// To regenerate api.pb.go run hack/update-generated-runtime.sh syntax = 'proto2'; package runtime; // Runtime service defines the public APIs for remote container runtimes service RuntimeService { // Version returns the runtime name, runtime version, and runtime API version. rpc Version(VersionRequest) returns (VersionResponse) {} // RunPodSandbox creates and starts a pod-level sandbox. Runtimes must ensure // the sandbox is in the ready state on success. rpc RunPodSandbox(RunPodSandboxRequest) returns (RunPodSandboxResponse) {} // StopPodSandbox stops any running process that is part of the sandbox and // reclaims network resources (e.g., IP addresses) allocated to the sandbox. // If there are any running containers in the sandbox, they must be forcibly // terminated. // This call is idempotent, and must not return an error if all relevant // resources have already been reclaimed. kubelet will call StopPodSandbox // at least once before calling RemovePodSandbox. It will also attempt to // reclaim resources eagerly, as soon as a sandbox is not needed. Hence, // multiple StopPodSandbox calls are expected. rpc StopPodSandbox(StopPodSandboxRequest) returns (StopPodSandboxResponse) {} // RemovePodSandbox removes the sandbox. If there are any running containers // in the sandbox, they must be forcibly terminated and removed. // This call is idempotent, and must not return an error if the sandbox has // already been removed. rpc RemovePodSandbox(RemovePodSandboxRequest) returns (RemovePodSandboxResponse) {} // PodSandboxStatus returns the status of the PodSandbox. rpc PodSandboxStatus(PodSandboxStatusRequest) returns (PodSandboxStatusResponse) {} // ListPodSandbox returns a list of PodSandboxes. rpc ListPodSandbox(ListPodSandboxRequest) returns (ListPodSandboxResponse) {} // CreateContainer creates a new container in specified PodSandbox rpc CreateContainer(CreateContainerRequest) returns (CreateContainerResponse) {} // StartContainer starts the container. rpc StartContainer(StartContainerRequest) returns (StartContainerResponse) {} // StopContainer stops a running container with a grace period (i.e., timeout). // This call is idempotent, and must not return an error if the container has // already been stopped. // TODO: what must the runtime do after the grace period is reached? rpc StopContainer(StopContainerRequest) returns (StopContainerResponse) {} // RemoveContainer removes the container. If the container is running, the // container must be forcibly removed. // This call is idempotent, and must not return an error if the container has // already been removed. rpc RemoveContainer(RemoveContainerRequest) returns (RemoveContainerResponse) {} // ListContainers lists all containers by filters. rpc ListContainers(ListContainersRequest) returns (ListContainersResponse) {} // ContainerStatus returns status of the container. rpc ContainerStatus(ContainerStatusRequest) returns (ContainerStatusResponse) {} // ExecSync runs a command in a container synchronously. rpc ExecSync(ExecSyncRequest) returns (ExecSyncResponse) {} // Exec prepares a streaming endpoint to execute a command in the container. rpc Exec(ExecRequest) returns (ExecResponse) {} // Attach prepares a streaming endpoint to attach to a running container. rpc Attach(AttachRequest) returns (AttachResponse) {} // PortForward prepares a streaming endpoint to forward ports from a PodSandbox. rpc PortForward(PortForwardRequest) returns (PortForwardResponse) {} // UpdateRuntimeConfig updates the runtime configuration based on the given request. rpc UpdateRuntimeConfig(UpdateRuntimeConfigRequest) returns (UpdateRuntimeConfigResponse) {} // Status returns the status of the runtime. rpc Status(StatusRequest) returns (StatusResponse) {} } // ImageService defines the public APIs for managing images. service ImageService { // ListImages lists existing images. rpc ListImages(ListImagesRequest) returns (ListImagesResponse) {} // ImageStatus returns the status of the image. If the image is not // present, returns a response with ImageStatusResponse.Image set to // nil. rpc ImageStatus(ImageStatusRequest) returns (ImageStatusResponse) {} // PullImage pulls an image with authentication config. rpc PullImage(PullImageRequest) returns (PullImageResponse) {} // RemoveImage removes the image. // This call is idempotent, and must not return an error if the image has // already been removed. rpc RemoveImage(RemoveImageRequest) returns (RemoveImageResponse) {} } message VersionRequest { // Version of the kubelet runtime API. optional string version = 1; } message VersionResponse { // Version of the kubelet runtime API. optional string version = 1; // Name of the container runtime. optional string runtime_name = 2; // Version of the container runtime. The string must be // semver-compatible. optional string runtime_version = 3; // API version of the container runtime. The string must be // semver-compatible. optional string runtime_api_version = 4; } // DNSConfig specifies the DNS servers and search domains of a sandbox. message DNSConfig { // List of DNS servers of the cluster. repeated string servers = 1; // List of DNS search domains of the cluster. repeated string searches = 2; // List of DNS options. See https://linux.die.net/man/5/resolv.conf // for all available options. repeated string options = 3; } enum Protocol { TCP = 0; UDP = 1; } // PortMapping specifies the port mapping configurations of a sandbox. message PortMapping { // Protocol of the port mapping. optional Protocol protocol = 1; // Port number within the container. optional int32 container_port = 2; // Port number on the host. optional int32 host_port = 3; // Host IP. optional string host_ip = 4; } // Mount specifies a host volume to mount into a container. message Mount { // Path of the mount within the container. optional string container_path = 1; // Path of the mount on the host. optional string host_path = 2; // If set, the mount is read-only. optional bool readonly = 3; // If set, the mount needs SELinux relabeling. optional bool selinux_relabel = 4; } // NamespaceOption provides options for Linux namespaces. message NamespaceOption { // If set, use the host's network namespace. optional bool host_network = 1; // If set, use the host's PID namespace. optional bool host_pid = 2; // If set, use the host's IPC namespace. optional bool host_ipc = 3; } // LinuxSandboxSecurityContext holds linux security configuration that will be // applied to a sandbox. Note that: // 1) It does not apply to containers in the pods. // 2) It may not be applicable to a PodSandbox which does not contain any running // process. message LinuxSandboxSecurityContext { // Configurations for the sandbox's namespaces. // This will be used only if the PodSandbox uses namespace for isolation. optional NamespaceOption namespace_options = 1; // Optional SELinux context to be applied. optional SELinuxOption selinux_options = 2; // UID to run sandbox processes as, when applicable. optional int64 run_as_user = 3; // If set, the root filesystem of the sandbox is read-only. optional bool readonly_rootfs = 4; // List of groups applied to the first process run in the sandbox, in // addition to the sandbox's primary GID. repeated int64 supplemental_groups = 5; // Indicates whether the sandbox will be asked to run a privileged // container. If a privileged container is to be executed within it, this // MUST be true. // This allows a sandbox to take additional security precautions if no // privileged containers are expected to be run. optional bool privileged = 6; } // LinuxPodSandboxConfig holds platform-specific configurations for Linux // host platforms and Linux-based containers. message LinuxPodSandboxConfig { // Parent cgroup of the PodSandbox. // The cgroupfs style syntax will be used, but the container runtime can // convert it to systemd semantics if needed. optional string cgroup_parent = 1; // LinuxSandboxSecurityContext holds sandbox security attributes. optional LinuxSandboxSecurityContext security_context = 2; } // PodSandboxMetadata holds all necessary information for building the sandbox name. // The container runtime is encouraged to expose the metadata associated with the // PodSandbox in its user interface for better user experience. For example, // the runtime can construct a unique PodSandboxName based on the metadata. message PodSandboxMetadata { // Pod name of the sandbox. Same as the pod name in the PodSpec. optional string name = 1; // Pod UID of the sandbox. Same as the pod UID in the PodSpec. optional string uid = 2; // Pod namespace of the sandbox. Same as the pod namespace in the PodSpec. optional string namespace = 3; // Attempt number of creating the sandbox. optional uint32 attempt = 4; } // PodSandboxConfig holds all the required and optional fields for creating a // sandbox. message PodSandboxConfig { // Metadata of the sandbox. This information will uniquely identify the // sandbox, and the runtime should leverage this to ensure correct // operation. The runtime may also use this information to improve UX, such // as by constructing a readable name. optional PodSandboxMetadata metadata = 1; // Hostname of the sandbox. optional string hostname = 2; // Path to the directory on the host in which container log files are // stored. // By default the log of a container going into the LogDirectory will be // hooked up to STDOUT and STDERR. However, the LogDirectory may contain // binary log files with structured logging data from the individual // containers. For example, the files might be newline separated JSON // structured logs, systemd-journald journal files, gRPC trace files, etc. // E.g., // PodSandboxConfig.LogDirectory = `/var/log/pods//` // ContainerConfig.LogPath = `containerName_Instance#.log` // // WARNING: Log management and how kubelet should interface with the // container logs are under active discussion in // https://issues.k8s.io/24677. There *may* be future change of direction // for logging as the discussion carries on. optional string log_directory = 3; // DNS config for the sandbox. optional DNSConfig dns_config = 4; // Port mappings for the sandbox. repeated PortMapping port_mappings = 5; // Key-value pairs that may be used to scope and select individual resources. map labels = 6; // Annotations is an unstructured key value map that may be set by external // tools to store and retrieve arbitrary metadata. There are a few features are // driven by annotations, Runtimes could support them optionally: // // 1. AppArmor // // key: container.apparmor.security.beta.kubernetes.io/ // description: apparmor profile for the container. // value: // * runtime/default: equivalent to not specifying a profile. // * localhost/: profile loaded on the node // (localhost) by name. The possible profile names are detailed at // http://wiki.apparmor.net/index.php/AppArmor_Core_Policy_Reference // // 2. Seccomp // // key: security.alpha.kubernetes.io/seccomp/pod // description: the seccomp profile for the containers of an entire pod. // value: see below. // // key: security.alpha.kubernetes.io/seccomp/container/ // description: the seccomp profile for the container (overides pod). // values: see below // // The value of seccomp is runtime agnostic: // * runtime/default: the default profile for the container runtime // * unconfined: unconfined profile, ie, no seccomp sandboxing // * localhost/: the profile installed to the node's // local seccomp profile root. Note that profile root is set in // kubelet, and it is not passed in CRI yet, see https://issues.k8s.io/36997. // // 3. Sysctls // // key: security.alpha.kubernetes.io/sysctls // description: list of safe sysctls which are set for the sandbox. // value: comma separated list of sysctl_name=value key-value pairs. // // key: security.alpha.kubernetes.io/unsafe-sysctls // description: list of unsafe sysctls which are set for the sandbox. // value: comma separated list of sysctl_name=value key-value pairs. // map annotations = 7; // Optional configurations specific to Linux hosts. optional LinuxPodSandboxConfig linux = 8; } message RunPodSandboxRequest { // Configuration for creating a PodSandbox. optional PodSandboxConfig config = 1; } message RunPodSandboxResponse { // ID of the PodSandbox to run. optional string pod_sandbox_id = 1; } message StopPodSandboxRequest { // ID of the PodSandbox to stop. optional string pod_sandbox_id = 1; } message StopPodSandboxResponse {} message RemovePodSandboxRequest { // ID of the PodSandbox to remove. optional string pod_sandbox_id = 1; } message RemovePodSandboxResponse {} message PodSandboxStatusRequest { // ID of the PodSandbox for which to retrieve status. optional string pod_sandbox_id = 1; } // PodSandboxNetworkStatus is the status of the network for a PodSandbox. message PodSandboxNetworkStatus { // IP address of the PodSandbox. optional string ip = 1; } // Namespace contains paths to the namespaces. message Namespace { // Path to the network namespace. optional string network = 1; // Namespace options for Linux namespaces. optional NamespaceOption options = 2; } // LinuxSandboxStatus contains status specific to Linux sandboxes. message LinuxPodSandboxStatus { // Paths to the sandbox's namespaces. optional Namespace namespaces = 1; } enum PodSandboxState { SANDBOX_READY = 0; SANDBOX_NOTREADY = 1; } // PodSandboxStatus contains the status of the PodSandbox. message PodSandboxStatus { // ID of the sandbox. optional string id = 1; // Metadata of the sandbox. optional PodSandboxMetadata metadata = 2; // State of the sandbox. optional PodSandboxState state = 3; // Creation timestamp of the sandbox in nanoseconds. optional int64 created_at = 4; // Network contains network status if network is handled by the runtime. optional PodSandboxNetworkStatus network = 5; // Linux-specific status to a pod sandbox. optional LinuxPodSandboxStatus linux = 6; // Labels are key value pairs that may be used to scope and select individual resources. map labels = 7; // Annotations is an unstructured key value map that may be set by external // tools to store and retrieve arbitrary metadata. map annotations = 8; } message PodSandboxStatusResponse { // Status of the PodSandbox. optional PodSandboxStatus status = 1; } // PodSandboxFilter is used to filter a list of PodSandboxes. // All those fields are combined with 'AND' message PodSandboxFilter { // ID of the sandbox. optional string id = 1; // State of the sandbox. optional PodSandboxState state = 2; // LabelSelector to select matches. // Only api.MatchLabels is supported for now and the requirements // are ANDed. MatchExpressions is not supported yet. map label_selector = 3; } message ListPodSandboxRequest { // PodSandboxFilter to filter a list of PodSandboxes. optional PodSandboxFilter filter = 1; } // PodSandbox contains minimal information about a sandbox. message PodSandbox { // ID of the PodSandbox. optional string id = 1; // Metadata of the PodSandbox. optional PodSandboxMetadata metadata = 2; // State of the PodSandbox. optional PodSandboxState state = 3; // Creation timestamps of the PodSandbox in nanoseconds. optional int64 created_at = 4; // Labels of the PodSandbox. map labels = 5; // Annotations is an unstructured key value map that may be set by external // tools to store and retrieve arbitrary metadata. map annotations = 6; } message ListPodSandboxResponse { // List of PodSandboxes. repeated PodSandbox items = 1; } // ImageSpec is an internal representation of an image. Currently, it wraps the // value of a Container's Image field (e.g. imageName, imageName:tag, or // imageName:digest), but in the future it will include more detailed // information about the different image types. message ImageSpec { optional string image = 1; } message KeyValue { optional string key = 1; optional string value = 2; } // LinuxContainerResources specifies Linux specific configuration for // resources. // TODO: Consider using Resources from opencontainers/runtime-spec/specs-go // directly. message LinuxContainerResources { // CPU CFS (Completely Fair Scheduler) period. optional int64 cpu_period = 1; // CPU CFS (Completely Fair Scheduler) quota. optional int64 cpu_quota = 2; // CPU shares (relative weight vs. other containers). optional int64 cpu_shares = 3; // Memory limit in bytes. optional int64 memory_limit_in_bytes = 4; // OOMScoreAdj adjusts the oom-killer score. optional int64 oom_score_adj = 5; } // SELinuxOption are the labels to be applied to the container. message SELinuxOption { optional string user = 1; optional string role = 2; optional string type = 3; optional string level = 4; } // Capability contains the container capabilities to add or drop message Capability { // List of capabilities to add. repeated string add_capabilities = 1; // List of capabilities to drop. repeated string drop_capabilities = 2; } // LinuxContainerSecurityContext holds linux security configuration that will be applied to a container. message LinuxContainerSecurityContext { // Capabilities to add or drop. optional Capability capabilities = 1; // If set, run container in privileged mode. // Privileged mode is incompatible with the following options. If // privileged is set, the following features MAY have no effect: // 1. capabilities // 2. selinux_options // 4. seccomp // 5. apparmor // // Privileged mode implies the following specific options are applied: // 1. All capabilities are added. // 2. Sensitive paths, such as kernel module paths within sysfs, are not masked. // 3. Any sysfs and procfs mounts are mounted RW. // 4. Apparmor confinement is not applied. // 5. Seccomp restrictions are not applied. // 6. The device cgroup does not restrict access to any devices. // 7. All devices from the host's /dev are available within the container. // 8. SELinux restrictions are not applied (e.g. label=disabled). optional bool privileged = 2; // Configurations for the container's namespaces. // Only used if the container uses namespace for isolation. optional NamespaceOption namespace_options = 3; // SELinux context to be optionally applied. optional SELinuxOption selinux_options = 4; // UID to run the container process as. Only one of run_as_user and // run_as_username can be specified at a time. optional int64 run_as_user = 5; // User name to run the container process as. If specified, the user MUST // exist in the container image (i.e. in the /etc/passwd inside the image), // and be resolved there by the runtime; otherwise, the runtime MUST error. optional string run_as_username = 6; // If set, the root filesystem of the container is read-only. optional bool readonly_rootfs = 7; // List of groups applied to the first process run in the container, in // addition to the container's primary GID. repeated int64 supplemental_groups = 8; } // LinuxContainerConfig contains platform-specific configuration for // Linux-based containers. message LinuxContainerConfig { // Resources specification for the container. optional LinuxContainerResources resources = 1; // LinuxContainerSecurityContext configuration for the container. optional LinuxContainerSecurityContext security_context = 2; } // ContainerMetadata holds all necessary information for building the container // name. The container runtime is encouraged to expose the metadata in its user // interface for better user experience. E.g., runtime can construct a unique // container name based on the metadata. Note that (name, attempt) is unique // within a sandbox for the entire lifetime of the sandbox. message ContainerMetadata { // Name of the container. Same as the container name in the PodSpec. optional string name = 1; // Attempt number of creating the container. optional uint32 attempt = 2; } // Device specifies a host device to mount into a container. message Device { // Path of the device within the container. optional string container_path = 1; // Path of the device on the host. optional string host_path = 2; // Cgroups permissions of the device, candidates are one or more of // * r - allows container to read from the specified device. // * w - allows container to write to the specified device. // * m - allows container to create device files that do not yet exist. optional string permissions = 3; } // ContainerConfig holds all the required and optional fields for creating a // container. message ContainerConfig { // Metadata of the container. This information will uniquely identify the // container, and the runtime should leverage this to ensure correct // operation. The runtime may also use this information to improve UX, such // as by constructing a readable name. optional ContainerMetadata metadata = 1 ; // Image to use. optional ImageSpec image = 2; // Command to execute (i.e., entrypoint for docker) repeated string command = 3; // Args for the Command (i.e., command for docker) repeated string args = 4; // Current working directory of the command. optional string working_dir = 5; // List of environment variable to set in the container. repeated KeyValue envs = 6; // Mounts for the container. repeated Mount mounts = 7; // Devices for the container. repeated Device devices = 8; // Key-value pairs that may be used to scope and select individual resources. // Label keys are of the form: // label-key ::= prefixed-name | name // prefixed-name ::= prefix '/' name // prefix ::= DNS_SUBDOMAIN // name ::= DNS_LABEL map labels = 9; // Annotations is an unstructured key value map that may be set by external // tools to store and retrieve arbitrary metadata. map annotations = 10; // Path relative to PodSandboxConfig.LogDirectory for container to store // the log (STDOUT and STDERR) on the host. // E.g., // PodSandboxConfig.LogDirectory = `/var/log/pods//` // ContainerConfig.LogPath = `containerName_Instance#.log` // // WARNING: Log management and how kubelet should interface with the // container logs are under active discussion in // https://issues.k8s.io/24677. There *may* be future change of direction // for logging as the discussion carries on. optional string log_path = 11; // Variables for interactive containers, these have very specialized // use-cases (e.g. debugging). // TODO: Determine if we need to continue supporting these fields that are // part of Kubernetes's Container Spec. optional bool stdin = 12; optional bool stdin_once = 13; optional bool tty = 14; // Configuration specific to Linux containers. optional LinuxContainerConfig linux = 15; } message CreateContainerRequest { // ID of the PodSandbox in which the container should be created. optional string pod_sandbox_id = 1; // Config of the container. optional ContainerConfig config = 2; // Config of the PodSandbox. This is the same config that was passed // to RunPodSandboxRequest to create the PodSandbox. It is passed again // here just for easy reference. The PodSandboxConfig is immutable and // remains the same throughout the lifetime of the pod. optional PodSandboxConfig sandbox_config = 3; } message CreateContainerResponse { // ID of the created container. optional string container_id = 1; } message StartContainerRequest { // ID of the container to start. optional string container_id = 1; } message StartContainerResponse {} message StopContainerRequest { // ID of the container to stop. optional string container_id = 1; // Timeout, in seconds, to stop the container. optional int64 timeout = 2; } message StopContainerResponse {} message RemoveContainerRequest { // ID of the container to remove. optional string container_id = 1; } message RemoveContainerResponse {} enum ContainerState { CONTAINER_CREATED = 0; CONTAINER_RUNNING = 1; CONTAINER_EXITED = 2; CONTAINER_UNKNOWN = 3; } // ContainerFilter is used to filter containers. // All those fields are combined with 'AND' message ContainerFilter { // ID of the container. optional string id = 1; // State of the container. optional ContainerState state = 2; // ID of the PodSandbox. optional string pod_sandbox_id = 3; // LabelSelector to select matches. // Only api.MatchLabels is supported for now and the requirements // are ANDed. MatchExpressions is not supported yet. map label_selector = 4; } message ListContainersRequest { optional ContainerFilter filter = 1; } // Container provides the runtime information for a container, such as ID, hash, // state of the container. message Container { // ID of the container, used by the container runtime to identify // a container. optional string id = 1; // ID of the sandbox to which this container belongs. optional string pod_sandbox_id = 2; // Metadata of the container. optional ContainerMetadata metadata = 3; // Spec of the image. optional ImageSpec image = 4; // Reference to the image in use. For most runtimes, this should be an // image ID. optional string image_ref = 5; // State of the container. optional ContainerState state = 6; // Creation time of the container in nanoseconds. optional int64 created_at = 7; // Key-value pairs that may be used to scope and select individual resources. map labels = 8; // Annotations is an unstructured key value map that may be set by external // tools to store and retrieve arbitrary metadata. map annotations = 9; } message ListContainersResponse { // List of containers. repeated Container containers = 1; } message ContainerStatusRequest { // ID of the container for which to retrieve status. optional string container_id = 1; } // ContainerStatus represents the status of a container. message ContainerStatus { // ID of the container. optional string id = 1; // Metadata of the container. optional ContainerMetadata metadata = 2; // Status of the container. optional ContainerState state = 3; // Creation time of the container in nanoseconds. optional int64 created_at = 4; // Start time of the container in nanoseconds. optional int64 started_at = 5; // Finish time of the container in nanoseconds. optional int64 finished_at = 6; // Exit code of the container. optional int32 exit_code = 7; // Spec of the image. optional ImageSpec image = 8; // Reference to the image in use. For most runtimes, this should be an // image ID optional string image_ref = 9; // Brief CamelCase string explaining why container is in its current state. optional string reason = 10; // Human-readable message indicating details about why container is in its // current state. optional string message = 11; // Key-value pairs that may be used to scope and select individual resources. map labels = 12; // Annotations is an unstructured key value map. map annotations = 13; // Mounts for the container. repeated Mount mounts = 14; } message ContainerStatusResponse { // Status of the container. optional ContainerStatus status = 1; } message ExecSyncRequest { // ID of the container. optional string container_id = 1; // Command to execute. repeated string cmd = 2; // Timeout in seconds to stop the command. Default: run forever. optional int64 timeout = 3; } message ExecSyncResponse { // Captured command stdout output. optional bytes stdout = 1; // Captured command stderr output. optional bytes stderr = 2; // Exit code the command finished with. optional int32 exit_code = 3; } message ExecRequest { // ID of the container in which to execute the command. optional string container_id = 1; // Command to execute. repeated string cmd = 2; // Whether to exec the command in a TTY. optional bool tty = 3; // Whether to stream stdin. optional bool stdin = 4; } message ExecResponse { // Fully qualified URL of the exec streaming server. optional string url = 1; } message AttachRequest { // ID of the container to which to attach. optional string container_id = 1; // Whether to stream stdin. optional bool stdin = 2; // Whether the process being attached is running in a TTY. // This must match the TTY setting in the ContainerConfig. optional bool tty = 3; } message AttachResponse { // Fully qualified URL of the attach streaming server. optional string url = 1; } message PortForwardRequest { // ID of the container to which to forward the port. optional string pod_sandbox_id = 1; // Port to forward. repeated int32 port = 2; } message PortForwardResponse { // Fully qualified URL of the port-forward streaming server. optional string url = 1; } message ImageFilter { // Spec of the image. optional ImageSpec image = 1; } message ListImagesRequest { // Filter to list images. optional ImageFilter filter = 1; } // Basic information about a container image. message Image { // ID of the image. optional string id = 1; // Other names by which this image is known. repeated string repo_tags = 2; // Digests by which this image is known. repeated string repo_digests = 3; // Size of the image in bytes. optional uint64 size = 4; // UID that will run the command(s). This is used as a default if no user is // specified when creating the container. UID and the following user name // are mutually exclusive. optional int64 uid = 5; // User name that will run the command(s). This is used if UID is not set // and no user is specified when creating container. optional string username = 6; } message ListImagesResponse { // List of images. repeated Image images = 1; } message ImageStatusRequest { // Spec of the image. optional ImageSpec image = 1; } message ImageStatusResponse { // Status of the image. optional Image image = 1; } // AuthConfig contains authorization information for connecting to a registry. message AuthConfig { optional string username = 1; optional string password = 2; optional string auth = 3; optional string server_address = 4; // IdentityToken is used to authenticate the user and get // an access token for the registry. optional string identity_token = 5; // RegistryToken is a bearer token to be sent to a registry optional string registry_token = 6; } message PullImageRequest { // Spec of the image. optional ImageSpec image = 1; // Authentication configuration for pulling the image. optional AuthConfig auth = 2; // Config of the PodSandbox, which is used to pull image in PodSandbox context. optional PodSandboxConfig sandbox_config = 3; } message PullImageResponse {} message RemoveImageRequest { // Spec of the image to remove. optional ImageSpec image = 1; } message RemoveImageResponse {} message NetworkConfig { // CIDR to use for pod IP addresses. optional string pod_cidr = 1; } message RuntimeConfig { optional NetworkConfig network_config = 1; } message UpdateRuntimeConfigRequest { optional RuntimeConfig runtime_config = 1; } message UpdateRuntimeConfigResponse {} // RuntimeCondition contains condition information for the runtime. // There are 2 kinds of runtime conditions: // 1. Required condtitions: Conditions are required for kubelet to work // properly. If any required condition is unmet, the node will be not ready. // The required conditions include: // * RuntimeReady: RuntimeReady means the runtime is up and ready to accept // basic containers e.g. container only needs host network. // * NetworkReady: NetworkReady means the runtime network is up and ready to // accept containers which require container network. // 2. Optional conditions: Conditions are informative to the user, but kubelet // will not rely on. Since condition type is an arbitrary string, all conditions // not required are optional. These conditions will be exposed to users to help // them understand the status of the system. message RuntimeCondition { // Type of runtime condition. optional string type = 1; // Status of the condition, one of true/false. optional bool status = 2; // Brief CamelCase string containing reason for the condition's last transition. optional string reason = 3; // Human-readable message indicating details about last transition. optional string message = 4; } // RuntimeStatus is information about the current status of the runtime. message RuntimeStatus { // List of current observed runtime conditions. repeated RuntimeCondition conditions = 1; } message StatusRequest {} message StatusResponse { // Status of the Runtime. optional RuntimeStatus status = 1; }