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com.couchbase.client.CouchbaseClientIF Maven / Gradle / Ivy
/**
* Copyright (C) 2009-2013 Couchbase, Inc.
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALING
* IN THE SOFTWARE.
*/
package com.couchbase.client;
import com.couchbase.client.internal.HttpFuture;
import com.couchbase.client.internal.ReplicaGetFuture;
import com.couchbase.client.protocol.views.AbstractView;
import com.couchbase.client.protocol.views.DesignDocument;
import com.couchbase.client.protocol.views.Paginator;
import com.couchbase.client.protocol.views.Query;
import com.couchbase.client.protocol.views.SpatialView;
import com.couchbase.client.protocol.views.View;
import com.couchbase.client.protocol.views.ViewResponse;
import java.io.UnsupportedEncodingException;
import java.util.Map;
import java.util.concurrent.Future;
import net.spy.memcached.CASResponse;
import net.spy.memcached.CASValue;
import net.spy.memcached.MemcachedClientIF;
import net.spy.memcached.MemcachedNode;
import net.spy.memcached.ObserveResponse;
import net.spy.memcached.PersistTo;
import net.spy.memcached.ReplicateTo;
import net.spy.memcached.internal.OperationFuture;
import net.spy.memcached.transcoders.Transcoder;
/**
* This interface is provided as a helper for testing clients of the
* CouchbaseClient.
*/
public interface CouchbaseClientIF extends MemcachedClientIF {
/**
* Get and lock the given key asynchronously and decode with the default
* transcoder. By default the maximum allowed timeout is 30 seconds. Timeouts
* greater than this will be set to 30 seconds.
*
* @param key the key to fetch and lock
* @param exp the amount of time the lock should be valid for in seconds.
* @return a future that will hold the return value of the fetch
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
Future> asyncGetAndLock(final String key, int exp);
/**
* Gets and locks the given key asynchronously. By default the maximum allowed
* timeout is 30 seconds. Timeouts greater than this will be set to 30
* seconds.
*
* @param key the key to fetch and lock
* @param exp the amount of time the lock should be valid for in seconds.
* @param tc the transcoder to serialize and unserialize value
* @return a future that will hold the return value of the fetch
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
Future> asyncGetAndLock(final String key, int exp,
final Transcoder tc);
/**
* Getl with a single key. By default the maximum allowed timeout is 30
* seconds. Timeouts greater than this will be set to 30 seconds.
*
* @param key the key to get and lock
* @param exp the amount of time the lock should be valid for in seconds.
* @param tc the transcoder to serialize and unserialize value
* @return the result from the cache (null if there is none)
* @throws net.spy.memcached.OperationTimeoutException if the global operation timeout is
* exceeded
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
* @throws java.util.concurrent.CancellationException if operation was canceled
*/
CASValue getAndLock(String key, int exp, Transcoder tc);
/**
* Get and lock with a single key and decode using the default transcoder. By
* default the maximum allowed timeout is 30 seconds. Timeouts greater than
* this will be set to 30 seconds.
*
* @param key the key to get and lock
* @param exp the amount of time the lock should be valid for in seconds.
* @return the result from the cache (null if there is none)
* @throws net.spy.memcached.OperationTimeoutException if the global operation timeout is
* exceeded
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
CASValue getAndLock(String key, int exp);
/**
* Unlock the given key asynchronously from the cache.
*
* @param key the key to unlock
* @param casId the CAS identifier
* @param tc the transcoder to serialize and unserialize value
* @return whether or not the operation was performed
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
OperationFuture asyncUnlock(final String key,
long casId, final Transcoder tc);
/**
* Unlock the given key asynchronously from the cache with the default
* transcoder.
*
* @param key the key to unlock
* @param casId the CAS identifier
* @return whether or not the operation was performed
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
OperationFuture asyncUnlock(final String key,
long casId);
/**
* Unlock the given key synchronously from the cache.
*
* @param key the key to unlock
* @param casId the CAS identifier
* @param tc the transcoder to serialize and unserialize value
* @return whether or not the operation was performed
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
* @throws java.util.concurrent.CancellationException if operation was canceled
*/
Boolean unlock(final String key,
long casId, final Transcoder tc);
/**
* Unlock the given key synchronously from the cache with the default
* transcoder.
*
* @param key the key to unlock
* @param casId the CAS identifier
* @return whether or not the operation was performed
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests
*/
Boolean unlock(final String key, long casId);
/**
* Observe a key with a associated CAS.
*
* This method allows you to check immediately on the state of a given
* key/CAS combination. It is normally used by higher-level methods when
* used in combination with durability constraints (ReplicateTo,
* PersistTo), but can also be used separately.
*
* @param key the key to observe.
* @param cas the CAS of the key (0 will ignore it).
* @return ObserveReponse the Response on master and replicas.
* @throws IllegalStateException in the rare circumstance where queue is too
* full to accept any more requests.
*/
Map observe(final String key, long cas);
/**
* Poll and observe a key with the given CAS and persist settings.
*
* Based on the given persistence and replication settings, it observes the
* key and raises an exception if a timeout has been reached. This method is
* normally utilized through higher-level methods but can also be used
* directly.
*
* If persist is null, it will default to PersistTo.ZERO and if replicate is
* null, it will default to ReplicateTo.ZERO. This is the default behavior
* and is the same as not observing at all.
*
* @param key the key to observe.
* @param cas the CAS value for the key.
* @param persist the persistence settings.
* @param replicate the replication settings.
* @param isDelete if the key is to be deleted.
*/
void observePoll(String key, long cas, PersistTo persist,
ReplicateTo replicate, boolean isDelete);
/**
* Set a value without any durability options with no TTL.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal set()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param value the value of the key.
* @return the future result of the set operation.
*/
OperationFuture set(String key,
Object value);
/**
* Set a value with durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the set() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key, int exp, Object value,
PersistTo req);
/**
* Set a value with durability options with no TTL
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the set() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key, Object value, PersistTo req);
/**
* Set a value with durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the set() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key, int exp, Object value,
ReplicateTo rep);
/**
* Set a value with durability option and no TTL
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the set() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key,
Object value, ReplicateTo rep);
/**
* Set a value with durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal set()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key, int exp,
Object value, PersistTo req, ReplicateTo rep);
/**
* Set a value with durability options and not TTL.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal set()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the set operation.
*/
OperationFuture set(String key,
Object value, PersistTo req, ReplicateTo rep);
/**
* Set a value with durability options and no TTL.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the set() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @return the future result of the set operation.
*/
OperationFuture add(String key, Object value);
/**
* Add a value with durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the add() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key, int exp,
Object value, PersistTo req);
/**
* Add a value with durability options with No TTL
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the add() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key,
Object value, PersistTo req);
/**
* Add a value with durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the add() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key, int exp,
Object value, ReplicateTo rep);
/**
* Add a value with durability options with no TTL
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the add() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key,
Object value, ReplicateTo rep);
/**
* Add a value with durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal add()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key, int exp,
Object value, PersistTo req, ReplicateTo rep);
/**
* Add a value with durability options with no TTL
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal add()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the add operation.
*/
OperationFuture add(String key,
Object value, PersistTo req, ReplicateTo rep);
/**
* Add a value with durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the add() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @return the future result of the add operation.
*/
OperationFuture replace(String key,
Object value);
/**
* Replace a value with durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the replace() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key, int exp,
Object value, PersistTo req);
/**
* Replace a value with durability options with no TTL
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the replace() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key, Object value, PersistTo req);
/**
* Replace a value with durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the replace() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key, int exp,
Object value, ReplicateTo rep);
/**
* Replace a value with durability options with no TTL
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the replace() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key, Object value, ReplicateTo rep);
/**
* Replace a value with durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal replace()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param exp the expiry value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key, int exp,
Object value, PersistTo req, ReplicateTo rep);
/**
* Replace a value with durability options with no TTL.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal replace()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the replace operation.
*/
OperationFuture replace(String key,
Object value, PersistTo req, ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal asyncCAS()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, Object value, PersistTo req,
ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal asyncCAS()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp expiration time for the key.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, int exp, Object value, PersistTo req,
ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, Object value, PersistTo req);
/**
* Set a value with a CAS and durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, Object value, ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp the TTL of the document.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, int exp, Object value, PersistTo req);
/**
* Set a value with a CAS and durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp the TTL of the document.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
CASResponse cas(String key, long cas, int exp, Object value, ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal asyncCAS()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
OperationFuture asyncCas(String key, long cas, Object value,
PersistTo req, ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the CAS operation.
*/
OperationFuture asyncCas(String key, long cas, Object value,
PersistTo req);
/**
* Set a value with a CAS and durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/Future asyncCas(String key, long cas, Object value,
ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* This is a shorthand method so that you only need to provide a
* PersistTo value if you don't care if the value is already replicated.
* A PersistTo.TWO durability setting implies a replication to at least
* one node.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp the TTL of the document.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @return the future result of the CAS operation.
*/
OperationFuture asyncCas(String key, long cas, int exp,
Object value, PersistTo req);
/**
* Set a value with a CAS and durability options.
*
* This method allows you to express durability at the replication level
* only and is the functional equivalent of PersistTo.ZERO.
*
* A common use case for this would be to achieve good insert-performance
* and at the same time making sure that the data is at least replicated
* to the given amount of nodes to provide a better level of data safety.
*
* For more information on how the durability options work, see the docblock
* for the cas() operation with both PersistTo and ReplicateTo settings.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp the TTL of the document.
* @param value the value of the key.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
OperationFuture asyncCas(String key, long cas, int exp,
Object value, ReplicateTo rep);
/**
* Set a value with a CAS and durability options.
*
* To make sure that a value is stored the way you want it to in the
* cluster, you can use the PersistTo and ReplicateTo arguments. The
* operation will block until the desired state is satisfied or
* otherwise an exception is raised. There are many reasons why this could
* happen, the more frequent ones are as follows:
*
* - The given replication settings are invalid.
* - The operation could not be completed within the timeout.
* - Something goes wrong and a cluster failover is triggered.
*
* The client does not attempt to guarantee the given durability
* constraints, it just reports whether the operation has been completed
* or not. If it is not achieved, it is the responsibility of the
* application code using this API to re-retrieve the items to verify
* desired state, redo the operation or both.
*
* Note that even if an exception during the observation is raised,
* this doesn't mean that the operation has failed. A normal asyncCAS()
* operation is initiated and after the OperationFuture has returned,
* the key itself is observed with the given durability options (watch
* out for Observed*Exceptions) in this case.
*
* @param key the key to store.
* @param cas the CAS value to use.
* @param exp expiration time for the key.
* @param value the value of the key.
* @param req the amount of nodes the item should be persisted to before
* returning.
* @param rep the amount of nodes the item should be replicated to before
* returning.
* @return the future result of the CAS operation.
*/
OperationFuture asyncCas(String key, long cas, int exp,
Object value, PersistTo req, ReplicateTo rep);
/**
* Delete a value with durability options for persistence.
*
* @param key the key to set
* @param req the persistence option requested
* @return whether or not the operation was performed
*/
OperationFuture delete(String key, PersistTo req);
/**
* Delete a value with durability options.
*
* The durability options here operate similarly to those documented in
* the set method.
*
* @param key the key to set
* @param req the Persistence to Master value
* @param rep the Persistence to Replicas
* @return whether or not the operation was performed
*/
OperationFuture delete(String key, PersistTo req,
ReplicateTo rep);
/**
* Delete a value with durability options for replication.
*
* @param key the key to set
* @param req the replication option requested
* @return whether or not the operation was performed
*
*/
OperationFuture delete(String key, ReplicateTo req);
/**
* Gets the number of vBuckets that are contained in the cluster. This
* function is for internal use only and should rarely be since there
* are few use cases in which it is necessary.
*/
int getNumVBuckets();
/**
* Store a design document in the cluster.
*
* @param doc the design document to store.
* @return a future containing the result of the creation operation.
*/
HttpFuture asyncCreateDesignDoc(final DesignDocument doc)
throws UnsupportedEncodingException;
/**
* Store a design document in the cluster.
*
* @param name the name of the design document.
* @param value the full design document definition as a string.
* @return a future containing the result of the creation operation.
*/
HttpFuture asyncCreateDesignDoc(String name, String value)
throws UnsupportedEncodingException;
/**
* Delete a design document in the cluster.
*
* @param name the design document to delete.
* @return a future containing the result of the deletion operation.
*/
HttpFuture asyncDeleteDesignDoc(final String name)
throws UnsupportedEncodingException;
/**
* Gets a future with a design document from the cluster.
*
* If no design document was found, the enclosed DesignDocument inside
* the future will be null.
*
* Use {@link #asyncGetDesignDoc(String)} instead.
*
* @param designDocumentName the name of the design document.
* @return a future containing a DesignDocument from the cluster.
*/
@Deprecated
HttpFuture asyncGetDesignDocument(String designDocumentName);
/**
* Gets a future with a design document from the cluster.
*
* If no design document was found, the enclosed DesignDocument inside
* the future will be null.
*
* @param designDocumentName the name of the design document.
* @return a future containing a DesignDocument from the cluster.
*/
HttpFuture asyncGetDesignDoc(String designDocumentName);
/**
* Store a design document in the cluster.
*
* @param doc the design document to store.
* @return the result of the creation operation.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
Boolean createDesignDoc(final DesignDocument doc);
/**
* Delete a design document in the cluster.
*
* @param name the design document to delete.
* @return the result of the deletion operation.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
Boolean deleteDesignDoc(final String name);
/**
* Returns a representation of a design document stored in the cluster.
*
* Use {@link #getDesignDoc(String)} instead.
*
* @param designDocumentName the name of the design document.
* @return a DesignDocument object from the cluster.
* @throws com.couchbase.client.protocol.views.InvalidViewException if no design document or view was found.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
@Deprecated
DesignDocument getDesignDocument(final String designDocumentName);
/**
* Returns a representation of a design document stored in the cluster.
*
* @param designDocumentName the name of the design document.
* @return a DesignDocument object from the cluster.
* @throws com.couchbase.client.protocol.views.InvalidViewException if no design document or view was found.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
DesignDocument getDesignDoc(final String designDocumentName);
/**
* Get a document from a replica node.
*
* This method allows you to explicitly load a document from a replica
* instead of the master node.
*
* This command only works on couchbase type buckets.
*
* @param key the key to fetch.
* @return the fetched document or null when no document available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
Object getFromReplica(String key);
/**
* Get a document from a replica node including its CAS value.
*
* This method allows you to explicitly load a document from a replica
* instead of the master node including its CAS value.
*
* This command only works on couchbase type buckets.
*
* @param key the key to fetch.
* @return the fetched document or null when no document available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
CASValue getsFromReplica(String key);
/**
* Get a document from a replica node.
*
* This method allows you to explicitly load a document from a replica
* instead from the master node.
*
* This command only works on couchbase type buckets.
*
* @param key the key to fetch.
* @param tc a custom document transcoder.
* @return the fetched document or null when no document available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
T getFromReplica(String key, Transcoder tc);
/**
* Get a document from a replica node including its CAS value.
*
* This method allows you to explicitly load a document from a replica
* instead of the master node including its CAS value.
*
* This command only works on couchbase type buckets.
*
* @param key the key to fetch.
* @param tc a custom document transcoder.
* @return the fetched document or null when no document available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
CASValue getsFromReplica(String key, Transcoder tc);
/**
* Get a document from a replica node asynchronously.
*
* This method allows you to explicitly load a document from a replica
* instead from the master node. This command only works on couchbase
* type buckets.
*
* @param key the key to fetch.
* @return a future containing the fetched document or null when no document
* available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
ReplicaGetFuture asyncGetFromReplica(final String key);
/**
* Get a document from a replica node asynchronously and load the CAS.
*
* This method allows you to explicitly load a document from a replica
* instead from the master node. This command only works on couchbase
* type buckets.
*
* @param key the key to fetch.
* @return a future containing the fetched document or null when no document
* available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
ReplicaGetFuture> asyncGetsFromReplica(final String key);
/**
* Get a document from a replica node asynchronously.
*
* This method allows you to explicitly load a document from a replica
* instead from the master node. This command only works on couchbase
* type buckets.
*
* @param key the key to fetch.
* @param tc a custom document transcoder.
* @return a future containing the fetched document or null when no document
* available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
ReplicaGetFuture asyncGetFromReplica(final String key,
final Transcoder tc);
/**
* Get a document from a replica node asynchronously and load the CAS.
*
* This method allows you to explicitly load a document from a replica
* instead from the master node. This command only works on couchbase
* type buckets.
*
* @param key the key to fetch.
* @param tc a custom document transcoder.
* @return a future containing the fetched document or null when no document
* available.
* @throws RuntimeException when less replicas available then in the index
* argument defined.
*/
ReplicaGetFuture> asyncGetsFromReplica(final String key,
final Transcoder tc);
/**
* Gets access to a view contained in a design document from the cluster.
*
* The purpose of a view is take the structured data stored within the
* Couchbase Server database as JSON documents, extract the fields and
* information, and to produce an index of the selected information.
*
* The result is a view on the stored data. The view that is created
* during this process allows you to iterate, select and query the
* information in your database from the raw data objects that have
* been stored.
*
* Note that since an HttpFuture is returned, the caller must also check to
* see if the View is null. The HttpFuture does provide a getStatus() method
* which can be used to check whether or not the view request has been
* successful.
*
* @param designDocumentName the name of the design document.
* @param viewName the name of the view to get.
* @return a View object from the cluster.
* @throws InterruptedException if the operation is interrupted while in
* flight
* @throws java.util.concurrent.ExecutionException if an error occurs during execution
*/
HttpFuture asyncGetView(String designDocumentName, final String viewName);
/**
* Gets access to a spatial view contained in a design document from the
* cluster.
*
*
* Note that since an HttpFuture is returned, the caller must also check to
* see if the View is null. The HttpFuture does provide a getStatus() method
* which can be used to check whether or not the view request has been
* successful.
*
* @param designDocumentName the name of the design document.
* @param viewName the name of the spatial view to get.
* @return a HttpFuture object from the cluster.
* @throws InterruptedException if the operation is interrupted while in
* flight
* @throws java.util.concurrent.ExecutionException if an error occurs during execution
*/
HttpFuture asyncGetSpatialView(String designDocumentName,
final String viewName);
HttpFuture asyncQuery(AbstractView view, Query query);
/**
* Queries a Couchbase view and returns the result.
* The result can be accessed row-wise via an iterator.
* This type of query will return the view result along
* with all of the documents for each row in
* the query.
*
* @param view the view to run the query against.
* @param query the type of query to run against the view.
* @return a ViewResponseWithDocs containing the results of the query.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
ViewResponse query(AbstractView view, Query query);
/**
* A paginated query allows the user to get the results of a large query in
* small chunks allowing for better performance. The result allows you
* to iterate through the results of the query and when you get to the end
* of the current result set the client will automatically fetch the next set
* of results.
*
* @param view the view to query against.
* @param query the query for this request.
* @param docsPerPage the amount of documents per page.
* @return A Paginator (iterator) to use for reading the results of the query.
*/
Paginator paginatedQuery(View view, Query query, int docsPerPage);
/**
* Gets access to a view contained in a design document from the cluster.
*
* The purpose of a view is take the structured data stored within the
* Couchbase Server database as JSON documents, extract the fields and
* information, and to produce an index of the selected information.
*
* The result is a view on the stored data. The view that is created
* during this process allows you to iterate, select and query the
* information in your database from the raw data objects that have
* been stored.
*
* @param designDocumentName the name of the design document.
* @param viewName the name of the view to get.
* @return a View object from the cluster.
* @throws com.couchbase.client.protocol.views.InvalidViewException if no design document or view was found.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
View getView(final String designDocumentName, final String viewName);
/**
* Gets access to a spatial view contained in a design document from the
* cluster.
*
* Spatial views enable you to return recorded geometry data in the bucket
* and perform queries which return information based on whether the recorded
* geometries existing within a given two-dimensional range such as a
* bounding box.
*
* @param designDocumentName the name of the design document.
* @param viewName the name of the view to get.
* @return a SpatialView object from the cluster.
* @throws com.couchbase.client.protocol.views.InvalidViewException if no design document or view was found.
* @throws java.util.concurrent.CancellationException if operation was canceled.
*/
SpatialView getSpatialView(final String designDocumentName,
final String viewName);
OperationFuture> getKeyStats(String key);
}