runtime: remove the unused proto files

These are moved to the agent and no longer needed.

Fixes: #1028
Signed-off-by: Peng Tao <bergwolf@hyper.sh>
This commit is contained in:
Peng Tao 2020-10-25 10:52:20 +08:00 committed by Julio Montes
parent 7daf9cffb1
commit 78df4a0c3f
4 changed files with 0 additions and 1045 deletions

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//
// Copyright 2017 HyperHQ Inc.
//
// SPDX-License-Identifier: Apache-2.0
//
syntax = "proto3";
package grpc;
import "github.com/kata-containers/kata-containers/src/runtime/virtcontainers/pkg/agent/protocols/grpc/oci.proto";
import "github.com/kata-containers/kata-containers/src/runtime/virtcontainers/pkg/agent/protocols/types.proto";
import "google/protobuf/empty.proto";
// unstable
service AgentService {
// execution
rpc CreateContainer(CreateContainerRequest) returns (google.protobuf.Empty);
rpc StartContainer(StartContainerRequest) returns (google.protobuf.Empty);
// RemoveContainer will tear down an existing container by forcibly terminating
// all processes running inside that container and releasing all internal
// resources associated with it.
// RemoveContainer will wait for all processes termination before returning.
// If any process can not be killed or if it can not be killed after
// the RemoveContainerRequest timeout, RemoveContainer will return an error.
rpc RemoveContainer(RemoveContainerRequest) returns (google.protobuf.Empty);
rpc ExecProcess(ExecProcessRequest) returns (google.protobuf.Empty);
rpc SignalProcess(SignalProcessRequest) returns (google.protobuf.Empty);
rpc WaitProcess(WaitProcessRequest) returns (WaitProcessResponse); // wait & reap like waitpid(2)
rpc ListProcesses(ListProcessesRequest) returns (ListProcessesResponse);
rpc UpdateContainer(UpdateContainerRequest) returns (google.protobuf.Empty);
rpc StatsContainer(StatsContainerRequest) returns (StatsContainerResponse);
rpc PauseContainer(PauseContainerRequest) returns (google.protobuf.Empty);
rpc ResumeContainer(ResumeContainerRequest) returns (google.protobuf.Empty);
// stdio
rpc WriteStdin(WriteStreamRequest) returns (WriteStreamResponse);
rpc ReadStdout(ReadStreamRequest) returns (ReadStreamResponse);
rpc ReadStderr(ReadStreamRequest) returns (ReadStreamResponse);
rpc CloseStdin(CloseStdinRequest) returns (google.protobuf.Empty);
rpc TtyWinResize(TtyWinResizeRequest) returns (google.protobuf.Empty);
// networking
rpc UpdateInterface(UpdateInterfaceRequest) returns (types.Interface);
rpc UpdateRoutes(UpdateRoutesRequest) returns (Routes);
rpc ListInterfaces(ListInterfacesRequest) returns(Interfaces);
rpc ListRoutes(ListRoutesRequest) returns (Routes);
// tracing
rpc StartTracing(StartTracingRequest) returns (google.protobuf.Empty);
rpc StopTracing(StopTracingRequest) returns (google.protobuf.Empty);
// misc (TODO: some rpcs can be replaced by hyperstart-exec)
rpc CreateSandbox(CreateSandboxRequest) returns (google.protobuf.Empty);
rpc DestroySandbox(DestroySandboxRequest) returns (google.protobuf.Empty);
rpc OnlineCPUMem(OnlineCPUMemRequest) returns (google.protobuf.Empty);
rpc ReseedRandomDev(ReseedRandomDevRequest) returns (google.protobuf.Empty);
rpc GetGuestDetails(GuestDetailsRequest) returns (GuestDetailsResponse);
rpc MemHotplugByProbe(MemHotplugByProbeRequest) returns (google.protobuf.Empty);
rpc SetGuestDateTime(SetGuestDateTimeRequest) returns (google.protobuf.Empty);
rpc CopyFile(CopyFileRequest) returns (google.protobuf.Empty);
}
message CreateContainerRequest {
string container_id = 1;
string exec_id = 2;
StringUser string_user = 3;
repeated Device devices = 4;
repeated Storage storages = 5;
Spec OCI = 6;
// This field is used to indicate if the container needs to join
// sandbox shared pid ns or create a new namespace. This field is
// meant to override the NEWPID config settings in the OCI spec.
// The agent would receive an OCI spec with PID namespace cleared
// out altogether and not just the pid ns path.
bool sandbox_pidns = 7;
}
message StartContainerRequest {
string container_id = 1;
}
message RemoveContainerRequest {
string container_id = 1;
// RemoveContainer will return an error if
// it could not kill some container processes
// after timeout seconds.
// Setting timeout to 0 means RemoveContainer will
// wait for ever.
uint32 timeout = 2;
}
message ExecProcessRequest {
string container_id = 1;
string exec_id = 2;
StringUser string_user = 3;
Process process = 4;
}
message SignalProcessRequest {
string container_id = 1;
// Special case for SignalProcess(): exec_id can be empty(""),
// which means to send the signal to all the processes including their descendants.
// Other APIs with exec_id should treat empty exec_id as an invalid request.
string exec_id = 2;
uint32 signal = 3;
}
message WaitProcessRequest {
string container_id = 1;
string exec_id = 2;
}
message WaitProcessResponse {
int32 status = 1;
}
// ListProcessesRequest contains the options used to list running processes inside the container
message ListProcessesRequest {
string container_id = 1;
string format = 2;
repeated string args = 3;
}
// ListProcessesResponse represents the list of running processes inside the container
message ListProcessesResponse {
bytes process_list = 1;
}
message UpdateContainerRequest {
string container_id = 1;
LinuxResources resources = 2;
}
message StatsContainerRequest {
string container_id = 1;
}
message PauseContainerRequest {
string container_id = 1;
}
message ResumeContainerRequest {
string container_id = 1;
}
message CpuUsage {
uint64 total_usage = 1;
repeated uint64 percpu_usage = 2;
uint64 usage_in_kernelmode = 3;
uint64 usage_in_usermode = 4;
}
message ThrottlingData {
uint64 periods = 1;
uint64 throttled_periods = 2;
uint64 throttled_time = 3;
}
message CpuStats {
CpuUsage cpu_usage = 1;
ThrottlingData throttling_data = 2;
}
message PidsStats {
uint64 current = 1;
uint64 limit = 2;
}
message MemoryData {
uint64 usage = 1;
uint64 max_usage = 2;
uint64 failcnt = 3;
uint64 limit = 4;
}
message MemoryStats {
uint64 cache = 1;
MemoryData usage = 2;
MemoryData swap_usage = 3;
MemoryData kernel_usage = 4;
bool use_hierarchy = 5;
map<string, uint64> stats = 6;
}
message BlkioStatsEntry {
uint64 major = 1;
uint64 minor = 2;
string op = 3;
uint64 value = 4;
}
message BlkioStats {
repeated BlkioStatsEntry io_service_bytes_recursive = 1; // number of bytes transferred to and from the block device
repeated BlkioStatsEntry io_serviced_recursive = 2;
repeated BlkioStatsEntry io_queued_recursive = 3;
repeated BlkioStatsEntry io_service_time_recursive = 4;
repeated BlkioStatsEntry io_wait_time_recursive = 5;
repeated BlkioStatsEntry io_merged_recursive = 6;
repeated BlkioStatsEntry io_time_recursive = 7;
repeated BlkioStatsEntry sectors_recursive = 8;
}
message HugetlbStats {
uint64 usage = 1;
uint64 max_usage = 2;
uint64 failcnt = 3;
}
message CgroupStats {
CpuStats cpu_stats = 1;
MemoryStats memory_stats = 2;
PidsStats pids_stats = 3;
BlkioStats blkio_stats = 4;
map<string, HugetlbStats> hugetlb_stats = 5; // the map is in the format "size of hugepage: stats of the hugepage"
}
message NetworkStats {
string name = 1;
uint64 rx_bytes = 2;
uint64 rx_packets = 3;
uint64 rx_errors = 4;
uint64 rx_dropped = 5;
uint64 tx_bytes = 6;
uint64 tx_packets = 7;
uint64 tx_errors = 8;
uint64 tx_dropped = 9;
}
message StatsContainerResponse {
CgroupStats cgroup_stats = 1;
repeated NetworkStats network_stats = 2;
}
message WriteStreamRequest {
string container_id = 1;
string exec_id = 2;
bytes data = 3;
}
message WriteStreamResponse {
uint32 len = 1;
}
message ReadStreamRequest {
string container_id = 1;
string exec_id = 2;
uint32 len = 3;
}
message ReadStreamResponse {
bytes data = 1;
}
message CloseStdinRequest {
string container_id = 1;
string exec_id = 2;
}
message TtyWinResizeRequest {
string container_id = 1;
string exec_id = 2;
uint32 row = 3;
uint32 column = 4;
}
message KernelModule {
// This field is the name of the kernel module.
string name = 1;
// This field are the parameters for the kernel module which are
// whitespace-delimited key=value pairs passed to modprobe(8).
repeated string parameters = 2;
}
message CreateSandboxRequest {
string hostname = 1;
repeated string dns = 2;
repeated Storage storages = 3;
// This field means that a pause process needs to be created by the
// agent. This pid namespace of the pause process will be treated as
// a shared pid namespace. All containers created will join this shared
// pid namespace.
bool sandbox_pidns = 4;
// SandboxId identifies which sandbox is using the agent. We allow only
// one sandbox per agent and implicitly require that CreateSandbox is
// called before other sandbox/network calls.
string sandbox_id = 5;
// This field, if non-empty, designates an absolute path to a directory
// that the agent will search for OCI hooks to run within the guest.
string guest_hook_path = 6;
// This field is the list of kernel modules to be loaded in the guest kernel.
repeated KernelModule kernel_modules = 7;
}
message DestroySandboxRequest {
}
message Interfaces {
repeated types.Interface Interfaces = 1;
}
message Routes {
repeated types.Route Routes = 1;
}
message UpdateInterfaceRequest {
types.Interface interface = 1;
}
message UpdateRoutesRequest {
Routes routes = 1;
}
message ListInterfacesRequest {
}
message ListRoutesRequest {
}
message OnlineCPUMemRequest {
// Wait specifies if the caller waits for the agent to online all resources.
// If true the agent returns once all resources have been connected, otherwise all
// resources are connected asynchronously and the agent returns immediately.
bool wait = 1;
// NbCpus specifies the number of CPUs that were added and the agent has to online.
uint32 nb_cpus = 2;
// CpuOnly specifies whether only online CPU or not.
bool cpu_only = 3;
}
message ReseedRandomDevRequest {
// Data specifies the random data used to reseed the guest crng.
bytes data = 2;
}
// AgentDetails provides information to the client about the running agent.
message AgentDetails {
// Semantic version of agent (see https://semver.org).
string version = 1;
// Set if the agent is running as PID 1.
bool init_daemon = 2;
// List of available device handlers.
repeated string device_handlers = 3;
// List of available storage handlers.
repeated string storage_handlers = 4;
// Set only if the agent is built with seccomp support and the guest
// environment supports seccomp.
bool supports_seccomp = 5;
}
message GuestDetailsRequest {
// MemBlockSize asks server to return the system memory block size that can be used
// for memory hotplug alignment. Typically the server returns what's in
// /sys/devices/system/memory/block_size_bytes.
bool mem_block_size = 1;
// MemoryHotplugProbe asks server to return whether guest kernel supports memory hotplug
// via probeinterface. Typically the server will check if the path
// /sys/devices/system/memory/probe exists.
bool mem_hotplug_probe = 2;
}
message GuestDetailsResponse {
// MemBlockSizeBytes returns the system memory block size in bytes.
uint64 mem_block_size_bytes = 1;
AgentDetails agent_details = 2;
bool support_mem_hotplug_probe = 3;
}
message MemHotplugByProbeRequest {
// server needs to send the value of memHotplugProbeAddr into file /sys/devices/system/memory/probe,
// in order to notify the guest kernel about hot-add memory event
repeated uint64 memHotplugProbeAddr = 1;
}
message SetGuestDateTimeRequest {
// Sec the second since the Epoch.
int64 Sec = 1;
// Usec the microseconds portion of time since the Epoch.
int64 Usec = 2;
}
// Storage represents both the rootfs of the container, and any volume that
// could have been defined through the Mount list of the OCI specification.
message Storage {
// Driver is used to define the way the storage is passed through the
// virtual machine. It can be "9p", "blk", or something else, but for
// all cases, this will define if some extra steps are required before
// this storage gets mounted into the container.
string driver = 1;
// DriverOptions allows the caller to define a list of options such
// as block sizes, numbers of luns, ... which are very specific to
// every device and cannot be generalized through extra fields.
repeated string driver_options = 2;
// Source can be anything representing the source of the storage. This
// will be handled by the proper handler based on the Driver used.
// For instance, it can be a very simple path if the caller knows the
// name of device inside the VM, or it can be some sort of identifier
// to let the agent find the device inside the VM.
string source = 3;
// Fstype represents the filesystem that needs to be used to mount the
// storage inside the VM. For instance, it could be "xfs" for block
// device, "9p" for shared filesystem, or "tmpfs" for shared /dev/shm.
string fstype = 4;
// Options describes the additional options that might be needed to
// mount properly the storage filesytem.
repeated string options = 5;
// MountPoint refers to the path where the storage should be mounted
// inside the VM.
string mount_point = 6;
}
// Device represents only the devices that could have been defined through the
// Linux Device list of the OCI specification.
message Device {
// Id can be used to identify the device inside the VM. Some devices
// might not need it to be identified on the VM, and will rely on the
// provided VmPath instead.
string id = 1;
// Type defines the type of device described. This can be "blk",
// "scsi", "vfio", ...
// Particularly, this should be used to trigger the use of the
// appropriate device handler.
string type = 2;
// VmPath can be used by the caller to provide directly the path of
// the device as it will appear inside the VM. For some devices, the
// device id or the list of options passed might not be enough to find
// the device. In those cases, the caller should predict and provide
// this vm_path.
string vm_path = 3;
// ContainerPath defines the path where the device should be found inside
// the container. This path should match the path of the device from
// the device list listed inside the OCI spec. This is used in order
// to identify the right device in the spec and update it with the
// right options such as major/minor numbers as they appear inside
// the VM for instance. Note that an empty ctr_path should be used
// to make sure the device handler inside the agent is called, but
// no spec update needs to be performed. This has to happen for the
// case of rootfs, when a device has to be waited for after it has
// been hotplugged. An equivalent Storage entry should be defined if
// any mount needs to be performed afterwards.
string container_path = 4;
// Options allows the caller to define a list of options such as block
// sizes, numbers of luns, ... which are very specific to every device
// and cannot be generalized through extra fields.
repeated string options = 5;
}
message StringUser {
string uid = 1;
string gid = 2;
repeated string additionalGids = 3;
}
message CopyFileRequest {
// Path is the destination file in the guest. It must be absolute,
// canonical and below /run.
string path = 1;
// FileSize is the expected file size, for security reasons write operations
// are made in a temporary file, once it has the expected size, it's moved
// to the destination path.
int64 file_size = 2;
// FileMode is the file mode.
uint32 file_mode = 3;
// DirMode is the mode for the parent directories of destination path.
uint32 dir_mode = 4;
// Uid is the numeric user id.
int32 uid = 5;
// Gid is the numeric group id.
int32 gid = 6;
// Offset for the next write operation.
int64 offset = 7;
// Data to write in the destination file.
bytes data = 8;
}
message StartTracingRequest {
}
message StopTracingRequest {
}

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//
// Copyright 2017 HyperHQ Inc.
//
// SPDX-License-Identifier: Apache-2.0
//
syntax = "proto3";
package grpc;
import "gogo/protobuf/gogoproto/gogo.proto";
option (gogoproto.equal_all) = true;
option (gogoproto.populate_all) = true;
option (gogoproto.testgen_all) = true;
option (gogoproto.benchgen_all) = true;
message CheckRequest {
string service = 1;
}
message HealthCheckResponse {
enum ServingStatus {
UNKNOWN = 0;
SERVING = 1;
NOT_SERVING = 2;
}
ServingStatus status = 1;
}
message VersionCheckResponse {
string grpc_version = 1;
string agent_version = 2;
}
service Health {
rpc Check(CheckRequest) returns (HealthCheckResponse);
rpc Version(CheckRequest) returns (VersionCheckResponse);
}

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//
// Copyright (c) 2017 Intel Corporation
//
// SPDX-License-Identifier: Apache-2.0
//
syntax = "proto3";
package grpc;
import "gogo/protobuf/gogoproto/gogo.proto";
import "google/protobuf/wrappers.proto";
option (gogoproto.equal_all) = true;
option (gogoproto.populate_all) = true;
option (gogoproto.testgen_all) = true;
option (gogoproto.benchgen_all) = true;
message Spec {
// Version of the Open Container Initiative Runtime Specification with which the bundle complies.
string Version = 1;
// Process configures the container process.
Process Process = 2;
// Root configures the container's root filesystem.
Root Root = 3;
// Hostname configures the container's hostname.
string Hostname = 4;
// Mounts configures additional mounts (on top of Root).
repeated Mount Mounts = 5 [(gogoproto.nullable) = false];
// Hooks configures callbacks for container lifecycle events.
Hooks Hooks = 6;
// Annotations contains arbitrary metadata for the container.
map<string, string> Annotations = 7;
// Linux is platform-specific configuration for Linux based containers.
Linux Linux = 8;
// Solaris is platform-specific configuration for Solaris based containers.
Solaris Solaris = 9;
// Windows is platform-specific configuration for Windows based containers.
Windows Windows = 10;
}
message Process {
// Terminal creates an interactive terminal for the container.
bool Terminal = 1;
// ConsoleSize specifies the size of the console.
Box ConsoleSize = 2;
// User specifies user information for the process.
User User = 3 [(gogoproto.nullable) = false];
// Args specifies the binary and arguments for the application to execute.
repeated string Args = 4;
// Env populates the process environment for the process.
repeated string Env = 5;
// Cwd is the current working directory for the process and must be
// relative to the container's root.
string Cwd = 6;
// Capabilities are Linux capabilities that are kept for the process.
LinuxCapabilities Capabilities = 7;
// Rlimits specifies rlimit options to apply to the process.
repeated POSIXRlimit Rlimits = 8 [(gogoproto.nullable) = false];
// NoNewPrivileges controls whether additional privileges could be gained by processes in the container.
bool NoNewPrivileges = 9;
// ApparmorProfile specifies the apparmor profile for the container.
string ApparmorProfile = 10;
// Specify an oom_score_adj for the container.
int64 OOMScoreAdj = 11;
// SelinuxLabel specifies the selinux context that the container process is run as.
string SelinuxLabel = 12;
}
message Box {
// Height is the vertical dimension of a box.
uint32 Height = 1;
// Width is the horizontal dimension of a box.
uint32 Width = 2;
}
message User {
// UID is the user id.
uint32 UID = 1;
// GID is the group id.
uint32 GID = 2;
// AdditionalGids are additional group ids set for the container's process.
repeated uint32 AdditionalGids = 3;
// Username is the user name.
string Username = 4;
}
message LinuxCapabilities {
// Bounding is the set of capabilities checked by the kernel.
repeated string Bounding = 1;
// Effective is the set of capabilities checked by the kernel.
repeated string Effective = 2;
// Inheritable is the capabilities preserved across execve.
repeated string Inheritable = 3;
// Permitted is the limiting superset for effective capabilities.
repeated string Permitted = 4;
// Ambient is the ambient set of capabilities that are kept.
repeated string Ambient = 5;
}
message POSIXRlimit {
// Type of the rlimit to set
string Type = 1;
// Hard is the hard limit for the specified type
uint64 Hard = 2;
// Soft is the soft limit for the specified type
uint64 Soft = 3;
}
message Mount {
// destination is the path inside the container expect when it starts with "tmp:/"
string destination = 1;
// source is the path inside the container expect when it starts with "vm:/dev/" or "tmp:/"
// the path which starts with "vm:/dev/" refers the guest vm's "/dev",
// especially, "vm:/dev/hostfs/" refers to the shared filesystem.
// "tmp:/" is a temporary directory which is used for temporary mounts.
string source = 2;
string type = 3;
repeated string options = 4;
}
message Root {
// Path is the absolute path to the container's root filesystem.
string Path = 1;
// Readonly makes the root filesystem for the container readonly before the process is executed.
bool Readonly = 2;
}
message Hooks {
// Prestart is a list of hooks to be run before the container process is executed.
repeated Hook Prestart = 1 [(gogoproto.nullable) = false];
// Poststart is a list of hooks to be run after the container process is started.
repeated Hook Poststart = 2 [(gogoproto.nullable) = false];
// Poststop is a list of hooks to be run after the container process exits.
repeated Hook Poststop = 3 [(gogoproto.nullable) = false];
}
message Hook {
string Path = 1;
repeated string Args = 2;
repeated string Env = 3;
int64 Timeout = 4;
}
message Linux {
// UIDMapping specifies user mappings for supporting user namespaces.
repeated LinuxIDMapping UIDMappings = 1 [(gogoproto.nullable) = false];
// GIDMapping specifies group mappings for supporting user namespaces.
repeated LinuxIDMapping GIDMappings = 2 [(gogoproto.nullable) = false];
// Sysctl are a set of key value pairs that are set for the container on start
map<string, string> Sysctl = 3;
// Resources contain cgroup information for handling resource constraints
// for the container
LinuxResources Resources = 4;
// CgroupsPath specifies the path to cgroups that are created and/or joined by the container.
// The path is expected to be relative to the cgroups mountpoint.
// If resources are specified, the cgroups at CgroupsPath will be updated based on resources.
string CgroupsPath = 5;
// Namespaces contains the namespaces that are created and/or joined by the container
repeated LinuxNamespace Namespaces = 6 [(gogoproto.nullable) = false];
// Devices are a list of device nodes that are created for the container
repeated LinuxDevice Devices = 7 [(gogoproto.nullable) = false];
// Seccomp specifies the seccomp security settings for the container.
LinuxSeccomp Seccomp = 8;
// RootfsPropagation is the rootfs mount propagation mode for the container.
string RootfsPropagation = 9;
// MaskedPaths masks over the provided paths inside the container.
repeated string MaskedPaths = 10;
// ReadonlyPaths sets the provided paths as RO inside the container.
repeated string ReadonlyPaths = 11;
// MountLabel specifies the selinux context for the mounts in the container.
string MountLabel = 12;
// IntelRdt contains Intel Resource Director Technology (RDT) information
// for handling resource constraints (e.g., L3 cache) for the container
LinuxIntelRdt IntelRdt = 13;
}
message Windows {
// Dummy string, never used.
string dummy = 1;
}
message Solaris {
// Dummy string, never used.
string dummy = 1;
}
message LinuxIDMapping {
// HostID is the starting UID/GID on the host to be mapped to 'ContainerID'
uint32 HostID = 1;
// ContainerID is the starting UID/GID in the container
uint32 ContainerID = 2;
// Size is the number of IDs to be mapped
uint32 Size = 3;
}
message LinuxNamespace {
// Type is the type of namespace
string Type = 1;
// Path is a path to an existing namespace persisted on disk that can be joined
// and is of the same type
string Path = 2;
}
message LinuxDevice {
// Path to the device.
string Path = 1;
// Device type, block, char, etc.
string Type = 2;
// Major is the device's major number.
int64 Major = 3;
// Minor is the device's minor number.
int64 Minor = 4;
// FileMode permission bits for the device.
uint32 FileMode = 5;
// UID of the device.
uint32 UID = 6;
// Gid of the device.
uint32 GID = 7;
}
message LinuxResources {
// Devices configures the device whitelist.
repeated LinuxDeviceCgroup Devices = 1 [(gogoproto.nullable) = false];
// Memory restriction configuration
LinuxMemory Memory = 2;
// CPU resource restriction configuration
LinuxCPU CPU = 3;
// Task resource restriction configuration.
LinuxPids Pids = 4;
// BlockIO restriction configuration
LinuxBlockIO BlockIO = 5;
// Hugetlb limit (in bytes)
repeated LinuxHugepageLimit HugepageLimits = 6 [(gogoproto.nullable) = false];
// Network restriction configuration
LinuxNetwork Network = 7;
}
message LinuxMemory {
// Memory limit (in bytes).
int64 Limit = 1;
// Memory reservation or soft_limit (in bytes).
int64 Reservation = 2;
// Total memory limit (memory + swap).
int64 Swap = 3;
// Kernel memory limit (in bytes).
int64 Kernel = 4;
// Kernel memory limit for tcp (in bytes)
int64 KernelTCP = 5;
// How aggressive the kernel will swap memory pages.
uint64 Swappiness = 6;
// DisableOOMKiller disables the OOM killer for out of memory conditions
bool DisableOOMKiller = 7;
}
message LinuxCPU {
// CPU shares (relative weight (ratio) vs. other cgroups with cpu shares).
uint64 Shares = 1;
// CPU hardcap limit (in usecs). Allowed cpu time in a given period.
int64 Quota = 2;
// CPU period to be used for hardcapping (in usecs).
uint64 Period = 3;
// How much time realtime scheduling may use (in usecs).
int64 RealtimeRuntime = 4;
// CPU period to be used for realtime scheduling (in usecs).
uint64 RealtimePeriod = 5;
// CPUs to use within the cpuset. Default is to use any CPU available.
string Cpus = 6;
// List of memory nodes in the cpuset. Default is to use any available memory node.
string Mems = 7;
}
message LinuxWeightDevice {
// Major is the device's major number.
int64 Major = 1;
// Minor is the device's minor number.
int64 Minor = 2;
// Weight is the bandwidth rate for the device.
uint32 Weight = 3;
// LeafWeight is the bandwidth rate for the device while competing with the cgroup's child cgroups, CFQ scheduler only
uint32 LeafWeight = 4;
}
message LinuxThrottleDevice {
// Major is the device's major number.
int64 Major = 1;
// Minor is the device's minor number.
int64 Minor = 2;
// Rate is the IO rate limit per cgroup per device
uint64 Rate = 3;
}
message LinuxBlockIO {
// Specifies per cgroup weight
uint32 Weight = 1;
// Specifies tasks' weight in the given cgroup while competing with the cgroup's child cgroups, CFQ scheduler only
uint32 LeafWeight = 2;
// Weight per cgroup per device, can override BlkioWeight
repeated LinuxWeightDevice WeightDevice = 3 [(gogoproto.nullable) = false];
// IO read rate limit per cgroup per device, bytes per second
repeated LinuxThrottleDevice ThrottleReadBpsDevice = 4 [(gogoproto.nullable) = false];
// IO write rate limit per cgroup per device, bytes per second
repeated LinuxThrottleDevice ThrottleWriteBpsDevice = 5 [(gogoproto.nullable) = false];
// IO read rate limit per cgroup per device, IO per second
repeated LinuxThrottleDevice ThrottleReadIOPSDevice = 6 [(gogoproto.nullable) = false];
// IO write rate limit per cgroup per device, IO per second
repeated LinuxThrottleDevice ThrottleWriteIOPSDevice = 7 [(gogoproto.nullable) = false];
}
message LinuxPids {
// Maximum number of PIDs. Default is "no limit".
int64 Limit = 1;
}
message LinuxDeviceCgroup {
// Allow or deny
bool Allow = 1;
// Device type, block, char, etc.
string Type = 2;
// Major is the device's major number.
int64 Major = 3;
// Minor is the device's minor number.
int64 Minor = 4;
// Cgroup access permissions format, rwm.
string Access = 5;
}
message LinuxNetwork {
// Set class identifier for container's network packets
uint32 ClassID = 1;
// Set priority of network traffic for container
repeated LinuxInterfacePriority Priorities = 2 [(gogoproto.nullable) = false];
}
message LinuxHugepageLimit {
// Pagesize is the hugepage size
string Pagesize = 1;
// Limit is the limit of "hugepagesize" hugetlb usage
uint64 Limit = 2;
}
message LinuxInterfacePriority {
// Name is the name of the network interface
string Name = 1;
// Priority for the interface
uint32 Priority = 2;
}
message LinuxSeccomp {
string DefaultAction = 1;
repeated string Architectures = 2;
repeated LinuxSyscall Syscalls = 3 [(gogoproto.nullable) = false];
}
message LinuxSeccompArg {
uint64 Index = 1;
uint64 Value = 2;
uint64 ValueTwo = 3;
string Op = 4;
}
message LinuxSyscall {
repeated string Names = 1;
string Action = 2;
repeated LinuxSeccompArg Args = 3 [(gogoproto.nullable) = false];
}
message LinuxIntelRdt {
// The schema for L3 cache id and capacity bitmask (CBM)
// Format: "L3:<cache_id0>=<cbm0>;<cache_id1>=<cbm1>;..."
string L3CacheSchema = 1;
}

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@ -1,48 +0,0 @@
//
// Copyright 2018 Intel Corporation.
//
// SPDX-License-Identifier: Apache-2.0
//
syntax = "proto3";
package types;
enum IPFamily {
v4 = 0;
v6 = 1;
}
message IPAddress {
IPFamily family = 1;
string address = 2;
string mask = 3;
}
message Interface {
string device = 1;
string name = 2;
repeated IPAddress IPAddresses = 3;
uint64 mtu = 4;
string hwAddr = 5;
// pciAddr is the PCI address in the format "bridgeAddr/deviceAddr".
// Here, bridgeAddr is the address at which the bridge is attached on the root bus,
// while deviceAddr is the address at which the network device is attached on the bridge.
string pciAddr = 6;
// Type defines the type of interface described by this structure.
// The expected values are the one that are defined by the netlink
// library, regarding each type of link. Here is a non exhaustive
// list: "veth", "macvtap", "vlan", "macvlan", "tap", ...
string type = 7;
uint32 raw_flags = 8;
}
message Route {
string dest = 1;
string gateway = 2;
string device = 3;
string source = 4;
uint32 scope = 5;
}