Use point-in-time recovery (PITR)

This page describes how to use point-in-time recovery (PITR) to restore your primary Cloud SQL instance.

To learn more about PITR, see PITR.

By default, PITR is enabled when you create a Cloud SQL Enterprise Plus edition instance, regardless of whether you create the instance by using the Google Cloud console, gcloud CLI, Terraform, or the Cloud SQL Admin API.

If you create a Cloud SQL Enterprise edition instance in the Google Cloud console, then PITR is enabled by default. Otherwise, if you create the instance by using the gcloud CLI, Terraform, or the Cloud SQL Admin API, then you must manually enable PITR.

Log storage for PITR

Cloud SQL uses binary logs for PITR.

On August 11, 2023, we launched storing transaction logs for PITR in Cloud Storage. Since this launch, the following conditions apply:

  • All Cloud SQL Enterprise Plus edition instances store their binary logs used for PITR in Cloud Storage. Only Cloud SQL Enterprise Plus edition instances that you upgraded from Cloud SQL Enterprise edition before April 1, 2024 and had PITR enabled before August 11, 2023 continue to store their logs for PITR on disk.
  • Cloud SQL Enterprise edition instances created with PITR enabled before August 11, 2023 continue to store their logs for PITR on disk.
  • If you upgrade a Cloud SQL Enterprise edition instance after April 1, 2024 that stores transaction logs for PITR on disk to Cloud SQL Enterprise Plus edition, then the upgrade process switches the storage location of the transaction logs used for PITR to Cloud Storage for you. For more information, see Upgrade an instance to Cloud SQL Enterprise Plus edition by using in-place upgrade.
  • All Cloud SQL Enterprise edition instances that you create with PITR enabled after August 11, 2023 store logs used for PITR in Cloud Storage.

For more information about how to check the storage location of the transaction logs used for PITR, see Check the storage location of transaction logs used for PITR.

For instances that store binary logs only on disk, you can also move the logs from disk to Cloud Storage by first deactivating and then re-enabling PITR.

Log retention period

Cloud SQL retains transaction logs in Cloud Storage for up to the value set in the transactionLogRetentionDays PITR configuration setting. This value can range from 1 to 35 days for Cloud SQL Enterprise Plus edition and 1 to 7 days for Cloud SQL Enterprise edition. If a value for this parameter isn't set, then the default transaction log retention period is 14 days for Cloud SQL Enterprise Plus edition instances and 7 days for Cloud SQL Enterprise edition instances. For more information on how to set the transaction log retention days, see Set transaction log retention.

Although an instance stores the binary logs used for PITR in Cloud Storage, the instance also keeps a smaller number of duplicate binary logs on disk to allow for replication of the logs to Cloud Storage. By default, when you create an instance with PITR enabled, the instance stores its binary logs for PITR in Cloud Storage. Cloud SQL also sets the value of the expire_logs_days and binlog_expire_logs_seconds flags to the equivalent of one day automatically. This translates to one day of logs on disk.

By reducing the values of these flag settings, Cloud SQL helps you save on disk usage costs. However, if you want additional logs to be available on disk— for example, to browse the binary logs with the mysqlbinlog utility— then increase the values of these flags. Cloud SQL retains binary logs on disk for the minimum of the transaction log retention days or the values set for the flags.

For binary logs used for PITR that are stored on disk, Cloud SQL retains the logs for the minimum value set for one of the following configurations:

  • The transactionLogRetentionDays backup configuration setting

  • The expire_logs_days or the binlog_expire_logs_seconds flag

    Modifying the values of these flags can affect the behavior of PITR recovery and how many days worth of logs are stored on disk. We don't recommend that you configure the value of either of these flags to 0. For more information about these flags, see Configure database flags.

For customer-managed encryption key (CMEK)-enabled instances, binary logs are encrypted using the latest version of the CMEK. To perform a restore, all versions of the key that were the latest versions for the number of days that you configured for the retained-transaction-log-days parameter must be available.

Logs and disk usage

New logs are generated regularly and use storage space. The binary logs are deleted automatically with their associated automatic backup, which happens after the value set for transactionLogRetentionDays is met.

To find out how much disk is being used by the binary logs, check the bytes_used_by_data_type metric for the instance. The value for the binlog data type returns the size of the binlogs on the disk. For instances that store transaction logs used for PITR on disk, Cloud SQL purges data from the disk daily to meet the transactionLogRetentionDays PITR setting, as described in Automatic backup and transaction log retention. However, if you set the expire_logs_days flag to a value that's lower than transaction log retention days, then Cloud SQL can purge the binary logs sooner.

If the size of your binary logs is causing an issue for your instance:

  • Check whether your instance is storing logs on disk. You can move the logs used for PITR from disk to Cloud Storage by deactivating and re-enabling PITR. This operation results in a few minutes of downtime but frees up disk space. If you are using Cloud SQL Enterprise edition, then you can also upgrade to Cloud SQL Enterprise Plus edition to switch the storage location of your PITR logs.

  • You can increase the instance storage size. However, the binary log size increase in disk usage might be temporary.

  • We recommend enabling automatic storage increase to avoid unexpected storage issues.

  • If you want to delete logs and recover storage, then you can deactivate PITR without re-enabling it. However, decreasing the storage used doesn't shrink the size of the disk provisioned for the instance.

  • Logs are purged once daily, not continuously. Setting log retention to two days means that at least two days of logs, and at most three days of logs, are retained. We recommend setting the number of backups to one more than the days of log retention to guarantee a minimum of specified days of log retention.

For more information about PITR, see PITR.

Enable PITR

When you create a new instance in the Google Cloud console, both Automated backups and Enable point-in-time recovery are automatically enabled.

The following procedure enables PITR on an existing primary instance.

Console

  1. In the Google Cloud console, go to the Cloud SQL Instances page.

    Go to Cloud SQL Instances

  2. Open the more actions menu More actions icon. for the instance you want to enable PITR on and click Edit.
  3. Under Customize your instance, expand the Data Protection section.
  4. Select the Enable point-in-time recovery checkbox.
  5. Expand Advanced options.
  6. Enter the number of days to retain logs, from 1-35 for Cloud SQL Enterprise Plus edition, or 1-7 for Cloud SQL Enterprise edition.
  7. Click Save.

gcloud

  1. Display the instance overview: 
    gcloud sql instances describe INSTANCE_NAME
  2. If you see enabled: false in the backupConfiguration section, enable scheduled backups: 
    gcloud sql instances patch INSTANCE_NAME \
--backup-start-time=HH:MM

    Specify the backup-start-time parameter using 24-hour time in UTC±00 time zone.

  3. Enable PITR: 
    gcloud sql instances patch INSTANCE_NAME \
--enable-bin-log

    If you're enabling PITR on a primary instance, you can also configure the number of days for which you want to retain transaction logs by adding the following parameter:

    --retained-transaction-log-days=RETAINED_TRANSACTION_LOG_DAYS
  4. Confirm your change: 
    gcloud sql instances describe INSTANCE_NAME

    In the backupConfiguration section, you see binaryLogEnabled: true if the change was successful.

Terraform

To enable PITR, use a Terraform resource. 

resource "google_sql_database_instance" "default" {
  name             = "mysql-instance-pitr"
  region           = "asia-northeast1"
  database_version = "MYSQL_8_0"
  settings {
    tier = "db-f1-micro"
    backup_configuration {
      enabled                        = true
      binary_log_enabled             = true
      start_time                     = "20:55"
      transaction_log_retention_days = "3"
    }
  }
  # set `deletion_protection` to true, will ensure that one cannot accidentally delete this instance by
  # use of Terraform whereas `deletion_protection_enabled` flag protects this instance at the GCP level.
  deletion_protection = false
}

Apply the changes

To apply your Terraform configuration in a Google Cloud project, complete the steps in the following sections.

Prepare Cloud Shell

  1. Launch Cloud Shell.

  2. Set the default Google Cloud project where you want to apply your Terraform configurations.

    You only need to run this command once per project, and you can run it in any directory.

    export GOOGLE_CLOUD_PROJECT=PROJECT_ID

    Environment variables are overridden if you set explicit values in the Terraform configuration file.

Prepare the directory

Each Terraform configuration file must have its own directory (also called a root module).

  1. In Cloud Shell, create a directory and a new file within that directory. The filename must have the .tf extension—for example main.tf. In this tutorial, the file is referred to as main.tf. 
    mkdir DIRECTORY && cd DIRECTORY && touch main.tf

  2. If you are following a tutorial, you can copy the sample code in each section or step.

    Copy the sample code into the newly created main.tf.

    Optionally, copy the code from GitHub. This is recommended when the Terraform snippet is part of an end-to-end solution.

  3. Review and modify the sample parameters to apply to your environment.
  4. Save your changes.
  5. Initialize Terraform. You only need to do this once per directory. 
    terraform init

    Optionally, to use the latest Google provider version, include the -upgrade option: 

    terraform init -upgrade

Apply the changes

  1. Review the configuration and verify that the resources that Terraform is going to create or update match your expectations: 
    terraform plan

    Make corrections to the configuration as necessary.

  2. Apply the Terraform configuration by running the following command and entering yes at the prompt: 
    terraform apply

    Wait until Terraform displays the "Apply complete!" message.

  3. Open your Google Cloud project to view the results. In the Google Cloud console, navigate to your resources in the UI to make sure that Terraform has created or updated them.

Delete the changes

To delete your changes, do the following:

  1. To disable deletion protection, in your Terraform configuration file set the deletion_protection argument to false. 
    deletion_protection =  "false"
  2. Apply the updated Terraform configuration by running the following command and entering yes at the prompt: 
    terraform apply

  1. Remove resources previously applied with your Terraform configuration by running the following command and entering yes at the prompt:

    terraform destroy

REST v1

Before using any of the request data, make the following replacements:

  • PROJECT_ID: the ID or project number of the Google Cloud project that contains the instance
  • INSTANCE_NAME: the name of the primary or read replica instance that you're configuring for high availability
  • START_TIME: the time (in hours and minutes)

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/v1/projects/PROJECT_ID/instances/INSTANCE_NAME

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "startTime": "START_TIME",
      "enabled": true,
      "binaryLogEnabled": true
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

REST v1beta4

Before using any of the request data, make the following replacements:

  • PROJECT_ID: the ID or project number of the Google Cloud project that contains the instance
  • INSTANCE_NAME: the name of the primary or read replica instance that you're configuring for high availability
  • START_TIME: the time (in hours and minutes)

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/v1beta4/projects/PROJECT_ID/instances/INSTANCE_NAME

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "startTime": "START_TIME",
      "enabled": true,
      "binaryLogEnabled": true
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

Perform PITR by a using timestamp

Using a timestamp is the recommended approach for performing PITR. Cloud SQL uses the mysqlbinlog utility to restore instances up to a specific time. For more information about the mysqlbinlog utility, see the MySQL reference documentation.

To complete the following task, you must have the following:

  • Binary logging and backups enabled for the instance, with continuous binary logs since the last backup before the event from which you want to recover. For more information, see Enable binary logging.
  • A timestamp to define the recovery point. The events that occur at and after this timestamp aren't reflected in the new instance.

Console

  1. In the Google Cloud console, go to the Cloud SQL Instances page.

    Go to Cloud SQL Instances

  2. Open the more actions menu More actions icon. for the instance you want to recover and click Create clone.
  3. Optionally, on the Create a clone page, update the ID of the new clone.
  4. Select Clone from an earlier point in time.
  5. Enter a PITR time.
  6. Click Create clone.

gcloud

Create a clone using PITR.

Replace the following:

  • SOURCE_INSTANCE_NAME - Name of the instance you're restoring from.
  • NEW_INSTANCE_NAME - Name for the clone.
  • TIMESTAMP - UTC timezone for the source instance in RFC 3339 format. For example, 2012-11-15T16:19:00.094Z.
gcloud sql instances clone SOURCE_INSTANCE_NAME \
NEW_INSTANCE_NAME \
--point-in-time 'TIMESTAMP'

REST v1

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • target-instance-id: The target instance ID
  • source-instance-id: The source instance ID
  • restore-timestamp The point-in-time to restore up to

HTTP method and URL: 

POST https://sqladmin.googleapis.com/v1/projects/project-id/instances/source-instance-id/clone

Request JSON body: 

{
  "cloneContext":
  {
    "kind": "sql#cloneContext",
    "destinationInstanceName": "target-instance-id",
    "pointInTime": "restore-timestamp"
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

REST v1beta4

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • target-instance-id: The target instance ID
  • source-instance-id: The source instance ID
  • restore-timestamp The point-in-time to restore up to

HTTP method and URL: 

POST https://sqladmin.googleapis.com/sql/v1beta4/projects/project-id/instances/source-instance-id/clone

Request JSON body: 

{
  "cloneContext":
  {
    "kind": "sql#cloneContext",
    "destinationInstanceName": "target-instance-id",
    "pointInTime": "restore-timestamp"
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

Disable PITR

Console

  1. In the Google Cloud console, go to the Cloud SQL Instances page.

    Go to Cloud SQL Instances

  2. Open the more actions menu More actions icon. for the instance you want to disable and select Edit.
  3. Under Customize your instance, expand the Data Protection section.
  4. Clear Enable point-in-time recovery.
  5. Click Save.
  6. In the Overview page for the instance, under Configuration, the PITR setting is listed as disabled.

gcloud

  1. Disable point-in-time recovery: 
    gcloud sql instances patch INSTANCE_NAME \
--no-enable-bin-log
  2. Confirm your change: 
    gcloud sql instances describe INSTANCE_NAME

    In the backupConfiguration section, you see binaryLogEnabled: false if the change was successful.

REST v1

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • instance-id: The instance ID

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/v1/projects/project-id/instances/instance-id

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "enabled": false,
      "binaryLogEnabled": false
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

REST v1beta4

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • instance-id: The instance ID

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/sql/v1beta4/projects/project-id/instances/instance-id

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "enabled": false,
      "binaryLogEnabled": false
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

Check the storage location of transaction logs used for PITR

You can check where your Cloud SQL instance is storing the transaction logs used for PITR.

gcloud

To determine whether your instance stores logs for PITR on disk or Cloud Storage, use the following command:

   gcloud sql instances describe INSTANCE_NAME

Replace INSTANCE_NAME with the name of the instance.

In the output of the command, the transactionalLogStorageState field provides information about where the transaction logs for PITR are stored for the instance. The possible transaction log storage states are the following:

  • DISK: the instance stores the transaction logs used for PITR on disk. If you upgrade a Cloud SQL Enterprise edition instance to Cloud SQL Enterprise Plus edition, then the upgrade process also switches the log storage location to Cloud Storage. For more information, see Upgrade an instance to Cloud SQL Enterprise Plus edition by using in-place upgrade.
  • SWITCHING_TO_CLOUD_STORAGE: the instance is switching the storage location for the PITR transaction logs to Cloud Storage.
  • SWITCHED_TO_CLOUD_STORAGE: the instance has completed the switching the storage location for PITR transaction logs from disk to Cloud Storage.
  • CLOUD_STORAGE: the instance stores the transaction logs used for PITR in Cloud Storage.

Set transaction log retention

To set the number of days to retain binary logs:

Console

  1. In the Google Cloud console, go to the Cloud SQL Instances page.

    Go to Cloud SQL Instances

  2. Open the more actions menu More actions icon. for the instance you want to set the transaction log on and select Edit.
  3. Under Customize your instance, expand the Data Protection section.
  4. In the Enable point-in-time recovery section, expand Advanced options.
  5. Enter the number of days to retain logs, from 1-35 for Cloud SQL Enterprise Plus edition or 1-7 for Cloud SQL Enterprise edition.
  6. Click Save.

gcloud

Edit the instance to set the number of days to retain binary logs.

Replace the following:

  • INSTANCE-NAME - The name of the instance you want to set the transaction log on.
  • DAYS-TO-RETAIN - The number of days of transaction logs to keep. For Cloud SQL Enterprise Plus edition, the valid range is between 1 and 35 days, with a default of 14 days. For Cloud SQL Enterprise edition, the valid range is between 1 and 7 days, with a default of 7 days. If no value is specified, then the default value is used. Only valid when PITR is enabled. Keeping more days of transaction logs requires bigger storage size. 

  gcloud sql instances patch INSTANCE-NAME \
    --retained-transaction-log-days=DAYS-TO-RETAIN

REST v1

Before using any of the request data, make the following replacements:

  • days-to-retain: The number of days to retain transaction logs, from 1 to 7
  • project-id: The project ID
  • instance-id: The instance ID

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/v1/projects/project-id/instances/instance-id

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "transactionLogRetentionDays": "days-to-retain"
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

REST v1beta4

Before using any of the request data, make the following replacements:

  • days-to-retain: The number of days to retain transaction logs, from 1 to 7
  • project-id: The project ID
  • instance-id: The instance ID

HTTP method and URL: 

PATCH https://sqladmin.googleapis.com/sql/v1beta4/projects/project-id/instances/instance-id

Request JSON body: 

{
  "settings":
  {
    "backupConfiguration":
    {
      "transactionLogRetentionDays": "days-to-retain"
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

Perform PITR by using binary log positions

While we recommend you perform PITR using timestamps as described in Perform PITR by using a timestamp, you can also perform PITR by providing a specific binary log position in a binary log file.

For more information about PITR using binary log positions, see the MySQL Reference, PITR Using the Binary Log.

Before you begin

Before completing this task, you must have:

  • Binary logging and backups enabled for the instance, with continuous binary logs since the last backup before the event you want to recover from. For more information, see Enable binary logging.

  • The binary logs must be available on disk for you to browse them for events. To check the retention length of your binary logs on disk, see Log retention period. You can't browse binary logs that are stored in Cloud Storage with the mysqlbinlog utility.

  • A binary log filename and the position of the event you want to recover from (that event and all events that came after it aren't reflected in the new instance). For more information, see Identify the binary log position.

    After identifying the binary log filename and position, perform the PITR using binary log event positions.

Identify the recovery position

  1. Use the MySQL client to connect to the instance you want to restore to.

    To do so, use the Cloud Shell or your local client machine. For more information, see Connection options for external applications.

  2. Show the binary log files for the instance:

    SHOW BINARY LOGS;

  3. Display the first 100 events in the most recent binary log file:

    SHOW BINLOG EVENTS IN '<BINARY_LOG_FILE>' LIMIT 100;

    You can adjust the number of rows to show, but don't show all of the events in the file until you know how large the file is. Displaying a large number of events can affect system performance.

  4. If the event you're looking for isn't displayed, use the last position displayed as the starting point to search the next set of events:

    SHOW BINLOG EVENTS IN '<BINARY_LOG_FILE>' FROM <POSITION> LIMIT 100;

  5. When you find the event that marks the point in time you want to restore up to, record the position (shown as Pos) and the name of the binary log file.

    The binary log filename and the position are the values you use for the PITR.

Below is some sample output from the SHOW BINLOG EVENTS command:

+------------------+-----+-------------+-----------+-------------+-----------------------------------------------------+
| Log_name         | Pos | Event_type  | Server_id | End_log_pos | Info                                                |
+------------------+-----+-------------+-----------+-------------+-----------------------------------------------------+
| mysql-bin.000011 |   4 | Format_desc |  88955285 |         120 | Server ver: 5.6.30-log, Binlog ver: 4               |
| mysql-bin.000011 | 120 | Query       |  88955285 |         211 | create database db1                                 |
| mysql-bin.000011 | 211 | Query       |  88955285 |         310 | use `db1`; CREATE TABLE t (c CHAR(20))              |
| mysql-bin.000011 | 310 | Query       |  88955285 |         381 | BEGIN                                               |
| mysql-bin.000011 | 381 | Table_map   |  88955285 |         426 | table_id: 18 (db1.t)                                |
| mysql-bin.000011 | 310 | Query       |  88955285 |         381 | BEGIN                                               |

| mysql-bin.000011 | 426 | Write_rows  |  88955285 |         464 | table_id: 18 flags: STMT_END_F                      |
| mysql-bin.000011 | 464 | Xid         |  88955285 |         495 | COMMIT /* xid=56 */                                 |
| mysql-bin.000011 | 495 | Query       |  88955285 |         566 | BEGIN                                               |
| mysql-bin.000011 | 566 | Table_map   |  88955285 |         611 | table_id: 18 (db1.t)                                |
| mysql-bin.000011 | 611 | Write_rows  |  88955285 |         649 | table_id: 18 flags: STMT_END_F                      |
| mysql-bin.000011 | 649 | Xid         |  88955285 |         680 | COMMIT /* xid=57 */                                 |
| mysql-bin.000011 | 680 | Query       |  88955285 |         751 | BEGIN                                               |
| mysql-bin.000011 | 751 | Table_map   |  88955285 |         796 | table_id: 18 (db1.t)                                |
| mysql-bin.000011 | 796 | Write_rows  |  88955285 |         834 | table_id: 18 flags: STMT_END_F                      |
| mysql-bin.000011 | 834 | Xid         |  88955285 |         865 | COMMIT /* xid=58 */                                 |
| mysql-bin.000011 | 865 | Query       |  88955285 |         977 | use `db1`; DROP TABLE `t` /* generated by server */ |
+------------------+-----+-------------+-----------+-------------+-----------------------------------------------------+
16 rows in set (0.04 sec)

To restore up to the DROP TABLE statement, bolded above, you would use "865" in "mysql-bin.000011" as the recovery position. The DROP TABLE statement and all operations after it are not reflected in the new instance.

Perform PITR using binary log event positions

gcloud

Use the gcloud sql instances clone command with the --bin-log-file-name and --bin-log-position flags.

  1. Create the new instance using the binary log filename and recovery position.

    Replace the following:

    • SOURCE_INSTANCE_NAME: Name of the instance you're restoring from.
    • NEW_INSTANCE_NAME: Name for the clone.
    • BINLOG_FILE_NAME: Name for the binary log, such as mysql-bin.187288.
    • POSITION: The position in the binary log to restore up to, such as 50001356.
    gcloud sql instances clone SOURCE_INSTANCE_NAME \
NEW_INSTANCE_NAME \
--bin-log-file-name="BINLOG_FILE_NAME" \
--bin-log-position=POSITION

    For example, a gcloud sql instances clone command might look similar to the following:

    gcloud sql instances clone instance1 \
instance1-clone \
--bin-log-file-name=mysql-bin.0000031 \
--bin-log-position=107 \
  2. Use the operation ID returned from the clone command to check the status of the restore operation. 
    gcloud sql operations describe OPERATION_ID

    When the operation is in progress, a state of RUNNING is returned. When the operation is complete, a state of DONE is returned.

REST v1

Create the new instance using the binary log filename and recovery position you have identified:

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • target-instance-id: The target instance ID
  • source-instance-id: The source instance ID
  • binary-log-file-name The name of the binary log file
  • binary-log-position The position within the binary log file

HTTP method and URL: 

POST https://sqladmin.googleapis.com/v1/projects/project-id/instances/source-instance-id/clone

Request JSON body: 

{
  "cloneContext":
  {
    "kind": "sql#cloneContext",
    "destinationInstanceName": "target-instance-id",
    "binLogCoordinates":
    {
      "kind": "sql#binLogCoordinates",
      "binLogFileName": "binary-log-file-name",
      "binLogPosition": "binary-log-position"
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

REST v1beta4

Create the new instance using the binary log file name and recovery position you have identified:

Before using any of the request data, make the following replacements:

  • project-id: The project ID
  • target-instance-id: The target instance ID
  • source-instance-id: The source instance ID
  • binary-log-file-name The name of the binary log file
  • binary-log-position The position within the binary log file

HTTP method and URL: 

POST https://sqladmin.googleapis.com/sql/v1beta4/projects/project-id/instances/source-instance-id/clone

Request JSON body: 

{
  "cloneContext":
  {
    "kind": "sql#cloneContext",
    "destinationInstanceName": "target-instance-id",
    "binLogCoordinates":
    {
      "kind": "sql#binLogCoordinates",
      "binLogFileName": "binary-log-file-name",
      "binLogPosition": "binary-log-position"
    }
  }
}

To send your request, expand one of these options:

You should receive a JSON response similar to the following:

Troubleshoot

Issue Troubleshooting

argument --point-in-time: Failed to parse date/time:
Unknown string format: 2021-0928T30:54:03.094;
received: 2021-0928T30:54:03.094Z

OR

Invalid value at 'body.clone_context.point_in_time'
(type.googleapis.com/google.protobuf.Timestamp), Field 'pointInTime',
Invalid time format: Failed to parse input,

 The timestamp you provided is invalid.

HTTP Error 400: Successful backup required for carrying out the operation was not found.

OR

Successful backup required for carrying out the operation was not found. or Time where no backups can be found.

 The timestamp that you provided is for a time where backups or when binlog coordinates could not be found.

What's next