Amazon EC2 examples using AWS CLI

To accept an Elastic IP address transferred to your account

The following accept-address-transfer example accepts the transfer of the specified Elastic IP address to your account.

aws ec2 accept-address-transfer \
    --address 100.21.184.216

Output:

{
    "AddressTransfer": {
        "PublicIp": "100.21.184.216",
        "AllocationId": "eipalloc-09ad461b0d03f6aaf",
        "TransferAccountId": "123456789012",
        "TransferOfferExpirationTimestamp": "2023-02-22T20:51:10.000Z",
        "TransferOfferAcceptedTimestamp": "2023-02-22T22:52:54.000Z",
        "AddressTransferStatus": "accepted"
    }
}

For more information, see Transfer Elastic IP addresses in the Amazon VPC User Guide.

To perform a Convertible Reserved Instance exchange

This example performs an exchange of the specified Convertible Reserved Instances.

Command:

aws ec2 accept-reserved-instances-exchange-quote --reserved-instance-ids 7b8750c3-397e-4da4-bbcb-a45ebexample --target-configurations OfferingId=b747b472-423c-48f3-8cee-679bcexample

Output:

{
  "ExchangeId": "riex-e68ed3c1-8bc8-4c17-af77-811afexample"
}

To accept a transit gateway peering attachment

The following accept-transit-gateway-peering-attachment example accepts the specified transit gateway peering attachment. The --region parameter specifies the Region that the accepter transit gateway is located in.

aws ec2 accept-transit-gateway-peering-attachment \
    --transit-gateway-attachment-id tgw-attach-4455667788aabbccd \
    --region us-east-2

Output:

{
    "TransitGatewayPeeringAttachment": {
        "TransitGatewayAttachmentId": "tgw-attach-4455667788aabbccd",
        "RequesterTgwInfo": {
            "TransitGatewayId": "tgw-123abc05e04123abc",
            "OwnerId": "123456789012",
            "Region": "us-west-2"
        },
        "AccepterTgwInfo": {
            "TransitGatewayId": "tgw-11223344aabbcc112",
            "OwnerId": "123456789012",
            "Region": "us-east-2"
        },
        "State": "pending",
        "CreationTime": "2019-12-09T11:38:31.000Z"
    }
}

For more information, see Transit Gateway Peering Attachments in the Transit Gateways Guide.

To accept a request to attach a VPC to a transit gateway.

The following accept-transit-gateway-vpc-attachment example accepts the request forte specified attachment.

aws ec2 accept-transit-gateway-vpc-attachment \
    --transit-gateway-attachment-id tgw-attach-0a34fe6b4fEXAMPLE

Output:

{
    "TransitGatewayVpcAttachment": {
        "TransitGatewayAttachmentId": "tgw-attach-0a34fe6b4fEXAMPLE",
        "TransitGatewayId": "tgw-0262a0e521EXAMPLE",
        "VpcId": "vpc-07e8ffd50fEXAMPLE",
        "VpcOwnerId": "123456789012",
        "State": "pending",
        "SubnetIds": [
            "subnet-0752213d59EXAMPLE"
        ],
        "CreationTime": "2019-07-10T17:33:46.000Z",
        "Options": {
            "DnsSupport": "enable",
            "Ipv6Support": "disable"
        }
    }
}

For more information, see Transit Gateway Attachments to a VPC in the Transit Gateways Guide.

To accept an interface endpoint connection request

This example accepts the specified endpoint connection request for the specified endpoint service.

Command:

aws ec2 accept-vpc-endpoint-connections --service-id vpce-svc-03d5ebb7d9579a2b3 --vpc-endpoint-ids vpce-0c1308d7312217abc

Output:

{
  "Unsuccessful": []
}

To accept a VPC peering connection

This example accepts the specified VPC peering connection request.

Command:

aws ec2 accept-vpc-peering-connection --vpc-peering-connection-id pcx-1a2b3c4d

Output:

{
  "VpcPeeringConnection": {
    "Status": {
      "Message": "Provisioning",
      "Code": "provisioning"
    },
    "Tags": [],
    "AccepterVpcInfo": {
      "OwnerId": "444455556666",
      "VpcId": "vpc-44455566",
      "CidrBlock": "10.0.1.0/28"
    },
    "VpcPeeringConnectionId": "pcx-1a2b3c4d",
    "RequesterVpcInfo": {
      "OwnerId": "444455556666",
      "VpcId": "vpc-111abc45",
      "CidrBlock": "10.0.0.0/28"
    }
  }
}

To advertise an address range

The following advertise-byoip-cidr example advertises the specified public IPv4 address range.

aws ec2 advertise-byoip-cidr \
    --cidr 203.0.113.25/24

Output:

{
    "ByoipCidr": {
        "Cidr": "203.0.113.25/24",
        "StatusMessage": "ipv4pool-ec2-1234567890abcdef0",
        "State": "provisioned"
    }
}

Example 1: To allocate an Elastic IP address from Amazon's address pool

The following allocate-address example allocates an Elastic IP address. Amazon EC2 selects the address from Amazon's address pool.

aws ec2 allocate-address

Output:

{
    "PublicIp": "70.224.234.241",
    "AllocationId": "eipalloc-01435ba59eEXAMPLE",
    "PublicIpv4Pool": "amazon",
    "NetworkBorderGroup": "us-west-2",
    "Domain": "vpc"
}

For more information, see Elastic IP addresses in the Amazon EC2 User Guide.

Example 2: To allocate an Elastic IP address and associate it with a network border group

The following allocate-address example allocates an Elastic IP address and associates it with the specified network border group.

aws ec2 allocate-address \
    --network-border-group us-west-2-lax-1

Output:

{
    "PublicIp": "70.224.234.241",
    "AllocationId": "eipalloc-e03dd489ceEXAMPLE",
    "PublicIpv4Pool": "amazon",
    "NetworkBorderGroup": "us-west-2-lax-1",
    "Domain": "vpc"
}

For more information, see Elastic IP addresses in the Amazon EC2 User Guide.

Example 3: To allocate an Elastic IP address from an address pool that you own

The following allocate-address example allocates an Elastic IP address from an address pool that you have brought to your Amazon Web Services account. Amazon EC2 selects the address from the address pool.

aws ec2 allocate-address \
    --public-ipv4-pool ipv4pool-ec2-1234567890abcdef0

Output:

{
    "AllocationId": "eipalloc-02463d08ceEXAMPLE",
    "NetworkBorderGroup": "us-west-2",
    "CustomerOwnedIp": "18.218.95.81",
    "CustomerOwnedIpv4Pool": "ipv4pool-ec2-1234567890abcdef0",
    "Domain": "vpc"
    "NetworkBorderGroup": "us-west-2",
}

For more information, see Elastic IP addresses in the Amazon EC2 User Guide.

Example 4: To allocate an Elastic IP address from an IPAM pool

The following allocate-address example allocates a specific /32 Elastic IP address from an Amazon VPC IP Address Manager (IPAM) pool.

aws ec2 allocate-address \
    --region us-east-1 \
    --ipam-pool-id ipam-pool-1234567890abcdef0 \
    --address 192.0.2.0

Output:

{
    "PublicIp": "192.0.2.0",
    "AllocationId": "eipalloc-abcdef01234567890",
    "PublicIpv4Pool": "ipam-pool-1234567890abcdef0",
    "NetworkBorderGroup": "us-east-1",
    "Domain": "vpc"
}

For more information, see Allocate sequential Elastic IP addresses from an IPAM pool in the Amazon VPC IPAM User Guide.

Example 1: To allocate a Dedicated Host

The following allocate-hosts example allocates a single Dedicated Host in the eu-west-1a Availability Zone, onto which you can launch m5.large instances. By default, the Dedicated Host accepts only target instance launches, and does not support host recovery.

aws ec2 allocate-hosts \
    --instance-type m5.large \
    --availability-zone eu-west-1a \
    --quantity 1

Output:

{
    "HostIds": [
        "h-07879acf49EXAMPLE"
    ]
}

Example 2: To allocate a Dedicated Host with auto-placement and host recovery enabled

The following allocate-hosts example allocates a single Dedicated Host in the eu-west-1a Availability Zone with auto-placement and host recovery enabled.

aws ec2 allocate-hosts \
    --instance-type m5.large \
    --availability-zone eu-west-1a \
    --auto-placement on \
    --host-recovery on \
    --quantity 1

Output:

{
     "HostIds": [
         "h-07879acf49EXAMPLE"
     ]
}

Example 3: To allocate a Dedicated Host with tags

The following allocate-hosts example allocates a single Dedicated Host and applies a tag with a key named purpose and a value of production.

aws ec2 allocate-hosts \
    --instance-type m5.large \
    --availability-zone eu-west-1a \
    --quantity 1 \
    --tag-specifications 'ResourceType=dedicated-host,Tags={Key=purpose,Value=production}'

Output:

{
    "HostIds": [
        "h-07879acf49EXAMPLE"
    ]
}

For more information, see Allocate a Dedicated Host in the Amazon EC2 User Guide.

To allocate a CIDR from an IPAM pool

The following allocate-ipam-pool-cidr example allocates a CIDR from an IPAM pool.

(Linux):

aws ec2 allocate-ipam-pool-cidr \
    --ipam-pool-id ipam-pool-0533048da7d823723 \
    --netmask-length 24

(Windows):

aws ec2 allocate-ipam-pool-cidr ^
   --ipam-pool-id ipam-pool-0533048da7d823723 ^
   --netmask-length 24

Output:

{
    "IpamPoolAllocation": {
        "Cidr": "10.0.0.0/24",
        "IpamPoolAllocationId": "ipam-pool-alloc-018ecc28043b54ba38e2cd99943cebfbd",
        "ResourceType": "custom",
        "ResourceOwner": "123456789012"
    }
}

For more information, see Manually allocate a CIDR to a pool to reserve IP address space in the Amazon VPC IPAM User Guide.

To apply security groups to a target network for a Client VPN endpoint

The following apply-security-groups-to-client-vpn-target-network example applies security group sg-01f6e627a89f4db32 to the association between the specified target network and Client VPN endpoint.

aws ec2 apply-security-groups-to-client-vpn-target-network \
    --security-group-ids sg-01f6e627a89f4db32 \
    --vpc-id vpc-0e2110c2f324332e0 \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde

Output:

{
    "SecurityGroupIds": [
        "sg-01f6e627a89f4db32"
    ]
}

For more information, see Target Networks in the AWS Client VPN Administrator Guide.

To assign specific IPv6 addresses to a network interface

This example assigns the specified IPv6 addresses to the specified network interface.

Command:

aws ec2 assign-ipv6-addresses --network-interface-id eni-38664473 --ipv6-addresses 2001:db8:1234:1a00:3304:8879:34cf:4071 2001:db8:1234:1a00:9691:9503:25ad:1761

Output:

{
  "AssignedIpv6Addresses": [
      "2001:db8:1234:1a00:3304:8879:34cf:4071",
      "2001:db8:1234:1a00:9691:9503:25ad:1761"
  ],
  "NetworkInterfaceId": "eni-38664473"
}

To assign IPv6 addresses that Amazon selects to a network interface

This example assigns two IPv6 addresses to the specified network interface. Amazon automatically assigns these IPv6 addresses from the available IPv6 addresses in the IPv6 CIDR block range of the subnet.

Command:

aws ec2 assign-ipv6-addresses --network-interface-id eni-38664473 --ipv6-address-count 2

Output:

{
  "AssignedIpv6Addresses": [
      "2001:db8:1234:1a00:3304:8879:34cf:4071",
      "2001:db8:1234:1a00:9691:9503:25ad:1761"
  ],
  "NetworkInterfaceId": "eni-38664473"
}

To assign a specific secondary private IP address a network interface

This example assigns the specified secondary private IP address to the specified network interface. If the command succeeds, no output is returned.

Command:

aws ec2 assign-private-ip-addresses --network-interface-id eni-e5aa89a3 --private-ip-addresses 10.0.0.82

To assign secondary private IP addresses that Amazon EC2 selects to a network interface

This example assigns two secondary private IP addresses to the specified network interface. Amazon EC2 automatically assigns these IP addresses from the available IP addresses in the CIDR block range of the subnet the network interface is associated with. If the command succeeds, no output is returned.

Command:

aws ec2 assign-private-ip-addresses --network-interface-id eni-e5aa89a3 --secondary-private-ip-address-count 2

To assign private IP addresses to your private NAT gateway

The following assign-private-nat-gateway-address example assigns two private IP addresses to the specified private NAT gateway.

aws ec2 assign-private-nat-gateway-address \
    --nat-gateway-id nat-1234567890abcdef0 \
    --private-ip-address-count 2

Output:

{
    "NatGatewayId": "nat-1234567890abcdef0",
    "NatGatewayAddresses": [
        {
            "NetworkInterfaceId": "eni-0065a61b324d1897a",
            "IsPrimary": false,
            "Status": "assigning"
        },
        {
            "NetworkInterfaceId": "eni-0065a61b324d1897a",
            "IsPrimary": false,
            "Status": "assigning"
        }
    ]
}

For more information, see NAT gateways in the Amazon VPC User Guide.

Example 1: To associate an Elastic IP address with an instance

The following associate-address example associates an Elastic IP address with the specified EC2 instance.

aws ec2 associate-address \
    --instance-id i-0b263919b6498b123 \
    --allocation-id eipalloc-64d5890a

Output:

{
    "AssociationId": "eipassoc-2bebb745"
}

Example 2: To associate an Elastic IP address with a network interface

The following associate-address example associates the specified Elastic IP address with the specified network interface.

aws ec2 associate-address
    --allocation-id eipalloc-64d5890a \
    --network-interface-id eni-1a2b3c4d

Output:

{
    "AssociationId": "eipassoc-2bebb745"
}

Example 3: To associate an Elastic IP address with a private IP address

The following associate-address example associates the specified Elastic IP address with the specified private IP address in the specified network interface.

aws ec2 associate-address \
    --allocation-id eipalloc-64d5890a \
    --network-interface-id eni-1a2b3c4d \
    --private-ip-address 10.0.0.85

Output:

{
    "AssociationId": "eipassoc-2bebb745"
}

For more information, see Elastic IP addresses in the Amazon EC2 User Guide.

To associate a target network with a Client VPN endpoint

The following associate-client-vpn-target-network example associates a subnet with the specified Client VPN endpoint.

aws ec2 associate-client-vpn-target-network \
    --subnet-id subnet-0123456789abcabca \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde

Output:

{
    "AssociationId": "cvpn-assoc-12312312312312312",
    "Status": {
        "Code": "associating"
    }
}

For more information, see Target Networks in the AWS Client VPN Administrator Guide.

To associate a DHCP options set with your VPC

This example associates the specified DHCP options set with the specified VPC. If the command succeeds, no output is returned.

Command:

aws ec2 associate-dhcp-options --dhcp-options-id dopt-d9070ebb --vpc-id vpc-a01106c2

To associate the default DHCP options set with your VPC

This example associates the default DHCP options set with the specified VPC. If the command succeeds, no output is returned.

Command:

aws ec2 associate-dhcp-options --dhcp-options-id default --vpc-id vpc-a01106c2

To associate an IAM instance profile with an instance

This example associates an IAM instance profile named admin-role with instance i-123456789abcde123.

Command:

aws ec2 associate-iam-instance-profile --instance-id i-123456789abcde123 --iam-instance-profile Name=admin-role

Output:

{
  "IamInstanceProfileAssociation": {
      "InstanceId": "i-123456789abcde123",
      "State": "associating",
      "AssociationId": "iip-assoc-0e7736511a163c209",
      "IamInstanceProfile": {
          "Id": "AIPAJBLK7RKJKWDXVHIEC",
          "Arn": "arn:aws:iam::123456789012:instance-profile/admin-role"
      }
  }
}

Example 1: To associate one or more instances with an event window

The following associate-instance-event-window example associates one or more instances with an event window.

aws ec2 associate-instance-event-window \
    --region us-east-1 \
    --instance-event-window-id iew-0abcdef1234567890 \
    --association-target "InstanceIds=i-1234567890abcdef0,i-0598c7d356eba48d7"

Output:

{
    "InstanceEventWindow": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "Name": "myEventWindowName",
        "CronExpression": "* 21-23 * * 2,3",
        "AssociationTarget": {
            "InstanceIds": [
                "i-1234567890abcdef0",
                "i-0598c7d356eba48d7"
            ],
            "Tags": [],
            "DedicatedHostIds": []
        },
        "State": "creating"
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

Example 2: To associate instance tags with an event window

The following associate-instance-event-window example associates instance tags with an event window. Enter an instance-event-window-id parameter to specify the event window. To associate instance tags, specify the association-target parameter, and for the parameter value, specify one or more tags.

aws ec2 associate-instance-event-window \
    --region us-east-1 \
    --instance-event-window-id iew-0abcdef1234567890 \
    --association-target "InstanceTags=[{Key=k2,Value=v2},{Key=k1,Value=v1}]"

Output:

{
    "InstanceEventWindow": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "Name": "myEventWindowName",
        "CronExpression": "* 21-23 * * 2,3",
        "AssociationTarget": {
            "InstanceIds": [],
            "Tags": [
                {
                    "Key": "k2",
                    "Value": "v2"
                },
                {
                    "Key": "k1",
                    "Value": "v1"
                }
            ],
            "DedicatedHostIds": []
        },
        "State": "creating"
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

Example 3: To associate a Dedicated Host with an event window

The following associate-instance-event-window example associates a Dedicated Host with an event window. Enter an instance-event-window-id parameter to specify the event window. To associate a Dedicated Host, specify the --association-target parameter, and for the parameter values, specify one of more Dedicated Host IDs.

aws ec2 associate-instance-event-window \
    --region us-east-1 \
    --instance-event-window-id iew-0abcdef1234567890 \
    --association-target "DedicatedHostIds=h-029fa35a02b99801d"

Output:

{
    "InstanceEventWindow": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "Name": "myEventWindowName",
        "CronExpression": "* 21-23 * * 2,3",
        "AssociationTarget": {
            "InstanceIds": [],
            "Tags": [],
            "DedicatedHostIds": [
                "h-029fa35a02b99801d"
            ]
        },
        "State": "creating"
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

To associate a resource discovery with an IPAM

In this example, you are an IPAM delegated admin and a resource discovery has been created and shared with you by another AWS account so that you can use IPAM to manage and monitor resource CIDRs owned by the other account.

Note

To complete this request, you'll need the resource discovery ID which you can get with describe-ipam-resource-discoveries and the IPAM ID which you can get with describe-ipams.The resource discovery that you are associating must have first been shared with your account using AWS RAM.The --region you enter must match the home Region of the IPAM you are associating it with.

The following associate-ipam-resource-discovery example associates a resource discovery with an IPAM.

aws ec2 associate-ipam-resource-discovery \
    --ipam-id ipam-005f921c17ebd5107 \
    --ipam-resource-discovery-id ipam-res-disco-03e0406de76a044ee \
    --tag-specifications 'ResourceType=ipam-resource-discovery,Tags=[{Key=cost-center,Value=cc123}]' \
    --region us-east-1

Output:

{
    {
        "IpamResourceDiscoveryAssociation": {
            "OwnerId": "320805250157",
            "IpamResourceDiscoveryAssociationId": "ipam-res-disco-assoc-04382a6346357cf82",
            "IpamResourceDiscoveryAssociationArn": "arn:aws:ec2::320805250157:ipam-resource-discovery-association/ipam-res-disco-assoc-04382a6346357cf82",
            "IpamResourceDiscoveryId": "ipam-res-disco-0365d2977fc1672fe",
            "IpamId": "ipam-005f921c17ebd5107",
            "IpamArn": "arn:aws:ec2::320805250157:ipam/ipam-005f921c17ebd5107",
            "IpamRegion": "us-east-1",
            "IsDefault": false,
            "ResourceDiscoveryStatus": "active",
            "State": "associate-in-progress",
            "Tags": []
        }
    }
}

Once you associate a resource discovery, you can monitor and/or manage the IP addresses of resources created by the other accounts. For more information, see Integrate IPAM with accounts outside of your organization in the Amazon VPC IPAM User Guide.

To associate an Elastic IP address with a public NAT gateway

The following associate-nat-gateway-address example associates the specified Elastic IP address with the specified public NAT gateway. AWS automatically assigns a secondary private IPv4 address.

aws ec2 associate-nat-gateway-address \
    --nat-gateway-id nat-1234567890abcdef0 \
    --allocation-ids eipalloc-0be6ecac95EXAMPLE

Output:

{
    "NatGatewayId": "nat-1234567890abcdef0",
    "NatGatewayAddresses": [
        {
            "AllocationId": "eipalloc-0be6ecac95EXAMPLE",
            "NetworkInterfaceId": "eni-09cc4b2558794f7f9",
            "IsPrimary": false,
            "Status": "associating"
        }
    ]
}

For more information, see NAT gateways in the Amazon VPC User Guide.

To associate a route table with a subnet

This example associates the specified route table with the specified subnet.

Command:

aws ec2 associate-route-table --route-table-id rtb-22574640 --subnet-id subnet-9d4a7b6c

Output:

{
    "AssociationId": "rtbassoc-781d0d1a"
}

To associate an IPv6 CIDR block with a subnet

This example associates an IPv6 CIDR block with the specified subnet.

Command:

aws ec2 associate-subnet-cidr-block --subnet-id subnet-5f46ec3b --ipv6-cidr-block 2001:db8:1234:1a00::/64

Output:

{
  "SubnetId": "subnet-5f46ec3b",
  "Ipv6CidrBlockAssociation": {
      "Ipv6CidrBlock": "2001:db8:1234:1a00::/64",
      "AssociationId": "subnet-cidr-assoc-3aa54053",
      "Ipv6CidrBlockState": {
          "State": "associating"
      }
  }
}

To associate a transit gateway with a multicast domain

The following associate-transit-gateway-multicast-domain example associates the specified subnet and attachment with the specified multicast domain.

aws ec2 associate-transit-gateway-multicast-domain \
    --transit-gateway-multicast-domain-id tgw-mcast-domain-0c4905cef79d6e597 \
    --transit-gateway-attachment-id tgw-attach-028c1dd0f8f5cbe8e \
    --subnet-ids subnet-000de86e3b49c932a \
    --transit-gateway-multicast-domain-id tgw-mcast-domain-0c4905cef7EXAMPLE

Output:

{
    "Associations": {
        "TransitGatewayMulticastDomainId": "tgw-mcast-domain-0c4905cef79d6e597",
        "TransitGatewayAttachmentId": "tgw-attach-028c1dd0f8f5cbe8e",
        "ResourceId": "vpc-01128d2c240c09bd5",
        "ResourceType": "vpc",
        "Subnets": [
            {
                "SubnetId": "subnet-000de86e3b49c932a",
                "State": "associating"
            }
        ]
    }
}

For more information, see Multicast domains in the Transit Gateways Guide.

To associate a transit gateway route table with a transit gateway attachment

The following example associates the specified transit gateway route table with the specified VPC attachment.

aws ec2 associate-transit-gateway-route-table \
    --transit-gateway-route-table-id tgw-rtb-002573ed1eEXAMPLE \
    --transit-gateway-attachment-id tgw-attach-0b5968d3b6EXAMPLE

Output:

{
    "Association": {
        "TransitGatewayRouteTableId": "tgw-rtb-002573ed1eEXAMPLE",
        "TransitGatewayAttachmentId": "tgw-attach-0b5968d3b6EXAMPLE",
        "ResourceId": "vpc-0065acced4EXAMPLE",
        "ResourceType": "vpc",
        "State": "associating"
    }
}

For more information, see Associate a Transit Gateway Route Table in the AWS Transit Gateways Guide.

Example 1: To associate an Amazon-provided IPv6 CIDR block with a VPC

The following associate-vpc-cidr-block example associates an IPv6 CIDR block with the specified VPC.:

aws ec2 associate-vpc-cidr-block \
    --amazon-provided-ipv6-cidr-block \
    --ipv6-cidr-block-network-border-group us-west-2-lax-1  \
    --vpc-id vpc-8EXAMPLE

Output:

{
    "Ipv6CidrBlockAssociation": {
        "AssociationId": "vpc-cidr-assoc-0838ce7d9dEXAMPLE",
        "Ipv6CidrBlockState": {
            "State": "associating"
        },
        "NetworkBorderGroup": "us-west-2-lax-1"
    },
    "VpcId": "vpc-8EXAMPLE"
}

Example 2:To associate an additional IPv4 CIDR block with a VPC

The following associate-vpc-cidr-block example associates the IPv4 CIDR block 10.2.0.0/16 with the specified VPC.

aws ec2 associate-vpc-cidr-block \
    --vpc-id vpc-1EXAMPLE \
    --cidr-block 10.2.0.0/16

Output:

{
    "CidrBlockAssociation": {
        "AssociationId": "vpc-cidr-assoc-2EXAMPLE",
        "CidrBlock": "10.2.0.0/16",
        "CidrBlockState": {
            "State": "associating"
        }
    },
    "VpcId": "vpc-1EXAMPLE"
}

To link (attach) an EC2-Classic instance to a VPC

This example links instance i-1234567890abcdef0 to VPC vpc-88888888 through the VPC security group sg-12312312.

Command:

aws ec2 attach-classic-link-vpc --instance-id  i-1234567890abcdef0 --vpc-id vpc-88888888 --groups sg-12312312

Output:

{
  "Return": true
}

To attach an internet gateway to your VPC

The following attach-internet-gateway example attaches the specified internet gateway to the specific VPC.

aws ec2 attach-internet-gateway \
    --internet-gateway-id igw-0d0fb496b3EXAMPLE \
    --vpc-id vpc-0a60eb65b4EXAMPLE

This command produces no output.

For more information, see Internet gateways in the Amazon VPC User Guide.

Example 1: To attach a network interface to an instance

The following attach-network-interface example attaches the specified network interface to the specified instance.

aws ec2 attach-network-interface \
    --network-interface-id eni-0dc56a8d4640ad10a \
    --instance-id i-1234567890abcdef0 \
    --device-index 1

Output:

{
    "AttachmentId": "eni-attach-01a8fc87363f07cf9"
}

For more information, see Elastic network interfaces in the Amazon EC2 User Guide.

Example 2: To attach a network interface to an instance with multiple network cards

The following attach-network-interface example attaches the specified network interface to the specified instance and network card.

aws ec2 attach-network-interface \
    --network-interface-id eni-07483b1897541ad83 \
    --instance-id i-01234567890abcdef \
    --network-card-index 1 \
    --device-index 1

Output:

{
    "AttachmentId": "eni-attach-0fbd7ee87a88cd06c"
}

For more information, see Elastic network interfaces in the Amazon EC2 User Guide.

To attach a trust provider to an instance

The following attach-verified-access-trust-provider example attaches the specified Verified Access trust provider to the specified Verified Access instance.

aws ec2 attach-verified-access-trust-provider \
    --verified-access-instance-id vai-0ce000c0b7643abea \
    --verified-access-trust-provider-id vatp-0bb32de759a3e19e7

Output:

{
    "VerifiedAccessTrustProvider": {
        "VerifiedAccessTrustProviderId": "vatp-0bb32de759a3e19e7",
        "Description": "",
        "TrustProviderType": "user",
        "UserTrustProviderType": "iam-identity-center",
        "PolicyReferenceName": "idc",
        "CreationTime": "2023-08-25T19:00:38",
        "LastUpdatedTime": "2023-08-25T19:00:38"
    },
    "VerifiedAccessInstance": {
        "VerifiedAccessInstanceId": "vai-0ce000c0b7643abea",
        "Description": "",
        "VerifiedAccessTrustProviders": [
            {
                "VerifiedAccessTrustProviderId": "vatp-0bb32de759a3e19e7",
                "TrustProviderType": "user",
                "UserTrustProviderType": "iam-identity-center"
            }
        ],
        "CreationTime": "2023-08-25T18:27:56",
        "LastUpdatedTime": "2023-08-25T18:27:56"
    }
}

For more information, see Verified Access instances in the AWS Verified Access User Guide.

To attach a volume to an instance

This example command attaches a volume (vol-1234567890abcdef0) to an instance (i-01474ef662b89480) as /dev/sdf.

Command:

aws ec2 attach-volume --volume-id vol-1234567890abcdef0 --instance-id i-01474ef662b89480 --device /dev/sdf

Output:

{
    "AttachTime": "YYYY-MM-DDTHH:MM:SS.000Z",
    "InstanceId": "i-01474ef662b89480",
    "VolumeId": "vol-1234567890abcdef0",
    "State": "attaching",
    "Device": "/dev/sdf"
}

To attach a virtual private gateway to your VPC

The following attach-vpn-gateway example attaches the specified virtual private gateway to the specified VPC.

aws ec2 attach-vpn-gateway \
    --vpn-gateway-id vgw-9a4cacf3 \
    --vpc-id vpc-a01106c2

Output:

{
    "VpcAttachment": {
        "State": "attaching",
        "VpcId": "vpc-a01106c2"
    }
}

To add an authorization rule for a Client VPN endpoint

The following authorize-client-vpn-ingress example adds an ingress authorization rule that permits all clients to access the internet (0.0.0.0/0).

aws ec2 authorize-client-vpn-ingress \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde \
    --target-network-cidr 0.0.0.0/0 \
    --authorize-all-groups

Output:

{
    "Status": {
        "Code": "authorizing"
    }
}

For more information, see Authorization Rules in the AWS Client VPN Administrator Guide.

Example 1: To add a rule that allows outbound traffic to a specific address range

The following authorize-security-group-egress example adds a rule that grants access to the specified address ranges on TCP port 80.

aws ec2 authorize-security-group-egress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=tcp,FromPort=80,ToPort=80,IpRanges=[{CidrIp=10.0.0.0/16}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-0b15794cdb17bf29c",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": true,
            "IpProtocol": "tcp",
            "FromPort": 80,
            "ToPort": 80,
            "CidrIpv4": "10.0.0.0/16"
        }
    ]
}

Example 2: To add a rule that allows outbound traffic to a specific security group

The following authorize-security-group-egress example adds a rule that grants access to the specified security group on TCP port 80.

aws ec2 authorize-security-group-egress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=tcp,FromPort=80,ToPort=80,UserIdGroupPairs=[{GroupId=sg-0aad1c26bbeec5c22}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-0b5dd815afcea9cc3",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": true,
            "IpProtocol": "tcp",
            "FromPort": 80,
            "ToPort": 80,
            "ReferencedGroupInfo": {
                "GroupId": "sg-0aad1c26bbeec5c22",
                "UserId": "123456789012"
            }
        }
    ]
}

For more information, see Security groups in the Amazon VPC User Guide.

Example 1: To add a rule that allows inbound SSH traffic

The following authorize-security-group-ingress example adds a rule that allows inbound traffic on TCP port 22 (SSH).

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --protocol tcp \
    --port 22 \
    --cidr 203.0.113.0/24

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-01afa97ef3e1bedfc",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": 22,
            "ToPort": 22,
            "CidrIpv4": "203.0.113.0/24"
        }
    ]
}

Example 2: To add a rule that allows inbound HTTP traffic from another security group

The following authorize-security-group-ingress example adds a rule that allows inbound access on TCP port 80 from the source security group sg-1a2b3c4d. The source group must be in the same VPC or in a peer VPC (requires a VPC peering connection). Incoming traffic is allowed based on the private IP addresses of instances that are associated with the source security group (not the public IP address or Elastic IP address).

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --protocol tcp \
    --port 80 \
    --source-group sg-1a2b3c4d

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-01f4be99110f638a7",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": 80,
            "ToPort": 80,
            "ReferencedGroupInfo": {
                "GroupId": "sg-1a2b3c4d",
                "UserId": "123456789012"
            }
        }
    ]
}

Example 3: To add multiple rules in the same call

The following authorize-security-group-ingress example uses the ip-permissions parameter to add two inbound rules, one that enables inbound access on TCP port 3389 (RDP) and the other that enables ping/ICMP.

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=tcp,FromPort=3389,ToPort=3389,IpRanges=[{CidrIp=172.31.0.0/16}]" "IpProtocol=icmp,FromPort=-1,ToPort=-1,IpRanges=[{CidrIp=172.31.0.0/16}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-00e06e5d3690f29f3",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": 3389,
            "ToPort": 3389,
            "CidrIpv4": "172.31.0.0/16"
        },
        {
            "SecurityGroupRuleId": "sgr-0a133dd4493944b87",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": -1,
            "ToPort": -1,
            "CidrIpv4": "172.31.0.0/16"
        }
    ]
}

Example 4: To add a rule for ICMP traffic

The following authorize-security-group-ingress example uses the ip-permissions parameter to add an inbound rule that allows the ICMP message Destination Unreachable: Fragmentation Needed and Don't Fragment was Set (Type 3, Code 4) from anywhere.

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=icmp,FromPort=3,ToPort=4,IpRanges=[{CidrIp=0.0.0.0/0}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-0de3811019069b787",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "icmp",
            "FromPort": 3,
            "ToPort": 4,
            "CidrIpv4": "0.0.0.0/0"
        }
    ]
}

Example 5: To add a rule for IPv6 traffic

The following authorize-security-group-ingress example uses the ip-permissions parameter to add an inbound rule that allows SSH access (port 22) from the IPv6 range 2001:db8:1234:1a00::/64.

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=tcp,FromPort=22,ToPort=22,Ipv6Ranges=[{CidrIpv6=2001:db8:1234:1a00::/64}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-0455bc68b60805563",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": 22,
            "ToPort": 22,
            "CidrIpv6": "2001:db8:1234:1a00::/64"
        }
    ]
}

Example 6: To add a rule for ICMPv6 traffic

The following authorize-security-group-ingress example uses the ip-permissions parameter to add an inbound rule that allows ICMPv6 traffic from anywhere.

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=icmpv6,Ipv6Ranges=[{CidrIpv6=::/0}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-04b612d9363ab6327",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "icmpv6",
            "FromPort": -1,
            "ToPort": -1,
            "CidrIpv6": "::/0"
        }
    ]
}

Example 7: Add a rule with a description

The following authorize-security-group-ingress example uses the ip-permissions parameter to add an inbound rule that allows RDP traffic from the specified IPv4 address range. The rule includes a description to help you identify it later.

aws ec2 authorize-security-group-ingress \
    --group-id sg-1234567890abcdef0 \
    --ip-permissions 'IpProtocol=tcp,FromPort=3389,ToPort=3389,IpRanges=[{CidrIp=203.0.113.0/24,Description='RDP access from NY office'}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-0397bbcc01e974db3",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "tcp",
            "FromPort": 3389,
            "ToPort": 3389,
            "CidrIpv4": "203.0.113.0/24",
            "Description": "RDP access from NY office"
        }
    ]
}

Example 8: To add an inbound rule that uses a prefix list

The following authorize-security-group-ingress example uses the ip-permissions parameter to add an inbound rule that allows all traffic for the CIDR ranges in the specified prefix list.

aws ec2 authorize-security-group-ingress \
    --group-id sg-04a351bfe432d4e71 \
    --ip-permissions 'IpProtocol=all,PrefixListIds=[{PrefixListId=pl-002dc3ec097de1514}]'

Output:

{
    "Return": true,
    "SecurityGroupRules": [
        {
            "SecurityGroupRuleId": "sgr-09c74b32f677c6c7c",
            "GroupId": "sg-1234567890abcdef0",
            "GroupOwnerId": "123456789012",
            "IsEgress": false,
            "IpProtocol": "-1",
            "FromPort": -1,
            "ToPort": -1,
            "PrefixListId": "pl-0721453c7ac4ec009"
        }
    ]
}

For more information, see Security groups in the Amazon VPC User Guide.

To bundle an instance

This example bundles instance i-1234567890abcdef0 to a bucket called bundletasks. Before you specify values for your access key IDs, review and follow the guidance in Best Practices for Managing AWS Access Keys.

Command:

aws ec2 bundle-instance --instance-id i-1234567890abcdef0 --bucket bundletasks --prefix winami --owner-akid AK12AJEXAMPLE --owner-sak example123example

Output:

{
  "BundleTask": {
    "UpdateTime": "2015-09-15T13:30:35.000Z",
    "InstanceId": "i-1234567890abcdef0",
    "Storage": {
      "S3": {
        "Prefix": "winami",
        "Bucket": "bundletasks"
      }
    },
    "State": "pending",
    "StartTime": "2015-09-15T13:30:35.000Z",
    "BundleId": "bun-294e041f"
  }
}

To cancel a bundle task

This example cancels bundle task bun-2a4e041c.

Command:

aws ec2 cancel-bundle-task --bundle-id bun-2a4e041c

Output:

{
  "BundleTask": {
    "UpdateTime": "2015-09-15T13:27:40.000Z",
    "InstanceId": "i-1234567890abcdef0",
    "Storage": {
      "S3": {
        "Prefix": "winami",
        "Bucket": "bundletasks"
      }
    },
    "State": "cancelling",
    "StartTime": "2015-09-15T13:24:35.000Z",
    "BundleId": "bun-2a4e041c"
  }
}

To cancel a Capacity Reservation Fleet

The following cancel-capacity-reservation-fleets example cancels the specified Capacity Reservation Fleet and the capacity it reserves. When you cancel a Fleet, its status changes to cancelled, and it can no longer create new Capacity Reservations. Additionally, all of the individual Capacity Reservations in the Fleet are cancelled, and the instances that were previously running in the reserved capacity continue to run normally in shared capacity.

aws ec2 cancel-capacity-reservation-fleets \
    --capacity-reservation-fleet-ids crf-abcdef01234567890

Output:

{
    "SuccessfulFleetCancellations": [
        {
            "CurrentFleetState": "cancelling",
            "PreviousFleetState": "active",
            "CapacityReservationFleetId": "crf-abcdef01234567890"
        }
    ],
    "FailedFleetCancellations": []
}

For more information about Capacity Reservation Fleets, see Capacity Reservation Fleets in the Amazon EC2 User Guide.

To cancel a capacity reservation

The following cancel-capacity-reservation example cancels the specified capacity reservation.

aws ec2 cancel-capacity-reservation \
    --capacity-reservation-id cr-1234abcd56EXAMPLE

Output:

{
    "Return": true
}

For more information, see Cancel a Capacity Reservation in the Amazon EC2 User Guide.

To cancel an active conversion of an instance or a volume

This example cancels the upload associated with the task ID import-i-fh95npoc. If the command succeeds, no output is returned.

Command:

aws ec2 cancel-conversion-task --conversion-task-id import-i-fh95npoc

To cancel an active export task

This example cancels an active export task with the task ID export-i-fgelt0i7. If the command succeeds, no output is returned.

Command:

aws ec2 cancel-export-task --export-task-id export-i-fgelt0i7

To cancel having an AMI shared with your Amazon Web Services account

The following cancel-image-launch-permission example removes your account from the specified AMI's launch permissions.

aws ec2 cancel-image-launch-permission \
    --image-id ami-0123456789example \
    --region us-east-1

Output:

{
    "Return": true
}

For more information, see Cancel having an AMI shared with your Amazon Web Services account in the Amazon EC2 User Guide.

To cancel an import task

The following cancel-import-task example cancels the specified import image task.

aws ec2 cancel-import-task \
    --import-task-id import-ami-1234567890abcdef0

Output:

{
    "ImportTaskId": "import-ami-1234567890abcdef0",
    "PreviousState": "active",
    "State": "deleting"
}

To cancel a Reserved Instance listing

The following cancel-reserved-instances-listing example cancels the specified Reserved Instance listing.

aws ec2 cancel-reserved-instances-listing \
    --reserved-instances-listing-id 5ec28771-05ff-4b9b-aa31-9e57dexample

Example 1: To cancel a Spot fleet request and terminate the associated instances

The following cancel-spot-fleet-requests example cancels a Spot Fleet request and terminates the associated On-Demand Instances and Spot Instances.

aws ec2 cancel-spot-fleet-requests \
    --spot-fleet-request-ids sfr-73fbd2ce-aa30-494c-8788-1cee4EXAMPLE \
    --terminate-instances

Output:

{
    "SuccessfulFleetRequests": [
        {
            "SpotFleetRequestId": "sfr-73fbd2ce-aa30-494c-8788-1cee4EXAMPLE",
            "CurrentSpotFleetRequestState": "cancelled_terminating",
            "PreviousSpotFleetRequestState": "active"
        }
    ],
    "UnsuccessfulFleetRequests": []
}

Example 2: To cancel a Spot fleet request without terminating the associated instances

The following cancel-spot-fleet-requests example cancels a Spot Fleet request without terminating the associated On-Demand Instances and Spot Instances.

aws ec2 cancel-spot-fleet-requests \
    --spot-fleet-request-ids sfr-73fbd2ce-aa30-494c-8788-1cee4EXAMPLE \
    --no-terminate-instances

Output:

{
    "SuccessfulFleetRequests": [
        {
            "SpotFleetRequestId": "sfr-73fbd2ce-aa30-494c-8788-1cee4EXAMPLE",
            "CurrentSpotFleetRequestState": "cancelled_running",
            "PreviousSpotFleetRequestState": "active"
        }
    ],
    "UnsuccessfulFleetRequests": []
}

For more information, see Cancel a Spot Fleet request in the Amazon EC2 User Guide.

To cancel Spot Instance requests

This example command cancels a Spot Instance request.

Command:

aws ec2 cancel-spot-instance-requests --spot-instance-request-ids sir-08b93456

Output:

{
    "CancelledSpotInstanceRequests": [
        {
            "State": "cancelled",
            "SpotInstanceRequestId": "sir-08b93456"
        }
    ]
}

To confirm the product instance

This example determines whether the specified product code is associated with the specified instance.

Command:

aws ec2 confirm-product-instance --product-code 774F4FF8 --instance-id i-1234567890abcdef0

Output:

{
  "OwnerId": "123456789012"
}

To copy an Amazon FPGA image

This example copies the specified AFI from the us-east-1 region to the current region (eu-west-1).

Command:

aws ec2 copy-fpga-image --name copy-afi --source-fpga-image-id afi-0d123e123bfc85abc --source-region us-east-1 --region eu-west-1

Output:

{
  "FpgaImageId": "afi-06b12350a123fbabc"
}

Example 1: To copy an AMI to another Region

The following copy-image example command copies the specified AMI from the us-west-2 Region to the us-east-1 Region and adds a short description.

aws ec2 copy-image \
    --region us-east-1 \
    --name ami-name \
    --source-region us-west-2 \
    --source-image-id ami-066877671789bd71b \
    --description "This is my copied image."

Output:

{
    "ImageId": "ami-0123456789abcdefg"
}

For more information, see Copy an AMI in the Amazon EC2 User Guide.

Example 2: To copy an AMI to another Region and encrypt the backing snapshot

The following copy-image command copies the specified AMI from the us-west-2 Region to the current Region and encrypts the backing snapshot using the specified KMS key.

aws ec2 copy-image \
    --source-region us-west-2 \
    --name ami-name \
    --source-image-id ami-066877671789bd71b \
    --encrypted \
    --kms-key-id alias/my-kms-key

Output:

{
    "ImageId": "ami-0123456789abcdefg"
}

For more information, see Copy an AMI in the Amazon EC2 User Guide.

Example 3: To include your user-defined AMI tags when copying an AMI

The following copy-image command uses the --copy-image-tags parameter to copy your user-defined AMI tags when copying the AMI.

aws ec2 copy-image \
    --region us-east-1 \
    --name ami-name \
    --source-region us-west-2 \
    --source-image-id ami-066877671789bd71b \
    --description "This is my copied image."
    --copy-image-tags

Output:

{
    "ImageId": "ami-0123456789abcdefg"
}

For more information, see Copy an AMI in the Amazon EC2 User Guide.

Example 1: To copy a snapshot to another Region

The following copy-snapshot example command copies the specified snapshot from the us-west-2 Region to the us-east-1 Region and adds a short description.

aws ec2 copy-snapshot \
    --region us-east-1 \
    --source-region us-west-2 \
    --source-snapshot-id snap-066877671789bd71b \
    --description 'This is my copied snapshot.'

Output:

{
    "SnapshotId": "snap-066877671789bd71b"
}

Example 2: To copy an unencrypted snapshot and encrypt the new snapshot

The following copy-snapshot command copies the specified unencrypted snapshot from the us-west-2 Region to the current Region and encrypts the new snapshot using the specified KMS key.

aws ec2 copy-snapshot \
    --source-region us-west-2 \
    --source-snapshot-id snap-066877671789bd71b \
    --encrypted \
    --kms-key-id alias/my-kms-key

Output:

{
    "SnapshotId": "snap-066877671789bd71b"
}

For more information, see Copy an Amazon EBS snapshot in the Amazon EBS User Guide.

To create a Capacity Reservation Fleet

The following create-capacity-reservation-fleet example creates a Capacity Reservation Fleet for the instance type specified in the request, up to the specified total target capacity. The number of instances for which the Capacity Reservation Fleet reserves capacity depends on the total target capacity and instance type weights that you specify in the request. Specify the instance types to use and a priority for each of the designated instance types.

aws ec2 create-capacity-reservation-fleet \
--total-target-capacity 24 \
--allocation-strategy prioritized \
--instance-match-criteria open \
--tenancy default \
--end-date 2022-12-31T23:59:59.000Z \
--instance-type-specifications file://instanceTypeSpecification.json

Contents of instanceTypeSpecification.json:

[
    {
        "InstanceType": "m5.xlarge",
        "InstancePlatform": "Linux/UNIX",
        "Weight": 3.0,
        "AvailabilityZone":"us-east-1a",
        "EbsOptimized": true,
        "Priority" : 1
    }
]

Output:

{
    "Status": "submitted",
    "TotalFulfilledCapacity": 0.0,
    "CapacityReservationFleetId": "crf-abcdef01234567890",
    "TotalTargetCapacity": 24
}

For more information about Capacity Reservation Fleets, see Capacity Reservation Fleets in the Amazon EC2 User Guide.

For more information about instance type weight and total target capacity, see Instance type weight and Total target capacity in the Amazon EC2 User Guide.

For more information about designating priority for specified instance types, see Allocation strategy and Instance type priority in the Amazon EC2 User Guide.

Example 1: To create a Capacity Reservation

The following create-capacity-reservation example creates a capacity reservation in the eu-west-1a Availability Zone, into which you can launch three t2.medium instances running a Linux/Unix operating system. By default, the capacity reservation is created with open instance matching criteria and no support for ephemeral storage, and it remains active until you manually cancel it.

aws ec2 create-capacity-reservation \
    --availability-zone eu-west-1a \
    --instance-type t2.medium \
    --instance-platform Linux/UNIX \
    --instance-count 3

Output:

{
    "CapacityReservation": {
        "CapacityReservationId": "cr-1234abcd56EXAMPLE ",
        "EndDateType": "unlimited",
        "AvailabilityZone": "eu-west-1a",
        "InstanceMatchCriteria": "open",
        "EphemeralStorage": false,
        "CreateDate": "2019-08-16T09:27:35.000Z",
        "AvailableInstanceCount": 3,
        "InstancePlatform": "Linux/UNIX",
        "TotalInstanceCount": 3,
        "State": "active",
        "Tenancy": "default",
        "EbsOptimized": false,
        "InstanceType": "t2.medium"
    }
}

Example 2: To create a Capacity Reservation that automatically ends at a specified date/time

The following create-capacity-reservation example creates a capacity reservation in the eu-west-1a Availability Zone, into which you can launch three m5.large instances running a Linux/Unix operating system. This capacity reservation automatically ends on 08/31/2019 at 23:59:59.

aws ec2 create-capacity-reservation \
    --availability-zone eu-west-1a \
    --instance-type m5.large \
    --instance-platform Linux/UNIX \
    --instance-count 3 \
    --end-date-type limited \
    --end-date 2019-08-31T23:59:59Z

Output:

{
    "CapacityReservation": {
        "CapacityReservationId": "cr-1234abcd56EXAMPLE ",
        "EndDateType": "limited",
        "AvailabilityZone": "eu-west-1a",
        "EndDate": "2019-08-31T23:59:59.000Z",
        "InstanceMatchCriteria": "open",
        "EphemeralStorage": false,
        "CreateDate": "2019-08-16T10:15:53.000Z",
        "AvailableInstanceCount": 3,
        "InstancePlatform": "Linux/UNIX",
        "TotalInstanceCount": 3,
        "State": "active",
        "Tenancy": "default",
        "EbsOptimized": false,
        "InstanceType": "m5.large"
    }
}

Example 3: To create a Capacity Reservation that accepts only targeted instance launches

The following create-capacity-reservation example creates a capacity reservation that accepts only targeted instance launches.

aws ec2 create-capacity-reservation \
    --availability-zone eu-west-1a \
    --instance-type m5.large \
    --instance-platform Linux/UNIX \
    --instance-count 3 \
    --instance-match-criteria targeted

Output:

{
    "CapacityReservation": {
        "CapacityReservationId": "cr-1234abcd56EXAMPLE ",
        "EndDateType": "unlimited",
        "AvailabilityZone": "eu-west-1a",
        "InstanceMatchCriteria": "targeted",
        "EphemeralStorage": false,
        "CreateDate": "2019-08-16T10:21:57.000Z",
        "AvailableInstanceCount": 3,
        "InstancePlatform": "Linux/UNIX",
        "TotalInstanceCount": 3,
        "State": "active",
        "Tenancy": "default",
        "EbsOptimized": false,
        "InstanceType": "m5.large"
    }
}

For more information, see Create a Capacity Reservation in the Amazon EC2 User Guide.

To create a carrier gateway

The following create-carrier-gateway example creates a carrier gateway for the specified VPC.

aws ec2 create-carrier-gateway \
    --vpc-id vpc-0c529aEXAMPLE1111

Output:

{
    "CarrierGateway": {
        "CarrierGatewayId": "cagw-0465cdEXAMPLE1111",
        "VpcId": "vpc-0c529aEXAMPLE1111",
        "State": "pending",
        "OwnerId": "123456789012"
    }
}

For more information, see Carrier gateways in the AWS Wavelength User Guide.

To create a Client VPN endpoint

The following create-client-vpn-endpoint example creates a Client VPN endpoint that uses mutual authentication and specifies a value for the client CIDR block.

aws ec2 create-client-vpn-endpoint \
    --client-cidr-block "172.31.0.0/16" \
    --server-certificate-arn arn:aws:acm:ap-south-1:123456789012:certificate/a1b2c3d4-5678-90ab-cdef-11111EXAMPLE \
    --authentication-options Type=certificate-authentication,MutualAuthentication={ClientRootCertificateChainArn=arn:aws:acm:ap-south-1:123456789012:certificate/a1b2c3d4-5678-90ab-cdef-22222EXAMPLE} \
    --connection-log-options Enabled=false

Output:

{
    "ClientVpnEndpointId": "cvpn-endpoint-123456789123abcde",
    "Status": {
        "Code": "pending-associate"
    },
    "DnsName": "cvpn-endpoint-123456789123abcde.prod.clientvpn.ap-south-1.amazonaws.com"
}

For more information, see Client VPN Endpoints in the AWS Client VPN Administrator Guide.

To create a route for a Client VPN endpoint

The following create-client-vpn-route example adds a route to the internet (0.0.0.0/0) for the specified subnet of the Client VPN endpoint.

aws ec2 create-client-vpn-route \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde \
    --destination-cidr-block 0.0.0.0/0  \
    --target-vpc-subnet-id subnet-0123456789abcabca

Output:

{
    "Status": {
        "Code": "creating"
    }
}

For more information, see Routes in the AWS Client VPN Administrator Guide.

To create a range of customer-owned IP (CoIP) addresses

The following create-coip-cidr example creates the specified range of CoIP addresses in the specified CoIP pool.

aws ec2 create-coip-cidr \
    --cidr 15.0.0.0/24 \
    --coip-pool-id ipv4pool-coip-1234567890abcdefg

Output:

{
    "CoipCidr": {
        "Cidr": "15.0.0.0/24",
        "CoipPoolId": "ipv4pool-coip-1234567890abcdefg",
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890"
    }
}

For more information, see Customer-owned IP addresses in the AWS Outposts User Guide.

To create a pool of customer-owned IP (CoIP) addresses

The following create-coip-pool example creates a CoIP pool for CoIP addresses in the specified local gateway route table.

aws ec2 create-coip-pool \
    --local-gateway-route-table-id lgw-rtb-abcdefg1234567890

Output:

{
    "CoipPool": {
        "PoolId": "ipv4pool-coip-1234567890abcdefg",
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890",
        "PoolArn": "arn:aws:ec2:us-west-2:123456789012:coip-pool/ipv4pool-coip-1234567890abcdefg"
    }
}

For more information, see Customer-owned IP addresses in the AWS Outposts User Guide.

To create a customer gateway

This example creates a customer gateway with the specified IP address for its outside interface.

Command:

aws ec2 create-customer-gateway --type ipsec.1 --public-ip 12.1.2.3 --bgp-asn 65534

Output:

{
    "CustomerGateway": {
        "CustomerGatewayId": "cgw-0e11f167",
        "IpAddress": "12.1.2.3",
        "State": "available",
        "Type": "ipsec.1",
        "BgpAsn": "65534"
    }
}

To create a default subnet

This example creates a default subnet in Availability Zone us-east-2a.

Command:

 aws ec2 create-default-subnet --availability-zone us-east-2a

{
   "Subnet": {
       "AvailabilityZone": "us-east-2a",
       "Tags": [],
       "AvailableIpAddressCount": 4091,
       "DefaultForAz": true,
       "Ipv6CidrBlockAssociationSet": [],
       "VpcId": "vpc-1a2b3c4d",
       "State": "available",
       "MapPublicIpOnLaunch": true,
       "SubnetId": "subnet-1122aabb",
       "CidrBlock": "172.31.32.0/20",
       "AssignIpv6AddressOnCreation": false
   }
 }

To create a default VPC

This example creates a default VPC.

Command:

aws ec2 create-default-vpc

Output:

{
   "Vpc": {
       "VpcId": "vpc-8eaae5ea",
       "InstanceTenancy": "default",
       "Tags": [],
       "Ipv6CidrBlockAssociationSet": [],
       "State": "pending",
       "DhcpOptionsId": "dopt-af0c32c6",
       "CidrBlock": "172.31.0.0/16",
       "IsDefault": true
   }
 }

To create a set of DHCP options

The following create-dhcp-options example creates a set of DHCP options that specifies the domain name, the domain name servers, and the NetBIOS node type.

aws ec2 create-dhcp-options \
    --dhcp-configuration \
        "Key=domain-name-servers,Values=10.2.5.1,10.2.5.2" \
        "Key=domain-name,Values=example.com" \
        "Key=netbios-node-type,Values=2"

Output:

{
    "DhcpOptions": {
        "DhcpConfigurations": [
            {
                "Key": "domain-name",
                "Values": [
                    {
                        "Value": "example.com"
                    }
                ]
            },
            {
                "Key": "domain-name-servers",
                "Values": [
                    {
                        "Value": "10.2.5.1"
                    },
                    {
                        "Value": "10.2.5.2"
                    }
                ]
            },
            {
                "Key": "netbios-node-type",
                "Values": [
                    {
                        "Value": "2"
                    }
                ]
            }
        ],
        "DhcpOptionsId": "dopt-06d52773eff4c55f3"
    }
}

To create an egress-only Internet gateway

This example creates an egress-only Internet gateway for the specified VPC.

Command:

aws ec2 create-egress-only-internet-gateway --vpc-id vpc-0c62a468

Output:

{
  "EgressOnlyInternetGateway": {
      "EgressOnlyInternetGatewayId": "eigw-015e0e244e24dfe8a",
      "Attachments": [
          {
              "State": "attached",
              "VpcId": "vpc-0c62a468"
          }
      ]
  }
}

Example 1: To create an EC2 Fleet that launches Spot Instances as the default purchasing model

The following create-fleet example creates an EC2 Fleet using the minimum parameters required to launch a fleet: a launch template, target capacity, and default purchasing model. The launch template is identified by its launch template ID and version number. The target capacity for the fleet is 2 instances, and the default purchasing model is spot, which results in the fleet launching 2 Spot Instances.

When you create an EC2 Fleet, use a JSON file to specify information about the instances to launch.

aws ec2 create-fleet \
    --cli-input-json file://file_name.json

Contents of file_name.json:

{
    "LaunchTemplateConfigs": [
    {
        "LaunchTemplateSpecification": {
        "LaunchTemplateId": "lt-0e8c754449b27161c",
        "Version": "1"
        }
    }
    ],
    "TargetCapacitySpecification": {
        "TotalTargetCapacity": 2,
        "DefaultTargetCapacityType": "spot"
    }
}

Output:

{
    "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
}

Example 2: To create an EC2 Fleet that launches On-Demand Instances as the default purchasing model

The following create-fleet example creates an EC2 Fleet using the minimum parameters required to launch a fleet: a launch template, target capacity, and default purchasing model. The launch template is identified by its launch template ID and version number. The target capacity for the fleet is 2 instances, and the default purchasing model is on-demand, which results in the fleet launching 2 On-Demand Instances.

When you create an EC2 Fleet, use a JSON file to specify information about the instances to launch.

aws ec2 create-fleet \
    --cli-input-json file://file_name.json

Contents of file_name.json:

{
    "LaunchTemplateConfigs": [
    {
        "LaunchTemplateSpecification": {
        "LaunchTemplateId": "lt-0e8c754449b27161c",
        "Version": "1"
        }
    }
    ],
    "TargetCapacitySpecification": {
    "TotalTargetCapacity": 2,
    "DefaultTargetCapacityType": "on-demand"
    }
}

Output:

{
    "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
}

Example 3: To create an EC2 Fleet that launches On-Demand Instances as the primary capacity

The following create-fleet example creates an EC2 Fleet that specifies the total target capacity of 2 instances for the fleet, and a target capacity of 1 On-Demand Instance. The default purchasing model is spot. The fleet launches 1 On-Demand Instance as specified, but needs to launch one more instance to fulfil the total target capacity. The purchasing model for the difference is calculated as TotalTargetCapacity - OnDemandTargetCapacity = DefaultTargetCapacityType, which results in the fleet launching 1 Spot Instance.

When you create an EC2 Fleet, use a JSON file to specify information about the instances to launch.

aws ec2 create-fleet \
    --cli-input-json file://file_name.json

Contents of file_name.json:

{
    "LaunchTemplateConfigs": [
    {
        "LaunchTemplateSpecification": {
        "LaunchTemplateId": "lt-0e8c754449b27161c",
        "Version": "1"
        }
    }
    ],
    "TargetCapacitySpecification": {
        "TotalTargetCapacity": 2,
        "OnDemandTargetCapacity":1,
        "DefaultTargetCapacityType": "spot"
    }
}

Output:

{
    "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
}

Example 4: To create an EC2 Fleet that launches Spot Instances using the lowest-price allocation strategy

If the allocation strategy for Spot Instances is not specified, the default allocation strategy, which is lowest-price, is used. The following create-fleet example creates an EC2 Fleet using the lowest-price allocation strategy. The three launch specifications, which override the launch template, have different instance types but the same weighted capacity and subnet. The total target capacity is 2 instances and the default purchasing model is spot. The EC2 Fleet launches 2 Spot Instances using the instance type of the launch specification with the lowest price.

When you create an EC2 Fleet, use a JSON file to specify information about the instances to launch.

aws ec2 create-fleet \
    --cli-input-json file://file_name.jsonContents of file_name.json::

{
    "LaunchTemplateConfigs": [
    {
        "LaunchTemplateSpecification": {
        "LaunchTemplateId": "lt-0e8c754449b27161c",
        "Version": "1"
        },
        "Overrides": [
            {
                "InstanceType": "c4.large",
                "WeightedCapacity": 1,
                "SubnetId": "subnet-a4f6c5d3"
            },
            {
                "InstanceType": "c3.large",
                "WeightedCapacity": 1,
                "SubnetId": "subnet-a4f6c5d3"
            },
            {
                "InstanceType": "c5.large",
                "WeightedCapacity": 1,
                "SubnetId": "subnet-a4f6c5d3"
            }
        ]
    }
    ],
    "TargetCapacitySpecification": {
        "TotalTargetCapacity": 2,
        "DefaultTargetCapacityType": "spot"
    }
}

Output:

{
    "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
}

Example 1: To create a flow log

The following create-flow-logs example creates a flow log that captures all rejected traffic for the specified network interface. The flow logs are delivered to a log group in CloudWatch Logs using the permissions in the specified IAM role.

aws ec2 create-flow-logs \
    --resource-type NetworkInterface \
    --resource-ids eni-11223344556677889 \
    --traffic-type REJECT \
    --log-group-name my-flow-logs \
    --deliver-logs-permission-arn arn:aws:iam::123456789101:role/publishFlowLogs

Output:

{
    "ClientToken": "so0eNA2uSHUNlHI0S2cJ305GuIX1CezaRdGtexample",
    "FlowLogIds": [
        "fl-12345678901234567"
    ],
    "Unsuccessful": []
}

For more information, see VPC Flow Logs in the Amazon VPC User Guide.

Example 2: To create a flow log with a custom format

The following create-flow-logs example creates a flow log that captures all traffic for the specified VPC and delivers the flow logs to an Amazon S3 bucket. The --log-format parameter specifies a custom format for the flow log records. To run this command on Windows, change the single quotes (') to double quotes (").

aws ec2 create-flow-logs \
    --resource-type VPC \
    --resource-ids vpc-00112233344556677 \
    --traffic-type ALL \
    --log-destination-type s3 \
    --log-destination arn:aws:s3:::flow-log-bucket/my-custom-flow-logs/ \
    --log-format '${version} ${vpc-id} ${subnet-id} ${instance-id} ${srcaddr} ${dstaddr} ${srcport} ${dstport} ${protocol} ${tcp-flags} ${type} ${pkt-srcaddr} ${pkt-dstaddr}'

For more information, see VPC Flow Logs in the Amazon VPC User Guide.

Example 3: To create a flow log with a one-minute maximum aggregation interval

The following create-flow-logs example creates a flow log that captures all traffic for the specified VPC and delivers the flow logs to an Amazon S3 bucket. The --max-aggregation-interval parameter specifies a maximum aggregation interval of 60 seconds (1 minute).

aws ec2 create-flow-logs \
    --resource-type VPC \
    --resource-ids vpc-00112233344556677 \
    --traffic-type ALL \
    --log-destination-type s3 \
    --log-destination arn:aws:s3:::flow-log-bucket/my-custom-flow-logs/ \
    --max-aggregation-interval 60

For more information, see VPC Flow Logs in the Amazon VPC User Guide.

To create an Amazon FPGA image

This example creates an AFI from the specified tarball in the specified bucket.

Command:

aws ec2 create-fpga-image --name my-afi --description test-afi --input-storage-location Bucket=my-fpga-bucket,Key=dcp/17_12_22-103226.Developer_CL.tar --logs-storage-location Bucket=my-fpga-bucket,Key=logs

Output:

{
  "FpgaImageId": "afi-0d123e123bfc85abc",
  "FpgaImageGlobalId": "agfi-123cb27b5e84a0abc"
}

Example 1: To create an AMI from an Amazon EBS-backed instance

The following create-image example creates an AMI from the specified instance.

aws ec2 create-image \
    --instance-id i-1234567890abcdef0 \
    --name "My server" \
    --description "An AMI for my server"

Output:

{
    "ImageId": "ami-abcdef01234567890"
}

For more information about specifying a block device mapping for your AMI, see Specifying a block device mapping for an AMI in the Amazon EC2 User Guide.

Example 2: To create an AMI from an Amazon EBS-backed instance without reboot

The following create-image example creates an AMI and sets the --no-reboot parameter, so that the instance is not rebooted before the image is created.

aws ec2 create-image \
    --instance-id i-1234567890abcdef0 \
    --name "My server" \
    --no-reboot

Output:

{
    "ImageId": "ami-abcdef01234567890"
}

For more information about specifying a block device mapping for your AMI, see Specifying a block device mapping for an AMI in the Amazon EC2 User Guide.

Example 3: To tag an AMI and snapshots on creation

The following create-image example creates an AMI, and tags the AMI and the snapshots with the same tag cost-center=cc123

aws ec2 create-image \
    --instance-id i-1234567890abcdef0 \
    --name "My server" \
    --tag-specifications "ResourceType=image,Tags=[{Key=cost-center,Value=cc123}]" "ResourceType=snapshot,Tags=[{Key=cost-center,Value=cc123}]"

Output:

{
    "ImageId": "ami-abcdef01234567890"
}

For more information about tagging your resources on creation, see Add tags on resource creation in the Amazon EC2 User Guide.

To create an EC2 Instance Connect Endpoint

The following create-instance-connect-endpoint example creates an EC2 Instance Connect Endpoint in the specified subnet.

aws ec2 create-instance-connect-endpoint \
    --region us-east-1 \
    --subnet-id subnet-0123456789example

Output:

{
    "VpcId": "vpc-0123abcd",
    "InstanceConnectEndpointArn": "arn:aws:ec2:us-east-1:111111111111:instance-connect-endpoint/eice-0123456789example",
    "AvailabilityZone": "us-east-1a",
    "NetworkInterfaceIds": [
        "eni-0123abcd"
    ],
    "PreserveClientIp": true,
    "Tags": [],
    "FipsDnsName": "eice-0123456789example.0123abcd.fips.ec2-instance-connect-endpoint.us-east-1.amazonaws.com",
    "StateMessage": "",
    "State": "create-complete",
    "DnsName": "eice-0123456789example.0123abcd.ec2-instance-connect-endpoint.us-east-1.amazonaws.com",
    "SubnetId": "subnet-0123abcd",
    "OwnerId": "111111111111",
    "SecurityGroupIds": [
        "sg-0123abcd"
    ],
    "InstanceConnectEndpointId": "eice-0123456789example",
    "CreatedAt": "2023-04-07T15:43:53.000Z"
}

For more information, see Create an EC2 Instance Connect Endpoint in the Amazon EC2 User Guide.

Example 1: To create an event window with a time range

The following create-instance-event-window example creates an event window with a time range. You can't also specify the cron-expression parameter.

aws ec2 create-instance-event-window \
    --region us-east-1 \
    --time-range StartWeekDay=monday,StartHour=2,EndWeekDay=wednesday,EndHour=8 \
    --tag-specifications "ResourceType=instance-event-window,Tags=[{Key=K1,Value=V1}]" \
    --name myEventWindowName

Output:

{
    "InstanceEventWindow": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "TimeRanges": [
            {
                "StartWeekDay": "monday",
                "StartHour": 2,
                "EndWeekDay": "wednesday",
                "EndHour": 8
            }
        ],
        "Name": "myEventWindowName",
        "State": "creating",
        "Tags": [
            {
                "Key": "K1",
                "Value": "V1"
            }
        ]
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

Example 2: To create an event window with a cron expression

The following create-instance-event-window example creates an event window with a cron expression. You can't also specify the time-range parameter.

aws ec2 create-instance-event-window \
    --region us-east-1 \
    --cron-expression "* 21-23 * * 2,3" \
    --tag-specifications "ResourceType=instance-event-window,Tags=[{Key=K1,Value=V1}]" \
    --name myEventWindowName

Output:

{
    "InstanceEventWindow": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "Name": "myEventWindowName",
        "CronExpression": "* 21-23 * * 2,3",
        "State": "creating",
        "Tags": [
            {
                "Key": "K1",
                "Value": "V1"
            }
        ]
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

To export an instance

This example command creates a task to export the instance i-1234567890abcdef0 to the Amazon S3 bucket myexportbucket.

Command:

aws ec2 create-instance-export-task --description "RHEL5 instance" --instance-id i-1234567890abcdef0 --target-environment vmware --export-to-s3-task DiskImageFormat=vmdk,ContainerFormat=ova,S3Bucket=myexportbucket,S3Prefix=RHEL5

Output:

{
    "ExportTask": {
        "State": "active",
        "InstanceExportDetails": {
            "InstanceId": "i-1234567890abcdef0",
            "TargetEnvironment": "vmware"
        },
        "ExportToS3Task": {
            "S3Bucket": "myexportbucket",
            "S3Key": "RHEL5export-i-fh8sjjsq.ova",
            "DiskImageFormat": "vmdk",
            "ContainerFormat": "ova"
        },
        "Description": "RHEL5 instance",
        "ExportTaskId": "export-i-fh8sjjsq"
    }
}

To create an internet gateway

The following create-internet-gateway example creates an internet gateway with the tag Name=my-igw.

aws ec2 create-internet-gateway \
    --tag-specifications ResourceType=internet-gateway,Tags=[{Key=Name,Value=my-igw}]

Output:

{
    "InternetGateway": {
        "Attachments": [],
        "InternetGatewayId": "igw-0d0fb496b3994d755",
        "OwnerId": "123456789012",
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-igw"
            }
        ]
    }
}

For more information, see Internet gateways in the Amazon VPC User Guide.

To create an IPAM pool

The following create-ipam-pool example creates an IPAM pool.

(Linux):

aws ec2 create-ipam-pool \
    --ipam-scope-id ipam-scope-02fc38cd4c48e7d38 \
    --address-family ipv4 \
    --auto-import \
    --allocation-min-netmask-length 16 \
    --allocation-max-netmask-length 26 \
    --allocation-default-netmask-length 24 \
    --allocation-resource-tags "Key=Environment,Value=Preprod" \
    --tag-specifications 'ResourceType=ipam-pool,Tags=[{Key=Name,Value="Preprod pool"}]'

(Windows):

aws ec2 create-ipam-pool ^
    --ipam-scope-id ipam-scope-02fc38cd4c48e7d38 ^
    --address-family ipv4 ^
    --auto-import ^
    --allocation-min-netmask-length 16 ^
    --allocation-max-netmask-length 26 ^
    --allocation-default-netmask-length 24 ^
    --allocation-resource-tags "Key=Environment,Value=Preprod" ^
    --tag-specifications ResourceType=ipam-pool,Tags=[{Key=Name,Value="Preprod pool"}]

Output:

{
    "IpamPool": {
        "OwnerId": "123456789012",
        "IpamPoolId": "ipam-pool-0533048da7d823723",
        "IpamPoolArn": "arn:aws:ec2::123456789012:ipam-pool/ipam-pool-0533048da7d823723",
        "IpamScopeArn": "arn:aws:ec2::123456789012:ipam-scope/ipam-scope-02fc38cd4c48e7d38",
        "IpamScopeType": "private",
        "IpamArn": "arn:aws:ec2::123456789012:ipam/ipam-08440e7a3acde3908",
        "IpamRegion": "us-east-1",
        "Locale": "None",
        "PoolDepth": 1,
        "State": "create-in-progress",
        "AutoImport": true,
        "AddressFamily": "ipv4",
        "AllocationMinNetmaskLength": 16,
        "AllocationMaxNetmaskLength": 26,
        "AllocationDefaultNetmaskLength": 24,
        "AllocationResourceTags": [
            {
                "Key": "Environment",
                "Value": "Preprod"
            }
        ],
        "Tags": [
            {
                "Key": "Name",
                "Value": "Preprod pool"
            }
        ]
    }
}

For more information, see Plan for IP address provisioning in the Amazon VPC IPAM User Guide.

To create a resource discovery

In this example, you're a delegated IPAM admin who wants to create and share a resource discovery with the IPAM admin in another AWS Organization so that the admin in the other organization can manage and monitor the IP addresses of resources in your organization.

Important

This example includes both the --region and --operating-regions options because, while they are optional, they must be configured in a particular way to successfully integrate a resource discovery with an IPAM. * --operating-regions must match the Regions where you have resources that you want IPAM to discover. If there are Regions where you do not want IPAM to manage the IP addresses (for example for compliance reasons), do not include them. * --region must match the home Region of the IPAM you want to associate it with. You must create the resource discovery in the same Region that the IPAM was created in. For example, if the IPAM you are associating with was created in us-east-1, include --region us-east-1 in the request.Both the --region and --operating-regions options default to the Region you're running the command in if you don't specify them.

In this example, the operating Regions of the IPAM we're integrating with include us-west-1, us-west-2, and ap-south-1. When we create the resource discovery, we want IPAM to discover the resource IP addresses in us-west-1 and us-west-2 but not ap-south-1. So we are including only --operating-regions RegionName='us-west-1' RegionName='us-west-2' in the request.

The following create-ipam-resource-discovery example creates an IPAM resource discovery.

aws ec2 create-ipam-resource-discovery \
    --description 'Example-resource-discovery' \
    --tag-specifications 'ResourceType=ipam-resource-discovery,Tags=[{Key=cost-center,Value=cc123}]' \
    --operating-regions RegionName='us-west-1' RegionName='us-west-2' \
    --region us-east-1

Output:

{
    "IpamResourceDiscovery":{
        "OwnerId": "149977607591",
        "IpamResourceDiscoveryId": "ipam-res-disco-0257046d8aa78b8bc",
        "IpamResourceDiscoveryArn": "arn:aws:ec2::149977607591:ipam-resource-discovery/ipam-res-disco-0257046d8aa78b8bc",
        "IpamResourceDiscoveryRegion": "us-east-1",
        "Description": "'Example-resource-discovery'",
        "OperatingRegions":[
            {"RegionName": "us-west-1"},
            {"RegionName": "us-west-2"},
            {"RegionName": "us-east-1"}
        ],
        "IsDefault": false,
        "State": "create-in-progress",
        "Tags": [
            {
                "Key": "cost-center",
                "Value": "cc123"
            }
        ]
}

Once you create a resource discovery, you may want to share it with another IPAM delegated admin, which you can do with create-resource-share. For more information, see Integrate IPAM with accounts outside of your organization in the Amazon VPC IPAM User Guide.

To create an IPAM scope

The following create-ipam-scope example creates an IPAM scope.

(Linux):

aws ec2 create-ipam-scope \
    --ipam-id ipam-08440e7a3acde3908 \
    --description "Example description" \
    --tag-specifications 'ResourceType=ipam-scope,Tags=[{Key=Name,Value="Example name value"}]'

(Windows):

aws ec2 create-ipam-scope ^
    --ipam-id ipam-08440e7a3acde3908 ^
    --description "Example description" ^
    --tag-specifications ResourceType=ipam-scope,Tags=[{Key=Name,Value="Example name value"}]

Output:

{
    "IpamScope": {
        "OwnerId": "123456789012",
        "IpamScopeId": "ipam-scope-01c1ebab2b63bd7e4",
        "IpamScopeArn": "arn:aws:ec2::123456789012:ipam-scope/ipam-scope-01c1ebab2b63bd7e4",
        "IpamArn": "arn:aws:ec2::123456789012:ipam/ipam-08440e7a3acde3908",
        "IpamRegion": "us-east-1",
        "IpamScopeType": "private",
        "IsDefault": false,
        "Description": "Example description",
        "PoolCount": 0,
        "State": "create-in-progress",
        "Tags": [
            {
                "Key": "Name",
                "Value": "Example name value"
            }
        ]
    }
}

For more information, see Create additional scopes in the Amazon VPC IPAM User Guide.

To create an IPAM

The following create-ipam example creates an IPAM.

(Linux):

aws ec2 create-ipam \
    --description "Example description" \
    --operating-regions "RegionName=us-east-2" "RegionName=us-west-1" \
    --tag-specifications 'ResourceType=ipam,Tags=[{Key=Name,Value=ExampleIPAM}]'

(Windows):

aws ec2 create-ipam ^
    --description "Example description" ^
    --operating-regions "RegionName=us-east-2" "RegionName=us-west-1" ^
    --tag-specifications ResourceType=ipam,Tags=[{Key=Name,Value=ExampleIPAM}]

Output:

{
    "Ipam": {
        "OwnerId": "123456789012",
        "IpamId": "ipam-036486dfa6af58ee0",
        "IpamArn": "arn:aws:ec2::123456789012:ipam/ipam-036486dfa6af58ee0",
        "IpamRegion": "us-east-1",
        "PublicDefaultScopeId": "ipam-scope-071b8042b0195c183",
        "PrivateDefaultScopeId": "ipam-scope-0807405dece705a30",
        "ScopeCount": 2,
        "OperatingRegions": [
            {
                "RegionName": "us-east-2"
            },
            {
                "RegionName": "us-west-1"
            },
            {
                "RegionName": "us-east-1"
            }
        ],
        "State": "create-in-progress",
        "Tags": [
            {
                "Key": "Name",
                "Value": "ExampleIPAM"
            }
        ]
    }
}

For more information, see Create an IPAM in the Amazon VPC IPAM User Guide.

To create a key pair

This example creates a key pair named MyKeyPair.

Command:

aws ec2 create-key-pair --key-name MyKeyPair

The output is an ASCII version of the private key and key fingerprint. You need to save the key to a file.

For more information, see Using Key Pairs in the AWS Command Line Interface User Guide.

To create a launch template version

This example creates a new launch template version based on version 1 of the launch template and specifies a different AMI ID.

Command:

aws ec2 create-launch-template-version --launch-template-id lt-0abcd290751193123 --version-description WebVersion2 --source-version 1 --launch-template-data '{"ImageId":"ami-c998b6b2"}'

Output:

{
  "LaunchTemplateVersion": {
      "VersionDescription": "WebVersion2",
      "LaunchTemplateId": "lt-0abcd290751193123",
      "LaunchTemplateName": "WebServers",
      "VersionNumber": 2,
      "CreatedBy": "arn:aws:iam::123456789012:root",
      "LaunchTemplateData": {
          "ImageId": "ami-c998b6b2",
          "InstanceType": "t2.micro",
          "NetworkInterfaces": [
              {
                  "Ipv6Addresses": [
                      {
                          "Ipv6Address": "2001:db8:1234:1a00::123"
                      }
                  ],
                  "DeviceIndex": 0,
                  "SubnetId": "subnet-7b16de0c",
                  "AssociatePublicIpAddress": true
              }
          ]
      },
      "DefaultVersion": false,
      "CreateTime": "2017-12-01T13:35:46.000Z"
  }
}

Example 1: To create a launch template

The following create-launch-template example creates a launch template that specifies the subnet in which to launch the instance , assigns a public IP address and an IPv6 address to the instance, and creates a tag for the instance.

aws ec2 create-launch-template \
    --launch-template-name TemplateForWebServer \
    --version-description WebVersion1 \
    --launch-template-data '{"NetworkInterfaces":[{"AssociatePublicIpAddress":true,"DeviceIndex":0,"Ipv6AddressCount":1,"SubnetId":"subnet-7b16de0c"}],"ImageId":"ami-8c1be5f6","InstanceType":"t2.small","TagSpecifications":[{"ResourceType":"instance","Tags":[{"Key":"purpose","Value":"webserver"}]}]}'

Output:

{
    "LaunchTemplate": {
        "LatestVersionNumber": 1,
        "LaunchTemplateId": "lt-01238c059e3466abc",
        "LaunchTemplateName": "TemplateForWebServer",
        "DefaultVersionNumber": 1,
        "CreatedBy": "arn:aws:iam::123456789012:user/Bob",
        "CreateTime": "2019-01-27T09:13:24.000Z"
    }
}

For more information, see Launching an Instance from a Launch Template in the Amazon Elastic Compute Cloud User Guide. For information about quoting JSON-formatted parameters, see Quoting Strings in the AWS Command Line Interface User Guide.

Example 2: To create a launch template for Amazon EC2 Auto Scaling

The following create-launch-template example creates a launch template with multiple tags and a block device mapping to specify an additional EBS volume when an instance launches. Specify a value for Groups that corresponds to security groups for the VPC that your Auto Scaling group will launch instances into. Specify the VPC and subnets as properties of the Auto Scaling group.

aws ec2 create-launch-template \
    --launch-template-name TemplateForAutoScaling \
    --version-description AutoScalingVersion1 \
    --launch-template-data '{"NetworkInterfaces":[{"DeviceIndex":0,"AssociatePublicIpAddress":true,"Groups":["sg-7c227019,sg-903004f8"],"DeleteOnTermination":true}],"ImageId":"ami-b42209de","InstanceType":"m4.large","TagSpecifications":[{"ResourceType":"instance","Tags":[{"Key":"environment","Value":"production"},{"Key":"purpose","Value":"webserver"}]},{"ResourceType":"volume","Tags":[{"Key":"environment","Value":"production"},{"Key":"cost-center","Value":"cc123"}]}],"BlockDeviceMappings":[{"DeviceName":"/dev/sda1","Ebs":{"VolumeSize":100}}]}' --region us-east-1

Output:

{
    "LaunchTemplate": {
        "LatestVersionNumber": 1,
        "LaunchTemplateId": "lt-0123c79c33a54e0abc",
        "LaunchTemplateName": "TemplateForAutoScaling",
        "DefaultVersionNumber": 1,
        "CreatedBy": "arn:aws:iam::123456789012:user/Bob",
        "CreateTime": "2019-04-30T18:16:06.000Z"
    }
}

For more information, see Creating a Launch Template for an Auto Scaling Group in the Amazon EC2 Auto Scaling User Guide. For information about quoting JSON-formatted parameters, see Quoting Strings in the AWS Command Line Interface User Guide.

Example 3: To create a launch template that specifies encryption of EBS volumes

The following create-launch-template example creates a launch template that includes encrypted EBS volumes created from an unencrypted snapshot. It also tags the volumes during creation. If encryption by default is disabled, you must specify the "Encrypted" option as shown in the following example. If you use the "KmsKeyId" option to specify a customer managed CMK, you also must specify the "Encrypted" option even if encryption by default is enabled.

aws ec2 create-launch-template \
  --launch-template-name TemplateForEncryption \
  --launch-template-data file://config.json

Contents of config.json:

{
    "BlockDeviceMappings":[
        {
            "DeviceName":"/dev/sda1",
            "Ebs":{
                "VolumeType":"gp2",
                "DeleteOnTermination":true,
                "SnapshotId":"snap-066877671789bd71b",
                "Encrypted":true,
                "KmsKeyId":"arn:aws:kms:us-east-1:012345678910:key/abcd1234-a123-456a-a12b-a123b4cd56ef"
            }
        }
    ],
    "ImageId":"ami-00068cd7555f543d5",
    "InstanceType":"c5.large",
    "TagSpecifications":[
        {
            "ResourceType":"volume",
            "Tags":[
                {
                    "Key":"encrypted",
                    "Value":"yes"
                }
            ]
        }
    ]
}

Output:

{
    "LaunchTemplate": {
        "LatestVersionNumber": 1,
        "LaunchTemplateId": "lt-0d5bd51bcf8530abc",
        "LaunchTemplateName": "TemplateForEncryption",
        "DefaultVersionNumber": 1,
        "CreatedBy": "arn:aws:iam::123456789012:user/Bob",
        "CreateTime": "2020-01-07T19:08:36.000Z"
    }
}

For more information, see Restoring an Amazon EBS Volume from a Snapshot and Encryption by Default in the Amazon Elastic Compute Cloud User Guide.

To associate a local gateway route table with a virtual interfaces (VIFs) group

The following create-local-gateway-route-table-virtual-interface-group-association example creates an association between the specified local gateway route table and VIF group.

aws ec2 create-local-gateway-route-table-virtual-interface-group-association \
    --local-gateway-route-table-id lgw-rtb-exampleidabcd1234 \
    --local-gateway-virtual-interface-group-id lgw-vif-grp-exampleid0123abcd

Output:

{
    "LocalGatewayRouteTableVirtualInterfaceGroupAssociation": {
        "LocalGatewayRouteTableVirtualInterfaceGroupAssociationId": "lgw-vif-grp-assoc-exampleid12345678",
        "LocalGatewayVirtualInterfaceGroupId": "lgw-vif-grp-exampleid0123abcd",
        "LocalGatewayId": "lgw-exampleid11223344",
        "LocalGatewayRouteTableId": "lgw-rtb-exampleidabcd1234",
        "LocalGatewayRouteTableArn": "arn:aws:ec2:us-west-2:111122223333:local-gateway-route-table/lgw-rtb-exampleidabcd1234",
        "OwnerId": "111122223333",
        "State": "pending",
        "Tags": []
    }
}

For more information, see VIF group associations in the AWS Outposts User Guide.

To associate a VPC with a route table

The following create-local-gateway-route-table-vpc-association example associates the specified VPC with the specified local gateway route table.

aws ec2 create-local-gateway-route-table-vpc-association \
    --local-gateway-route-table-id lgw-rtb-059615ef7dEXAMPLE \
    --vpc-id vpc-07ef66ac71EXAMPLE

Output:

{
    "LocalGatewayRouteTableVpcAssociation": {
        "LocalGatewayRouteTableVpcAssociationId": "lgw-vpc-assoc-0ee765bcc8EXAMPLE",
        "LocalGatewayRouteTableId": "lgw-rtb-059615ef7dEXAMPLE",
        "LocalGatewayId": "lgw-09b493aa7cEXAMPLE",
        "VpcId": "vpc-07ef66ac71EXAMPLE",
        "State": "associated"
    }
}

To create a local gateway route table

The following create-local-gateway-route-table example creates a local gateway route table with the direct VPC routing mode.

aws ec2 create-local-gateway-route-table \
    --local-gateway-id lgw-1a2b3c4d5e6f7g8h9 \
    --mode direct-vpc-routing

Output:

{
    "LocalGatewayRouteTable": {
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890",
        "LocalGatewayRouteTableArn": "arn:aws:ec2:us-west-2:111122223333:local-gateway-route-table/lgw-rtb-abcdefg1234567890",
        "LocalGatewayId": "lgw-1a2b3c4d5e6f7g8h9",
        "OutpostArn": "arn:aws:outposts:us-west-2:111122223333:outpost/op-021345abcdef67890",
        "OwnerId": "111122223333",
        "State": "pending",
        "Tags": [],
        "Mode": "direct-vpc-routing"
    }
}

For more information, see Local gateway route tables in the AWS Outposts User Guide.

To create a static route for a local gateway route table

The following create-local-gateway-route example creates the specified route in the specified local gateway route table.

aws ec2 create-local-gateway-route \
    --destination-cidr-block 0.0.0.0/0 \
    --local-gateway-route-table-id lgw-rtb-059615ef7dEXAMPLE

Output:

{
    "Route": {
        "DestinationCidrBlock": "0.0.0.0/0",
        "LocalGatewayVirtualInterfaceGroupId": "lgw-vif-grp-07145b276bEXAMPLE",
        "Type": "static",
        "State": "deleted",
        "LocalGatewayRouteTableId": "lgw-rtb-059615ef7dEXAMPLE"
    }
}

To create a prefix list

The following create-managed-prefix-list example creates an IPv4 prefix list with a maximum of 10 entries, and creates 2 entries in the prefix list.

aws ec2 create-managed-prefix-list \
    --address-family IPv4 \
    --max-entries 10 \
    --entries Cidr=10.0.0.0/16,Description=vpc-a Cidr=10.2.0.0/16,Description=vpc-b \
    --prefix-list-name vpc-cidrs

Output:

{
    "PrefixList": {
        "PrefixListId": "pl-0123456abcabcabc1",
        "AddressFamily": "IPv4",
        "State": "create-in-progress",
        "PrefixListArn": "arn:aws:ec2:us-west-2:123456789012:prefix-list/pl-0123456abcabcabc1",
        "PrefixListName": "vpc-cidrs",
        "MaxEntries": 10,
        "Version": 1,
        "Tags": [],
        "OwnerId": "123456789012"
    }
}

For more information, see Managed prefix lists in the Amazon VPC User Guide.

Example 1: To create a public NAT gateway

The following create-nat-gateway example creates a public NAT gateway in the specified subnet and associates the Elastic IP address with the specified allocation ID. When you create a public NAT gateway, you must associate an Elastic IP address.

aws ec2 create-nat-gateway \
    --subnet-id subnet-0250c25a1fEXAMPLE \
    --allocation-id eipalloc-09ad461b0dEXAMPLE

Output:

{
    "NatGateway": {
        "CreateTime": "2021-12-01T22:22:38.000Z",
        "NatGatewayAddresses": [
            {
                "AllocationId": "eipalloc-09ad461b0dEXAMPLE"
            }
        ],
        "NatGatewayId": "nat-0c61bf8a12EXAMPLE",
        "State": "pending",
        "SubnetId": "subnet-0250c25a1fEXAMPLE",
        "VpcId": "vpc-0a60eb65b4EXAMPLE",
        "ConnectivityType": "public"
    }
}

For more information, see NAT gateways in the Amazon VPC User Guide.

Example 2: To create a private NAT gateway

The following create-nat-gateway example creates a private NAT gateway in the specified subnet. A private NAT gateway does not have an associated Elastic IP address.

aws ec2 create-nat-gateway \
    --subnet-id subnet-0250c25a1fEXAMPLE \
    --connectivity-type private

Output:

{
    "NatGateway": {
        "CreateTime": "2021-12-01T22:26:00.000Z",
        "NatGatewayAddresses": [
            {}
        ],
        "NatGatewayId": "nat-011b568379EXAMPLE",
        "State": "pending",
        "SubnetId": "subnet-0250c25a1fEXAMPLE",
        "VpcId": "vpc-0a60eb65b4EXAMPLE",
        "ConnectivityType": "private"
    }
}

For more information, see NAT gateways in the Amazon VPC User Guide.

To create a network ACL entry

This example creates an entry for the specified network ACL. The rule allows ingress traffic from any IPv4 address (0.0.0.0/0) on UDP port 53 (DNS) into any associated subnet. If the command succeeds, no output is returned.

Command:

aws ec2 create-network-acl-entry --network-acl-id acl-5fb85d36 --ingress --rule-number 100 --protocol udp --port-range From=53,To=53 --cidr-block 0.0.0.0/0 --rule-action allow

This example creates a rule for the specified network ACL that allows ingress traffic from any IPv6 address (::/0) on TCP port 80 (HTTP).

Command:

aws ec2 create-network-acl-entry --network-acl-id acl-5fb85d36 --ingress --rule-number 120 --protocol tcp --port-range From=80,To=80 --ipv6-cidr-block ::/0 --rule-action allow

To create a network ACL

This example creates a network ACL for the specified VPC.

Command:

aws ec2 create-network-acl --vpc-id vpc-a01106c2

Output:

{
    "NetworkAcl": {
        "Associations": [],
        "NetworkAclId": "acl-5fb85d36",
        "VpcId": "vpc-a01106c2",
        "Tags": [],
        "Entries": [
            {
                "CidrBlock": "0.0.0.0/0",
                "RuleNumber": 32767,
                "Protocol": "-1",
                "Egress": true,
                "RuleAction": "deny"
            },
            {
                "CidrBlock": "0.0.0.0/0",
                "RuleNumber": 32767,
                "Protocol": "-1",
                "Egress": false,
                "RuleAction": "deny"
            }
        ],
        "IsDefault": false
    }
}

To create a Network Access Scope

The following create-network-insights-access-scope example creates a Network Access Scope.

aws ec2 create-network-insights-access-scope \
    --cli-input-json file://access-scope-file.json

Contents of access-scope-file.json:

{
    "MatchPaths": [
        {
            "Source": {
                "ResourceStatement": {
                    "Resources": [
                        "vpc-abcd12e3"
                    ]
                }
            }
         }
    ],
    "ExcludePaths": [
        {
            "Source": {
                "ResourceStatement": {
                    "ResourceTypes": [
                        "AWS::EC2::InternetGateway"
                    ]
                }
            }
        }
    ]
}

Output:

{
    "NetworkInsightsAccessScope": {
        "NetworkInsightsAccessScopeId": "nis-123456789abc01234",
        "NetworkInsightsAccessScopeArn": "arn:aws:ec2:us-east-1:123456789012:network-insights-access-scope/nis-123456789abc01234",
        "CreatedDate": "2022-01-25T19:20:28.796000+00:00",
        "UpdatedDate": "2022-01-25T19:20:28.797000+00:00"
    },
    "NetworkInsightsAccessScopeContent": {
        "NetworkInsightsAccessScopeId": "nis-123456789abc01234",
        "MatchPaths": [
            {
                "Source": {
                    "ResourceStatement": {
                        "Resources": [
                            "vpc-abcd12e3"
                        ]
                    }
                }
            }
        ],
        "ExcludePaths": [
            {
                "Source": {
                    "ResourceStatement": {
                        "ResourceTypes": [
                            "AWS::EC2::InternetGateway"
                        ]
                    }
                }
            }
        ]
    }
}

For more information, see Getting started with Network Access Analyzer using the AWS CLI in the Network Access Analyzer Guide.

To create a path

The following create-network-insights-path example creates a path. The source is the specified internet gateway and the destination is the specified EC2 instance. To determine whether the destination is reachable using the specified protocol and port, analyze the path using the start-network-insights-analysis command.

aws ec2 create-network-insights-path \
    --source igw-0797cccdc9d73b0e5 \
    --destination i-0495d385ad28331c7 \
    --destination-port 22 \
    --protocol TCP

Output:

{
    "NetworkInsightsPaths": {
        "NetworkInsightsPathId": "nip-0b26f224f1d131fa8",
        "NetworkInsightsPathArn": "arn:aws:ec2:us-east-1:123456789012:network-insights-path/nip-0b26f224f1d131fa8",
        "CreatedDate": "2021-01-20T22:43:46.933Z",
        "Source": "igw-0797cccdc9d73b0e5",
        "Destination": "i-0495d385ad28331c7",
        "Protocol": "tcp"
    }
}

For more information, see Getting started using the AWS CLI in the Reachability Analyzer Guide.

To create a network interface permission

This example grants permission to account 123456789012 to attach network interface eni-1a2b3c4d to an instance.

Command:

aws ec2 create-network-interface-permission --network-interface-id eni-1a2b3c4d --aws-account-id 123456789012 --permission INSTANCE-ATTACH

Output:

{
  "InterfacePermission": {
      "PermissionState": {
          "State": "GRANTED"
      },
      "NetworkInterfacePermissionId": "eni-perm-06fd19020ede149ea",
      "NetworkInterfaceId": "eni-1a2b3c4d",
      "Permission": "INSTANCE-ATTACH",
      "AwsAccountId": "123456789012"
  }
}

Example 1: To specify an IPv4 address for a network interface

The following create-network-interface example creates a network interface for the specified subnet with the specified primary IPv4 address.

aws ec2 create-network-interface \
    --subnet-id subnet-00a24d0d67acf6333 \
    --description "my network interface" \
    --groups sg-09dfba7ed20cda78b \
    --private-ip-address 10.0.8.17

Output:

{
    "NetworkInterface": {
        "AvailabilityZone": "us-west-2a",
        "Description": "my network interface",
        "Groups": [
            {
                "GroupName": "my-security-group",
                "GroupId": "sg-09dfba7ed20cda78b"
            }
        ],
        "InterfaceType": "interface",
        "Ipv6Addresses": [],
        "MacAddress": "06:6a:0f:9a:49:37",
        "NetworkInterfaceId": "eni-0492b355f0cf3b3f8",
        "OwnerId": "123456789012",
        "PrivateDnsName": "ip-10-0-8-18.us-west-2.compute.internal",
        "PrivateIpAddress": "10.0.8.17",
        "PrivateIpAddresses": [
            {
                "Primary": true,
                "PrivateDnsName": "ip-10-0-8-17.us-west-2.compute.internal",
                "PrivateIpAddress": "10.0.8.17"
            }
        ],
        "RequesterId": "AIDA4Z3Y7GSXTMEXAMPLE",
        "RequesterManaged": false,
        "SourceDestCheck": true,
        "Status": "pending",
        "SubnetId": "subnet-00a24d0d67acf6333",
        "TagSet": [],
        "VpcId": "vpc-02723a0feeeb9d57b"
    }
}

Example 2: To create a network interface with an IPv4 address and an IPv6 address

The following create-network-interface example creates a network interface for the specified subnet with an IPv4 address and an IPv6 address that are selected by Amazon EC2.

aws ec2 create-network-interface \
    --subnet-id subnet-00a24d0d67acf6333 \
    --description "my dual stack network interface" \
    --ipv6-address-count 1 \
    --groups sg-09dfba7ed20cda78b

Output:

{
    "NetworkInterface": {
        "AvailabilityZone": "us-west-2a",
        "Description": "my dual stack network interface",
        "Groups": [
            {
                "GroupName": "my-security-group",
                "GroupId": "sg-09dfba7ed20cda78b"
            }
        ],
        "InterfaceType": "interface",
        "Ipv6Addresses": [
            {
                "Ipv6Address": "2600:1f13:cfe:3650:a1dc:237c:393a:4ba7",
                "IsPrimaryIpv6": false
            }
        ],
        "MacAddress": "06:b8:68:d2:b2:2d",
        "NetworkInterfaceId": "eni-05da417453f9a84bf",
        "OwnerId": "123456789012",
        "PrivateDnsName": "ip-10-0-8-18.us-west-2.compute.internal",
        "PrivateIpAddress": "10.0.8.18",
        "PrivateIpAddresses": [
            {
                "Primary": true,
                "PrivateDnsName": "ip-10-0-8-18.us-west-2.compute.internal",
                "PrivateIpAddress": "10.0.8.18"
            }
        ],
        "RequesterId": "AIDA4Z3Y7GSXTMEXAMPLE",
        "RequesterManaged": false,
        "SourceDestCheck": true,
        "Status": "pending",
        "SubnetId": "subnet-00a24d0d67acf6333",
        "TagSet": [],
        "VpcId": "vpc-02723a0feeeb9d57b",
        "Ipv6Address": "2600:1f13:cfe:3650:a1dc:237c:393a:4ba7"
    }
}

Example 3: To create a network interface with connection tracking configuration options

The following create-network-interface example creates a network interface and configures the idle connection tracking timeouts.

aws ec2 create-network-interface \
    --subnet-id subnet-00a24d0d67acf6333 \
    --groups sg-02e57dbcfe0331c1b \
    --connection-tracking-specification TcpEstablishedTimeout=86400,UdpTimeout=60

Output:

{
    "NetworkInterface": {
        "AvailabilityZone": "us-west-2a",
        "ConnectionTrackingConfiguration": {
            "TcpEstablishedTimeout": 86400,
            "UdpTimeout": 60
        },
        "Description": "",
        "Groups": [
            {
                "GroupName": "my-security-group",
                "GroupId": "sg-02e57dbcfe0331c1b"
            }
        ],
        "InterfaceType": "interface",
        "Ipv6Addresses": [],
        "MacAddress": "06:4c:53:de:6d:91",
        "NetworkInterfaceId": "eni-0c133586e08903d0b",
        "OwnerId": "123456789012",
        "PrivateDnsName": "ip-10-0-8-94.us-west-2.compute.internal",
        "PrivateIpAddress": "10.0.8.94",
        "PrivateIpAddresses": [
            {
                "Primary": true,
                "PrivateDnsName": "ip-10-0-8-94.us-west-2.compute.internal",
                "PrivateIpAddress": "10.0.8.94"
            }
        ],
        "RequesterId": "AIDA4Z3Y7GSXTMEXAMPLE",
        "RequesterManaged": false,
        "SourceDestCheck": true,
        "Status": "pending",
        "SubnetId": "subnet-00a24d0d67acf6333",
        "TagSet": [],
        "VpcId": "vpc-02723a0feeeb9d57b"
    }
}

Example 4: To create an Elastic Fabric Adapter

The following create-network-interface example creates an EFA.

aws ec2 create-network-interface \
    --interface-type efa \
    --subnet-id subnet-00a24d0d67acf6333 \
    --description "my efa" \
    --groups sg-02e57dbcfe0331c1b

Output:

{
    "NetworkInterface": {
        "AvailabilityZone": "us-west-2a",
        "Description": "my efa",
        "Groups": [
            {
                "GroupName": "my-efa-sg",
                "GroupId": "sg-02e57dbcfe0331c1b"
            }
        ],
        "InterfaceType": "efa",
        "Ipv6Addresses": [],
        "MacAddress": "06:d7:a4:f7:4d:57",
        "NetworkInterfaceId": "eni-034acc2885e862b65",
        "OwnerId": "123456789012",
        "PrivateDnsName": "ip-10-0-8-180.us-west-2.compute.internal",
        "PrivateIpAddress": "10.0.8.180",
        "PrivateIpAddresses": [
            {
                "Primary": true,
                "PrivateDnsName": "ip-10-0-8-180.us-west-2.compute.internal",
                "PrivateIpAddress": "10.0.8.180"
            }
        ],
        "RequesterId": "AIDA4Z3Y7GSXTMEXAMPLE",
        "RequesterManaged": false,
        "SourceDestCheck": true,
        "Status": "pending",
        "SubnetId": "subnet-00a24d0d67acf6333",
        "TagSet": [],
        "VpcId": "vpc-02723a0feeeb9d57b"
    }
}

For more information, see Elastic network interfaces in the Amazon EC2 User Guide.

To create a placement group

This example command creates a placement group with the specified name.

Command:

aws ec2 create-placement-group --group-name my-cluster --strategy cluster

To create a partition placement group

This example command creates a partition placement group named HDFS-Group-A with five partitions.

Command:

aws ec2 create-placement-group --group-name HDFS-Group-A --strategy partition --partition-count 5

Example 1: To restore a root volume to its initial launch state

The following create-replace-root-volume-task example restores the root volume of instance i-0123456789abcdefa to its initial launch state.

aws ec2 create-replace-root-volume-task \
    --instance-id i-0123456789abcdefa

Output:

{
    "ReplaceRootVolumeTask":
    {
        "InstanceId": "i-0123456789abcdefa",
            "ReplaceRootVolumeTaskId": "replacevol-0111122223333abcd",
            "TaskState": "pending",
            "StartTime": "2022-03-14T15:06:38Z",
            "Tags": []
    }
}

Example 2: To restore a root volume to a specific snapshot

The following create-replace-root-volume-task example restores the root volume of instance i-0123456789abcdefa to snapshot snap-0abcdef1234567890.

aws ec2 create-replace-root-volume-task \
    --instance-id i-0123456789abcdefa \
    --snapshot-id  snap-0abcdef1234567890

Output:

{
    "ReplaceRootVolumeTask":
    {
        "InstanceId": "i-0123456789abcdefa",
        "ReplaceRootVolumeTaskId": "replacevol-0555566667777abcd",
        "TaskState": "pending",
        "StartTime": "2022-03-14T15:16:28Z",
        "Tags": []
    }
}

For more information, see Replace a root volume in the Amazon EC2 User Guide.

To list a Reserved Instance in the Reserved Instance Marketplace

The following create-reserved-instances-listing example creates a listing for the specified Reserved Instance in the Reserved Instance Marketplace.

aws ec2 create-reserved-instances-listing \
    --reserved-instances-id 5ec28771-05ff-4b9b-aa31-9e57dexample \
    --instance-count 3 \
    --price-schedules CurrencyCode=USD,Price=25.50 \
    --client-token 550e8400-e29b-41d4-a716-446655440000

To restore an AMI from an S3 bucket

The following create-restore-image-task example restores an AMI from an S3 bucket. Use the values for S3ObjectKey `` and ``Bucket from the describe-store-image-tasks output, specify the object key of the AMI and the name of the S3 bucket to which the AMI was copied, and specify the name for the restored AMI. The name must be unique for AMIs in the Region for this account. The restored AMI will receive a new AMI ID.

aws ec2 create-restore-image-task \
    --object-key ami-1234567890abcdef0.bin \
    --bucket my-ami-bucket \
    --name 'New AMI Name'

Output:

{
    "ImageId": "ami-0eab20fe36f83e1a8"
}

For more information, see Store and restore an AMI using S3 in the Amazon EC2 User Guide.

To create a route table

This example creates a route table for the specified VPC.

Command:

aws ec2 create-route-table --vpc-id vpc-a01106c2

Output:

{
    "RouteTable": {
        "Associations": [],
        "RouteTableId": "rtb-22574640",
        "VpcId": "vpc-a01106c2",
        "PropagatingVgws": [],
        "Tags": [],
        "Routes": [
            {
                "GatewayId": "local",
                "DestinationCidrBlock": "10.0.0.0/16",
                "State": "active"
            }
        ]
    }
}

To create a route

This example creates a route for the specified route table. The route matches all IPv4 traffic (0.0.0.0/0) and routes it to the specified Internet gateway. If the command succeeds, no output is returned.

Command:

aws ec2 create-route --route-table-id rtb-22574640 --destination-cidr-block 0.0.0.0/0 --gateway-id igw-c0a643a9

This example command creates a route in route table rtb-g8ff4ea2. The route matches traffic for the IPv4 CIDR block 10.0.0.0/16 and routes it to VPC peering connection, pcx-111aaa22. This route enables traffic to be directed to the peer VPC in the VPC peering connection. If the command succeeds, no output is returned.

Command:

aws ec2 create-route --route-table-id rtb-g8ff4ea2 --destination-cidr-block 10.0.0.0/16 --vpc-peering-connection-id pcx-1a2b3c4d

This example creates a route in the specified route table that matches all IPv6 traffic (::/0) and routes it to the specified egress-only Internet gateway.

Command:

aws ec2 create-route --route-table-id rtb-dce620b8 --destination-ipv6-cidr-block ::/0 --egress-only-internet-gateway-id eigw-01eadbd45ecd7943f

To create a security group for EC2-Classic

This example creates a security group named MySecurityGroup.

Command:

aws ec2 create-security-group --group-name MySecurityGroup --description "My security group"

Output:

{
    "GroupId": "sg-903004f8"
}

To create a security group for EC2-VPC

This example creates a security group named MySecurityGroup for the specified VPC.

Command:

aws ec2 create-security-group --group-name MySecurityGroup --description "My security group" --vpc-id vpc-1a2b3c4d

Output:

{
    "GroupId": "sg-903004f8"
}

For more information, see Using Security Groups in the AWS Command Line Interface User Guide.

To create a snapshot

This example command creates a snapshot of the volume with a volume ID of vol-1234567890abcdef0 and a short description to identify the snapshot.

Command:

aws ec2 create-snapshot --volume-id vol-1234567890abcdef0 --description "This is my root volume snapshot"

Output:

{
    "Description": "This is my root volume snapshot",
    "Tags": [],
    "Encrypted": false,
    "VolumeId": "vol-1234567890abcdef0",
    "State": "pending",
    "VolumeSize": 8,
    "StartTime": "2018-02-28T21:06:01.000Z",
    "Progress": "",
    "OwnerId": "012345678910",
    "SnapshotId": "snap-066877671789bd71b"
}

To create a snapshot with tags

This example command creates a snapshot and applies two tags: purpose=prod and costcenter=123.

Command:

aws ec2 create-snapshot --volume-id vol-1234567890abcdef0 --description 'Prod backup' --tag-specifications 'ResourceType=snapshot,Tags=[{Key=purpose,Value=prod},{Key=costcenter,Value=123}]'

Output:

{
    "Description": "Prod backup",
    "Tags": [
        {
            "Value": "prod",
            "Key": "purpose"
        },
        {
            "Value": "123",
            "Key": "costcenter"
        }
     ],
     "Encrypted": false,
     "VolumeId": "vol-1234567890abcdef0",
     "State": "pending",
     "VolumeSize": 8,
     "StartTime": "2018-02-28T21:06:06.000Z",
     "Progress": "",
     "OwnerId": "012345678910",
     "SnapshotId": "snap-09ed24a70bc19bbe4"
 }

Example 1: To create a multi-volume snapshot

The following create-snapshots example creates snapshots of all volumes attached to the specified instance.

aws ec2 create-snapshots \
    --instance-specification InstanceId=i-1234567890abcdef0 \
    --description "This is snapshot of a volume from my-instance"

Output:

{
    "Snapshots": [
        {
            "Description": "This is a snapshot of a volume from my-instance",
            "Tags": [],
            "Encrypted": false,
            "VolumeId": "vol-0a01d2d5a34697479",
            "State": "pending",
            "VolumeSize": 16,
            "StartTime": "2019-08-05T16:58:19.000Z",
            "Progress": "",
            "OwnerId": "123456789012",
            "SnapshotId": "snap-07f30e3909aa0045e"
        },
        {
            "Description": "This is a snapshot of a volume from my-instance",
            "Tags": [],
            "Encrypted": false,
            "VolumeId": "vol-02d0d4947008cb1a2",
            "State": "pending",
            "VolumeSize": 20,
            "StartTime": "2019-08-05T16:58:19.000Z",
            "Progress": "",
            "OwnerId": "123456789012",
            "SnapshotId": "snap-0ec20b602264aad48"
        },
        ...
    ]
}

Example 2: To create a multi-volume snapshot with tags from the source volume

The following create-snapshots example creates snapshots of all volumes attached to the specified instance and copies the tags from each volume to its corresponding snapshot.

aws ec2 create-snapshots \
    --instance-specification InstanceId=i-1234567890abcdef0 \
    --copy-tags-from-source volume \
    --description "This is snapshot of a volume from my-instance"

Output:

{
    "Snapshots": [
        {
            "Description": "This is a snapshot of a volume from my-instance",
            "Tags": [
                {
                    "Key": "Name",
                    "Value": "my-volume"
                }
            ],
            "Encrypted": false,
            "VolumeId": "vol-02d0d4947008cb1a2",
            "State": "pending",
            "VolumeSize": 20,
            "StartTime": "2019-08-05T16:53:04.000Z",
            "Progress": "",
            "OwnerId": "123456789012",
            "SnapshotId": "snap-053bfaeb821a458dd"
        }
        ...
    ]
}

Example 3: To create a multi-volume snapshot not including the root volume

The following create-snapshots example creates a snapshot of all volumes attached to the specified instance except for the root volume.

aws ec2 create-snapshots \
    --instance-specification InstanceId=i-1234567890abcdef0,ExcludeBootVolume=true

See example 1 for sample output.

Example 4: To create a multi-volume snapshot and add tags

The following create-snapshots example creates snapshots of all volumes attached to the specified instance and adds two tags to each snapshot.

aws ec2 create-snapshots \
    --instance-specification InstanceId=i-1234567890abcdef0 \
    --tag-specifications 'ResourceType=snapshot,Tags=[{Key=Name,Value=backup},{Key=costcenter,Value=123}]'

See example 1 for sample output.

To create a Spot Instance data feed

The following create-spot-datafeed-subscription example creates a Spot Instance data feed.

aws ec2 create-spot-datafeed-subscription \
    --bucket amzn-s3-demo-bucket \
    --prefix spot-data-feed

Output:

{
    "SpotDatafeedSubscription": {
        "Bucket": "amzn-s3-demo-bucket",
        "OwnerId": "123456789012",
        "Prefix": "spot-data-feed",
        "State": "Active"
    }
}

The data feed is stored in the Amazon S3 bucket that you specified. The file names for this data feed have the following format.

amzn-s3-demo-bucket.s3.amazonaws.com/spot-data-feed/123456789012.YYYY-MM-DD-HH.n.abcd1234.gz

For more information, see Spot Instance data feed in the Amazon EC2 User Guide.

To store an AMI in an S3 bucket

The following create-store-image-task example stores an AMI in an S3 bucket. Specify the ID of the AMI and the name of the S3 bucket in which to store the AMI.

aws ec2 create-store-image-task \
  --image-id ami-1234567890abcdef0 \
  --bucket my-ami-bucket

Output:

{
    "ObjectKey": "ami-1234567890abcdef0.bin"
}

For more information, see Store and restore an AMI using S3 in the Amazon EC2 User Guide.

To create a subnet CIDR reservation

The following create-subnet-cidr-reservation example creates a subnet CIDR reservation for the specified subnet and CIDR range.

aws ec2 create-subnet-cidr-reservation \
    --subnet-id subnet-03c51e2eEXAMPLE \
    --reservation-type prefix \
    --cidr 10.1.0.20/26

Output:

{
    "SubnetCidrReservation": {
        "SubnetCidrReservationId": "scr-044f977c4eEXAMPLE",
        "SubnetId": "subnet-03c51e2e6cEXAMPLE",
        "Cidr": "10.1.0.16/28",
        "ReservationType": "prefix",
        "OwnerId": "123456789012"
    }
}

For more information, see Subnet CIDR reservations in the Amazon VPC User Guide.

Example 1: To create a subnet with an IPv4 CIDR block only

The following create-subnet example creates a subnet in the specified VPC with the specified IPv4 CIDR block.

aws ec2 create-subnet \
    --vpc-id vpc-081ec835f3EXAMPLE \
    --cidr-block 10.0.0.0/24 \
    --tag-specifications ResourceType=subnet,Tags=[{Key=Name,Value=my-ipv4-only-subnet}]

Output:

{
    "Subnet": {
        "AvailabilityZone": "us-west-2a",
        "AvailabilityZoneId": "usw2-az2",
        "AvailableIpAddressCount": 251,
        "CidrBlock": "10.0.0.0/24",
        "DefaultForAz": false,
        "MapPublicIpOnLaunch": false,
        "State": "available",
        "SubnetId": "subnet-0e99b93155EXAMPLE",
        "VpcId": "vpc-081ec835f3EXAMPLE",
        "OwnerId": "123456789012",
        "AssignIpv6AddressOnCreation": false,
        "Ipv6CidrBlockAssociationSet": [],
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-ipv4-only-subnet"
            }
        ],
        "SubnetArn": "arn:aws:ec2:us-west-2:123456789012:subnet/subnet-0e99b93155EXAMPLE"
    }
}

Example 2: To create a subnet with both IPv4 and IPv6 CIDR blocks

The following create-subnet example creates a subnet in the specified VPC with the specified IPv4 and IPv6 CIDR blocks.

aws ec2 create-subnet \
    --vpc-id vpc-081ec835f3EXAMPLE \
    --cidr-block 10.0.0.0/24 \
    --ipv6-cidr-block 2600:1f16:cfe:3660::/64 \
    --tag-specifications ResourceType=subnet,Tags=[{Key=Name,Value=my-ipv4-ipv6-subnet}]

Output:

{
    "Subnet": {
        "AvailabilityZone": "us-west-2a",
        "AvailabilityZoneId": "usw2-az2",
        "AvailableIpAddressCount": 251,
        "CidrBlock": "10.0.0.0/24",
        "DefaultForAz": false,
        "MapPublicIpOnLaunch": false,
        "State": "available",
        "SubnetId": "subnet-0736441d38EXAMPLE",
        "VpcId": "vpc-081ec835f3EXAMPLE",
        "OwnerId": "123456789012",
        "AssignIpv6AddressOnCreation": false,
        "Ipv6CidrBlockAssociationSet": [
            {
                "AssociationId": "subnet-cidr-assoc-06c5f904499fcc623",
                "Ipv6CidrBlock": "2600:1f13:cfe:3660::/64",
                "Ipv6CidrBlockState": {
                    "State": "associating"
                }
            }
        ],
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-ipv4-ipv6-subnet"
            }
        ],
        "SubnetArn": "arn:aws:ec2:us-west-2:123456789012:subnet/subnet-0736441d38EXAMPLE"
    }
}

Example 3: To create a subnet with an IPv6 CIDR block only

The following create-subnet example creates a subnet in the specified VPC with the specified IPv6 CIDR block.

aws ec2 create-subnet \
    --vpc-id vpc-081ec835f3EXAMPLE \
    --ipv6-native \
    --ipv6-cidr-block 2600:1f16:115:200::/64 \
    --tag-specifications ResourceType=subnet,Tags=[{Key=Name,Value=my-ipv6-only-subnet}]

Output:

{
    "Subnet": {
        "AvailabilityZone": "us-west-2a",
        "AvailabilityZoneId": "usw2-az2",
        "AvailableIpAddressCount": 0,
        "DefaultForAz": false,
        "MapPublicIpOnLaunch": false,
        "State": "available",
        "SubnetId": "subnet-03f720e7deEXAMPLE",
        "VpcId": "vpc-081ec835f3EXAMPLE",
        "OwnerId": "123456789012",
        "AssignIpv6AddressOnCreation": true,
        "Ipv6CidrBlockAssociationSet": [
            {
                "AssociationId": "subnet-cidr-assoc-01ef639edde556709",
                "Ipv6CidrBlock": "2600:1f13:cfe:3660::/64",
                "Ipv6CidrBlockState": {
                    "State": "associating"
                }
            }
        ],
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-ipv6-only-subnet"
            }
        ],
        "SubnetArn": "arn:aws:ec2:us-west-2:123456789012:subnet/subnet-03f720e7deEXAMPLE"
    }
}

For more information, see VPCs and subnets in the Amazon VPC User Guide.

Example 1: To add a tag to a resource

The following create-tags example adds the tag Stack=production to the specified image, or overwrites an existing tag for the AMI where the tag key is Stack.

aws ec2 create-tags \
    --resources ami-1234567890abcdef0 \
    --tags Key=Stack,Value=production

This command produces no output

Example 2: To add tags to multiple resources

The following create-tags example adds (or overwrites) two tags for an AMI and an instance. One of the tags has a key (webserver) but no value (value is set to an empty string). The other tag has a key (stack) and a value (Production).

aws ec2 create-tags \
    --resources ami-1a2b3c4d i-1234567890abcdef0 \
    --tags Key=webserver,Value=   Key=stack,Value=Production

This command produces no output

Example 3: To add tags containing special characters

The following create-tags examples add the tag [Group]=test for an instance. The square brackets ([ and ]) are special characters, and must be escaped. The following examples also use the line continuation character appropriate for each environment.

If you are using Windows, surround the element that has special characters with double quotes ("), and then precede each double quote character with a backslash (\) as follows.

aws ec2 create-tags ^
    --resources i-1234567890abcdef0 ^
    --tags Key=\"[Group]\",Value=test

If you are using Windows PowerShell, surround the element the value that has special characters with double quotes ("), precede each double quote character with a backslash (\), and then surround the entire key and value structure with single quotes (') as follows.

aws ec2 create-tags `
    --resources i-1234567890abcdef0 `
    --tags 'Key=\"[Group]\",Value=test'

If you are using Linux or OS X, surround the element that has special characters with double quotes ("), and then surround the entire key and value structure with single quotes (') as follows.

aws ec2 create-tags \
    --resources i-1234567890abcdef0 \
    --tags 'Key="[Group]",Value=test'

For more information, see Tag your Amazon EC2 resources in the Amazon EC2 User Guide.

To create a filter rule for incoming TCP traffic

The following create-traffic-mirror-filter-rule example creates a rule that you can use to mirror all incoming TCP traffic. Before you run this command, use create-traffic-mirror-filter to create the the traffic mirror filter.

aws ec2 create-traffic-mirror-filter-rule \
    --description 'TCP Rule' \
    --destination-cidr-block 0.0.0.0/0  \
    --protocol 6 \
    --rule-action accept \
    --rule-number 1 \
    --source-cidr-block 0.0.0.0/0 \
    --traffic-direction ingress \
    --traffic-mirror-filter-id tmf-04812ff784b25ae67

Output:

{
    "TrafficMirrorFilterRule": {
        "DestinationCidrBlock": "0.0.0.0/0",
        "TrafficMirrorFilterId": "tmf-04812ff784b25ae67",
        "TrafficMirrorFilterRuleId": "tmfr-02d20d996673f3732",
        "SourceCidrBlock": "0.0.0.0/0",
        "TrafficDirection": "ingress",
        "Description": "TCP Rule",
        "RuleNumber": 1,
        "RuleAction": "accept",
        "Protocol": 6
    },
    "ClientToken": "4752b573-40a6-4eac-a8a4-a72058761219"
}

For more information, see Create a traffic mirror filter in the Traffic Mirroring Guide.

To create a traffic mirror filter

The following create-traffic-mirror-filter example creates a traffic mirror filter. After you create the filter, use create-traffic-mirror-filter-rule to add rules.

aws ec2 create-traffic-mirror-filter \
    --description 'TCP Filter'

Output:

{
    "ClientToken": "28908518-100b-4987-8233-8c744EXAMPLE",
    "TrafficMirrorFilter": {
        "TrafficMirrorFilterId": "tmf-04812ff784EXAMPLE",
        "Description": "TCP Filter",
        "EgressFilterRules": [],
        "IngressFilterRules": [],
        "Tags": [],
        "NetworkServices": []
    }
}

For more information, see Create a traffic mirror filter in the Traffic Mirroring Guide.

To create a traffic mirror session

The following create-traffic-mirror-session command creates a traffic mirror session for the specified source and target for 25 bytes of the packet.

aws ec2 create-traffic-mirror-session \
    --description 'example session' \
    --traffic-mirror-target-id tmt-07f75d8feeEXAMPLE \
    --network-interface-id eni-070203f901EXAMPLE \
    --session-number 1  \
    --packet-length 25 \
    --traffic-mirror-filter-id tmf-04812ff784EXAMPLE

Output:

{
    "TrafficMirrorSession": {
        "TrafficMirrorSessionId": "tms-08a33b1214EXAMPLE",
        "TrafficMirrorTargetId": "tmt-07f75d8feeEXAMPLE",
        "TrafficMirrorFilterId": "tmf-04812ff784EXAMPLE",
        "NetworkInterfaceId": "eni-070203f901EXAMPLE",
        "OwnerId": "111122223333",
        "PacketLength": 25,
        "SessionNumber": 1,
        "VirtualNetworkId": 7159709,
        "Description": "example session",
        "Tags": []
    },
    "ClientToken": "5236cffc-ee13-4a32-bb5b-388d9da09d96"
}

For more information, see Create a traffic mirror session in the Traffic Mirroring Guide.

To create a a Network Load Balancer traffic mirror target

The following create-traffic-mirror-target example creates a Network Load Balancer traffic mirror target.

aws ec2 create-traffic-mirror-target \
    --description 'Example Network Load Balancer Target' \
    --network-load-balancer-arn arn:aws:elasticloadbalancing:us-east-1:111122223333:loadbalancer/net/NLB/7cdec873EXAMPLE

Output:

{
    "TrafficMirrorTarget": {
        "Type": "network-load-balancer",
        "Tags": [],
        "Description": "Example Network Load Balancer Target",
        "OwnerId": "111122223333",
        "NetworkLoadBalancerArn": "arn:aws:elasticloadbalancing:us-east-1:724145273726:loadbalancer/net/NLB/7cdec873EXAMPLE",
        "TrafficMirrorTargetId": "tmt-0dabe9b0a6EXAMPLE"
    },
    "ClientToken": "d5c090f5-8a0f-49c7-8281-72c796a21f72"
}

To create a network traffic mirror target

The following create-traffic-mirror-target example creates a network interface Traffic Mirror target.

aws ec2 create-traffic-mirror-target \
    --description 'Network interface target' \
    --network-interface-id eni-eni-01f6f631eEXAMPLE

Output:

{
    "ClientToken": "5289a345-0358-4e62-93d5-47ef3061d65e",
    "TrafficMirrorTarget": {
        "Description": "Network interface target",
        "NetworkInterfaceId": "eni-01f6f631eEXAMPLE",
        "TrafficMirrorTargetId": "tmt-02dcdbe2abEXAMPLE",
        "OwnerId": "111122223333",
        "Type": "network-interface",
        "Tags": []
    }
}

For more information, see Create a traffic mirror target in the Traffic Mirroring Guide.

To create a Transit Gateway Connect peer

The following create-transit-gateway-connect-peer example creates a Connect peer.

aws ec2 create-transit-gateway-connect-peer \
    --transit-gateway-attachment-id tgw-attach-0f0927767cEXAMPLE \
    --peer-address 172.31.1.11 \
    --inside-cidr-blocks 169.254.6.0/29

Output:

{
    "TransitGatewayConnectPeer": {
        "TransitGatewayAttachmentId": "tgw-attach-0f0927767cEXAMPLE",
        "TransitGatewayConnectPeerId": "tgw-connect-peer-0666adbac4EXAMPLE",
        "State": "pending",
        "CreationTime": "2021-10-13T03:35:17.000Z",
        "ConnectPeerConfiguration": {
            "TransitGatewayAddress": "10.0.0.234",
            "PeerAddress": "172.31.1.11",
            "InsideCidrBlocks": [
                "169.254.6.0/29"
            ],
            "Protocol": "gre",
            "BgpConfigurations": [
                {
                    "TransitGatewayAsn": 64512,
                    "PeerAsn": 64512,
                    "TransitGatewayAddress": "169.254.6.2",
                    "PeerAddress": "169.254.6.1",
                    "BgpStatus": "down"
                },
                {
                    "TransitGatewayAsn": 64512,
                    "PeerAsn": 64512,
                    "TransitGatewayAddress": "169.254.6.3",
                    "PeerAddress": "169.254.6.1",
                    "BgpStatus": "down"
                }
            ]
        }
    }
}

For more information, see Transit gateway Connect attachments and Transit Gateway Connect peers in the Transit Gateways Guide.

To create a transit gateway Connect attachment

The following create-transit-gateway-connect example creates a Connect attachment, with the "gre" protocol, for the specified attachment.

aws ec2 create-transit-gateway-connect \
    --transport-transit-gateway-attachment-id tgw-attach-0a89069f57EXAMPLE \
    --options "Protocol=gre"

Output:

{
    "TransitGatewayConnect": {
        "TransitGatewayAttachmentId": "tgw-attach-037012e5dcEXAMPLE",
        "TransportTransitGatewayAttachmentId": "tgw-attach-0a89069f57EXAMPLE",
        "TransitGatewayId": "tgw-02f776b1a7EXAMPLE",
        "State": "pending",
        "CreationTime": "2021-03-09T19:59:17+00:00",
        "Options": {
            "Protocol": "gre"
        }
    }
}

For more information, see Transit gateway Connect attachments and Transit Gateway Connect peers in the Transit Gateways Guide.

Example 1: To create an IGMP multicast domain

The following create-transit-gateway-multicast-domain example creates a multicast domain for the specified transit gateway. With static sources disabled, any instances in subnets associated with the multicast domain can send multicast traffic. If at least one member uses the IGMP protocol, you must enable IGMPv2 support.

aws ec2 create-transit-gateway-multicast-domain \
    --transit-gateway-id tgw-0bf0bffefaEXAMPLE \
    --options StaticSourcesSupport=disable,Igmpv2Support=enable

Output:

{
    "TransitGatewayMulticastDomain": {
        "TransitGatewayMulticastDomainId": "tgw-mcast-domain-0c9e29e2a7EXAMPLE",
        "TransitGatewayId": "tgw-0bf0bffefaEXAMPLE",
        "TransitGatewayMulticastDomainArn": "arn:aws:ec2:us-west-2:123456789012:transit-gateway-multicast-domain/tgw-mcast-domain-0c9e29e2a7EXAMPLE",
        "OwnerId": "123456789012",
        "Options": {
            "Igmpv2Support": "enable",
            "StaticSourcesSupport": "disable",
            "AutoAcceptSharedAssociations": "disable"
        },
        "State": "pending",
        "CreationTime": "2021-09-29T22:17:13.000Z"
    }
}

Example 2: To create a static multicast domain

The following create-transit-gateway-multicast-domain example creates a multicast domain for the specified transit gateway. With static sources enabled, you must statically add sources.

aws ec2 create-transit-gateway-multicast-domain \
    --transit-gateway-id tgw-0bf0bffefaEXAMPLE \
    --options StaticSourcesSupport=enable,Igmpv2Support=disable

Output:

{
    "TransitGatewayMulticastDomain": {
        "TransitGatewayMulticastDomainId": "tgw-mcast-domain-000fb24d04EXAMPLE",
        "TransitGatewayId": "tgw-0bf0bffefaEXAMPLE",
        "TransitGatewayMulticastDomainArn": "arn:aws:ec2:us-west-2:123456789012:transit-gateway-multicast-domain/tgw-mcast-domain-000fb24d04EXAMPLE",
        "OwnerId": "123456789012",
        "Options": {
            "Igmpv2Support": "disable",
            "StaticSourcesSupport": "enable",
            "AutoAcceptSharedAssociations": "disable"
        },
        "State": "pending",
        "CreationTime": "2021-09-29T22:20:19.000Z"
    }
}

For more information, see Managing multicast domains in the Transit Gateways Guide.

To create a transit gateway peering attachment

The following create-transit-gateway-peering-attachment example creates a peering attachment request between the two specified transit gateways.

aws ec2 create-transit-gateway-peering-attachment \
    --transit-gateway-id tgw-123abc05e04123abc \
    --peer-transit-gateway-id tgw-11223344aabbcc112 \
    --peer-account-id 123456789012 \
    --peer-region us-east-2

Output:

{
    "TransitGatewayPeeringAttachment": {
        "TransitGatewayAttachmentId": "tgw-attach-4455667788aabbccd",
        "RequesterTgwInfo": {
            "TransitGatewayId": "tgw-123abc05e04123abc",
            "OwnerId": "123456789012",
            "Region": "us-west-2"
        },
        "AccepterTgwInfo": {
            "TransitGatewayId": "tgw-11223344aabbcc112",
            "OwnerId": "123456789012",
            "Region": "us-east-2"
        },
        "State": "initiatingRequest",
        "CreationTime": "2019-12-09T11:38:05.000Z"
    }
}

For more information, see Transit Gateway Peering Attachments in the Transit Gateways Guide.

To create a transit gateway policy table

The following create-transit-gateway-policy-table example creates a transit gateway policy table for the specified transit gateway.

aws ec2 create-transit-gateway-policy-table \
    --transit-gateway-id tgw-067f8505c18f0bd6e

Output:

{
    "TransitGatewayPolicyTable": {
        "TransitGatewayPolicyTableId": "tgw-ptb-0a16f134b78668a81",
        "TransitGatewayId": "tgw-067f8505c18f0bd6e",
        "State": "pending",
        "CreationTime": "2023-11-28T16:36:43+00:00"
    }
}

For more information, see Transit gateway policy tables in the Transit Gateway User Guide.

To create a reference to a prefix list

The following create-transit-gateway-prefix-list-reference example creates a reference to the specified prefix list in the specified transit gateway route table.

aws ec2 create-transit-gateway-prefix-list-reference \
    --transit-gateway-route-table-id tgw-rtb-0123456789abcd123 \
    --prefix-list-id pl-11111122222222333 \
    --transit-gateway-attachment-id tgw-attach-aaaaaabbbbbb11111

Output:

{
    "TransitGatewayPrefixListReference": {
        "TransitGatewayRouteTableId": "tgw-rtb-0123456789abcd123",
        "PrefixListId": "pl-11111122222222333",
        "PrefixListOwnerId": "123456789012",
        "State": "pending",
        "Blackhole": false,
        "TransitGatewayAttachment": {
            "TransitGatewayAttachmentId": "tgw-attach-aaaaaabbbbbb11111",
            "ResourceType": "vpc",
            "ResourceId": "vpc-112233445566aabbc"
        }
    }
}

For more information, see Create a prefix list reference in the Transit Gateways Guide.

To create a Transit Gateway Route Table

The following create-transit-gateway-route-table example creates a route table for the specified transit gateway.

aws ec2 create-transit-gateway-route-table \
    --transit-gateway-id tgw-0262a0e521EXAMPLE

Output:

{
    "TransitGatewayRouteTable": {
        "TransitGatewayRouteTableId": "tgw-rtb-0960981be7EXAMPLE",
        "TransitGatewayId": "tgw-0262a0e521EXAMPLE",
        "State": "pending",
        "DefaultAssociationRouteTable": false,
        "DefaultPropagationRouteTable": false,
        "CreationTime": "2019-07-10T19:01:46.000Z"
    }
}

For more information, see Create a transit gateway route table in the Transit Gateways Guide.

To create a transit gateway route

The following create-transit-gateway-route example creates a route, with the specified destination, for the specified route table.

aws ec2 create-transit-gateway-route \
    --destination-cidr-block 10.0.2.0/24 \
    --transit-gateway-route-table-id tgw-rtb-0b6f6aaa01EXAMPLE \
    --transit-gateway-attachment-id tgw-attach-0b5968d3b6EXAMPLE

Output:

{
    "Route": {
        "DestinationCidrBlock": "10.0.2.0/24",
        "TransitGatewayAttachments": [
            {
                "ResourceId": "vpc-0065acced4EXAMPLE",
                "TransitGatewayAttachmentId": "tgw-attach-0b5968d3b6EXAMPLE",
                "ResourceType": "vpc"
            }
        ],
        "Type": "static",
        "State": "active"
    }
}

For more information, see Transit gateway route tables in the Transit Gateways Guide.

Example 1: To associate a transit gateway with a VPC

The following create-transit-gateway-vpc-attachment example creates a transit gateway attachment to the specified VPC.

aws ec2 create-transit-gateway-vpc-attachment \
    --transit-gateway-id tgw-0262a0e521EXAMPLE \
    --vpc-id vpc-07e8ffd50f49335df \
    --subnet-id subnet-0752213d59EXAMPLE

Output:

{
    "TransitGatewayVpcAttachment": {
        "TransitGatewayAttachmentId": "tgw-attach-0a34fe6b4fEXAMPLE",
        "TransitGatewayId": "tgw-0262a0e521EXAMPLE",
        "VpcId": "vpc-07e8ffd50fEXAMPLE",
        "VpcOwnerId": "111122223333",
        "State": "pending",
        "SubnetIds": [
            "subnet-0752213d59EXAMPLE"
        ],
        "CreationTime": "2019-07-10T17:33:46.000Z",
        "Options": {
            "DnsSupport": "enable",
            "Ipv6Support": "disable"
        }
    }
}

For more information, see Create a transit gateway attachment to a VPC in the Transit Gateways Guide.

Example 2: To associate a transit gateway with multiple subnets in a VPC

The following create-transit-gateway-vpc-attachment example creates a transit gateway attachment to the specified VPC and subnets.

aws ec2 create-transit-gateway-vpc-attachment \
    --transit-gateway-id tgw-02f776b1a7EXAMPLE  \
    --vpc-id vpc-3EXAMPLE \
    --subnet-ids "subnet-dEXAMPLE" "subnet-6EXAMPLE"

Output:

{
    "TransitGatewayVpcAttachment": {
        "TransitGatewayAttachmentId": "tgw-attach-0e141e0bebEXAMPLE",
        "TransitGatewayId": "tgw-02f776b1a7EXAMPLE",
        "VpcId": "vpc-3EXAMPLE",
        "VpcOwnerId": "111122223333",
        "State": "pending",
        "SubnetIds": [
            "subnet-6EXAMPLE",
            "subnet-dEXAMPLE"
        ],
        "CreationTime": "2019-12-17T20:07:52.000Z",
        "Options": {
            "DnsSupport": "enable",
            "Ipv6Support": "disable"
        }
    }
}

For more information, see Create a transit gateway attachment to a VPC in the Transit Gateways Guide.

To create a transit gateway

The following create-transit-gateway example creates a transit gateway.

aws ec2 create-transit-gateway \
    --description MyTGW \
    --options AmazonSideAsn=64516,AutoAcceptSharedAttachments=enable,DefaultRouteTableAssociation=enable,DefaultRouteTablePropagation=enable,VpnEcmpSupport=enable,DnsSupport=enable

Output:

{
    "TransitGateway": {
        "TransitGatewayId": "tgw-0262a0e521EXAMPLE",
        "TransitGatewayArn": "arn:aws:ec2:us-east-2:111122223333:transit-gateway/tgw-0262a0e521EXAMPLE",
        "State": "pending",
        "OwnerId": "111122223333",
        "Description": "MyTGW",
        "CreationTime": "2019-07-10T14:02:12.000Z",
        "Options": {
            "AmazonSideAsn": 64516,
            "AutoAcceptSharedAttachments": "enable",
            "DefaultRouteTableAssociation": "enable",
            "AssociationDefaultRouteTableId": "tgw-rtb-018774adf3EXAMPLE",
            "DefaultRouteTablePropagation": "enable",
            "PropagationDefaultRouteTableId": "tgw-rtb-018774adf3EXAMPLE",
            "VpnEcmpSupport": "enable",
            "DnsSupport": "enable"
        }
    }
}

For more information, see Create a transit gateway in the Transit Gateways Guide.

To create a Verified Access endpoint

The following create-verified-access-endpoint example creates a Verified Access endpoint for the speciied Verified Access group. The specified network interface and security group must belong to the same VPC.

aws ec2 create-verified-access-endpoint \
    --verified-access-group-id vagr-0dbe967baf14b7235 \
    --endpoint-type network-interface \
    --attachment-type vpc \
    --domain-certificate-arn arn:aws:acm:us-east-2:123456789012:certificate/eb065ea0-26f9-4e75-a6ce-0a1a7EXAMPLE \
    --application-domain example.com \
    --endpoint-domain-prefix my-ava-app \
    --security-group-ids sg-004915970c4c8f13a \
    --network-interface-options NetworkInterfaceId=eni-0aec70418c8d87a0f,Protocol=https,Port=443 \
    --tag-specifications ResourceType=verified-access-endpoint,Tags=[{Key=Name,Value=my-va-endpoint}]

Output:

{
    "VerifiedAccessEndpoint": {
        "VerifiedAccessInstanceId": "vai-0ce000c0b7643abea",
        "VerifiedAccessGroupId": "vagr-0dbe967baf14b7235",
        "VerifiedAccessEndpointId": "vae-066fac616d4d546f2",
        "ApplicationDomain": "example.com",
        "EndpointType": "network-interface",
        "AttachmentType": "vpc",
        "DomainCertificateArn": "arn:aws:acm:us-east-2:123456789012:certificate/eb065ea0-26f9-4e75-a6ce-0a1a7EXAMPLE",
        "EndpointDomain": "my-ava-app.edge-00c3372d53b1540bb.vai-0ce000c0b7643abea.prod.verified-access.us-east-2.amazonaws.com",
        "SecurityGroupIds": [
            "sg-004915970c4c8f13a"
        ],
        "NetworkInterfaceOptions": {
            "NetworkInterfaceId": "eni-0aec70418c8d87a0f",
            "Protocol": "https",
            "Port": 443
        },
        "Status": {
            "Code": "pending"
        },
        "Description": "",
        "CreationTime": "2023-08-25T20:54:43",
        "LastUpdatedTime": "2023-08-25T20:54:43",
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-va-endpoint"
            }
        ]
    }
}

For more information, see Verified Access endpoints in the AWS Verified Access User Guide.

To create a Verified Access group

The following create-verified-access-group example creates a Verified Access group for the specified Verified Access instance.

aws ec2 create-verified-access-group \
    --verified-access-instance-id vai-0ce000c0b7643abea \
    --tag-specifications ResourceType=verified-access-group,Tags=[{Key=Name,Value=my-va-group}]

Output:

{
    "VerifiedAccessGroup": {
        "VerifiedAccessGroupId": "vagr-0dbe967baf14b7235",
        "VerifiedAccessInstanceId": "vai-0ce000c0b7643abea",
        "Description": "",
        "Owner": "123456789012",
        "VerifiedAccessGroupArn": "arn:aws:ec2:us-east-2:123456789012:verified-access-group/vagr-0dbe967baf14b7235",
        "CreationTime": "2023-08-25T19:55:19",
        "LastUpdatedTime": "2023-08-25T19:55:19",
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-va-group"
            }
        ]
    }
}

For more information, see Verified Access groups in the AWS Verified Access User Guide.

To create a Verified Access instance

The following create-verified-access-instance example creates a Verified Access instance with a Name tag.

aws ec2 create-verified-access-instance \
    --tag-specifications ResourceType=verified-access-instance,Tags=[{Key=Name,Value=my-va-instance}]

Output:

{
    "VerifiedAccessInstance": {
        "VerifiedAccessInstanceId": "vai-0ce000c0b7643abea",
        "Description": "",
        "VerifiedAccessTrustProviders": [],
        "CreationTime": "2023-08-25T18:27:56",
        "LastUpdatedTime": "2023-08-25T18:27:56",
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-va-instance"
            }
        ]
    }
}

For more information, see Verified Access instances in the AWS Verified Access User Guide.

To create a Verified Access trust provider

The following create-verified-access-trust-provider example sets up a Verified Access trust provider using AWS Identity Center.

aws ec2 create-verified-access-trust-provider \
    --trust-provider-type user \
    --user-trust-provider-type iam-identity-center \
    --policy-reference-name idc \
    --tag-specifications ResourceType=verified-access-trust-provider,Tags=[{Key=Name,Value=my-va-trust-provider}]

Output:

{
    "VerifiedAccessTrustProvider": {
        "VerifiedAccessTrustProviderId": "vatp-0bb32de759a3e19e7",
        "Description": "",
        "TrustProviderType": "user",
        "UserTrustProviderType": "iam-identity-center",
        "PolicyReferenceName": "idc",
        "CreationTime": "2023-08-25T18:40:36",
        "LastUpdatedTime": "2023-08-25T18:40:36",
        "Tags": [
            {
                "Key": "Name",
                "Value": "my-va-trust-provider"
            }
        ]
    }
}

For more information, see Trust providers for Verified Access in the AWS Verified Access User Guide.

To create an empty General Purpose SSD (gp2) volume

The following create-volume example creates an 80 GiB General Purpose SSD (gp2) volume in the specified Availability Zone. Note that the current Region must be us-east-1, or you can add the --region parameter to specify the Region for the command.

aws ec2 create-volume \
    --volume-type gp2 \
    --size 80 \
    --availability-zone us-east-1a

Output:

{
    "AvailabilityZone": "us-east-1a",
    "Tags": [],
    "Encrypted": false,
    "VolumeType": "gp2",
    "VolumeId": "vol-1234567890abcdef0",
    "State": "creating",
    "Iops": 240,
    "SnapshotId": "",
    "CreateTime": "YYYY-MM-DDTHH:MM:SS.000Z",
    "Size": 80
}

If you do not specify a volume type, the default volume type is gp2.

aws ec2 create-volume \
    --size 80 \
    --availability-zone us-east-1a

Example 2: To create a Provisioned IOPS SSD (io1) volume from a snapshot

The following create-volume example creates a Provisioned IOPS SSD (io1) volume with 1000 provisioned IOPS in the specified Availability Zone using the specified snapshot.

aws ec2 create-volume \
    --volume-type io1 \
    --iops 1000 \
    --snapshot-id snap-066877671789bd71b \
    --availability-zone us-east-1a

Output:

{
    "AvailabilityZone": "us-east-1a",
    "Tags": [],
    "Encrypted": false,
    "VolumeType": "io1",
    "VolumeId": "vol-1234567890abcdef0",
    "State": "creating",
    "Iops": 1000,
    "SnapshotId": "snap-066877671789bd71b",
    "CreateTime": "YYYY-MM-DDTHH:MM:SS.000Z",
    "Size": 500
}

Example 3: To create an encrypted volume

The following create-volume example creates an encrypted volume using the default CMK for EBS encryption. If encryption by default is disabled, you must specify the --encrypted parameter as follows.

aws ec2 create-volume \
    --size 80 \
    --encrypted \
    --availability-zone us-east-1a

Output:

{
    "AvailabilityZone": "us-east-1a",
    "Tags": [],
    "Encrypted": true,
    "VolumeType": "gp2",
    "VolumeId": "vol-1234567890abcdef0",
    "State": "creating",
    "Iops": 240,
    "SnapshotId": "",
    "CreateTime": "YYYY-MM-DDTHH:MM:SS.000Z",
    "Size": 80
}

If encryption by default is enabled, the following example command creates an encrypted volume, even without the --encrypted parameter.

aws ec2 create-volume \
    --size 80 \
    --availability-zone us-east-1a

If you use the --kms-key-id parameter to specify a customer managed CMK, you must specify the --encrypted parameter even if encryption by default is enabled.

aws ec2 create-volume \
    --volume-type gp2 \
    --size 80 \
    --encrypted \
    --kms-key-id 0ea3fef3-80a7-4778-9d8c-1c0c6EXAMPLE \
    --availability-zone us-east-1a

Example 4: To create a volume with tags

The following create-volume example creates a volume and adds two tags.

aws ec2 create-volume \
    --availability-zone us-east-1a \
    --volume-type gp2 \
    --size 80 \
    --tag-specifications 'ResourceType=volume,Tags=[{Key=purpose,Value=production},{Key=cost-center,Value=cc123}]'

To create an endpoint connection notification

This example creates a notification for a specific endpoint service that alerts you when interface endpoints have connected to your service and when endpoints have been accepted for your service.

Command:

aws ec2 create-vpc-endpoint-connection-notification --connection-notification-arn arn:aws:sns:us-east-2:123456789012:VpceNotification --connection-events Connect Accept --service-id vpce-svc-1237881c0d25a3abc

Output:

{
   "ConnectionNotification": {
       "ConnectionNotificationState": "Enabled",
       "ConnectionNotificationType": "Topic",
       "ServiceId": "vpce-svc-1237881c0d25a3abc",
       "ConnectionEvents": [
           "Accept",
           "Connect"
       ],
       "ConnectionNotificationId": "vpce-nfn-008776de7e03f5abc",
       "ConnectionNotificationArn": "arn:aws:sns:us-east-2:123456789012:VpceNotification"
   }
 }

Example 1: To create an endpoint service configuration for an interface endpoint

The following create-vpc-endpoint-service-configuration example creates a VPC endpoint service configuration using the Network Load Balancer nlb-vpce. This example also specifies that requests to connect to the service through an interface endpoint must be accepted.

aws ec2 create-vpc-endpoint-service-configuration \
    --network-load-balancer-arns arn:aws:elasticloadbalancing:us-east-1:123456789012:loadbalancer/net/nlb-vpce/e94221227f1ba532 \
    --acceptance-required

Output:

{
   "ServiceConfiguration": {
       "ServiceType": [
           {
               "ServiceType": "Interface"
           }
       ],
       "NetworkLoadBalancerArns": [
           "arn:aws:elasticloadbalancing:us-east-1:123456789012:loadbalancer/net/nlb-vpce/e94221227f1ba532"
       ],
       "ServiceName": "com.amazonaws.vpce.us-east-1.vpce-svc-03d5ebb7d9579a2b3",
       "ServiceState": "Available",
       "ServiceId": "vpce-svc-03d5ebb7d9579a2b3",
       "AcceptanceRequired": true,
       "AvailabilityZones": [
           "us-east-1d"
       ],
       "BaseEndpointDnsNames": [
           "vpce-svc-03d5ebb7d9579a2b3.us-east-1.vpce.amazonaws.com"
       ]
   }
}

For more information, see Create an endpoint service in the AWS PrivateLink User Guide.

Example 2: To create an endpoint service configuration for a Gateway Load Balancer endpoint

The following create-vpc-endpoint-service-configuration example creates a VPC endpoint service configuration using the Gateway Load Balancer GWLBService. Requests to connect to the service through a Gateway Load Balancer endpoint are automatically accepted.

aws ec2 create-vpc-endpoint-service-configuration \
    --gateway-load-balancer-arns arn:aws:elasticloadbalancing:us-east-1:123456789012:loadbalancer/gwy/GWLBService/123123123123abcc \
    --no-acceptance-required

Output:

{
    "ServiceConfiguration": {
        "ServiceType": [
            {
                "ServiceType": "GatewayLoadBalancer"
            }
        ],
        "ServiceId": "vpce-svc-123123a1c43abc123",
        "ServiceName": "com.amazonaws.vpce.us-east-1.vpce-svc-123123a1c43abc123",
        "ServiceState": "Available",
        "AvailabilityZones": [
            "us-east-1d"
        ],
        "AcceptanceRequired": false,
        "ManagesVpcEndpoints": false,
        "GatewayLoadBalancerArns": [
            "arn:aws:elasticloadbalancing:us-east-1:123456789012:loadbalancer/gwy/GWLBService/123123123123abcc"
        ]
    }
}

For more information, see Create a Gateway Load Balancer endpoint service in the AWS PrivateLink User Guide.

Example 1: To create a gateway endpoint

The following create-vpc-endpoint example creates a gateway VPC endpoint between VPC vpc-1a2b3c4d and Amazon S3 in the us-east-1 region, and associates route table rtb-11aa22bb with the endpoint.

aws ec2 create-vpc-endpoint \
    --vpc-id vpc-1a2b3c4d \
    --service-name com.amazonaws.us-east-1.s3 \
    --route-table-ids rtb-11aa22bb

Output:

{
    "VpcEndpoint": {
        "PolicyDocument": "{\"Version\":\"2008-10-17\",\"Statement\":[{\"Sid\":\"\",\"Effect\":\"Allow\",\"Principal\":\"\*\",\"Action\":\"\*\",\"Resource\":\"\*\"}]}",
        "VpcId": "vpc-1a2b3c4d",
        "State": "available",
        "ServiceName": "com.amazonaws.us-east-1.s3",
        "RouteTableIds": [
            "rtb-11aa22bb"
        ],
        "VpcEndpointId": "vpc-1a2b3c4d",
        "CreationTimestamp": "2015-05-15T09:40:50Z"
    }
}

For more information, see Create a gateway endpoint in the AWS PrivateLink User Guide.

Example 2: To create an interface endpoint

The following create-vpc-endpoint example creates an interface VPC endpoint between VPC vpc-1a2b3c4d and Amazon S3 in the us-east-1 region. The command creates the endpoint in subnet subnet-1a2b3c4d, associates it with security group sg-1a2b3c4d, and adds a tag with a key of "Service" and a Value of "S3".

aws ec2 create-vpc-endpoint \
    --vpc-id vpc-1a2b3c4d \
    --vpc-endpoint-type Interface \
    --service-name com.amazonaws.us-east-1.s3 \
    --subnet-ids subnet-7b16de0c \
    --security-group-id sg-1a2b3c4d \
    --tag-specifications ResourceType=vpc-endpoint,Tags=[{Key=service,Value=S3}]

Output:

{
    "VpcEndpoint": {
        "VpcEndpointId": "vpce-1a2b3c4d5e6f1a2b3",
        "VpcEndpointType": "Interface",
        "VpcId": "vpc-1a2b3c4d",
        "ServiceName": "com.amazonaws.us-east-1.s3",
        "State": "pending",
        "RouteTableIds": [],
        "SubnetIds": [
            "subnet-1a2b3c4d"
        ],
        "Groups": [
            {
                "GroupId": "sg-1a2b3c4d",
                "GroupName": "default"
            }
        ],
        "PrivateDnsEnabled": false,
        "RequesterManaged": false,
        "NetworkInterfaceIds": [
            "eni-0b16f0581c8ac6877"
        ],
        "DnsEntries": [
            {
                "DnsName": "*.vpce-1a2b3c4d5e6f1a2b3-9hnenorg.s3.us-east-1.vpce.amazonaws.com",
                "HostedZoneId": "Z7HUB22UULQXV"
            },
            {
                "DnsName": "*.vpce-1a2b3c4d5e6f1a2b3-9hnenorg-us-east-1c.s3.us-east-1.vpce.amazonaws.com",
                "HostedZoneId": "Z7HUB22UULQXV"
            }
        ],
        "CreationTimestamp": "2021-03-05T14:46:16.030000+00:00",
        "Tags": [
            {
                "Key": "service",
                "Value": "S3"
            }
        ],
        "OwnerId": "123456789012"
    }
}

For more information, see Create an interface VPC endpoint in the AWS PrivateLink User Guide.

Example 3: To create a Gateway Load Balancer endpoint

The following create-vpc-endpoint example creates a Gateway Load Balancer endpoint between VPC vpc-111122223333aabbc and and a service that is configured using a Gateway Load Balancer.

aws ec2 create-vpc-endpoint \
    --service-name com.amazonaws.vpce.us-east-1.vpce-svc-123123a1c43abc123 \
    --vpc-endpoint-type GatewayLoadBalancer \
    --vpc-id vpc-111122223333aabbc \
    --subnet-ids subnet-0011aabbcc2233445

Output:

{
    "VpcEndpoint": {
        "VpcEndpointId": "vpce-aabbaabbaabbaabba",
        "VpcEndpointType": "GatewayLoadBalancer",
        "VpcId": "vpc-111122223333aabbc",
        "ServiceName": "com.amazonaws.vpce.us-east-1.vpce-svc-123123a1c43abc123",
        "State": "pending",
        "SubnetIds": [
            "subnet-0011aabbcc2233445"
        ],
        "RequesterManaged": false,
        "NetworkInterfaceIds": [
            "eni-01010120203030405"
        ],
        "CreationTimestamp": "2020-11-11T08:06:03.522Z",
        "OwnerId": "123456789012"
    }
}

For more information, see Gateway Load Balancer endpoints in the AWS PrivateLink User Guide.

To create a VPC peering connection between your VPCs

This example requests a peering connection between your VPCs vpc-1a2b3c4d and vpc-11122233.

Command:

aws ec2 create-vpc-peering-connection --vpc-id vpc-1a2b3c4d --peer-vpc-id vpc-11122233

Output:

{
    "VpcPeeringConnection": {
        "Status": {
            "Message": "Initiating Request to 444455556666",
            "Code": "initiating-request"
        },
        "Tags": [],
        "RequesterVpcInfo": {
            "OwnerId": "444455556666",
            "VpcId": "vpc-1a2b3c4d",
            "CidrBlock": "10.0.0.0/28"
        },
        "VpcPeeringConnectionId": "pcx-111aaa111",
        "ExpirationTime": "2014-04-02T16:13:36.000Z",
        "AccepterVpcInfo": {
            "OwnerId": "444455556666",
            "VpcId": "vpc-11122233"
        }
    }
}

To create a VPC peering connection with a VPC in another account

This example requests a peering connection between your VPC (vpc-1a2b3c4d), and a VPC (vpc-11122233) that belongs AWS account 123456789012.

Command:

aws ec2 create-vpc-peering-connection --vpc-id vpc-1a2b3c4d --peer-vpc-id vpc-11122233 --peer-owner-id 123456789012

To create a VPC peering connection with a VPC in a different region

This example requests a peering connection between your VPC in the current region (vpc-1a2b3c4d), and a VPC (vpc-11122233) in your account in the us-west-2 region.

Command:

aws ec2 create-vpc-peering-connection --vpc-id vpc-1a2b3c4d --peer-vpc-id vpc-11122233 --peer-region us-west-2

This example requests a peering connection between your VPC in the current region (vpc-1a2b3c4d), and a VPC (vpc-11122233) that belongs AWS account 123456789012 that's in the us-west-2 region.

Command:

aws ec2 create-vpc-peering-connection --vpc-id vpc-1a2b3c4d --peer-vpc-id vpc-11122233 --peer-owner-id 123456789012 --peer-region us-west-2

Example 1: To create a VPC

The following create-vpc example creates a VPC with the specified IPv4 CIDR block and a Name tag.

aws ec2 create-vpc \
    --cidr-block 10.0.0.0/16 \
    --tag-specifications ResourceType=vpc,Tags=[{Key=Name,Value=MyVpc}]

Output:

{
    "Vpc": {
        "CidrBlock": "10.0.0.0/16",
        "DhcpOptionsId": "dopt-5EXAMPLE",
        "State": "pending",
        "VpcId": "vpc-0a60eb65b4EXAMPLE",
        "OwnerId": "123456789012",
        "InstanceTenancy": "default",
        "Ipv6CidrBlockAssociationSet": [],
        "CidrBlockAssociationSet": [
            {
                "AssociationId": "vpc-cidr-assoc-07501b79ecEXAMPLE",
                "CidrBlock": "10.0.0.0/16",
                "CidrBlockState": {
                    "State": "associated"
                }
            }
        ],
        "IsDefault": false,
        "Tags": [
            {
                "Key": "Name",
                "Value": MyVpc"
            }
        ]
    }
}

Example 2: To create a VPC with dedicated tenancy

The following create-vpc example creates a VPC with the specified IPv4 CIDR block and dedicated tenancy.

aws ec2 create-vpc \
    --cidr-block 10.0.0.0/16 \
    --instance-tenancy dedicated

Output:

{
    "Vpc": {
        "CidrBlock": "10.0.0.0/16",
        "DhcpOptionsId": "dopt-19edf471",
        "State": "pending",
        "VpcId": "vpc-0a53287fa4EXAMPLE",
        "OwnerId": "111122223333",
        "InstanceTenancy": "dedicated",
        "Ipv6CidrBlockAssociationSet": [],
        "CidrBlockAssociationSet": [
            {
                "AssociationId": "vpc-cidr-assoc-00b24cc1c2EXAMPLE",
                "CidrBlock": "10.0.0.0/16",
                "CidrBlockState": {
                    "State": "associated"
                }
            }
        ],
        "IsDefault": false
    }
}

Example 3: To create a VPC with an IPv6 CIDR block

The following create-vpc example creates a VPC with an Amazon-provided IPv6 CIDR block.

aws ec2 create-vpc \
    --cidr-block 10.0.0.0/16 \
    --amazon-provided-ipv6-cidr-block

Output:

{
    "Vpc": {
        "CidrBlock": "10.0.0.0/16",
        "DhcpOptionsId": "dopt-dEXAMPLE",
        "State": "pending",
        "VpcId": "vpc-0fc5e3406bEXAMPLE",
        "OwnerId": "123456789012",
        "InstanceTenancy": "default",
        "Ipv6CidrBlockAssociationSet": [
            {
                "AssociationId": "vpc-cidr-assoc-068432c60bEXAMPLE",
                "Ipv6CidrBlock": "",
                "Ipv6CidrBlockState": {
                    "State": "associating"
                },
                "Ipv6Pool": "Amazon",
                "NetworkBorderGroup": "us-west-2"
            }
        ],
        "CidrBlockAssociationSet": [
            {
                "AssociationId": "vpc-cidr-assoc-0669f8f9f5EXAMPLE",
                "CidrBlock": "10.0.0.0/16",
                "CidrBlockState": {
                    "State": "associated"
                }
            }
        ],
        "IsDefault": false
    }
}

Example 4: To create a VPC with a CIDR from an IPAM pool

The following create-vpc example creates a VPC with a CIDR from an Amazon VPC IP Address Manager (IPAM) pool.

Linux and macOS:

aws ec2 create-vpc \
    --ipv4-ipam-pool-id ipam-pool-0533048da7d823723 \
    --tag-specifications ResourceType=vpc,Tags='[{Key=Environment,Value="Preprod"},{Key=Owner,Value="Build Team"}]'

Windows:

aws ec2 create-vpc ^
    --ipv4-ipam-pool-id ipam-pool-0533048da7d823723 ^
    --tag-specifications ResourceType=vpc,Tags=[{Key=Environment,Value="Preprod"},{Key=Owner,Value="Build Team"}]

Output:

{
    "Vpc": {
        "CidrBlock": "10.0.1.0/24",
        "DhcpOptionsId": "dopt-2afccf50",
        "State": "pending",
        "VpcId": "vpc-010e1791024eb0af9",
        "OwnerId": "123456789012",
        "InstanceTenancy": "default",
        "Ipv6CidrBlockAssociationSet": [],
        "CidrBlockAssociationSet": [
            {
                "AssociationId": "vpc-cidr-assoc-0a77de1d803226d4b",
                "CidrBlock": "10.0.1.0/24",
                "CidrBlockState": {
                    "State": "associated"
                }
            }
        ],
        "IsDefault": false,
        "Tags": [
            {
                "Key": "Environment",
                "Value": "Preprod"
            },
            {
                "Key": "Owner",
                "Value": "Build Team"
            }
        ]
    }
}

For more information, see Create a VPC that uses an IPAM pool CIDR in the Amazon VPC IPAM User Guide.

To create a static route for a VPN connection

This example creates a static route for the specified VPN connection. If the command succeeds, no output is returned.

Command:

aws ec2 create-vpn-connection-route --vpn-connection-id vpn-40f41529 --destination-cidr-block 11.12.0.0/16

Example 1: To create a VPN connection with dynamic routing

The following create-vpn-connection example creates a VPN connection between the specified virtual private gateway and the specified customer gateway, and applies tags to the VPN connection. The output includes the configuration information for your customer gateway device, in XML format.

aws ec2 create-vpn-connection \
    --type ipsec.1 \
    --customer-gateway-id cgw-001122334455aabbc \
    --vpn-gateway-id vgw-1a1a1a1a1a1a2b2b2 \
    --tag-specification 'ResourceType=vpn-connection,Tags=[{Key=Name,Value=BGP-VPN}]'

Output:

{
    "VpnConnection": {
        "CustomerGatewayConfiguration": "...configuration information...",
        "CustomerGatewayId": "cgw-001122334455aabbc",
        "Category": "VPN",
        "State": "pending",
        "VpnConnectionId": "vpn-123123123123abcab",
        "VpnGatewayId": "vgw-1a1a1a1a1a1a2b2b2",
        "Options": {
            "EnableAcceleration": false,
            "StaticRoutesOnly": false,
            "LocalIpv4NetworkCidr": "0.0.0.0/0",
            "RemoteIpv4NetworkCidr": "0.0.0.0/0",
            "TunnelInsideIpVersion": "ipv4",
            "TunnelOptions": [
                {},
                {}
            ]
        },
        "Routes": [],
        "Tags": [
             {
                "Key": "Name",
                "Value": "BGP-VPN"
            }
        ]
    }
}

For more information, see How AWS Site-to-Site VPN works in the AWS Site-to-Site VPN User Guide.

Example 2: To create a VPN connection with static routing

The following create-vpn-connection example creates a VPN connection between the specified virtual private gateway and the specified customer gateway. The options specify static routing. The output includes the configuration information for your customer gateway device, in XML format.

aws ec2 create-vpn-connection \
    --type ipsec.1 \
    --customer-gateway-id cgw-001122334455aabbc \
    --vpn-gateway-id vgw-1a1a1a1a1a1a2b2b2 \
    --options "{\"StaticRoutesOnly\":true}"

Output:

{
    "VpnConnection": {
        "CustomerGatewayConfiguration": "..configuration information...",
        "CustomerGatewayId": "cgw-001122334455aabbc",
        "Category": "VPN",
        "State": "pending",
        "VpnConnectionId": "vpn-123123123123abcab",
        "VpnGatewayId": "vgw-1a1a1a1a1a1a2b2b2",
        "Options": {
            "EnableAcceleration": false,
            "StaticRoutesOnly": true,
            "LocalIpv4NetworkCidr": "0.0.0.0/0",
            "RemoteIpv4NetworkCidr": "0.0.0.0/0",
            "TunnelInsideIpVersion": "ipv4",
            "TunnelOptions": [
                {},
                {}
            ]
        },
        "Routes": [],
        "Tags": []
    }
}

For more information, see How AWS Site-to-Site VPN works in the AWS Site-to-Site VPN User Guide.

Example 3: To create a VPN connection and specify your own inside CIDR and pre-shared key

The following create-vpn-connection example creates a VPN connection and specifies the inside IP address CIDR block and a custom pre-shared key for each tunnel. The specified values are returned in the CustomerGatewayConfiguration information.

aws ec2 create-vpn-connection \
    --type ipsec.1 \
    --customer-gateway-id cgw-001122334455aabbc \
    --vpn-gateway-id vgw-1a1a1a1a1a1a2b2b2 \
    --options TunnelOptions='[{TunnelInsideCidr=169.254.12.0/30,PreSharedKey=ExamplePreSharedKey1},{TunnelInsideCidr=169.254.13.0/30,PreSharedKey=ExamplePreSharedKey2}]'

Output:

{
    "VpnConnection": {
        "CustomerGatewayConfiguration": "..configuration information...",
        "CustomerGatewayId": "cgw-001122334455aabbc",
        "Category": "VPN",
        "State": "pending",
        "VpnConnectionId": "vpn-123123123123abcab",
        "VpnGatewayId": "vgw-1a1a1a1a1a1a2b2b2",
        "Options": {
            "EnableAcceleration": false,
            "StaticRoutesOnly": false,
            "LocalIpv4NetworkCidr": "0.0.0.0/0",
            "RemoteIpv4NetworkCidr": "0.0.0.0/0",
            "TunnelInsideIpVersion": "ipv4",
            "TunnelOptions": [
                {
                    "OutsideIpAddress": "203.0.113.3",
                    "TunnelInsideCidr": "169.254.12.0/30",
                    "PreSharedKey": "ExamplePreSharedKey1"
                },
                {
                    "OutsideIpAddress": "203.0.113.5",
                    "TunnelInsideCidr": "169.254.13.0/30",
                    "PreSharedKey": "ExamplePreSharedKey2"
                }
            ]
        },
        "Routes": [],
        "Tags": []
    }
}

For more information, see How AWS Site-to-Site VPN works in the AWS Site-to-Site VPN User Guide.

Example 4: To create a VPN connection that supports IPv6 traffic

The following create-vpn-connection example creates a VPN connection that supports IPv6 traffic between the specified transit gateway and specified customer gateway. The tunnel options for both tunnels specify that AWS must initiate the IKE negotiation.

aws ec2 create-vpn-connection \
    --type ipsec.1 \
    --transit-gateway-id tgw-12312312312312312 \
    --customer-gateway-id cgw-001122334455aabbc \
    --options TunnelInsideIpVersion=ipv6,TunnelOptions=[{StartupAction=start},{StartupAction=start}]

Output:

{
    "VpnConnection": {
        "CustomerGatewayConfiguration": "..configuration information...",
        "CustomerGatewayId": "cgw-001122334455aabbc",
        "Category": "VPN",
        "State": "pending",
        "VpnConnectionId": "vpn-11111111122222222",
        "TransitGatewayId": "tgw-12312312312312312",
        "Options": {
            "EnableAcceleration": false,
            "StaticRoutesOnly": false,
            "LocalIpv6NetworkCidr": "::/0",
            "RemoteIpv6NetworkCidr": "::/0",
            "TunnelInsideIpVersion": "ipv6",
            "TunnelOptions": [
                {
                    "OutsideIpAddress": "203.0.113.3",
                    "StartupAction": "start"
                },
                {
                    "OutsideIpAddress": "203.0.113.5",
                    "StartupAction": "start"
                }
            ]
        },
        "Routes": [],
        "Tags": []
    }
}

For more information, see How AWS Site-to-Site VPN works in the AWS Site-to-Site VPN User Guide.

To create a virtual private gateway

This example creates a virtual private gateway.

Command:

aws ec2 create-vpn-gateway --type ipsec.1

Output:

{
    "VpnGateway": {
        "AmazonSideAsn": 64512,
        "State": "available",
        "Type": "ipsec.1",
        "VpnGatewayId": "vgw-9a4cacf3",
        "VpcAttachments": []
    }
}

To create a virtual private gateway with a specific Amazon-side ASN

This example creates a virtual private gateway and specifies the Autonomous System Number (ASN) for the Amazon side of the BGP session.

Command:

aws ec2 create-vpn-gateway --type ipsec.1 --amazon-side-asn 65001

Output:

{
    "VpnGateway": {
        "AmazonSideAsn": 65001,
        "State": "available",
        "Type": "ipsec.1",
        "VpnGatewayId": "vgw-9a4cacf3",
        "VpcAttachments": []
    }
}

To delete your carrier gateway

The following delete-carrier-gateway example deletes the specified carrier gateway.

aws ec2 delete-carrier-gateway \
    --carrier-gateway-id cagw-0465cdEXAMPLE1111

Output:

{
    "CarrierGateway": {
        "CarrierGatewayId": "cagw-0465cdEXAMPLE1111",
        "VpcId": "vpc-0c529aEXAMPLE1111",
        "State": "deleting",
        "OwnerId": "123456789012"
    }
}

For more information, see Carrier gateways in the Amazon Virtual Private Cloud User Guide.

To delete a Client VPN endpoint

The following delete-client-vpn-endpoint example deletes the specified Client VPN endpoint.

aws ec2 delete-client-vpn-endpoint \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde

Output:

{
    "Status": {
        "Code": "deleting"
    }
}

For more information, see Client VPN Endpoints in the AWS Client VPN Administrator Guide.

To delete a route for a Client VPN endpoint

The following delete-client-vpn-route example deletes the 0.0.0.0/0 route for the specified subnet of a Client VPN endpoint.

aws ec2 delete-client-vpn-route \
    --client-vpn-endpoint-id cvpn-endpoint-123456789123abcde \
    --destination-cidr-block 0.0.0.0/0 \
    --target-vpc-subnet-id subnet-0123456789abcabca

Output:

{
    "Status": {
        "Code": "deleting"
    }
}

For more information, see Routes in the AWS Client VPN Administrator Guide.

To delete a range of customer-owned IP (CoIP) addresses

The following delete-coip-cidr example deletes the specified range of CoIP addresses in the specified CoIP pool.

aws ec2 delete-coip-cidr \
    --cidr 14.0.0.0/24 \
    --coip-pool-id ipv4pool-coip-1234567890abcdefg

Output:

{
    "CoipCidr": {
        "Cidr": "14.0.0.0/24",
        "CoipPoolId": "ipv4pool-coip-1234567890abcdefg",
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890"
    }
}

For more information, see Customer-owned IP addresses in the AWS Outposts User Guide.

To delete a pool of customer-owned IP (CoIP) addresses

The following delete-coip-pool example deletes a CoIP pool of CoIP addresses.

aws ec2 delete-coip-pool \
    --coip-pool-id ipv4pool-coip-1234567890abcdefg

Output:

{
    "CoipPool": {
        "PoolId": "ipv4pool-coip-1234567890abcdefg",
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890",
        "PoolArn": "arn:aws:ec2:us-west-2:123456789012:coip-pool/ipv4pool-coip-1234567890abcdefg"
    }
}

For more information, see Customer-owned IP addresses in the AWS Outposts User Guide.

To delete a customer gateway

This example deletes the specified customer gateway. If the command succeeds, no output is returned.

Command:

aws ec2 delete-customer-gateway --customer-gateway-id cgw-0e11f167

To delete a DHCP options set

This example deletes the specified DHCP options set. If the command succeeds, no output is returned.

Command:

aws ec2 delete-dhcp-options --dhcp-options-id dopt-d9070ebb

To delete an egress-only Internet gateway

This example deletes the specified egress-only Internet gateway.

Command:

aws ec2 delete-egress-only-internet-gateway --egress-only-internet-gateway-id eigw-01eadbd45ecd7943f

Output:

{
  "ReturnCode": true
}

Example 1: To delete an EC2 Fleet and terminate the associated instances

The following delete-fleets example deletes the specified EC2 Fleet and terminates the associated On-Demand Instances and Spot Instances.

aws ec2 delete-fleets \
    --fleet-ids fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE \
    --terminate-instances

Output:

{
    "SuccessfulFleetDeletions": [
        {
            "CurrentFleetState": "deleted_terminating",
            "PreviousFleetState": "active",
            "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
        }
    ],
    "UnsuccessfulFleetDeletions": []
}

For more information, see Delete an EC2 Fleet in the Amazon Elastic Compute Cloud User Guide for Linux Instances.

Example 2: To delete an EC2 Fleet without terminating the associated instances

The following delete-fleets example deletes the specified EC2 Fleet without terminating the associated On-Demand Instances and Spot Instances.

aws ec2 delete-fleets \
    --fleet-ids fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE \
    --no-terminate-instances

Output:

{
    "SuccessfulFleetDeletions": [
        {
            "CurrentFleetState": "deleted_running",
            "PreviousFleetState": "active",
            "FleetId": "fleet-12a34b55-67cd-8ef9-ba9b-9208dEXAMPLE"
        }
    ],
    "UnsuccessfulFleetDeletions": []
}

For more information, see Delete an EC2 Fleet in the Amazon Elastic Compute Cloud User Guide for Linux Instances.

To delete a flow log

The following delete-flow-logs example deletes the specified flow log.

aws ec2 delete-flow-logs --flow-log-id fl-11223344556677889

Output:

{
    "Unsuccessful": []
}

To delete an Amazon FPGA image

This example deletes the specified AFI.

Command:

aws ec2 delete-fpga-image --fpga-image-id afi-06b12350a123fbabc

Output:

{
  "Return": true
}

To delete an EC2 Instance Connect Endpoint

The following delete-instance-connect-endpoint example deletes the specified EC2 Instance Connect Endpoint.

aws ec2 delete-instance-connect-endpoint \
    --instance-connect-endpoint-id eice-03f5e49b83924bbc7

Output:

{
    "InstanceConnectEndpoint": {
        "OwnerId": "111111111111",
        "InstanceConnectEndpointId": "eice-0123456789example",
        "InstanceConnectEndpointArn": "arn:aws:ec2:us-east-1:111111111111:instance-connect-endpoint/eice-0123456789example",
        "State": "delete-in-progress",
        "StateMessage": "",
        "NetworkInterfaceIds": [],
        "VpcId": "vpc-0123abcd",
        "AvailabilityZone": "us-east-1d",
        "CreatedAt": "2023-02-07T12:05:37+00:00",
        "SubnetId": "subnet-0123abcd"
    }
}

For more information, see Remove EC2 Instance Connect Endpoint in the Amazon EC2 User Guide.

Example 1: To delete an event window

The following delete-instance-event-window example deletes an event window.

aws ec2 delete-instance-event-window \
    --region us-east-1 \
    --instance-event-window-id iew-0abcdef1234567890

Output:

{
    "InstanceEventWindowState": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "State": "deleting"
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

Example 2: To force delete an event window

The following delete-instance-event-window example force deletes an event window if the event window is currently associated with targets.

aws ec2 delete-instance-event-window \
    --region us-east-1 \
    --instance-event-window-id iew-0abcdef1234567890 \
    --force-delete

Output:

{
    "InstanceEventWindowState": {
        "InstanceEventWindowId": "iew-0abcdef1234567890",
        "State": "deleting"
    }
}

For event window constraints, see Considerations in the Scheduled Events section of the Amazon EC2 User Guide.

To delete an internet gateway

The following delete-internet-gateway example deletes the specified internet gateway.

aws ec2 delete-internet-gateway \
    --internet-gateway-id igw-0d0fb496b3EXAMPLE

This command produces no output.

For more information, see Internet gateways in the Amazon VPC User Guide.

To delete an IPAM pool

In this example, you're a IPAM delegated admin who wants to delete an IPAM pool that you no longer need, but the pool has a CIDR provisioned to it. You cannot delete a pool if it has CIDRs provisioned to it unless you use the --cascade option, so you'll use --cascade.

To complete this request:

You'll need the IPAM pool ID which you can get with describe-ipam-pools.The --region must be the IPAM home Region.

The following delete-ipam-pool example deletes an IPAM pool in your AWS account.

aws ec2 delete-ipam-pool \
    --ipam-pool-id ipam-pool-050c886a3ca41cd5b \
    --cascade \
    --region us-east-1

Output:

{
    "IpamPool": {
        "OwnerId": "320805250157",
        "IpamPoolId": "ipam-pool-050c886a3ca41cd5b",
        "IpamPoolArn": "arn:aws:ec2::320805250157:ipam-pool/ipam-pool-050c886a3ca41cd5b",
        "IpamScopeArn": "arn:aws:ec2::320805250157:ipam-scope/ipam-scope-0a158dde35c51107b",
        "IpamScopeType": "private",
        "IpamArn": "arn:aws:ec2::320805250157:ipam/ipam-005f921c17ebd5107",
        "IpamRegion": "us-east-1",
        "Locale": "None",
        "PoolDepth": 1,
        "State": "delete-in-progress",
        "Description": "example",
        "AutoImport": false,
        "AddressFamily": "ipv4",
        "AllocationMinNetmaskLength": 0,
        "AllocationMaxNetmaskLength": 32
    }
}

For more information, see Delete a pool in the Amazon VPC IPAM User Guide.

To delete a resource discovery

In this example, you're a IPAM delegated admin who wants to delete a non-default resource discovery that you created to share with another IPAM admin during the process of integrating IPAM with accounts outside of your organization.

To complete this request:

The --region must be the Region where you created the resource discovery.You cannot delete a default resource discovery if "IsDefault": true. A default resource discovery is one that is created automatically in the account that creates an IPAM. To delete a default resource discovery, you have to delete the IPAM.

The following delete-ipam-resource-discovery example deletes a resource discovery.

aws ec2 delete-ipam-resource-discovery \
    --ipam-resource-discovery-id ipam-res-disco-0e39761475298ee0f \
    --region us-east-1

Output:

{
    "IpamResourceDiscovery": {
        "OwnerId": "149977607591",
        "IpamResourceDiscoveryId": "ipam-res-disco-0e39761475298ee0f",
        "IpamResourceDiscoveryArn": "arn:aws:ec2::149977607591:ipam-resource-discovery/ipam-res-disco-0e39761475298ee0f",
        "IpamResourceDiscoveryRegion": "us-east-1",
        "OperatingRegions": [
            {
                "RegionName": "us-east-1"
            }
        ],
        "IsDefault": false,
        "State": "delete-in-progress"
    }
}

For more information about resource discoveries, see Work with resource discoveries in the Amazon VPC IPAM User Guide.

To delete an IPAM scope

The following delete-ipam-scope example deletes an IPAM.

aws ec2 delete-ipam-scope \
    --ipam-scope-id ipam-scope-01c1ebab2b63bd7e4

Output:

{
    "IpamScope": {
        "OwnerId": "123456789012",
        "IpamScopeId": "ipam-scope-01c1ebab2b63bd7e4",
        "IpamScopeArn": "arn:aws:ec2::123456789012:ipam-scope/ipam-scope-01c1ebab2b63bd7e4",
        "IpamArn": "arn:aws:ec2::123456789012:ipam/ipam-08440e7a3acde3908",
        "IpamRegion": "us-east-1",
        "IpamScopeType": "private",
        "IsDefault": false,
        "Description": "Example description",
        "PoolCount": 0,
        "State": "delete-in-progress"
    }
}

For more information, see Delete a scope in the Amazon VPC IPAM User Guide.

To delete an IPAM

The following delete-ipam example deletes an IPAM.

aws ec2 delete-ipam \
    --ipam-id ipam-036486dfa6af58ee0

Output:

{
    "Ipam": {
        "OwnerId": "123456789012",
        "IpamId": "ipam-036486dfa6af58ee0",
        "IpamArn": "arn:aws:ec2::123456789012:ipam/ipam-036486dfa6af58ee0",
        "IpamRegion": "us-east-1",
        "PublicDefaultScopeId": "ipam-scope-071b8042b0195c183",
        "PrivateDefaultScopeId": "ipam-scope-0807405dece705a30",
        "ScopeCount": 2,
        "OperatingRegions": [
            {
                "RegionName": "us-east-1"
            },
            {
                "RegionName": "us-east-2"
            },
            {
                "RegionName": "us-west-1"
            }
        ],
        "State": "delete-in-progress"
    }
}

For more information, see Delete an IPAM in the Amazon VPC IPAM User Guide.

To delete a key pair

The following delete-key-pair example deletes the specified key pair.

aws ec2 delete-key-pair \
    --key-name my-key-pair

Output:

{
    "Return": true,
    "KeyPairId": "key-03c8d3aceb53b507"
}

For more information, see Create and delete key pairs in the AWS Command Line Interface User Guide.

To delete a launch template version

This example deletes the specified launch template version.

Command:

aws ec2 delete-launch-template-versions --launch-template-id lt-0abcd290751193123 --versions 1

Output:

{
  "UnsuccessfullyDeletedLaunchTemplateVersions": [],
  "SuccessfullyDeletedLaunchTemplateVersions": [
      {
          "LaunchTemplateName": "TestVersion",
          "VersionNumber": 1,
          "LaunchTemplateId": "lt-0abcd290751193123"
      }
  ]
}

To delete a launch template

This example deletes the specified launch template.

Command:

aws ec2 delete-launch-template --launch-template-id lt-0abcd290751193123

Output:

{
  "LaunchTemplate": {
      "LatestVersionNumber": 2,
      "LaunchTemplateId": "lt-0abcd290751193123",
      "LaunchTemplateName": "TestTemplate",
      "DefaultVersionNumber": 2,
      "CreatedBy": "arn:aws:iam::123456789012:root",
      "CreateTime": "2017-11-23T16:46:25.000Z"
  }
}

To disassociate a local gateway route table from a virtual interfaces (VIFs) group

The following delete-local-gateway-route-table-virtual-interface-group-association example deletes the association between the specified local gateway route table and VIF group.

aws ec2 delete-local-gateway-route-table-virtual-interface-group-association \
    --local-gateway-route-table-virtual-interface-group-association-id lgw-vif-grp-assoc-exampleid12345678

Output:

{
    "LocalGatewayRouteTableVirtualInterfaceGroupAssociation": {
        "LocalGatewayRouteTableVirtualInterfaceGroupAssociationId": "lgw-vif-grp-assoc-exampleid12345678",
        "LocalGatewayVirtualInterfaceGroupId": "lgw-vif-grp-exampleid0123abcd",
        "LocalGatewayId": "lgw-exampleid11223344",
        "LocalGatewayRouteTableId": "lgw-rtb-exampleidabcd1234",
        "LocalGatewayRouteTableArn": "arn:aws:ec2:us-west-2:111122223333:local-gateway-route-table/lgw-rtb-exampleidabcd1234",
        "OwnerId": "111122223333",
        "State": "disassociating",
        "Tags": []
    }
}

For more information, see VIF group associations in the AWS Outposts User Guide.

To disassociate a local gateway route table from a VPC

The following delete-local-gateway-route-table-vpc-association example deletes the association between the specified local gateway route table and VPC.

aws ec2 delete-local-gateway-route-table-vpc-association \
    --local-gateway-route-table-vpc-association-id vpc-example0123456789

Output:

{
    "LocalGatewayRouteTableVpcAssociation": {
        "LocalGatewayRouteTableVpcAssociationId": "lgw-vpc-assoc-abcd1234wxyz56789",
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890",
        "LocalGatewayRouteTableArn": "arn:aws:ec2:us-west-2:555555555555:local-gateway-route-table/lgw-rtb-abcdefg1234567890",
        "LocalGatewayId": "lgw-exampleid01234567",
        "VpcId": "vpc-example0123456789",
        "OwnerId": "555555555555",
        "State": "disassociating"
    }
}

For more information, see VPC associations in the AWS Outposts User Guide.

To delete a local gateway route table

The following delete-local-gateway-route-table example creates a local gateway route table with the direct VPC routing mode.

aws ec2 delete-local-gateway-route-table \
    --local-gateway-route-table-id lgw-rtb-abcdefg1234567890

Output:

{
    "LocalGatewayRouteTable": {
        "LocalGatewayRouteTableId": "lgw-rtb-abcdefg1234567890",
        "LocalGatewayRouteTableArn": "arn:aws:ec2:us-west-2:111122223333:local-gateway-route-table/lgw-rtb-abcdefg1234567890",
        "LocalGatewayId": "lgw-1a2b3c4d5e6f7g8h9",
        "OutpostArn": "arn:aws:outposts:us-west-2:111122223333:outpost/op-021345abcdef67890",
        "OwnerId": "111122223333",
        "State": "deleting",
        "Tags": [],
        "Mode": "direct-vpc-routing"
    }
}

For more information, see Local gateway route tables in the AWS Outposts User Guide.

To delete a route from a local gateway route table

The following delete-local-gateway-route example deletes the specified route from the specified local gateway route table.

aws ec2 delete-local-gateway-route \
    --destination-cidr-block 0.0.0.0/0 \
    --local-gateway-route-table-id lgw-rtb-059615ef7dEXAMPLE

Output:

{
    "Route": {
        "DestinationCidrBlock": "0.0.0.0/0",
        "LocalGatewayVirtualInterfaceGroupId": "lgw-vif-grp-07145b276bEXAMPLE",
        "Type": "static",
        "State": "deleted",
        "LocalGatewayRouteTableId": "lgw-rtb-059615ef7EXAMPLE"
    }
}

To delete a prefix list

The following delete-managed-prefix-list example deletes the specified prefix list.

aws ec2 delete-managed-prefix-list \
    --prefix-list-id pl-0123456abcabcabc1

Output:

{
    "PrefixList": {
        "PrefixListId": "pl-0123456abcabcabc1",
        "AddressFamily": "IPv4",
        "State": "delete-in-progress",
        "PrefixListArn": "arn:aws:ec2:us-west-2:123456789012:prefix-list/pl-0123456abcabcabc1",
        "PrefixListName": "test",
        "MaxEntries": 10,
        "Version": 1,
        "OwnerId": "123456789012"
    }
}

For more information, see Managed prefix lists in the Amazon VPC User Guide.

To delete a NAT gateway

This example deletes NAT gateway nat-04ae55e711cec5680.

Command:

aws ec2 delete-nat-gateway --nat-gateway-id nat-04ae55e711cec5680

Output:

{
   "NatGatewayId": "nat-04ae55e711cec5680"
}

To delete a network ACL entry

This example deletes ingress rule number 100 from the specified network ACL. If the command succeeds, no output is returned.

Command:

aws ec2 delete-network-acl-entry --network-acl-id acl-5fb85d36 --ingress --rule-number 100

To delete a network ACL

This example deletes the specified network ACL. If the command succeeds, no output is returned.

Command:

aws ec2 delete-network-acl --network-acl-id acl-5fb85d36

To delete a Network Access Scope analysis

The following delete-network-insights-access-scope-analysis example deletes the specified Network Access Scope analysis.

aws ec2 delete-network-insights-access-scope-analysis \
    --network-insights-access-scope-analysis-id nisa-01234567891abcdef

Output:

{
    "NetworkInsightsAccessScopeAnalysisId": "nisa-01234567891abcdef
}

For more information, see Getting started with Network Access Analyzer using the AWS CLI in the Network Access Analyzer Guide.

To delete a Network Access Scope

The following delete-network-insights-access-scope example deletes the specified Network Access Scope.

aws ec2 delete-network-insights-access-scope \
    --network-insights-access-scope-id nis-123456789abc01234

Output:

{
    "NetworkInsightsAccessScopeId": "nis-123456789abc01234"
}

For more information, see Getting started with Network Access Analyzer using the AWS CLI in the Network Access Analyzer Guide.

To delete a path analysis

The following delete-network-insights-analysis example deletes the specified analysis.

aws ec2 delete-network-insights-analysis \
    --network-insights-analysis-id nia-02207aa13eb480c7a

Output:

{
    "NetworkInsightsAnalysisId": "nia-02207aa13eb480c7a"
}

For more information, see Getting started using the AWS CLI in the Reachability Analyzer Guide.

To delete a path

The following delete-network-insights-path example deletes the specified path. Before you can delete a path, you must delete all its analyses using the delete-network-insights-analysis command.

aws ec2 delete-network-insights-path \
    --network-insights-path-id nip-0b26f224f1d131fa8

Output:

{
    "NetworkInsightsPathId": "nip-0b26f224f1d131fa8"
}

For more information, see Getting started using the AWS CLI in the Reachability Analyzer Guide.

To delete a network interface permission

This example deletes the specified network interface permission.

Command:

aws ec2 delete-network-interface-permission --network-interface-permission-id eni-perm-06fd19020ede149ea

Output:

{
  "Return": true
}