey);
if (SubKey) {
PGPGetSubKeyNumber (SubKey, kPGPKeyPropBits,
(int *)&uKeyBits);
wsprintf (sz, "%i", uKeyBits);
lstrcat (szName, sz);
}
else lstrcat (szName, "???");
break;
default :
LoadString (gPGPsdkUILibInst, IDS_UNKNOWN, sz, sizeof(sz));
lstrcat (szName, sz);
lstrcat (szName, "/");
lstrcat (szName, sz);
break;
}
lstrcat (szName, ")");
uIndex = SendDlgItemMessage (hDlg, IDC_KEYLISTBOX,
LB_ADDSTRING, 0, (LPARAM)szName);
PGPKeyIterNext (KeyIter, &Key);
}
PGPFreeKeyIter (KeyIter);
PGPFreeKeyList (KeyList);
return bAtLeastOneValidSecretKey;
}
BOOL
InitSigningKeyComboBox (HWND hDlg, CPGPKeySetPassphraseDialogOptions *options)
{
PGPKeyListRef KeyList;
PGPKeyIterRef KeyIter;
PGPKeyRef Key;
PGPKeyRef KeyDefault;
UINT uIndex;
INT iKeyDefault, iKeySelected;
PGPBoolean bSecret, bRevoked, bExpired, bCanSign;
BOOL bAtLeastOneSecretKey;
CHAR szNameFinal[kPGPMaxUserIDSize];
HDC hdc;
RECT rc;
INT iComboWidth;
HFONT hFont;
PGPOrderKeySet (options->mKeySet, kPGPValidityOrdering, &KeyList);
PGPNewKeyIter (KeyList, &KeyIter);
PGPGetDefaultPrivateKey (options->mKeySet, &KeyDefault);
SendDlgItemMessage (hDlg, IDC_SIGNKEYCOMBO, CB_GETDROPPEDCONTROLRECT,
0, (LPARAM)&rc);
iComboWidth = rc.right-rc.left - GetSystemMetrics (SM_CXVSCROLL);
hdc = GetDC (GetDlgItem (hDlg, IDC_SIGNKEYCOMBO));
hFont = (HFONT)GetStockObject (DEFAULT_GUI_FONT);
SelectObject (hdc, hFont);
iKeySelected = -1;
iKeyDefault = 0;
bAtLeastOneSecretKey = FALSE;
PGPKeyIterNext (KeyIter, &Key);
while (Key) {
PGPGetKeyBoolean (Key, kPGPKeyPropIsSecret, &bSecret);
if (bSecret) {
PGPGetKeyBoolean (Key, kPGPKeyPropIsRevoked, (unsigned char *)&bRevoked);
PGPGetKeyBoolean (Key, kPGPKeyPropIsExpired, (unsigned char *)&bExpired);
PGPGetKeyBoolean (Key, kPGPKeyPropCanSign, (unsigned char *)&bCanSign);
if (!bRevoked && !bExpired && bCanSign) {
bAtLeastOneSecretKey = TRUE;
GetKeyString(hdc,iComboWidth,Key,szNameFinal);
uIndex = SendDlgItemMessage (hDlg, IDC_SIGNKEYCOMBO,
CB_ADDSTRING, 0, (LPARAM)szNameFinal);
if (uIndex != CB_ERR) {
SendDlgItemMessage (hDlg, IDC_SIGNKEYCOMBO,
CB_SETITEMDATA, uIndex, (LPARAM)Key);
if (options->mDefaultKey) {
if (Key == options->mDefaultKey)
iKeySelected = uIndex;
}
if (Key == KeyDefault) iKeyDefault = uIndex;
}
}
}
PGPKeyIterNext (KeyIter, &Key);
}
PGPFreeKeyIter (KeyIter);
PGPFreeKeyList (KeyList);
if (iKeySelected == -1) iKeySelected = iKeyDefault;
SendDlgItemMessage (hDlg, IDC_SIGNKEYCOMBO, CB_SETCURSEL,
iKeySelected, 0);
ReleaseDC (GetDlgItem (hDlg, IDC_SIGNKEYCOMBO), hdc);
return (bAtLeastOneSecretKey);
}
PVOID __cdecl _pgp_select_keyid(HWND hDlg,LPSTR szKeyID)
{
#if (PGP_WIN32 < 0x700)
PGPKeySetRef ContactKeyDB;
#else
PGPKeyDBRef ContactKeyDB;
#endif
PGPError err;
err = PGPRecipientDialog(pgpContext, pgpKeyDB, TRUE, &ContactKeyDB,
PGPOUIParentWindowHandle(pgpContext, hDlg),
PGPOUIWindowTitle(pgpContext, "Select Contact's Key"),
PGPOLastOption(pgpContext));
if (err == kPGPError_UserAbort)
return 0;
PGPUInt32 dwKeys;
#if (PGP_WIN32 < 0x700)
PGPCountKeys(ContactKeyDB, &dwKeys);
#else
PGPCountKeysInKeyDB(ContactKeyDB, &dwKeys);
#endif
if (!dwKeys) {
return 0;
} else if (dwKeys > 1)
MessageBox(hDlg, "You selected more than one key. Only the first key will be used.", szModuleName, MB_ICONINFORMATION);
static PGPKeyID KeyID;
#if (PGP_WIN32 < 0x700)
PGPKeyListRef ContactKeyList;
PGPOrderKeySet(ContactKeyDB, kPGPKeyIDOrdering, &ContactKeyList);
PGPKeyIterRef KeyIterRef;
PGPNewKeyIter(ContactKeyList, &KeyIterRef);
PGPKeyRef ContactKey;
PGPKeyIterNext(KeyIterRef, &ContactKey);
PGPGetKeyIDFromKey(ContactKey, &KeyID);
PGPGetKeyIDString(&KeyID, kPGPKeyIDString_Abbreviated, szKeyID);
PGPFreeKeyList(ContactKeyList);
PGPFreeKeyIter(KeyIterRef);
PGPFreeKeySet(ContactKeyDB);
#else
PGPKeyIterRef KeyIterRef;
PGPNewKeyIterFromKeyDB(ContactKeyDB, &KeyIterRef);
PGPKeyDBObjRef KeyDBObjRef;
PGPKeyIterNextKeyDBObj(KeyIterRef, kPGPKeyDBObjType_Key, &KeyDBObjRef);
PGPSize dwFilled;
PGPGetKeyDBObjDataProperty(KeyDBObjRef, kPGPKeyProperty_KeyID, &KeyID, sizeof(PGPKeyID), &dwFilled);
PGPGetKeyIDString(&KeyID, kPGPKeyIDString_Abbreviated, szKeyID);
PGPFreeKeyIter(KeyIterRef);
PGPFreeKeyDB(ContactKeyDB);
#endif
return (PVOID)&KeyID;
}
PGPError markSignatureChainDepths(struct pgpmainBones *mainbPtr,
PGPKeySetRef bothRingsSet,
PGPFilterRef depthFilter)
{
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPContextRef context = mainbPtr->pgpContext;
PGPBoolean compatible = mainbPtr->envbPtr->compatible;
PGPKeyIterRef keyiter;
PGPKeyID kid;
PGPKeySetRef depthSet;
PGPKeyListRef depthList;
PGPKeyRef key;
PGPFilterRef signedByMeFilter = NULL;
PGPFilterRef usedKeysFilter = NULL;
PGPFilterRef unusedKeysFilter = NULL;
char kstr[kPGPMaxKeyIDStringSize];
char useridstr[ kPGPMaxUserIDSize ];
PGPError err;
PGPBoolean firstKeyAtThisDepth;
PGPUInt32 depth = 0;
PGPUInt32 count;
PGPUserValue traceValue;
/* Trace value contains highest depth in sig chain where this key
appears. High bit ='visited' flag - indicates if chain has been
followed from this point. */
fprintf(filebPtr->pgpout,
LANG("\nPass 2: Tracing signature chains...\n"));
usedKeysFilter = depthFilter;
err = PGPNegateFilter( usedKeysFilter, &unusedKeysFilter );
pgpAssertNoErr(err);
err = PGPFilterKeySet( bothRingsSet, depthFilter, &depthSet);
pgpAssertNoErr(err);
err = PGPCountKeys( depthSet, &count);
pgpAssertNoErr(err);
if (count == 0) {
fprintf(filebPtr->pgpout, LANG("No ultimately-trusted keys.") );
return -1;
}
while ( TRUE ) {
firstKeyAtThisDepth = TRUE;
err = PGPOrderKeySet(depthSet, kPGPAnyOrdering, &depthList);
pgpAssertNoErr(err);
err = PGPNewKeyIter( depthList, &keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyiter );
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyiter, &key);
while( key != NULL ) {
err = pgpGetKeyIDStringCompatFromKey( key, TRUE, compatible,
kstr );
pgpAssertNoErr(err);
err = pgpGetUserIDStringFromKey( key, useridstr );
pgpAssertNoErr(err);
/* Mark its highest depth level on each key. */
err = PGPGetKeyUserVal( key, &traceValue);
pgpAssertNoErr(err);
if ( (PGPUInt32)traceValue == 0) {
(PGPUInt32)traceValue = depth;
err = PGPSetKeyUserVal( key, traceValue);
pgpAssertNoErr(err);
}
err = PGPGetKeyIDFromKey( key, &kid );
pgpAssertNoErr(err);
if (firstKeyAtThisDepth) {
err = PGPNewSigKeyIDFilter(context, &kid, &depthFilter);
pgpAssertNoErr(err);
firstKeyAtThisDepth = FALSE;
} else {
err = PGPNewSigKeyIDFilter(context, &kid, &signedByMeFilter);
pgpAssertNoErr(err);
err = PGPUnionFilters( signedByMeFilter, depthFilter,
&depthFilter);
pgpAssertNoErr(err);
}
err = PGPKeyIterNext( keyiter, &key);
}
err = PGPIntersectFilters(unusedKeysFilter, depthFilter,
&depthFilter);
pgpAssertNoErr(err);
/* Create next depth level. */
err = PGPFreeKeySet( depthSet );
pgpAssertNoErr(err);
err = PGPFilterKeySet( bothRingsSet, depthFilter, &depthSet);
pgpAssertNoErr(err);
err = PGPCountKeys( depthSet, &count);
pgpAssertNoErr(err);
err = PGPFreeKeyIter( keyiter );
pgpAssertNoErr(err);
if (count == 0) return 0;
err = PGPUnionFilters( depthFilter, usedKeysFilter, &usedKeysFilter);
pgpAssertNoErr(err);
err = PGPNegateFilter( usedKeysFilter, &unusedKeysFilter );
pgpAssertNoErr(err);
depth ++;
}
} /* markSignatureChainDepths */
BOOL
KMSplitDropKeys (
PSPLITKEYSTRUCT psks,
HANDLE hMem)
{
PGPKeySetRef keyset = NULL;
PGPKeyListRef keylist = NULL;
PGPKeyIterRef keyiter = NULL;
LPSTR pMem = NULL;
PGPError err;
PGPKeyRef key;
PGPKeyID keyid;
BOOL bKeys;
PGPBoolean bKeyIsUsable;
size_t sLen;
PSHAREHOLDERSTRUCT pshs;
PGPPublicKeyAlgorithm alg;
bKeys = FALSE;
if (hMem) {
pMem = GlobalLock (hMem);
if (pMem) {
sLen = lstrlen (pMem);
err = PGPImportKeySet (psks->pKM->Context, &keyset,
PGPOInputBuffer (psks->pKM->Context, pMem, sLen),
PGPOLastOption (psks->pKM->Context));
if (IsPGPError (err)) goto SplitDropCleanup;
err = PGPOrderKeySet (keyset, kPGPAnyOrdering, &keylist);
if (IsPGPError (err)) goto SplitDropCleanup;
err = PGPNewKeyIter (keylist, &keyiter);
if (IsPGPError (err)) goto SplitDropCleanup;
PGPKeyIterNext (keyiter, &key);
while (key) {
bKeyIsUsable = FALSE;
PGPGetKeyNumber (key, kPGPKeyPropAlgID, &alg);
PGPGetKeyIDFromKey (key, &keyid);
// key must either not be RSA or RSA ops must be enabled
PGPGetKeyBoolean (key, kPGPKeyPropCanEncrypt, &bKeyIsUsable);
// key must not be the same one that is being split
if (alg == psks->keyalgToSplit) {
if (PGPCompareKeyIDs (&keyid, &(psks->keyidToSplit))==0)
bKeyIsUsable = FALSE;
}
// key must not already be in list
if (sIsKeyIDAlreadyInList (&keyid, alg, psks))
bKeyIsUsable = FALSE;
if (bKeyIsUsable) {
bKeys = TRUE;
pshs = KMAlloc (sizeof(SHAREHOLDERSTRUCT));
if (pshs) {
PGPSize size;
pshs->bPublicKey = TRUE;
pshs->pszPassphrase = NULL;
pshs->uShares = 1;
PGPGetPrimaryUserIDNameBuffer (key,
sizeof(pshs->szUserID), pshs->szUserID, &size);
PGPGetKeyIDFromKey (key, &(pshs->keyid));
PGPGetKeyNumber (key,
kPGPKeyPropAlgID, &(pshs->keyalg));
if (sAddShareHolder (psks, pshs,
KMDetermineUserIDIcon (key, NULL, NULL),
psks->hwndList)) {
psks->uTotalShares += pshs->uShares;
SetDlgItemInt (psks->hwndDlg, IDC_TOTALSHARES,
psks->uTotalShares, FALSE);
SendMessage (psks->hwndDlg, WM_COMMAND,
MAKEWPARAM(IDC_THRESHOLD, EN_CHANGE), 0);
}
else {
KMFree (pshs);
}
}
}
PGPKeyIterNext (keyiter, &key);
}
SplitDropCleanup :
if (keyiter)
PGPFreeKeyIter (keyiter);
if (keylist)
PGPFreeKeyList (keylist);
if (keyset)
PGPFreeKeySet (keyset);
if (pMem)
GlobalUnlock (hMem);
}
}
return bKeys;
}
PGPError printNextSignatureChainLink(struct pgpmainBones *mainbPtr,
PGPKeySetRef bothRingsSet,
PGPKeyRef key,
PGPBoolean visited,
PGPUInt32 currentDepth)
{
PGPContextRef context = mainbPtr->pgpContext;
struct pgpfileBones *filebPtr = mainbPtr->filebPtr;
PGPUserValue traceValue;
PGPUInt32 keyDepth;
PGPKeyListRef kidsList;
PGPKeySetRef kidsSet;
PGPFilterRef kidsFilter;
PGPFilterRef singletonFilter;
PGPFilterRef notParentFilter;
PGPKeyIterRef keyIter;
char useridstr[kPGPMaxUserIDSize];
PGPError err = kPGPError_NoErr;
PGPKeyID keyID;
/* For first time at node? Create keyset containing its children. */
if (!visited) {
err = PGPGetKeyIDFromKey( key, &keyID);
pgpAssertNoErr(err);
err = PGPNewSigKeyIDFilter(context, &keyID, &kidsFilter);
pgpAssertNoErr(err);
err = PGPNewKeyIDFilter( context, &keyID, &singletonFilter );
pgpAssertNoErr(err);
err = PGPNegateFilter( singletonFilter, ¬ParentFilter);
pgpAssertNoErr(err);
err = PGPIntersectFilters( notParentFilter, kidsFilter,
&kidsFilter );
pgpAssertNoErr(err);
if (kidsFilter == NULL) return 0; /* childless node */
err = PGPFilterKeySet(bothRingsSet, kidsFilter, &kidsSet);
pgpAssertNoErr(err);
err = PGPOrderKeySet( kidsSet, kPGPAnyOrdering, &kidsList);
pgpAssertNoErr(err);
err = PGPNewKeyIter(kidsList, &keyIter);
pgpAssertNoErr(err);
err = PGPKeyIterRewind( keyIter);
pgpAssertNoErr(err);
err = PGPKeyIterNext( keyIter, &key);
if (IsPGPError(err)) { /* childless */
PGPFreeKeyIter( keyIter);
return 0;
}
}
while (key != NULL) {
err = PGPGetKeyUserVal(key, &traceValue);
pgpAssertNoErr(err);
visited = (PGPUInt32)traceValue & VISITED_MASK;
keyDepth = (PGPUInt32)traceValue & DEPTH_MASK;
err = pgpGetUserIDStringFromKey(key, useridstr);
pgpAssertNoErr(err);
fprintf(filebPtr->pgpout, LANG("%*s"), (2 * currentDepth), " ");
fprintf(filebPtr->pgpout, LANG("> %s\n"), useridstr);
if (visited || (keyDepth < currentDepth) ) return 0;
traceValue = (PGPUserValue)( VISITED_MASK | keyDepth);
err = PGPSetKeyUserVal(key, traceValue);
pgpAssertNoErr(err);
err = PGPGetKeyIDFromKey( key, &keyID);
pgpAssertNoErr(err);
err = printNextSignatureChainLink(mainbPtr, bothRingsSet, key,
visited, currentDepth+1);
err = PGPKeyIterNext( keyIter, &key );
if ( IsPGPError(err) ) { /* traversed all children of this node */
PGPFreeKeyIter( keyIter);
return 0;
}
}
return err;
} /* printNextSignatureChainLink */
/*****
*
* verify_signature
*
* Call-out routine used by the CMS library for verifying a signature.
* Parameters and return values defined in CMS docs. This uses the
* PGP SDK. See "PGP Software Developer's Kit, Reference Manual"
* for details on calls used here.
*
*****/
int
x509CMSVerifyCallback (
unsigned char *data,
size_t dataLen,
unsigned char *sigalg,
size_t algLen,
unsigned char *params,
size_t paramLen,
unsigned char *signature,
size_t sigLen,
unsigned char *pubkey,
size_t pubkeyLen,
TC_CERT *issuer,
void *verData,
TC_CONTEXT *ctx)
{
X509CMSCallbackData *pgpData = (X509CMSCallbackData *) verData;
PGPMemoryMgrRef mgrRef;
PGPPublicKeyContextRef publicKey;
PGPHashContextRef hash;
PGPKeySetRef keySet;
PGPKeyListRef klist;
PGPKeyIterRef kiter;
PGPKeyRef mykey;
PGPError err;
PGPByte *certData;
PGPSize certDataLen;
int rtn = -1;
PGPHashAlgorithm hashAlg;
(void) params;
(void) paramLen;
(void) pubkey;
(void) pubkeyLen;
do {
/* check that the algorithm ID is allowed */
/* TODO... */
/* if we dont have the issuer's certificate, we can't verify the
signature. */
/* PGPsdk needs to have a function that takes raw ASN.1 encoded
key material and returns a KeyRef in order to support
verification of PKCS10 requests */
if (!issuer)
break;
/* import the certificate into pgp */
tc_pack_cert (&certData, &certDataLen, issuer, ctx);
/* import the key into a PGP key set */
err = PGPImportKeySet (pgpData->context,
&keySet,
PGPOX509Encoding (pgpData->context, 1),
PGPOInputBuffer (pgpData->context, certData, certDataLen),
PGPOLastOption (pgpData->context));
TC_Free (ctx->memMgr, certData);
if (IsPGPError (err))
break;
/* extract the key into a PGPKeyRef */
err = PGPOrderKeySet (keySet, kPGPAnyOrdering, &klist);
if (IsPGPError (err))
break;
err = PGPNewKeyIter (klist, &kiter);
if (IsPGPError (err))
break;
err = PGPKeyIterNext (kiter, &mykey);
if (IsPGPError (err))
break;
/* create the public key context */
err = PGPNewPublicKeyContext (mykey,
kPGPPublicKeyMessageFormat_X509,
&publicKey);
if (IsPGPError (err))
break;
hashAlg = x509HashAlgorithm (sigalg, algLen);
/* create and calculate the hash, do not finalize hash
for PGPPublicKeyVerify() call */
mgrRef = PGPGetContextMemoryMgr (pgpData->context);
err = PGPNewHashContext (mgrRef, hashAlg, &hash);
if (IsPGPError (err))
break;
err = PGPContinueHash (hash, data, dataLen);
if (IsPGPError (err))
break;
err = PGPPublicKeyVerifySignature (
publicKey, hash, (void *)signature, sigLen);
hash = NULL;
if ( IsPGPError(err) )
break;
rtn = 0;
} while (0);
/* clean-up */
PGPFreeKeyIter(kiter);
PGPFreeKeyList(klist);
PGPFreeKeySet(keySet);
if (hash)
PGPFreeHashContext(hash);
PGPFreePublicKeyContext (publicKey);
return rtn;
} /* verify_signature */
PGPError KeyIdFilterFromKeySet( PGPKeySetRef keySet,
PGPFilterRef* filter)
{
PGPError error = kPGPError_NoErr;
PGPKeyListRef list = kPGPInvalidRef;
PGPKeyIterRef iter = kPGPInvalidRef;
PGPKeyRef key = kPGPInvalidRef;
PGPFilterRef aFilter = kPGPInvalidRef;
PGPFilterRef idFilter= kPGPInvalidRef;
PGPKeyID keyId;
error = PGPOrderKeySet( keySet,
kPGPAnyOrdering,
&list);
if( IsntPGPError(error) )
{
error = PGPNewKeyIter( list,
&iter);
if(IsntPGPError(error) )
{
PGPError iterError = kPGPError_NoErr;
do
{
iterError = PGPKeyIterNext(iter, &key);
if( IsntPGPError(iterError) )
{
error = PGPGetKeyIDFromKey( key,
&keyId);
if( IsntPGPError(error) )
{
error = PGPNewSigKeyIDFilter( g_Context,
&keyId,
&aFilter );
if(idFilter == kPGPInvalidRef)
{
idFilter = aFilter;
}
else
{
PGPFilterRef combinedFilter = NULL;
error = PGPUnionFilters(idFilter,
aFilter,
&combinedFilter);
idFilter = combinedFilter;
}
}
}
}while(IsntPGPError(iterError) && IsntPGPError(error));
PGPFreeKeyIter(iter);
}
PGPFreeKeyList(list);
}
if( IsntPGPError(error) )
{
*filter = idFilter;
}
return error;
}