use of java.security.KeyStoreException in project LolliPin by OrangeGangsters.
the class FingerprintUiHelper method initCipher.
/**
* Initialize the {@link Cipher} instance with the created key in the {@link #createKey()}
* method.
*
* @return {@code true} if initialization is successful, {@code false} if the lock screen has
* been disabled or reset after the key was generated, or if a fingerprint got enrolled after
* the key was generated.
*/
private boolean initCipher() {
try {
if (mKeyStore == null) {
mKeyStore = KeyStore.getInstance("AndroidKeyStore");
}
createKey();
mKeyStore.load(null);
SecretKey key = (SecretKey) mKeyStore.getKey(KEY_NAME, null);
mCipher = Cipher.getInstance("AES/CBC/PKCS7Padding");
mCipher.init(Cipher.ENCRYPT_MODE, key);
return true;
} catch (NoSuchPaddingException | KeyStoreException | CertificateException | UnrecoverableKeyException | IOException | NoSuchAlgorithmException | InvalidKeyException e) {
return false;
}
}
use of java.security.KeyStoreException in project riposte by Nike-Inc.
the class StreamingAsyncHttpClient method prepChannelForDownstreamCall.
protected void prepChannelForDownstreamCall(ChannelPool pool, Channel ch, StreamingCallback callback, Deque<Span> distributedSpanStackToUse, Map<String, String> mdcContextToUse, boolean isSecureHttpsCall, boolean relaxedHttpsValidation, boolean performSubSpanAroundDownstreamCalls, long downstreamCallTimeoutMillis, ObjectHolder<Boolean> callActiveHolder, ObjectHolder<Boolean> lastChunkSentDownstreamHolder) throws SSLException, NoSuchAlgorithmException, KeyStoreException {
ChannelHandler chunkSenderHandler = new SimpleChannelInboundHandler<HttpObject>() {
@Override
protected void channelRead0(ChannelHandlerContext downstreamCallCtx, HttpObject msg) throws Exception {
try {
// the call is fully processed should not trigger the behavior a second time.
if (callActiveHolder.heldObject) {
if (msg instanceof LastHttpContent) {
lastChunkSentDownstreamHolder.heldObject = true;
if (performSubSpanAroundDownstreamCalls) {
// Complete the subspan.
runnableWithTracingAndMdc(() -> {
if (distributedSpanStackToUse == null || distributedSpanStackToUse.size() < 2)
Tracer.getInstance().completeRequestSpan();
else
Tracer.getInstance().completeSubSpan();
}, distributedSpanStackToUse, mdcContextToUse).run();
}
}
HttpObject msgToPass = msg;
if (msg instanceof HttpResponse) {
// We can't pass the original HttpResponse back to the callback due to intricacies of how
// Netty handles determining the last chunk. If we do, and the callback ends up writing
// the message out to the client (which happens during proxy routing for example), then
// msg's headers might get modified - potentially causing this channel pipeline to
// never send a LastHttpContent, which will in turn cause an indefinite hang.
HttpResponse origHttpResponse = (HttpResponse) msg;
HttpResponse httpResponse = (msg instanceof FullHttpResponse) ? new DefaultFullHttpResponse(origHttpResponse.getProtocolVersion(), origHttpResponse.getStatus(), ((FullHttpResponse) msg).content()) : new DefaultHttpResponse(origHttpResponse.getProtocolVersion(), origHttpResponse.getStatus());
httpResponse.headers().add(origHttpResponse.headers());
msgToPass = httpResponse;
}
callback.messageReceived(msgToPass);
} else {
if (shouldLogBadMessagesAfterRequestFinishes) {
runnableWithTracingAndMdc(() -> logger.warn("Received HttpObject msg when call was not active: {}", String.valueOf(msg)), distributedSpanStackToUse, mdcContextToUse).run();
}
}
} finally {
if (msg instanceof LastHttpContent) {
releaseChannelBackToPoolIfCallIsActive(ch, pool, callActiveHolder, "last content chunk sent", distributedSpanStackToUse, mdcContextToUse);
}
}
}
};
Consumer<Throwable> doErrorHandlingConsumer = (cause) -> {
Pair<Deque<Span>, Map<String, String>> originalThreadInfo = null;
try {
// Setup tracing and MDC so our log messages have the correct distributed trace info, etc.
originalThreadInfo = linkTracingAndMdcToCurrentThread(distributedSpanStackToUse, mdcContextToUse);
// call is fully processed should not trigger the behavior a second time.
if (callActiveHolder.heldObject) {
if (performSubSpanAroundDownstreamCalls) {
if (distributedSpanStackToUse == null || distributedSpanStackToUse.size() < 2)
Tracer.getInstance().completeRequestSpan();
else
Tracer.getInstance().completeSubSpan();
}
Tracer.getInstance().unregisterFromThread();
if (cause instanceof Errors.NativeIoException) {
// NativeIoExceptions are often setup to not have stack traces which is bad for debugging.
// Wrap it in a NativeIoExceptionWrapper that maps to a 503 since this is likely a busted
// connection and a second attempt should work.
cause = new NativeIoExceptionWrapper("Caught a NativeIoException in the downstream streaming call pipeline. Wrapped it in a " + "NativeIoExceptionWrapper so that it maps to a 503 and provides a usable stack trace " + "in the logs.", (Errors.NativeIoException) cause);
}
callback.unrecoverableErrorOccurred(cause);
} else {
if (cause instanceof DownstreamIdleChannelTimeoutException) {
logger.debug("A channel used for downstream calls will be closed because it was idle too long. " + "This is normal behavior and does not indicate a downstream call failure: {}", cause.toString());
} else {
logger.warn("Received exception in downstream call pipeline after the call was finished. " + "Not necessarily anything to worry about but in case it helps debugging the " + "exception was: {}", cause.toString());
}
}
} finally {
// Mark the channel as broken so it will be closed and removed from the pool when it is returned.
markChannelAsBroken(ch);
// Release it back to the pool if possible/necessary so the pool can do its usual cleanup.
releaseChannelBackToPoolIfCallIsActive(ch, pool, callActiveHolder, "error received in downstream pipeline: " + cause.toString(), distributedSpanStackToUse, mdcContextToUse);
// No matter what the cause is we want to make sure the channel is closed. Doing this raw ch.close()
// here will catch the cases where this channel does not have an active call but still needs to be
// closed (e.g. an idle channel timeout that happens in-between calls).
ch.close();
// Unhook the tracing and MDC stuff from this thread now that we're done.
unlinkTracingAndMdcFromCurrentThread(originalThreadInfo);
}
};
ChannelHandler errorHandler = new ChannelInboundHandlerAdapter() {
@Override
public void exceptionCaught(ChannelHandlerContext downstreamCallCtx, Throwable cause) throws Exception {
doErrorHandlingConsumer.accept(cause);
}
@Override
public void channelInactive(ChannelHandlerContext ctx) throws Exception {
if (logger.isDebugEnabled()) {
runnableWithTracingAndMdc(() -> logger.debug("Downstream channel closing. call_active={}, last_chunk_sent_downstream={}, channel_id={}", callActiveHolder.heldObject, lastChunkSentDownstreamHolder.heldObject, ctx.channel().toString()), distributedSpanStackToUse, mdcContextToUse).run();
}
// We only care if the channel was closed while the call was active.
if (callActiveHolder.heldObject)
doErrorHandlingConsumer.accept(new DownstreamChannelClosedUnexpectedlyException(ch));
super.channelInactive(ctx);
}
};
// Set up the HTTP client pipeline.
ChannelPipeline p = ch.pipeline();
List<String> registeredHandlerNames = p.names();
// couldn't be removed at that time because it wasn't in the channel's eventLoop.
if (registeredHandlerNames.contains(DOWNSTREAM_IDLE_CHANNEL_TIMEOUT_HANDLER_NAME)) {
ChannelHandler idleHandler = p.get(DOWNSTREAM_IDLE_CHANNEL_TIMEOUT_HANDLER_NAME);
if (idleHandler != null)
p.remove(idleHandler);
}
if (debugChannelLifecycleLoggingEnabled && !registeredHandlerNames.contains(DEBUG_LOGGER_HANDLER_NAME)) {
// Add the channel debug logger if desired.
p.addFirst(DEBUG_LOGGER_HANDLER_NAME, new LoggingHandler(DOWNSTREAM_CLIENT_CHANNEL_DEBUG_LOGGER_NAME, LogLevel.DEBUG));
}
// Add/replace a downstream call timeout detector.
addOrReplacePipelineHandler(new DownstreamIdleChannelTimeoutHandler(downstreamCallTimeoutMillis, () -> callActiveHolder.heldObject, true, "StreamingAsyncHttpClientChannel-call-timeout", distributedSpanStackToUse, mdcContextToUse), DOWNSTREAM_CALL_TIMEOUT_HANDLER_NAME, p, registeredHandlerNames);
if (isSecureHttpsCall) {
// SSL call. Make sure we add the SSL handler if necessary.
if (!registeredHandlerNames.contains(SSL_HANDLER_NAME)) {
if (clientSslCtx == null) {
if (relaxedHttpsValidation) {
clientSslCtx = SslContextBuilder.forClient().trustManager(InsecureTrustManagerFactory.INSTANCE).build();
} else {
TrustManagerFactory tmf = TrustManagerFactory.getInstance(TrustManagerFactory.getDefaultAlgorithm());
tmf.init((KeyStore) null);
clientSslCtx = SslContextBuilder.forClient().trustManager(tmf).build();
}
}
p.addAfter(DOWNSTREAM_CALL_TIMEOUT_HANDLER_NAME, SSL_HANDLER_NAME, clientSslCtx.newHandler(ch.alloc()));
}
} else {
// Not an SSL call. Remove the SSL handler if it's there.
if (registeredHandlerNames.contains(SSL_HANDLER_NAME))
p.remove(SSL_HANDLER_NAME);
}
// The HttpClientCodec handler deals with HTTP codec stuff so you don't have to. Set it up if it hasn't already
// been setup, and inspect it to make sure it's in a "ready to handle a new request" state. Some rare
// and currently unknown edgecases can cause us to hit this point with the HttpClientCodec in an unclean
// state, and if we barrel forward without cleaning this up the call will fail.
boolean pipelineContainsHttpClientCodec = registeredHandlerNames.contains(HTTP_CLIENT_CODEC_HANDLER_NAME);
boolean existingHttpClientCodecIsInBadState = false;
if (pipelineContainsHttpClientCodec) {
HttpClientCodec currentCodec = (HttpClientCodec) p.get(HTTP_CLIENT_CODEC_HANDLER_NAME);
int currentHttpClientCodecInboundState = determineHttpClientCodecInboundState(currentCodec);
if (currentHttpClientCodecInboundState != 0) {
runnableWithTracingAndMdc(() -> logger.warn("HttpClientCodec inbound state was not 0. It will be replaced with a fresh HttpClientCodec. " + "bad_httpclientcodec_inbound_state={}", currentHttpClientCodecInboundState), distributedSpanStackToUse, mdcContextToUse).run();
existingHttpClientCodecIsInBadState = true;
} else {
int currentHttpClientCodecOutboundState = determineHttpClientCodecOutboundState(currentCodec);
if (currentHttpClientCodecOutboundState != 0) {
runnableWithTracingAndMdc(() -> logger.warn("HttpClientCodec outbound state was not 0. It will be replaced with a fresh HttpClientCodec. " + "bad_httpclientcodec_outbound_state={}", currentHttpClientCodecOutboundState), distributedSpanStackToUse, mdcContextToUse).run();
existingHttpClientCodecIsInBadState = true;
}
}
}
// or replace it if it was in a bad state.
if (!pipelineContainsHttpClientCodec || existingHttpClientCodecIsInBadState) {
addOrReplacePipelineHandler(new HttpClientCodec(4096, 8192, 8192, true), HTTP_CLIENT_CODEC_HANDLER_NAME, p, registeredHandlerNames);
}
// Update the chunk sender handler and error handler to the newly created versions that know about the correct
// callback, dtrace info, etc to use for this request.
addOrReplacePipelineHandler(chunkSenderHandler, CHUNK_SENDER_HANDLER_NAME, p, registeredHandlerNames);
addOrReplacePipelineHandler(errorHandler, ERROR_HANDLER_NAME, p, registeredHandlerNames);
}
use of java.security.KeyStoreException in project riposte by Nike-Inc.
the class StreamingAsyncHttpClient method streamDownstreamCall.
/**
* TODO: Fully document me.
* <br/>
* NOTE: The returned CompletableFuture will only be completed successfully if the connection to the downstream
* server was successful and the initialRequestChunk was successfully written out. This has implications for
* initialRequestChunk regarding releasing its reference count (i.e. calling {@link
* io.netty.util.ReferenceCountUtil#release(Object)} and passing in initialRequestChunk). If the returned
* CompletableFuture is successful it means initialRequestChunk's reference count will already be reduced by one
* relative to when this method was called because it will have been passed to a successful {@link
* ChannelHandlerContext#writeAndFlush(Object)} method call.
* <p/>
* Long story short - assume initialRequestChunk is an object with a reference count of x:
* <ul>
* <li>
* If the returned CompletableFuture is successful, then when it completes successfully
* initialRequestChunk's reference count will be x - 1
* </li>
* <li>
* If the returned CompletableFuture is *NOT* successful, then when it completes initialRequestChunk's
* reference count will still be x
* </li>
* </ul>
*/
public CompletableFuture<StreamingChannel> streamDownstreamCall(String downstreamHost, int downstreamPort, HttpRequest initialRequestChunk, boolean isSecureHttpsCall, boolean relaxedHttpsValidation, StreamingCallback callback, long downstreamCallTimeoutMillis, ChannelHandlerContext ctx) {
CompletableFuture<StreamingChannel> streamingChannel = new CompletableFuture<>();
initialRequestChunk.headers().set(HttpHeaders.Names.HOST, downstreamHost);
boolean performSubSpanAroundDownstreamCalls = true;
ObjectHolder<Long> beforeConnectionStartTimeNanos = new ObjectHolder<>();
beforeConnectionStartTimeNanos.heldObject = System.nanoTime();
// Create a connection to the downstream server.
ChannelPool pool = getPooledChannelFuture(downstreamHost, downstreamPort);
Future<Channel> channelFuture = pool.acquire();
// Add a listener that kicks off the downstream call once the connection is completed.
channelFuture.addListener(future -> {
Pair<Deque<Span>, Map<String, String>> originalThreadInfo = null;
try {
originalThreadInfo = linkTracingAndMdcToCurrentThread(ctx);
if (!future.isSuccess()) {
try {
streamingChannel.completeExceptionally(new WrapperException("Unable to connect to downstream host: " + downstreamHost, future.cause()));
} finally {
Channel ch = channelFuture.getNow();
if (ch != null) {
markChannelAsBroken(ch);
pool.release(ch);
}
}
return;
}
if (logger.isDebugEnabled()) {
logger.debug("CONNECTION SETUP TIME NANOS: {}", (System.nanoTime() - beforeConnectionStartTimeNanos.heldObject));
}
if (performSubSpanAroundDownstreamCalls) {
String spanName = getSubspanSpanName(initialRequestChunk.getMethod().name(), downstreamHost + ":" + downstreamPort + initialRequestChunk.getUri());
if (Tracer.getInstance().getCurrentSpan() == null) {
Tracer.getInstance().startRequestWithRootSpan(spanName);
} else {
Tracer.getInstance().startSubSpan(spanName, Span.SpanPurpose.CLIENT);
}
}
Deque<Span> distributedSpanStackToUse = Tracer.getInstance().getCurrentSpanStackCopy();
Map<String, String> mdcContextToUse = MDC.getCopyOfContextMap();
Span spanForDownstreamCall = (distributedSpanStackToUse == null) ? null : distributedSpanStackToUse.peek();
if (spanForDownstreamCall != null) {
setHeaderIfValueNotNull(initialRequestChunk, TraceHeaders.TRACE_SAMPLED, String.valueOf(spanForDownstreamCall.isSampleable()));
setHeaderIfValueNotNull(initialRequestChunk, TraceHeaders.TRACE_ID, spanForDownstreamCall.getTraceId());
setHeaderIfValueNotNull(initialRequestChunk, TraceHeaders.SPAN_ID, spanForDownstreamCall.getSpanId());
setHeaderIfValueNotNull(initialRequestChunk, TraceHeaders.PARENT_SPAN_ID, spanForDownstreamCall.getParentSpanId());
setHeaderIfValueNotNull(initialRequestChunk, TraceHeaders.SPAN_NAME, spanForDownstreamCall.getSpanName());
}
Channel ch = channelFuture.getNow();
if (logger.isDebugEnabled())
logger.debug("Channel ID of the Channel pulled from the pool: {}", ch.toString());
ch.eventLoop().execute(runnableWithTracingAndMdc(() -> {
BiConsumer<String, Throwable> prepChannelErrorHandler = (errorMessage, cause) -> {
try {
streamingChannel.completeExceptionally(new WrapperException(errorMessage, cause));
} finally {
markChannelAsBroken(ch);
pool.release(ch);
}
};
try {
ObjectHolder<Boolean> callActiveHolder = new ObjectHolder<>();
callActiveHolder.heldObject = true;
ObjectHolder<Boolean> lastChunkSentDownstreamHolder = new ObjectHolder<>();
lastChunkSentDownstreamHolder.heldObject = false;
prepChannelForDownstreamCall(pool, ch, callback, distributedSpanStackToUse, mdcContextToUse, isSecureHttpsCall, relaxedHttpsValidation, performSubSpanAroundDownstreamCalls, downstreamCallTimeoutMillis, callActiveHolder, lastChunkSentDownstreamHolder);
logInitialRequestChunk(initialRequestChunk, downstreamHost, downstreamPort);
ChannelFuture writeFuture = ch.writeAndFlush(initialRequestChunk);
writeFuture.addListener(completedWriteFuture -> {
if (completedWriteFuture.isSuccess())
streamingChannel.complete(new StreamingChannel(ch, pool, callActiveHolder, lastChunkSentDownstreamHolder, distributedSpanStackToUse, mdcContextToUse));
else {
prepChannelErrorHandler.accept("Writing the first HttpRequest chunk to the downstream service failed.", completedWriteFuture.cause());
return;
}
});
} catch (SSLException | NoSuchAlgorithmException | KeyStoreException ex) {
prepChannelErrorHandler.accept("Error setting up SSL context for downstream call", ex);
return;
} catch (Throwable t) {
prepChannelErrorHandler.accept("An unexpected error occurred while prepping the channel pipeline for the downstream call", t);
return;
}
}, ctx));
} catch (Throwable ex) {
try {
String errorMsg = "Error occurred attempting to send first chunk (headers/etc) downstream";
Exception errorToFire = new WrapperException(errorMsg, ex);
logger.warn(errorMsg, errorToFire);
streamingChannel.completeExceptionally(errorToFire);
} finally {
Channel ch = channelFuture.getNow();
if (ch != null) {
markChannelAsBroken(ch);
pool.release(ch);
}
}
} finally {
unlinkTracingAndMdcFromCurrentThread(originalThreadInfo);
}
});
return streamingChannel;
}
use of java.security.KeyStoreException in project android_frameworks_base by AOSPA.
the class AndroidKeyStoreTest method testKeyStore_SetKeyEntry_ProtectedKey_Encrypted_Failure.
public void testKeyStore_SetKeyEntry_ProtectedKey_Encrypted_Failure() throws Exception {
setupPassword();
mKeyStore.load(null, null);
final CertificateFactory f = CertificateFactory.getInstance("X.509");
final Certificate caCert = f.generateCertificate(new ByteArrayInputStream(FAKE_RSA_CA_1));
KeyFactory keyFact = KeyFactory.getInstance("RSA");
PrivateKey privKey = keyFact.generatePrivate(new PKCS8EncodedKeySpec(FAKE_RSA_KEY_1));
final Certificate[] chain = new Certificate[2];
chain[0] = f.generateCertificate(new ByteArrayInputStream(FAKE_RSA_USER_1));
chain[1] = caCert;
try {
mKeyStore.setKeyEntry(TEST_ALIAS_1, privKey, "foo".toCharArray(), chain);
fail("Should fail when a password is specified");
} catch (KeyStoreException success) {
}
}
use of java.security.KeyStoreException in project android_frameworks_base by AOSPA.
the class AndroidKeyStoreSpi method engineSetEntry.
@Override
public void engineSetEntry(String alias, Entry entry, ProtectionParameter param) throws KeyStoreException {
if (entry == null) {
throw new KeyStoreException("entry == null");
}
Credentials.deleteAllTypesForAlias(mKeyStore, alias, mUid);
if (entry instanceof java.security.KeyStore.TrustedCertificateEntry) {
java.security.KeyStore.TrustedCertificateEntry trE = (java.security.KeyStore.TrustedCertificateEntry) entry;
engineSetCertificateEntry(alias, trE.getTrustedCertificate());
return;
}
if (entry instanceof PrivateKeyEntry) {
PrivateKeyEntry prE = (PrivateKeyEntry) entry;
setPrivateKeyEntry(alias, prE.getPrivateKey(), prE.getCertificateChain(), param);
} else if (entry instanceof SecretKeyEntry) {
SecretKeyEntry secE = (SecretKeyEntry) entry;
setSecretKeyEntry(alias, secE.getSecretKey(), param);
} else {
throw new KeyStoreException("Entry must be a PrivateKeyEntry, SecretKeyEntry or TrustedCertificateEntry" + "; was " + entry);
}
}
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