KafkaConfiguration.java

/*
 * Licensed to the Apache Software Foundation (ASF) under one or more
 * contributor license agreements.  See the NOTICE file distributed with
 * this work for additional information regarding copyright ownership.
 * The ASF licenses this file to You under the Apache License, Version 2.0
 * (the "License"); you may not use this file except in compliance with
 * the License.  You may obtain a copy of the License at
 *
 *      http://www.apache.org/licenses/LICENSE-2.0
 *
 * Unless required by applicable law or agreed to in writing, software
 * distributed under the License is distributed on an "AS IS" BASIS,
 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 * See the License for the specific language governing permissions and
 * limitations under the License.
 */
package org.apache.camel.component.kafka;

import java.util.HashMap;
import java.util.List;
import java.util.Locale;
import java.util.Map;
import java.util.Properties;
import java.util.concurrent.ExecutorService;
import java.util.stream.Collectors;

import org.apache.camel.Exchange;
import org.apache.camel.RuntimeCamelException;
import org.apache.camel.component.kafka.consumer.KafkaManualCommit;
import org.apache.camel.component.kafka.serde.DefaultKafkaHeaderDeserializer;
import org.apache.camel.component.kafka.serde.DefaultKafkaHeaderSerializer;
import org.apache.camel.component.kafka.serde.KafkaHeaderDeserializer;
import org.apache.camel.component.kafka.serde.KafkaHeaderSerializer;
import org.apache.camel.spi.HeaderFilterStrategy;
import org.apache.camel.spi.HeaderFilterStrategyAware;
import org.apache.camel.spi.Metadata;
import org.apache.camel.spi.StateRepository;
import org.apache.camel.spi.UriParam;
import org.apache.camel.spi.UriParams;
import org.apache.camel.spi.UriPath;
import org.apache.camel.support.jsse.CipherSuitesParameters;
import org.apache.camel.support.jsse.KeyManagersParameters;
import org.apache.camel.support.jsse.KeyStoreParameters;
import org.apache.camel.support.jsse.SSLContextParameters;
import org.apache.camel.support.jsse.SecureSocketProtocolsParameters;
import org.apache.camel.support.jsse.TrustManagersParameters;
import org.apache.camel.util.ObjectHelper;
import org.apache.kafka.clients.CommonClientConfigs;
import org.apache.kafka.clients.consumer.ConsumerConfig;
import org.apache.kafka.clients.producer.ProducerConfig;
import org.apache.kafka.clients.producer.RecordMetadata;
import org.apache.kafka.common.config.SaslConfigs;
import org.apache.kafka.common.config.SslConfigs;
import org.apache.kafka.common.config.internals.BrokerSecurityConfigs;
import org.apache.kafka.common.security.auth.SecurityProtocol;

@UriParams
public class KafkaConfiguration implements Cloneable, HeaderFilterStrategyAware {

    // Common configuration properties
    @UriPath(label = "common")
    @Metadata(required = true)
    private String topic;
    @UriParam(label = "common")
    private String brokers;
    @UriParam(label = "common")
    private String clientId;
    @UriParam(label = "common",
              description = "To use a custom HeaderFilterStrategy to filter header to and from Camel message.")
    private HeaderFilterStrategy headerFilterStrategy = new KafkaHeaderFilterStrategy();

    @UriParam(label = "consumer")
    private boolean topicIsPattern;
    @UriParam(label = "consumer")
    private String groupId;
    @UriParam(label = "consumer")
    private String groupInstanceId;

    @UriParam(label = "consumer", defaultValue = "1")
    private int consumersCount = 1;
    @UriParam(label = "consumer", description = "To use a custom KafkaHeaderDeserializer to deserialize kafka headers values")
    private KafkaHeaderDeserializer headerDeserializer = new DefaultKafkaHeaderDeserializer();

    // interceptor.classes
    @UriParam(label = "common,monitoring")
    private String interceptorClasses;

    // key.deserializer
    @UriParam(label = "consumer", defaultValue = KafkaConstants.KAFKA_DEFAULT_DESERIALIZER)
    private String keyDeserializer = KafkaConstants.KAFKA_DEFAULT_DESERIALIZER;
    // value.deserializer
    @UriParam(label = "consumer", defaultValue = KafkaConstants.KAFKA_DEFAULT_DESERIALIZER)
    private String valueDeserializer = KafkaConstants.KAFKA_DEFAULT_DESERIALIZER;
    // fetch.min.bytes
    @UriParam(label = "consumer", defaultValue = "1")
    private Integer fetchMinBytes = 1;
    // fetch.min.bytes
    @UriParam(label = "consumer", defaultValue = "52428800")
    private Integer fetchMaxBytes = 50 * 1024 * 1024;
    // heartbeat.interval.ms
    @UriParam(label = "consumer", defaultValue = "3000")
    private Integer heartbeatIntervalMs = 3000;
    // max.partition.fetch.bytes
    @UriParam(label = "consumer", defaultValue = "1048576")
    private Integer maxPartitionFetchBytes = 1048576;
    // session.timeout.ms
    @UriParam(label = "consumer", defaultValue = "45000")
    private Integer sessionTimeoutMs = 45000;
    @UriParam(label = "consumer", defaultValue = "500")
    private Integer maxPollRecords;
    @UriParam(label = "consumer", defaultValue = "5000", javaType = "java.time.Duration")
    private Long pollTimeoutMs = 5000L;
    @UriParam(label = "consumer", javaType = "java.time.Duration")
    private Integer maxPollIntervalMs;
    // auto.offset.reset1
    @UriParam(label = "consumer", defaultValue = "latest", enums = "latest,earliest,none")
    private String autoOffsetReset = "latest";
    // partition.assignment.strategy
    @UriParam(label = "consumer", defaultValue = KafkaConstants.PARTITIONER_RANGE_ASSIGNOR)
    private String partitionAssignor = KafkaConstants.PARTITIONER_RANGE_ASSIGNOR;
    // request.timeout.ms
    @UriParam(label = "consumer", defaultValue = "30000")
    private Integer consumerRequestTimeoutMs = 30000;
    // auto.commit.interval.ms
    @UriParam(label = "consumer", defaultValue = "5000")
    private Integer autoCommitIntervalMs = 5000;
    // check.crcs
    @UriParam(label = "consumer", defaultValue = "true")
    private Boolean checkCrcs = true;
    // fetch.max.wait.ms
    @UriParam(label = "consumer", defaultValue = "500")
    private Integer fetchWaitMaxMs = 500;
    @UriParam(label = "consumer")
    private SeekPolicy seekTo;

    // Consumer configuration properties
    @UriParam(label = "consumer", defaultValue = "true")
    private boolean autoCommitEnable = true;
    @UriParam(label = "consumer")
    private boolean allowManualCommit;
    @UriParam(label = "consumer")
    private boolean breakOnFirstError;
    @UriParam(label = "consumer")
    private StateRepository<String, String> offsetRepository;
    @UriParam(label = "consumer", defaultValue = "ERROR_HANDLER")
    private PollOnError pollOnError = PollOnError.ERROR_HANDLER;
    @UriParam(label = "consumer", defaultValue = "5000", javaType = "java.time.Duration")
    private Long commitTimeoutMs = 5000L;
    @UriParam(label = "consumer,advanced", defaultValue = "read_uncommitted", enums = "read_uncommitted,read_committed")
    private String isolationLevel;

    // Producer configuration properties
    @UriParam(label = "producer")
    private String partitioner;

    @UriParam(label = "producer", defaultValue = "false")
    private boolean partitionerIgnoreKeys;

    @UriParam(label = "producer", defaultValue = "100")
    private Integer retryBackoffMs = 100;

    @UriParam(label = "producer")
    private ExecutorService workerPool;
    @UriParam(label = "producer", defaultValue = "10")
    private Integer workerPoolCoreSize = 10;
    @UriParam(label = "producer", defaultValue = "20")
    private Integer workerPoolMaxSize = 20;

    // Async producer config
    @UriParam(label = "producer", defaultValue = "10000")
    private Integer queueBufferingMaxMessages = 10000;
    @UriParam(label = "producer", defaultValue = KafkaConstants.KAFKA_DEFAULT_SERIALIZER)
    private String valueSerializer = KafkaConstants.KAFKA_DEFAULT_SERIALIZER;
    @UriParam(label = "producer", defaultValue = KafkaConstants.KAFKA_DEFAULT_SERIALIZER)
    private String keySerializer = KafkaConstants.KAFKA_DEFAULT_SERIALIZER;

    @UriParam(label = "producer")
    private String key;
    @UriParam(label = "producer")
    private Integer partitionKey;
    @UriParam(label = "producer", enums = "all,-1,0,1", defaultValue = "all")
    private String requestRequiredAcks = "all";
    // buffer.memory
    @UriParam(label = "producer", defaultValue = "33554432")
    private Integer bufferMemorySize = 33554432;
    // compression.type
    @UriParam(label = "producer", defaultValue = "none", enums = "none,gzip,snappy,lz4,zstd")
    private String compressionCodec = "none";
    // retries
    @UriParam(label = "producer")
    private Integer retries;
    // use individual headers if exchange.body contains Iterable or similar of Message or Exchange
    @UriParam(label = "producer", defaultValue = "false")
    private boolean batchWithIndividualHeaders;
    // batch.size
    @UriParam(label = "producer", defaultValue = "16384")
    private Integer producerBatchSize = 16384;
    // connections.max.idle.ms
    @UriParam(label = "producer", defaultValue = "540000")
    private Integer connectionMaxIdleMs = 540000;
    // linger.ms
    @UriParam(label = "producer", defaultValue = "0")
    private Integer lingerMs = 0;
    // linger.ms
    @UriParam(label = "producer", defaultValue = "60000")
    private Integer maxBlockMs = 60000;
    // max.request.size
    @UriParam(label = "producer", defaultValue = "1048576")
    private Integer maxRequestSize = 1048576;
    // receive.buffer.bytes
    @UriParam(label = "producer", defaultValue = "65536")
    private Integer receiveBufferBytes = 65536;
    // request.timeout.ms
    @UriParam(label = "producer", defaultValue = "30000")
    private Integer requestTimeoutMs = 30000;
    // delivery.timeout.ms
    @UriParam(label = "producer", defaultValue = "120000")
    private Integer deliveryTimeoutMs = 120000;
    // send.buffer.bytes
    @UriParam(label = "producer", defaultValue = "131072")
    private Integer sendBufferBytes = 131072;
    @UriParam(label = "producer", defaultValue = "true")
    private boolean recordMetadata = true;
    // max.in.flight.requests.per.connection
    @UriParam(label = "producer", defaultValue = "5")
    private Integer maxInFlightRequest = 5;
    // metadata.max.age.ms
    @UriParam(label = "producer", defaultValue = "300000")
    private Integer metadataMaxAgeMs = 300000;
    // metric.reporters
    @UriParam(label = "producer")
    private String metricReporters;
    // metrics.num.samples
    @UriParam(label = "producer", defaultValue = "2")
    private Integer noOfMetricsSample = 2;
    // metrics.sample.window.ms
    @UriParam(label = "producer", defaultValue = "30000")
    private Integer metricsSampleWindowMs = 30000;
    // reconnect.backoff.ms
    @UriParam(label = "producer", defaultValue = "50")
    private Integer reconnectBackoffMs = 50;
    // enable.idempotence
    // reconnect.backoff.ms
    @UriParam(label = "producer", defaultValue = "true")
    private boolean enableIdempotence;
    @UriParam(label = "producer", description = "To use a custom KafkaHeaderSerializer to serialize kafka headers values")
    private KafkaHeaderSerializer headerSerializer = new DefaultKafkaHeaderSerializer();

    // reconnect.backoff.max.ms
    @UriParam(label = "common", defaultValue = "1000")
    private Integer reconnectBackoffMaxMs = 1000;

    // SSL
    @UriParam(label = "common,security")
    private SSLContextParameters sslContextParameters;

    // SSL
    // ssl.key.password
    @UriParam(label = "common,security", secret = true)
    private String sslKeyPassword;
    // ssl.keystore.location
    @UriParam(label = "common,security")
    private String sslKeystoreLocation;
    // ssl.keystore.password
    @UriParam(label = "common,security", secret = true)
    private String sslKeystorePassword;
    // ssl.truststore.location
    @UriParam(label = "common,security")
    private String sslTruststoreLocation;
    // ssl.truststore.password
    @UriParam(label = "common,security", secret = true)
    private String sslTruststorePassword;
    // SSL
    // ssl.enabled.protocols
    @UriParam(label = "common,security")
    private String sslEnabledProtocols = SslConfigs.DEFAULT_SSL_ENABLED_PROTOCOLS;
    // ssl.keystore.type
    @UriParam(label = "common,security", defaultValue = SslConfigs.DEFAULT_SSL_KEYSTORE_TYPE)
    private String sslKeystoreType = SslConfigs.DEFAULT_SSL_KEYSTORE_TYPE;
    // ssl.protocol
    @UriParam(label = "common,security")
    private String sslProtocol = SslConfigs.DEFAULT_SSL_PROTOCOL;
    // ssl.provider
    @UriParam(label = "common,security")
    private String sslProvider;
    // ssl.truststore.type
    @UriParam(label = "common,security", defaultValue = SslConfigs.DEFAULT_SSL_TRUSTSTORE_TYPE)
    private String sslTruststoreType = SslConfigs.DEFAULT_SSL_TRUSTSTORE_TYPE;
    // SSL
    // ssl.cipher.suites
    @UriParam(label = "common,security")
    private String sslCipherSuites;
    // ssl.endpoint.identification.algorithm
    @UriParam(label = "common,security", defaultValue = "https")
    private String sslEndpointAlgorithm = SslConfigs.DEFAULT_SSL_ENDPOINT_IDENTIFICATION_ALGORITHM;
    // ssl.keymanager.algorithm
    @UriParam(label = "common,security", defaultValue = "SunX509")
    private String sslKeymanagerAlgorithm = "SunX509";
    // ssl.trustmanager.algorithm
    @UriParam(label = "common,security", defaultValue = "PKIX")
    private String sslTrustmanagerAlgorithm = "PKIX";
    // SASL & sucurity Protocol
    // sasl.kerberos.service.name
    @UriParam(label = "common,security")
    private String saslKerberosServiceName;
    // security.protocol
    @UriParam(label = "common,security", defaultValue = CommonClientConfigs.DEFAULT_SECURITY_PROTOCOL)
    private String securityProtocol = CommonClientConfigs.DEFAULT_SECURITY_PROTOCOL;
    // SASL
    // sasl.mechanism
    @UriParam(label = "common,security", defaultValue = SaslConfigs.DEFAULT_SASL_MECHANISM)
    private String saslMechanism = SaslConfigs.DEFAULT_SASL_MECHANISM;
    // sasl.kerberos.kinit.cmd
    @UriParam(label = "common,security", defaultValue = SaslConfigs.DEFAULT_KERBEROS_KINIT_CMD)
    private String kerberosInitCmd = SaslConfigs.DEFAULT_KERBEROS_KINIT_CMD;
    // sasl.kerberos.min.time.before.relogin
    @UriParam(label = "common,security", defaultValue = "60000")
    private Integer kerberosBeforeReloginMinTime = 60000;
    // sasl.kerberos.ticket.renew.jitter
    @UriParam(label = "common,security", defaultValue = "0.05")
    private Double kerberosRenewJitter = SaslConfigs.DEFAULT_KERBEROS_TICKET_RENEW_JITTER;
    // sasl.kerberos.ticket.renew.window.factor
    @UriParam(label = "common,security", defaultValue = "0.8")
    private Double kerberosRenewWindowFactor = SaslConfigs.DEFAULT_KERBEROS_TICKET_RENEW_WINDOW_FACTOR;
    @UriParam(label = "common,security", defaultValue = "DEFAULT")
    // sasl.kerberos.principal.to.local.rules
    private String kerberosPrincipalToLocalRules;
    @UriParam(label = "common,security", secret = true)
    // sasl.jaas.config
    private String saslJaasConfig;

    // Confluent only options
    @UriParam(label = "confluent")
    private String schemaRegistryURL;
    @UriParam(label = "confluent,consumer")
    private boolean specificAvroReader;

    // Additional properties
    @UriParam(label = "common", prefix = "additionalProperties.", multiValue = true)
    private Map<String, Object> additionalProperties = new HashMap<>();
    @UriParam(label = "common", defaultValue = "30000")
    private int shutdownTimeout = 30000;

    @UriParam(defaultValue = "false", label = "advanced",
              description = "Sets whether synchronous processing should be strictly used")
    private boolean synchronous;

    @UriParam(label = "common,security")
    private String kerberosConfigLocation;

    public KafkaConfiguration() {
    }

    /**
     * Returns a copy of this configuration
     */
    public KafkaConfiguration copy() {
        try {
            KafkaConfiguration copy = (KafkaConfiguration) clone();
            copy.additionalProperties = new HashMap<>(this.additionalProperties);
            return copy;
        } catch (CloneNotSupportedException e) {
            throw new RuntimeCamelException(e);
        }
    }

    public Properties createProducerProperties() {
        Properties props = new Properties();
        addPropertyIfNotEmpty(props, ProducerConfig.KEY_SERIALIZER_CLASS_CONFIG, getKeySerializer());
        addPropertyIfNotEmpty(props, ProducerConfig.VALUE_SERIALIZER_CLASS_CONFIG, getValueSerializer());
        addPropertyIfNotEmpty(props, ProducerConfig.ACKS_CONFIG, getRequestRequiredAcks());
        addPropertyIfNotEmpty(props, ProducerConfig.BUFFER_MEMORY_CONFIG, getBufferMemorySize());
        addPropertyIfNotEmpty(props, ProducerConfig.COMPRESSION_TYPE_CONFIG, getCompressionCodec());
        addPropertyIfNotEmpty(props, ProducerConfig.RETRIES_CONFIG, getRetries());
        addPropertyIfNotEmpty(props, ProducerConfig.INTERCEPTOR_CLASSES_CONFIG, getInterceptorClasses());
        addPropertyIfNotEmpty(props, ProducerConfig.BATCH_SIZE_CONFIG, getProducerBatchSize());
        addPropertyIfNotEmpty(props, ProducerConfig.CLIENT_ID_CONFIG, getClientId());
        addPropertyIfNotEmpty(props, ProducerConfig.CONNECTIONS_MAX_IDLE_MS_CONFIG, getConnectionMaxIdleMs());
        addPropertyIfNotEmpty(props, ProducerConfig.LINGER_MS_CONFIG, getLingerMs());
        addPropertyIfNotEmpty(props, ProducerConfig.MAX_BLOCK_MS_CONFIG, getMaxBlockMs());
        addPropertyIfNotEmpty(props, ProducerConfig.MAX_REQUEST_SIZE_CONFIG, getMaxRequestSize());
        addPropertyIfNotEmpty(props, ProducerConfig.PARTITIONER_CLASS_CONFIG, getPartitioner());
        addPropertyIfNotEmpty(props, ProducerConfig.PARTITIONER_IGNORE_KEYS_CONFIG, isPartitionerIgnoreKeys());
        addPropertyIfNotEmpty(props, ProducerConfig.RECEIVE_BUFFER_CONFIG, getReceiveBufferBytes());
        addPropertyIfNotEmpty(props, ProducerConfig.REQUEST_TIMEOUT_MS_CONFIG, getRequestTimeoutMs());
        addPropertyIfNotEmpty(props, ProducerConfig.DELIVERY_TIMEOUT_MS_CONFIG, getDeliveryTimeoutMs());
        addPropertyIfNotEmpty(props, ProducerConfig.SEND_BUFFER_CONFIG, getSendBufferBytes());
        addPropertyIfNotEmpty(props, ProducerConfig.MAX_IN_FLIGHT_REQUESTS_PER_CONNECTION, getMaxInFlightRequest());
        addPropertyIfNotEmpty(props, ProducerConfig.METADATA_MAX_AGE_CONFIG, getMetadataMaxAgeMs());
        addPropertyIfNotEmpty(props, ProducerConfig.METRIC_REPORTER_CLASSES_CONFIG, getMetricReporters());
        addPropertyIfNotEmpty(props, ProducerConfig.METRICS_NUM_SAMPLES_CONFIG, getNoOfMetricsSample());
        addPropertyIfNotEmpty(props, ProducerConfig.METRICS_SAMPLE_WINDOW_MS_CONFIG, getMetricsSampleWindowMs());
        addPropertyIfNotEmpty(props, ProducerConfig.RECONNECT_BACKOFF_MS_CONFIG, getReconnectBackoffMs());
        addPropertyIfNotEmpty(props, ProducerConfig.RETRY_BACKOFF_MS_CONFIG, getRetryBackoffMs());
        addPropertyIfNotEmpty(props, ProducerConfig.ENABLE_IDEMPOTENCE_CONFIG, isEnableIdempotence());
        addPropertyIfNotEmpty(props, ProducerConfig.RECONNECT_BACKOFF_MAX_MS_CONFIG, getReconnectBackoffMaxMs());
        addPropertyIfNotEmpty(props, "schema.registry.url", getSchemaRegistryURL());

        // SSL
        if (sslContextParameters != null) {
            applySslConfigurationFromContext(props, sslContextParameters);
        } else {
            applyProducerSslConfiguration(props);
        }

        addPropertyIfNotEmpty(props, CommonClientConfigs.SECURITY_PROTOCOL_CONFIG, securityProtocol);

        // SASL
        if (isSasl(securityProtocol)) {
            applySaslConfiguration(props);
        }

        // additional properties
        applyAdditionalProperties(props, getAdditionalProperties());

        return props;
    }

    private void applySaslConfiguration(Properties props) {
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_KERBEROS_SERVICE_NAME, getSaslKerberosServiceName());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_KERBEROS_KINIT_CMD, getKerberosInitCmd());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_KERBEROS_MIN_TIME_BEFORE_RELOGIN, getKerberosBeforeReloginMinTime());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_KERBEROS_TICKET_RENEW_JITTER, getKerberosRenewJitter());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_KERBEROS_TICKET_RENEW_WINDOW_FACTOR, getKerberosRenewWindowFactor());
        addPropertyIfNotEmpty(props, BrokerSecurityConfigs.SASL_KERBEROS_PRINCIPAL_TO_LOCAL_RULES_CONFIG,
                getKerberosPrincipalToLocalRules());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_MECHANISM, getSaslMechanism());
        addPropertyIfNotEmpty(props, SaslConfigs.SASL_JAAS_CONFIG, getSaslJaasConfig());
    }

    private void applyProducerSslConfiguration(Properties props) {
        if (securityProtocol.equals(SecurityProtocol.SSL.name()) || securityProtocol.equals(SecurityProtocol.SASL_SSL.name())) {
            addPropertyIfNotEmpty(props, CommonClientConfigs.SECURITY_PROTOCOL_CONFIG, getSecurityProtocol());
            addPropertyIfNotNull(props, SslConfigs.SSL_KEY_PASSWORD_CONFIG, getSslKeyPassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_LOCATION_CONFIG, getSslKeystoreLocation());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_PASSWORD_CONFIG, getSslKeystorePassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_LOCATION_CONFIG, getSslTruststoreLocation());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_PASSWORD_CONFIG, getSslTruststorePassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_ENABLED_PROTOCOLS_CONFIG, getSslEnabledProtocols());
            addUpperCasePropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_TYPE_CONFIG, getSslKeystoreType());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_PROTOCOL_CONFIG, getSslProtocol());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_PROVIDER_CONFIG, getSslProvider());
            addUpperCasePropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_TYPE_CONFIG, getSslTruststoreType());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_CIPHER_SUITES_CONFIG, getSslCipherSuites());
            String algo = getSslEndpointAlgorithm();
            if (algo != null && !algo.equals("none") && !algo.equals("false")) {
                addPropertyIfNotNull(props, SslConfigs.SSL_ENDPOINT_IDENTIFICATION_ALGORITHM_CONFIG, algo);
            }
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYMANAGER_ALGORITHM_CONFIG, getSslKeymanagerAlgorithm());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTMANAGER_ALGORITHM_CONFIG, getSslTrustmanagerAlgorithm());
        }
    }

    public Properties createConsumerProperties() {
        Properties props = new Properties();
        addPropertyIfNotEmpty(props, ConsumerConfig.KEY_DESERIALIZER_CLASS_CONFIG, getKeyDeserializer());
        addPropertyIfNotEmpty(props, ConsumerConfig.VALUE_DESERIALIZER_CLASS_CONFIG, getValueDeserializer());
        addPropertyIfNotEmpty(props, ConsumerConfig.FETCH_MIN_BYTES_CONFIG, getFetchMinBytes());
        addPropertyIfNotEmpty(props, ConsumerConfig.FETCH_MAX_BYTES_CONFIG, getFetchMaxBytes());
        addPropertyIfNotEmpty(props, ConsumerConfig.HEARTBEAT_INTERVAL_MS_CONFIG, getHeartbeatIntervalMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.MAX_PARTITION_FETCH_BYTES_CONFIG, getMaxPartitionFetchBytes());
        addPropertyIfNotEmpty(props, ConsumerConfig.SESSION_TIMEOUT_MS_CONFIG, getSessionTimeoutMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.MAX_POLL_INTERVAL_MS_CONFIG, getMaxPollIntervalMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.MAX_POLL_RECORDS_CONFIG, getMaxPollRecords());
        addPropertyIfNotEmpty(props, ConsumerConfig.INTERCEPTOR_CLASSES_CONFIG, getInterceptorClasses());
        addPropertyIfNotEmpty(props, ConsumerConfig.AUTO_OFFSET_RESET_CONFIG, getAutoOffsetReset());
        addPropertyIfNotEmpty(props, ConsumerConfig.CONNECTIONS_MAX_IDLE_MS_CONFIG, getConnectionMaxIdleMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.ENABLE_AUTO_COMMIT_CONFIG, getAutoCommitEnable());
        addPropertyIfNotEmpty(props, ConsumerConfig.PARTITION_ASSIGNMENT_STRATEGY_CONFIG, getPartitionAssignor());
        addPropertyIfNotEmpty(props, ConsumerConfig.RECEIVE_BUFFER_CONFIG, getReceiveBufferBytes());
        addPropertyIfNotEmpty(props, ConsumerConfig.REQUEST_TIMEOUT_MS_CONFIG, getConsumerRequestTimeoutMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.AUTO_COMMIT_INTERVAL_MS_CONFIG, getAutoCommitIntervalMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.CHECK_CRCS_CONFIG, getCheckCrcs());
        addPropertyIfNotEmpty(props, ConsumerConfig.CLIENT_ID_CONFIG, getClientId());
        addPropertyIfNotEmpty(props, ConsumerConfig.FETCH_MAX_WAIT_MS_CONFIG, getFetchWaitMaxMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.METADATA_MAX_AGE_CONFIG, getMetadataMaxAgeMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.METRIC_REPORTER_CLASSES_CONFIG, getMetricReporters());
        addPropertyIfNotEmpty(props, ConsumerConfig.METRICS_NUM_SAMPLES_CONFIG, getNoOfMetricsSample());
        addPropertyIfNotEmpty(props, ConsumerConfig.METRICS_SAMPLE_WINDOW_MS_CONFIG, getMetricsSampleWindowMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.RECONNECT_BACKOFF_MS_CONFIG, getReconnectBackoffMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.RETRY_BACKOFF_MS_CONFIG, getRetryBackoffMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.RECONNECT_BACKOFF_MAX_MS_CONFIG, getReconnectBackoffMaxMs());
        addPropertyIfNotEmpty(props, ConsumerConfig.ISOLATION_LEVEL_CONFIG, getIsolationLevel());
        addPropertyIfNotEmpty(props, "schema.registry.url", getSchemaRegistryURL());
        addPropertyIfNotFalse(props, "specific.avro.reader", isSpecificAvroReader());

        // SSL
        if (sslContextParameters != null) {
            applySslConfigurationFromContext(props, sslContextParameters);
        } else {
            applySslConsumerConfigurationFromOptions(props);
        }

        // Security protocol
        addPropertyIfNotEmpty(props, CommonClientConfigs.SECURITY_PROTOCOL_CONFIG, securityProtocol);

        // SASL
        if (isSasl(securityProtocol)) {
            applySaslConfiguration(props);
        }

        // additional properties
        applyAdditionalProperties(props, getAdditionalProperties());

        return props;
    }

    private boolean isSasl(String securityProtocol) {
        return securityProtocol.equals(SecurityProtocol.SASL_PLAINTEXT.name())
                || securityProtocol.equals(SecurityProtocol.SASL_SSL.name());
    }

    private void applySslConsumerConfigurationFromOptions(Properties props) {
        if (securityProtocol.equals(SecurityProtocol.SSL.name()) || securityProtocol.equals(SecurityProtocol.SASL_SSL.name())) {
            addPropertyIfNotNull(props, SslConfigs.SSL_KEY_PASSWORD_CONFIG, getSslKeyPassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_LOCATION_CONFIG, getSslKeystoreLocation());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_PASSWORD_CONFIG, getSslKeystorePassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_LOCATION_CONFIG, getSslTruststoreLocation());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_PASSWORD_CONFIG, getSslTruststorePassword());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_CIPHER_SUITES_CONFIG, getSslCipherSuites());
            String algo = getSslEndpointAlgorithm();
            if (algo != null && !algo.equals("none") && !algo.equals("false")) {
                addPropertyIfNotNull(props, SslConfigs.SSL_ENDPOINT_IDENTIFICATION_ALGORITHM_CONFIG, algo);
            }
            addPropertyIfNotEmpty(props, SslConfigs.SSL_KEYMANAGER_ALGORITHM_CONFIG, getSslKeymanagerAlgorithm());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTMANAGER_ALGORITHM_CONFIG, getSslTrustmanagerAlgorithm());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_ENABLED_PROTOCOLS_CONFIG, getSslEnabledProtocols());
            addUpperCasePropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_TYPE_CONFIG, getSslKeystoreType());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_PROTOCOL_CONFIG, getSslProtocol());
            addPropertyIfNotEmpty(props, SslConfigs.SSL_PROVIDER_CONFIG, getSslProvider());
            addUpperCasePropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_TYPE_CONFIG, getSslTruststoreType());
            addPropertyIfNotEmpty(props, ProducerConfig.SEND_BUFFER_CONFIG, getSendBufferBytes());
        }
    }

    /**
     * Uses the standard camel {@link SSLContextParameters} object to fill the Kafka SSL properties
     *
     * @param props                Kafka properties
     * @param sslContextParameters SSL configuration
     */
    private void applySslConfigurationFromContext(Properties props, SSLContextParameters sslContextParameters) {
        addPropertyIfNotNull(props, SslConfigs.SSL_PROTOCOL_CONFIG, sslContextParameters.getSecureSocketProtocol());
        addPropertyIfNotNull(props, SslConfigs.SSL_PROVIDER_CONFIG, sslContextParameters.getProvider());

        CipherSuitesParameters cipherSuites = sslContextParameters.getCipherSuites();
        if (cipherSuites != null) {
            addCommaSeparatedList(props, SslConfigs.SSL_CIPHER_SUITES_CONFIG, cipherSuites.getCipherSuite());
        }

        SecureSocketProtocolsParameters secureSocketProtocols = sslContextParameters.getSecureSocketProtocols();
        if (secureSocketProtocols != null) {
            addCommaSeparatedList(props, SslConfigs.SSL_ENABLED_PROTOCOLS_CONFIG,
                    secureSocketProtocols.getSecureSocketProtocol());
        }

        KeyManagersParameters keyManagers = sslContextParameters.getKeyManagers();
        if (keyManagers != null) {
            addPropertyIfNotNull(props, SslConfigs.SSL_KEYMANAGER_ALGORITHM_CONFIG, keyManagers.getAlgorithm());
            addPropertyIfNotNull(props, SslConfigs.SSL_KEY_PASSWORD_CONFIG, keyManagers.getKeyPassword());
            KeyStoreParameters keyStore = keyManagers.getKeyStore();
            if (keyStore != null) {
                addUpperCasePropertyIfNotEmpty(props, SslConfigs.SSL_KEYSTORE_TYPE_CONFIG, keyStore.getType());
                addPropertyIfNotNull(props, SslConfigs.SSL_KEYSTORE_LOCATION_CONFIG, keyStore.getResource());
                addPropertyIfNotNull(props, SslConfigs.SSL_KEYSTORE_PASSWORD_CONFIG, keyStore.getPassword());
            }
        }

        TrustManagersParameters trustManagers = sslContextParameters.getTrustManagers();
        if (trustManagers != null) {
            addPropertyIfNotNull(props, SslConfigs.SSL_TRUSTMANAGER_ALGORITHM_CONFIG, trustManagers.getAlgorithm());
            KeyStoreParameters keyStore = trustManagers.getKeyStore();
            if (keyStore != null) {
                addPropertyIfNotNull(props, SslConfigs.SSL_TRUSTSTORE_TYPE_CONFIG, keyStore.getType());
                addPropertyIfNotNull(props, SslConfigs.SSL_TRUSTSTORE_LOCATION_CONFIG, keyStore.getResource());
                addPropertyIfNotEmpty(props, SslConfigs.SSL_TRUSTSTORE_PASSWORD_CONFIG, keyStore.getPassword());
            }
        }
    }

    private void applyAdditionalProperties(final Properties props, final Map<String, Object> additionalProperties) {
        if (!ObjectHelper.isEmpty(getAdditionalProperties())) {
            additionalProperties.forEach((property, value) -> {
                if (value != null) {
                    // value should be as-is
                    props.put(property, value);
                }
            });
        }
    }

    private static void addPropertyIfNotFalse(Properties props, String key, boolean value) {
        if (value) {
            // value should be as-is
            props.put(key, value);
        }
    }

    private static <T> void addPropertyIfNotEmpty(Properties props, String key, T value) {
        if (ObjectHelper.isNotEmpty(value)) {
            // value should be as-is
            props.put(key, value);
        }
    }

    private static <T> void addUpperCasePropertyIfNotEmpty(Properties props, String key, T value) {
        if (ObjectHelper.isNotEmpty(value)) {
            props.put(key, String.valueOf(value).toUpperCase(Locale.ROOT));
        }
    }

    private static <T> void addPropertyIfNotNull(Properties props, String key, T value) {
        if (value != null) {
            // value should be as-is
            props.put(key, value);
        }
    }

    private static void addCommaSeparatedList(Properties props, String key, List<String> values) {
        if (values != null && !values.isEmpty()) {
            props.put(key, values.stream().collect(Collectors.joining(",")));
        }
    }

    public boolean isTopicIsPattern() {
        return topicIsPattern;
    }

    /**
     * Whether the topic is a pattern (regular expression). This can be used to subscribe to dynamic number of topics
     * matching the pattern.
     */
    public void setTopicIsPattern(boolean topicIsPattern) {
        this.topicIsPattern = topicIsPattern;
    }

    public String getGroupId() {
        return groupId;
    }

    /**
     * A string that uniquely identifies the group of consumer processes to which this consumer belongs. By setting the
     * same group id multiple processes indicate that they are all part of the same consumer group. This option is
     * required for consumers.
     */
    public void setGroupId(String groupId) {
        this.groupId = groupId;
    }

    public String getGroupInstanceId() {
        return groupInstanceId;
    }

    /**
     * A unique identifier of the consumer instance provided by the end user. Only non-empty strings are permitted. If
     * set, the consumer is treated as a static member, which means that only one instance with this ID is allowed in
     * the consumer group at any time. This can be used in combination with a larger session timeout to avoid group
     * rebalances caused by transient unavailability (e.g. process restarts). If not set, the consumer will join the
     * group as a dynamic member, which is the traditional behavior.
     */
    public void setGroupInstanceId(String groupInstanceId) {
        this.groupInstanceId = groupInstanceId;
    }

    public String getPartitioner() {
        return partitioner;
    }

    /**
     * The partitioner class for partitioning messages amongst sub-topics. The default partitioner is based on the hash
     * of the key.
     */
    public void setPartitioner(String partitioner) {
        this.partitioner = partitioner;
    }

    /**
     * Whether the message keys should be ignored when computing partition. This setting has effect only when
     * {@link #partitioner} is not set
     */
    public boolean isPartitionerIgnoreKeys() {
        return partitionerIgnoreKeys;
    }

    public void setPartitionerIgnoreKeys(boolean partitionerIgnoreKeys) {
        this.partitionerIgnoreKeys = partitionerIgnoreKeys;
    }

    public String getTopic() {
        return topic;
    }

    /**
     * Name of the topic to use. On the consumer you can use comma to separate multiple topics. A producer can only send
     * a message to a single topic.
     */
    public void setTopic(String topic) {
        this.topic = topic;
    }

    public int getConsumersCount() {
        return consumersCount;
    }

    /**
     * The number of consumers that connect to kafka server. Each consumer is run on a separate thread, that retrieves
     * and process the incoming data.
     */
    public void setConsumersCount(int consumersCount) {
        this.consumersCount = consumersCount;
    }

    public String getClientId() {
        return clientId;
    }

    /**
     * The client id is a user-specified string sent in each request to help trace calls. It should logically identify
     * the application making the request.
     */
    public void setClientId(String clientId) {
        this.clientId = clientId;
    }

    public boolean isAutoCommitEnable() {
        return offsetRepository == null && autoCommitEnable;
    }

    public boolean getAutoCommitEnable() {
        return autoCommitEnable;
    }

    /**
     * If true, periodically commit to ZooKeeper the offset of messages already fetched by the consumer. This committed
     * offset will be used when the process fails as the position from which the new consumer will begin.
     */
    public void setAutoCommitEnable(boolean autoCommitEnable) {
        this.autoCommitEnable = autoCommitEnable;
    }

    public boolean isAllowManualCommit() {
        return allowManualCommit;
    }

    /**
     * Whether to allow doing manual commits via {@link KafkaManualCommit}.
     * <p/>
     * If this option is enabled then an instance of {@link KafkaManualCommit} is stored on the {@link Exchange} message
     * header, which allows end users to access this API and perform manual offset commits via the Kafka consumer.
     */
    public void setAllowManualCommit(boolean allowManualCommit) {
        this.allowManualCommit = allowManualCommit;
    }

    public int getShutdownTimeout() {
        return shutdownTimeout;
    }

    /**
     * Timeout in milliseconds to wait gracefully for the consumer or producer to shutdown and terminate its worker
     * threads.
     */
    public void setShutdownTimeout(int shutdownTimeout) {
        this.shutdownTimeout = shutdownTimeout;
    }

    public StateRepository<String, String> getOffsetRepository() {
        return offsetRepository;
    }

    /**
     * The offset repository to use in order to locally store the offset of each partition of the topic. Defining one
     * will disable the autocommit.
     */
    public void setOffsetRepository(StateRepository<String, String> offsetRepository) {
        this.offsetRepository = offsetRepository;
    }

    public Integer getAutoCommitIntervalMs() {
        return autoCommitIntervalMs;
    }

    /**
     * The frequency in ms that the consumer offsets are committed to zookeeper.
     */
    public void setAutoCommitIntervalMs(Integer autoCommitIntervalMs) {
        this.autoCommitIntervalMs = autoCommitIntervalMs;
    }

    public Integer getFetchMinBytes() {
        return fetchMinBytes;
    }

    /**
     * The minimum amount of data the server should return for a fetch request. If insufficient data is available the
     * request will wait for that much data to accumulate before answering the request.
     */
    public void setFetchMinBytes(Integer fetchMinBytes) {
        this.fetchMinBytes = fetchMinBytes;
    }

    /**
     * The maximum amount of data the server should return for a fetch request This is not an absolute maximum, if the
     * first message in the first non-empty partition of the fetch is larger than this value, the message will still be
     * returned to ensure that the consumer can make progress. The maximum message size accepted by the broker is
     * defined via message.max.bytes (broker config) or max.message.bytes (topic config). Note that the consumer
     * performs multiple fetches in parallel.
     */
    public Integer getFetchMaxBytes() {
        return fetchMaxBytes;
    }

    public void setFetchMaxBytes(Integer fetchMaxBytes) {
        this.fetchMaxBytes = fetchMaxBytes;
    }

    public Integer getFetchWaitMaxMs() {
        return fetchWaitMaxMs;
    }

    /**
     * The maximum amount of time the server will block before answering the fetch request if there isn't sufficient
     * data to immediately satisfy fetch.min.bytes
     */
    public void setFetchWaitMaxMs(Integer fetchWaitMaxMs) {
        this.fetchWaitMaxMs = fetchWaitMaxMs;
    }

    public String getAutoOffsetReset() {
        return autoOffsetReset;
    }

    /**
     * What to do when there is no initial offset in ZooKeeper or if an offset is out of range: earliest : automatically
     * reset the offset to the earliest offset latest : automatically reset the offset to the latest offset fail: throw
     * exception to the consumer
     */
    public void setAutoOffsetReset(String autoOffsetReset) {
        this.autoOffsetReset = autoOffsetReset;
    }

    public boolean isBreakOnFirstError() {
        return breakOnFirstError;
    }

    /**
     * This options controls what happens when a consumer is processing an exchange and it fails. If the option is
     * <tt>false</tt> then the consumer continues to the next message and processes it. If the option is <tt>true</tt>
     * then the consumer breaks out.
     *
     * Using the default NoopCommitManager will cause the consumer to not commit the offset so that the message is
     * re-attempted. The consumer should use the KafkaManualCommit to determine the best way to handle the message.
     *
     * Using either the SynchCommitManager or the AsynchCommitManager the consumer will seek back to the offset of the
     * message that caused a failure, and then re-attempt to process this message. However this can lead to endless
     * processing of the same message if its bound to fail every time, eg a poison message. Therefore its recommended to
     * deal with that for example by using Camel's error handler.
     */
    public void setBreakOnFirstError(boolean breakOnFirstError) {
        this.breakOnFirstError = breakOnFirstError;
    }

    public String getBrokers() {
        return brokers;
    }

    /**
     * URL of the Kafka brokers to use. The format is host1:port1,host2:port2, and the list can be a subset of brokers
     * or a VIP pointing to a subset of brokers.
     * <p/>
     * This option is known as <tt>bootstrap.servers</tt> in the Kafka documentation.
     */
    public void setBrokers(String brokers) {
        this.brokers = brokers;
    }

    public String getSchemaRegistryURL() {
        return schemaRegistryURL;
    }

    /**
     * URL of the Confluent Platform schema registry servers to use. The format is host1:port1,host2:port2. This is
     * known as schema.registry.url in the Confluent Platform documentation. This option is only available in the
     * Confluent Platform (not standard Apache Kafka)
     */
    public void setSchemaRegistryURL(String schemaRegistryURL) {
        this.schemaRegistryURL = schemaRegistryURL;
    }

    public boolean isSpecificAvroReader() {
        return specificAvroReader;
    }

    /**
     * This enables the use of a specific Avro reader for use with the Confluent Platform schema registry and the
     * io.confluent.kafka.serializers.KafkaAvroDeserializer. This option is only available in the Confluent Platform
     * (not standard Apache Kafka)
     */
    public void setSpecificAvroReader(boolean specificAvroReader) {
        this.specificAvroReader = specificAvroReader;
    }

    public String getCompressionCodec() {
        return compressionCodec;
    }

    /**
     * This parameter allows you to specify the compression codec for all data generated by this producer. Valid values
     * are "none", "gzip", "snappy", "lz4" and "zstd".
     */
    public void setCompressionCodec(String compressionCodec) {
        this.compressionCodec = compressionCodec;
    }

    public Integer getRetryBackoffMs() {
        return retryBackoffMs;
    }

    /**
     * Before each retry, the producer refreshes the metadata of relevant topics to see if a new leader has been
     * elected. Since the leader election takes a bit of time, this property specifies the amount of time that the
     * producer waits before refreshing the metadata.
     */
    public void setRetryBackoffMs(Integer retryBackoffMs) {
        this.retryBackoffMs = retryBackoffMs;
    }

    public Integer getSendBufferBytes() {
        return sendBufferBytes;
    }

    /**
     * Socket write buffer size
     */
    public void setSendBufferBytes(Integer sendBufferBytes) {
        this.sendBufferBytes = sendBufferBytes;
    }

    public Integer getRequestTimeoutMs() {
        return requestTimeoutMs;
    }

    /**
     * The amount of time the broker will wait trying to meet the request.required.acks requirement before sending back
     * an error to the client.
     */
    public void setRequestTimeoutMs(Integer requestTimeoutMs) {
        this.requestTimeoutMs = requestTimeoutMs;
    }

    public Integer getDeliveryTimeoutMs() {
        return deliveryTimeoutMs;
    }

    /**
     * An upper bound on the time to report success or failure after a call to send() returns. This limits the total
     * time that a record will be delayed prior to sending, the time to await acknowledgement from the broker (if
     * expected), and the time allowed for retriable send failures.
     */
    public void setDeliveryTimeoutMs(Integer deliveryTimeoutMs) {
        this.deliveryTimeoutMs = deliveryTimeoutMs;
    }

    public Integer getQueueBufferingMaxMessages() {
        return queueBufferingMaxMessages;
    }

    /**
     * The maximum number of unsent messages that can be queued up the producer when using async mode before either the
     * producer must be blocked or data must be dropped.
     */
    public void setQueueBufferingMaxMessages(Integer queueBufferingMaxMessages) {
        this.queueBufferingMaxMessages = queueBufferingMaxMessages;
    }

    public String getValueSerializer() {
        return valueSerializer;
    }

    /**
     * The serializer class for messages.
     */
    public void setValueSerializer(String valueSerializer) {
        this.valueSerializer = valueSerializer;
    }

    public String getKeySerializer() {
        return keySerializer;
    }

    /**
     * The serializer class for keys (defaults to the same as for messages if nothing is given).
     */
    public void setKeySerializer(String keySerializer) {
        this.keySerializer = keySerializer;
    }

    public String getKerberosInitCmd() {
        return kerberosInitCmd;
    }

    /**
     * Kerberos kinit command path. Default is /usr/bin/kinit
     */
    public void setKerberosInitCmd(String kerberosInitCmd) {
        this.kerberosInitCmd = kerberosInitCmd;
    }

    public Integer getKerberosBeforeReloginMinTime() {
        return kerberosBeforeReloginMinTime;
    }

    /**
     * Login thread sleep time between refresh attempts.
     */
    public void setKerberosBeforeReloginMinTime(Integer kerberosBeforeReloginMinTime) {
        this.kerberosBeforeReloginMinTime = kerberosBeforeReloginMinTime;
    }

    public Double getKerberosRenewJitter() {
        return kerberosRenewJitter;
    }

    /**
     * Percentage of random jitter added to the renewal time.
     */
    public void setKerberosRenewJitter(Double kerberosRenewJitter) {
        this.kerberosRenewJitter = kerberosRenewJitter;
    }

    public Double getKerberosRenewWindowFactor() {
        return kerberosRenewWindowFactor;
    }

    /**
     * Login thread will sleep until the specified window factor of time from last refresh to ticket's expiry has been
     * reached, at which time it will try to renew the ticket.
     */
    public void setKerberosRenewWindowFactor(Double kerberosRenewWindowFactor) {
        this.kerberosRenewWindowFactor = kerberosRenewWindowFactor;
    }

    public String getKerberosPrincipalToLocalRules() {
        return kerberosPrincipalToLocalRules;
    }

    /**
     * A list of rules for mapping from principal names to short names (typically operating system usernames). The rules
     * are evaluated in order and the first rule that matches a principal name is used to map it to a short name. Any
     * later rules in the list are ignored. By default, principal names of the form {username}/{hostname}@{REALM} are
     * mapped to {username}. For more details on the format please see the security authorization and acls documentation
     * (at the Apache Kafka project).
     * <p/>
     * Multiple values can be separated by comma
     */
    public void setKerberosPrincipalToLocalRules(String kerberosPrincipalToLocalRules) {
        this.kerberosPrincipalToLocalRules = kerberosPrincipalToLocalRules;
    }

    public String getSslCipherSuites() {
        return sslCipherSuites;
    }

    /**
     * A list of cipher suites. This is a named combination of authentication, encryption, MAC and key exchange
     * algorithm used to negotiate the security settings for a network connection using TLS or SSL network protocol. By
     * default all the available cipher suites are supported.
     */
    public void setSslCipherSuites(String sslCipherSuites) {
        this.sslCipherSuites = sslCipherSuites;
    }

    public String getSslEndpointAlgorithm() {
        return sslEndpointAlgorithm;
    }

    /**
     * The endpoint identification algorithm to validate server hostname using server certificate. Use none or false to
     * disable server hostname verification.
     */
    public void setSslEndpointAlgorithm(String sslEndpointAlgorithm) {
        this.sslEndpointAlgorithm = sslEndpointAlgorithm;
    }

    public String getSslKeymanagerAlgorithm() {
        return sslKeymanagerAlgorithm;
    }

    /**
     * The algorithm used by key manager factory for SSL connections. Default value is the key manager factory algorithm
     * configured for the Java Virtual Machine.
     */
    public void setSslKeymanagerAlgorithm(String sslKeymanagerAlgorithm) {
        this.sslKeymanagerAlgorithm = sslKeymanagerAlgorithm;
    }

    public String getSslTrustmanagerAlgorithm() {
        return sslTrustmanagerAlgorithm;
    }

    /**
     * The algorithm used by trust manager factory for SSL connections. Default value is the trust manager factory
     * algorithm configured for the Java Virtual Machine.
     */
    public void setSslTrustmanagerAlgorithm(String sslTrustmanagerAlgorithm) {
        this.sslTrustmanagerAlgorithm = sslTrustmanagerAlgorithm;
    }

    public String getSslEnabledProtocols() {
        return sslEnabledProtocols;
    }

    /**
     * The list of protocols enabled for SSL connections. The default is TLSv1.2,TLSv1.3 when running with Java 11 or
     * newer, TLSv1.2 otherwise. With the default value for Java 11, clients and servers will prefer TLSv1.3 if both
     * support it and fallback to TLSv1.2 otherwise (assuming both support at least TLSv1.2). This default should be
     * fine for most cases. Also see the config documentation for SslProtocol.
     */
    public void setSslEnabledProtocols(String sslEnabledProtocols) {
        this.sslEnabledProtocols = sslEnabledProtocols;
    }

    public String getSslKeystoreType() {
        return sslKeystoreType;
    }

    /**
     * The file format of the key store file. This is optional for client. Default value is JKS
     */
    public void setSslKeystoreType(String sslKeystoreType) {
        this.sslKeystoreType = sslKeystoreType;
    }

    public String getSslProtocol() {
        return sslProtocol;
    }

    /**
     * The SSL protocol used to generate the SSLContext. The default is TLSv1.3 when running with Java 11 or newer,
     * TLSv1.2 otherwise. This value should be fine for most use cases. Allowed values in recent JVMs are TLSv1.2 and
     * TLSv1.3. TLS, TLSv1.1, SSL, SSLv2 and SSLv3 may be supported in older JVMs, but their usage is discouraged due to
     * known security vulnerabilities. With the default value for this config and sslEnabledProtocols, clients will
     * downgrade to TLSv1.2 if the server does not support TLSv1.3. If this config is set to TLSv1.2, clients will not
     * use TLSv1.3 even if it is one of the values in sslEnabledProtocols and the server only supports TLSv1.3.
     */
    public void setSslProtocol(String sslProtocol) {
        this.sslProtocol = sslProtocol;
    }

    public String getSslProvider() {
        return sslProvider;
    }

    /**
     * The name of the security provider used for SSL connections. Default value is the default security provider of the
     * JVM.
     */
    public void setSslProvider(String sslProvider) {
        this.sslProvider = sslProvider;
    }

    public String getSslTruststoreType() {
        return sslTruststoreType;
    }

    /**
     * The file format of the trust store file. Default value is JKS.
     */
    public void setSslTruststoreType(String sslTruststoreType) {
        this.sslTruststoreType = sslTruststoreType;
    }

    public String getSaslKerberosServiceName() {
        return saslKerberosServiceName;
    }

    /**
     * The Kerberos principal name that Kafka runs as. This can be defined either in Kafka's JAAS config or in Kafka's
     * config.
     */
    public void setSaslKerberosServiceName(String saslKerberosServiceName) {
        this.saslKerberosServiceName = saslKerberosServiceName;
    }

    public String getSaslMechanism() {
        return saslMechanism;
    }

    /**
     * The Simple Authentication and Security Layer (SASL) Mechanism used. For the valid values see <a href=
     * "http://www.iana.org/assignments/sasl-mechanisms/sasl-mechanisms.xhtml">http://www.iana.org/assignments/sasl-mechanisms/sasl-mechanisms.xhtml</a>
     */
    public void setSaslMechanism(String saslMechanism) {
        this.saslMechanism = saslMechanism;
    }

    public String getSaslJaasConfig() {
        return saslJaasConfig;
    }

    /**
     * Expose the kafka sasl.jaas.config parameter Example: org.apache.kafka.common.security.plain.PlainLoginModule
     * required username="USERNAME" password="PASSWORD";
     */
    public void setSaslJaasConfig(String saslJaasConfig) {
        this.saslJaasConfig = saslJaasConfig;
    }

    public String getSecurityProtocol() {
        return securityProtocol;
    }

    /**
     * Protocol used to communicate with brokers. SASL_PLAINTEXT, PLAINTEXT, SASL_SSL and SSL are supported
     */
    public void setSecurityProtocol(String securityProtocol) {
        this.securityProtocol = securityProtocol;
    }

    public SSLContextParameters getSslContextParameters() {
        return sslContextParameters;
    }

    /**
     * SSL configuration using a Camel {@link SSLContextParameters} object. If configured it's applied before the other
     * SSL endpoint parameters.
     *
     * NOTE: Kafka only supports loading keystore from file locations, so prefix the location with file: in the
     * KeyStoreParameters.resource option.
     */
    public void setSslContextParameters(SSLContextParameters sslContextParameters) {
        this.sslContextParameters = sslContextParameters;
    }

    public String getSslKeyPassword() {
        return sslKeyPassword;
    }

    /**
     * The password of the private key in the key store file or the PEM key specified in sslKeystoreKey. This is
     * required for clients only if two-way authentication is configured.
     */
    public void setSslKeyPassword(String sslKeyPassword) {
        this.sslKeyPassword = sslKeyPassword;
    }

    public String getSslKeystoreLocation() {
        return sslKeystoreLocation;
    }

    /**
     * The location of the key store file. This is optional for the client and can be used for two-way authentication
     * for the client.
     */
    public void setSslKeystoreLocation(String sslKeystoreLocation) {
        this.sslKeystoreLocation = sslKeystoreLocation;
    }

    public String getSslKeystorePassword() {
        return sslKeystorePassword;
    }

    /**
     * The store password for the key store file. This is optional for the client and only needed if
     * sslKeystoreLocation' is configured. Key store password is not supported for PEM format.
     */
    public void setSslKeystorePassword(String sslKeystorePassword) {
        this.sslKeystorePassword = sslKeystorePassword;
    }

    public String getSslTruststoreLocation() {
        return sslTruststoreLocation;
    }

    /**
     * The location of the trust store file.
     */
    public void setSslTruststoreLocation(String sslTruststoreLocation) {
        this.sslTruststoreLocation = sslTruststoreLocation;
    }

    public String getSslTruststorePassword() {
        return sslTruststorePassword;
    }

    /**
     * The password for the trust store file. If a password is not set, trust store file configured will still be used,
     * but integrity checking is disabled. Trust store password is not supported for PEM format.
     */
    public void setSslTruststorePassword(String sslTruststorePassword) {
        this.sslTruststorePassword = sslTruststorePassword;
    }

    public Integer getBufferMemorySize() {
        return bufferMemorySize;
    }

    /**
     * The total bytes of memory the producer can use to buffer records waiting to be sent to the server. If records are
     * sent faster than they can be delivered to the server the producer will either block or throw an exception based
     * on the preference specified by block.on.buffer.full.This setting should correspond roughly to the total memory
     * the producer will use, but is not a hard bound since not all memory the producer uses is used for buffering. Some
     * additional memory will be used for compression (if compression is enabled) as well as for maintaining in-flight
     * requests.
     */
    public void setBufferMemorySize(Integer bufferMemorySize) {
        this.bufferMemorySize = bufferMemorySize;
    }

    public String getKey() {
        return key;
    }

    /**
     * The record key (or null if no key is specified). If this option has been configured then it take precedence over
     * header {@link KafkaConstants#KEY}
     */
    public void setKey(String key) {
        this.key = key;
    }

    public Integer getPartitionKey() {
        return partitionKey;
    }

    /**
     * The partition to which the record will be sent (or null if no partition was specified). If this option has been
     * configured then it take precedence over header {@link KafkaConstants#PARTITION_KEY}
     */
    public void setPartitionKey(Integer partitionKey) {
        this.partitionKey = partitionKey;
    }

    public String getRequestRequiredAcks() {
        return requestRequiredAcks;
    }

    /**
     * The number of acknowledgments the producer requires the leader to have received before considering a request
     * complete. This controls the durability of records that are sent. The following settings are allowed:
     *
     * acks=0 If set to zero then the producer will not wait for any acknowledgment from the server at all. The record
     * will be immediately added to the socket buffer and considered sent. No guarantee can be made that the server has
     * received the record in this case, and the retries configuration will not take effect (as the client won't
     * generally know of any failures). The offset given back for each record will always be set to -1. acks=1 This will
     * mean the leader will write the record to its local log but will respond without awaiting full acknowledgement
     * from all followers. In this case should the leader fail immediately after acknowledging the record but before the
     * followers have replicated it then the record will be lost. acks=all This means the leader will wait for the full
     * set of in-sync replicas to acknowledge the record. This guarantees that the record will not be lost as long as at
     * least one in-sync replica remains alive. This is the strongest available guarantee. This is equivalent to the
     * acks=-1 setting. Note that enabling idempotence requires this config value to be 'all'. If conflicting
     * configurations are set and idempotence is not explicitly enabled, idempotence is disabled.
     */
    public void setRequestRequiredAcks(String requestRequiredAcks) {
        this.requestRequiredAcks = requestRequiredAcks;
    }

    public Integer getRetries() {
        return retries;
    }

    /**
     * Setting a value greater than zero will cause the client to resend any record whose send fails with a potentially
     * transient error. Note that this retry is no different than if the client resent the record upon receiving the
     * error. Produce requests will be failed before the number of retries has been exhausted if the timeout configured
     * by delivery.timeout.ms expires first before successful acknowledgement. Users should generally prefer to leave
     * this config unset and instead use delivery.timeout.ms to control retry behavior.
     *
     * Enabling idempotence requires this config value to be greater than 0. If conflicting configurations are set and
     * idempotence is not explicitly enabled, idempotence is disabled.
     *
     * Allowing retries while setting enable.idempotence to false and max.in.flight.requests.per.connection to 1 will
     * potentially change the ordering of records because if two batches are sent to a single partition, and the first
     * fails and is retried but the second succeeds, then the records in the second batch may appear first.
     */
    public void setRetries(Integer retries) {
        this.retries = retries;
    }

    public Integer getProducerBatchSize() {
        return producerBatchSize;
    }

    /**
     * The producer will attempt to batch records together into fewer requests whenever multiple records are being sent
     * to the same partition. This helps performance on both the client and the server. This configuration controls the
     * default batch size in bytes. No attempt will be made to batch records larger than this size. Requests sent to
     * brokers will contain multiple batches, one for each partition with data available to be sent. A small batch size
     * will make batching less common and may reduce throughput (a batch size of zero will disable batching entirely). A
     * very large batch size may use memory a bit more wastefully as we will always allocate a buffer of the specified
     * batch size in anticipation of additional records.
     */
    public void setProducerBatchSize(Integer producerBatchSize) {
        this.producerBatchSize = producerBatchSize;
    }

    public boolean isBatchWithIndividualHeaders() {
        return batchWithIndividualHeaders;
    }

    /**
     * If this feature is enabled and a single element of a batch is an Exchange or Message, the producer will generate
     * individual kafka header values for it by using the batch Message to determine the values. Normal behaviour
     * consists in always using the same header values (which are determined by the parent Exchange which contains the
     * Iterable or Iterator).
     */
    public void setBatchWithIndividualHeaders(boolean batchWithIndividualHeaders) {
        this.batchWithIndividualHeaders = batchWithIndividualHeaders;
    }

    public Integer getConnectionMaxIdleMs() {
        return connectionMaxIdleMs;
    }

    /**
     * Close idle connections after the number of milliseconds specified by this config.
     */
    public void setConnectionMaxIdleMs(Integer connectionMaxIdleMs) {
        this.connectionMaxIdleMs = connectionMaxIdleMs;
    }

    public Integer getLingerMs() {
        return lingerMs;
    }

    /**
     * The producer groups together any records that arrive in between request transmissions into a single batched
     * request. Normally this occurs only under load when records arrive faster than they can be sent out. However in
     * some circumstances the client may want to reduce the number of requests even under moderate load. This setting
     * accomplishes this by adding a small amount of artificial delay that is, rather than immediately sending out a
     * record the producer will wait for up to the given delay to allow other records to be sent so that they can be
     * batched together. This can be thought of as analogous to Nagle's algorithm in TCP. This setting gives the upper
     * bound on the delay for batching: once we get batch.size worth of records for a partition it will be sent
     * immediately regardless of this setting, however if we have fewer than this many bytes accumulated for this
     * partition we will 'linger' for the specified time waiting for more records to show up. This setting defaults to 0
     * (i.e. no delay). Setting linger.ms=5, for example, would have the effect of reducing the number of requests sent
     * but would add up to 5ms of latency to records sent in the absense of load.
     */
    public void setLingerMs(Integer lingerMs) {
        this.lingerMs = lingerMs;
    }

    public Integer getMaxBlockMs() {
        return maxBlockMs;
    }

    /**
     * The configuration controls how long the KafkaProducer's send(), partitionsFor(), initTransactions(),
     * sendOffsetsToTransaction(), commitTransaction() and abortTransaction() methods will block. For send() this
     * timeout bounds the total time waiting for both metadata fetch and buffer allocation (blocking in the
     * user-supplied serializers or partitioner is not counted against this timeout). For partitionsFor() this timeout
     * bounds the time spent waiting for metadata if it is unavailable. The transaction-related methods always block,
     * but may time out if the transaction coordinator could not be discovered or did not respond within the timeout.
     */
    public void setMaxBlockMs(Integer maxBlockMs) {
        this.maxBlockMs = maxBlockMs;
    }

    public Integer getMaxRequestSize() {
        return maxRequestSize;
    }

    /**
     * The maximum size of a request. This is also effectively a cap on the maximum record size. Note that the server
     * has its own cap on record size which may be different from this. This setting will limit the number of record
     * batches the producer will send in a single request to avoid sending huge requests.
     */
    public void setMaxRequestSize(Integer maxRequestSize) {
        this.maxRequestSize = maxRequestSize;
    }

    public Integer getReceiveBufferBytes() {
        return receiveBufferBytes;
    }

    /**
     * The size of the TCP receive buffer (SO_RCVBUF) to use when reading data.
     */
    public void setReceiveBufferBytes(Integer receiveBufferBytes) {
        this.receiveBufferBytes = receiveBufferBytes;
    }

    public Integer getMaxInFlightRequest() {
        return maxInFlightRequest;
    }

    /**
     * The maximum number of unacknowledged requests the client will send on a single connection before blocking. Note
     * that if this setting is set to be greater than 1 and there are failed sends, there is a risk of message
     * re-ordering due to retries (i.e., if retries are enabled).
     */
    public void setMaxInFlightRequest(Integer maxInFlightRequest) {
        this.maxInFlightRequest = maxInFlightRequest;
    }

    public Integer getMetadataMaxAgeMs() {
        return metadataMaxAgeMs;
    }

    /**
     * The period of time in milliseconds after which we force a refresh of metadata even if we haven't seen any
     * partition leadership changes to proactively discover any new brokers or partitions.
     */
    public void setMetadataMaxAgeMs(Integer metadataMaxAgeMs) {
        this.metadataMaxAgeMs = metadataMaxAgeMs;
    }

    public String getMetricReporters() {
        return metricReporters;
    }

    /**
     * A list of classes to use as metrics reporters. Implementing the MetricReporter interface allows plugging in
     * classes that will be notified of new metric creation. The JmxReporter is always included to register JMX
     * statistics.
     */
    public void setMetricReporters(String metricReporters) {
        this.metricReporters = metricReporters;
    }

    public Integer getNoOfMetricsSample() {
        return noOfMetricsSample;
    }

    /**
     * The number of samples maintained to compute metrics.
     */
    public void setNoOfMetricsSample(Integer noOfMetricsSample) {
        this.noOfMetricsSample = noOfMetricsSample;
    }

    public Integer getMetricsSampleWindowMs() {
        return metricsSampleWindowMs;
    }

    /**
     * The window of time a metrics sample is computed over.
     */
    public void setMetricsSampleWindowMs(Integer metricsSampleWindowMs) {
        this.metricsSampleWindowMs = metricsSampleWindowMs;
    }

    public Integer getReconnectBackoffMs() {
        return reconnectBackoffMs;
    }

    /**
     * The amount of time to wait before attempting to reconnect to a given host. This avoids repeatedly connecting to a
     * host in a tight loop. This backoff applies to all requests sent by the consumer to the broker.
     */
    public void setReconnectBackoffMs(Integer reconnectBackoffMs) {
        this.reconnectBackoffMs = reconnectBackoffMs;
    }

    public Integer getHeartbeatIntervalMs() {
        return heartbeatIntervalMs;
    }

    /**
     * The expected time between heartbeats to the consumer coordinator when using Kafka's group management facilities.
     * Heartbeats are used to ensure that the consumer's session stays active and to facilitate rebalancing when new
     * consumers join or leave the group. The value must be set lower than session.timeout.ms, but typically should be
     * set no higher than 1/3 of that value. It can be adjusted even lower to control the expected time for normal
     * rebalances.
     */
    public void setHeartbeatIntervalMs(Integer heartbeatIntervalMs) {
        this.heartbeatIntervalMs = heartbeatIntervalMs;
    }

    public Integer getMaxPartitionFetchBytes() {
        return maxPartitionFetchBytes;
    }

    /**
     * The maximum amount of data per-partition the server will return. The maximum total memory used for a request will
     * be #partitions * max.partition.fetch.bytes. This size must be at least as large as the maximum message size the
     * server allows or else it is possible for the producer to send messages larger than the consumer can fetch. If
     * that happens, the consumer can get stuck trying to fetch a large message on a certain partition.
     */
    public void setMaxPartitionFetchBytes(Integer maxPartitionFetchBytes) {
        this.maxPartitionFetchBytes = maxPartitionFetchBytes;
    }

    public Integer getSessionTimeoutMs() {
        return sessionTimeoutMs;
    }

    /**
     * The timeout used to detect failures when using Kafka's group management facilities.
     */
    public void setSessionTimeoutMs(Integer sessionTimeoutMs) {
        this.sessionTimeoutMs = sessionTimeoutMs;
    }

    public Integer getMaxPollRecords() {
        return maxPollRecords;
    }

    /**
     * The maximum number of records returned in a single call to poll()
     */
    public void setMaxPollRecords(Integer maxPollRecords) {
        this.maxPollRecords = maxPollRecords;
    }

    public Long getPollTimeoutMs() {
        return pollTimeoutMs;
    }

    /**
     * The timeout used when polling the KafkaConsumer.
     */
    public void setPollTimeoutMs(Long pollTimeoutMs) {
        this.pollTimeoutMs = pollTimeoutMs;
    }

    public Integer getMaxPollIntervalMs() {
        return maxPollIntervalMs;
    }

    /**
     * The maximum delay between invocations of poll() when using consumer group management. This places an upper bound
     * on the amount of time that the consumer can be idle before fetching more records. If poll() is not called before
     * expiration of this timeout, then the consumer is considered failed and the group will rebalance in order to
     * reassign the partitions to another member.
     */
    public void setMaxPollIntervalMs(Integer maxPollIntervalMs) {
        this.maxPollIntervalMs = maxPollIntervalMs;
    }

    public String getPartitionAssignor() {
        return partitionAssignor;
    }

    /**
     * The class name of the partition assignment strategy that the client will use to distribute partition ownership
     * amongst consumer instances when group management is used
     */
    public void setPartitionAssignor(String partitionAssignor) {
        this.partitionAssignor = partitionAssignor;
    }

    public Integer getConsumerRequestTimeoutMs() {
        return consumerRequestTimeoutMs;
    }

    /**
     * The configuration controls the maximum amount of time the client will wait for the response of a request. If the
     * response is not received before the timeout elapses the client will resend the request if necessary or fail the
     * request if retries are exhausted.
     */
    public void setConsumerRequestTimeoutMs(Integer consumerRequestTimeoutMs) {
        this.consumerRequestTimeoutMs = consumerRequestTimeoutMs;
    }

    public Boolean getCheckCrcs() {
        return checkCrcs;
    }

    /**
     * Automatically check the CRC32 of the records consumed. This ensures no on-the-wire or on-disk corruption to the
     * messages occurred. This check adds some overhead, so it may be disabled in cases seeking extreme performance.
     */
    public void setCheckCrcs(Boolean checkCrcs) {
        this.checkCrcs = checkCrcs;
    }

    public String getKeyDeserializer() {
        return keyDeserializer;
    }

    /**
     * Deserializer class for the key that implements the Deserializer interface.
     */
    public void setKeyDeserializer(String keyDeserializer) {
        this.keyDeserializer = keyDeserializer;
    }

    public String getValueDeserializer() {
        return valueDeserializer;
    }

    /**
     * Deserializer class for value that implements the Deserializer interface.
     */
    public void setValueDeserializer(String valueDeserializer) {
        this.valueDeserializer = valueDeserializer;
    }

    public SeekPolicy getSeekTo() {
        return seekTo;
    }

    /**
     * Set if KafkaConsumer will read from the beginning or the end on startup: SeekPolicy.BEGINNING: read from the
     * beginning. SeekPolicy.END: read from the end.
     */
    public void setSeekTo(SeekPolicy seekTo) {
        this.seekTo = seekTo;
    }

    public ExecutorService getWorkerPool() {
        return workerPool;
    }

    /**
     * To use a custom worker pool for continue routing {@link Exchange} after kafka server has acknowledge the message
     * that was sent to it from {@link KafkaProducer} using asynchronous non-blocking processing. If using this option
     * then you must handle the lifecycle of the thread pool to shut the pool down when no longer needed.
     */
    public void setWorkerPool(ExecutorService workerPool) {
        this.workerPool = workerPool;
    }

    public Integer getWorkerPoolCoreSize() {
        return workerPoolCoreSize;
    }

    /**
     * Number of core threads for the worker pool for continue routing {@link Exchange} after kafka server has
     * acknowledge the message that was sent to it from {@link KafkaProducer} using asynchronous non-blocking
     * processing.
     */
    public void setWorkerPoolCoreSize(Integer workerPoolCoreSize) {
        this.workerPoolCoreSize = workerPoolCoreSize;
    }

    public Integer getWorkerPoolMaxSize() {
        return workerPoolMaxSize;
    }

    /**
     * Maximum number of threads for the worker pool for continue routing {@link Exchange} after kafka server has
     * acknowledge the message that was sent to it from {@link KafkaProducer} using asynchronous non-blocking
     * processing.
     */
    public void setWorkerPoolMaxSize(Integer workerPoolMaxSize) {
        this.workerPoolMaxSize = workerPoolMaxSize;
    }

    public boolean isRecordMetadata() {
        return recordMetadata;
    }

    /**
     * Whether the producer should store the {@link RecordMetadata} results from sending to Kafka. The results are
     * stored in a {@link List} containing the {@link RecordMetadata} metadata's. The list is stored on a header with
     * the key {@link KafkaConstants#KAFKA_RECORDMETA}
     */
    public void setRecordMetadata(boolean recordMetadata) {
        this.recordMetadata = recordMetadata;
    }

    public String getInterceptorClasses() {
        return interceptorClasses;
    }

    /**
     * Sets interceptors for producer or consumers. Producer interceptors have to be classes implementing
     * {@link org.apache.kafka.clients.producer.ProducerInterceptor} Consumer interceptors have to be classes
     * implementing {@link org.apache.kafka.clients.consumer.ConsumerInterceptor} Note that if you use Producer
     * interceptor on a consumer it will throw a class cast exception in runtime
     */
    public void setInterceptorClasses(String interceptorClasses) {
        this.interceptorClasses = interceptorClasses;
    }

    public boolean isEnableIdempotence() {
        return enableIdempotence;
    }

    /**
     * When set to 'true', the producer will ensure that exactly one copy of each message is written in the stream. If
     * 'false', producer retries due to broker failures, etc., may write duplicates of the retried message in the
     * stream. Note that enabling idempotence requires max.in.flight.requests.per.connection to be less than or equal to
     * 5 (with message ordering preserved for any allowable value), retries to be greater than 0, and acks must be
     * 'all'.
     *
     * Idempotence is enabled by default if no conflicting configurations are set. If conflicting configurations are set
     * and idempotence is not explicitly enabled, idempotence is disabled. If idempotence is explicitly enabled and
     * conflicting configurations are set, a ConfigException is thrown.
     */
    public void setEnableIdempotence(boolean enableIdempotence) {
        this.enableIdempotence = enableIdempotence;
    }

    public Integer getReconnectBackoffMaxMs() {
        return reconnectBackoffMaxMs;
    }

    /**
     * The maximum amount of time in milliseconds to wait when reconnecting to a broker that has repeatedly failed to
     * connect. If provided, the backoff per host will increase exponentially for each consecutive connection failure,
     * up to this maximum. After calculating the backoff increase, 20% random jitter is added to avoid connection
     * storms.
     */
    public void setReconnectBackoffMaxMs(Integer reconnectBackoffMaxMs) {
        this.reconnectBackoffMaxMs = reconnectBackoffMaxMs;
    }

    @Override
    public HeaderFilterStrategy getHeaderFilterStrategy() {
        return headerFilterStrategy;
    }

    /**
     * To use a custom HeaderFilterStrategy to filter header to and from Camel message.
     */
    @Override
    public void setHeaderFilterStrategy(HeaderFilterStrategy headerFilterStrategy) {
        this.headerFilterStrategy = headerFilterStrategy;
    }

    public KafkaHeaderDeserializer getHeaderDeserializer() {
        return headerDeserializer;
    }

    /**
     * Sets custom KafkaHeaderDeserializer for deserialization kafka headers values to camel headers values.
     *
     * @param headerDeserializer custom kafka header deserializer to be used
     */
    public void setHeaderDeserializer(final KafkaHeaderDeserializer headerDeserializer) {
        this.headerDeserializer = headerDeserializer;
    }

    public KafkaHeaderSerializer getHeaderSerializer() {
        return headerSerializer;
    }

    /**
     * Sets custom KafkaHeaderDeserializer for serialization camel headers values to kafka headers values.
     *
     * @param headerSerializer custom kafka header serializer to be used
     */
    public void setHeaderSerializer(final KafkaHeaderSerializer headerSerializer) {
        this.headerSerializer = headerSerializer;
    }

    /**
     * Sets additional properties for either kafka consumer or kafka producer in case they can't be set directly on the
     * camel configurations (e.g: new Kafka properties that are not reflected yet in Camel configurations), the
     * properties have to be prefixed with `additionalProperties.`. E.g:
     * `additionalProperties.transactional.id=12345&additionalProperties.schema.registry.url=http://localhost:8811/avro`
     */
    public void setAdditionalProperties(Map<String, Object> additionalProperties) {
        this.additionalProperties = additionalProperties;
    }

    public Map<String, Object> getAdditionalProperties() {
        return additionalProperties;
    }

    public boolean isSynchronous() {
        return synchronous;
    }

    public void setSynchronous(boolean synchronous) {
        this.synchronous = synchronous;
    }

    public PollOnError getPollOnError() {
        return pollOnError;
    }

    /**
     * What to do if kafka threw an exception while polling for new messages.
     *
     * Will by default use the value from the component configuration unless an explicit value has been configured on
     * the endpoint level.
     *
     * DISCARD will discard the message and continue to poll next message. ERROR_HANDLER will use Camel's error handler
     * to process the exception, and afterwards continue to poll next message. RECONNECT will re-connect the consumer
     * and try poll the message again RETRY will let the consumer retry polling the same message again STOP will stop
     * the consumer (have to be manually started/restarted if the consumer should be able to consume messages again)
     */
    public void setPollOnError(PollOnError pollOnError) {
        this.pollOnError = pollOnError;
    }

    public Long getCommitTimeoutMs() {
        return commitTimeoutMs;
    }

    /**
     * The maximum time, in milliseconds, that the code will wait for a synchronous commit to complete
     */
    public void setCommitTimeoutMs(Long commitTimeoutMs) {
        this.commitTimeoutMs = commitTimeoutMs;
    }

    public String getIsolationLevel() {
        return isolationLevel;
    }

    /**
     * Controls how to read messages written transactionally. If set to read_committed, consumer.poll() will only return
     * transactional messages which have been committed. If set to read_uncommitted (the default), consumer.poll() will
     * return all messages, even transactional messages which have been aborted. Non-transactional messages will be
     * returned unconditionally in either mode. Messages will always be returned in offset order. Hence, in
     * read_committed mode, consumer.poll() will only return messages up to the last stable offset (LSO), which is the
     * one less than the offset of the first open transaction. In particular any messages appearing after messages
     * belonging to ongoing transactions will be withheld until the relevant transaction has been completed. As a
     * result, read_committed</code> consumers will not be able to read up to the high watermark when there are in
     * flight transactions. Further, when in read_committed the seekToEnd method will return the LSO
     */
    public void setIsolationLevel(String isolationLevel) {
        this.isolationLevel = isolationLevel;
    }

    public String getKerberosConfigLocation() {
        return kerberosConfigLocation;
    }

    /**
     * Location of the kerberos config file.
     */
    public void setKerberosConfigLocation(String kerberosConfigLocation) {
        this.kerberosConfigLocation = kerberosConfigLocation;
    }
}