Example #1
0
func libcontainerConfigToContainerSpec(config *libcontainer.Config, mi *info.MachineInfo) *info.ContainerSpec {
	spec := new(info.ContainerSpec)
	spec.Memory = new(info.MemorySpec)
	spec.Memory.Limit = math.MaxUint64
	spec.Memory.SwapLimit = math.MaxUint64
	if config.Cgroups.Memory > 0 {
		spec.Memory.Limit = uint64(config.Cgroups.Memory)
	}
	if config.Cgroups.MemorySwap > 0 {
		spec.Memory.SwapLimit = uint64(config.Cgroups.MemorySwap)
	}

	// Get CPU info
	spec.Cpu = new(info.CpuSpec)
	spec.Cpu.Limit = 1024
	if config.Cgroups.CpuShares != 0 {
		spec.Cpu.Limit = uint64(config.Cgroups.CpuShares)
	}
	if config.Cgroups.CpusetCpus == "" {
		// All cores are active.
		spec.Cpu.Mask = fmt.Sprintf("0-%d", mi.NumCores-1)
	} else {
		spec.Cpu.Mask = config.Cgroups.CpusetCpus
	}
	return spec
}
Example #2
0
func dockerConfigToContainerSpec(config *dockerContainerSpec, mi *info.MachineInfo) *info.ContainerSpec {
	spec := new(info.ContainerSpec)
	spec.Memory = new(info.MemorySpec)
	spec.Memory.Limit = math.MaxUint64
	spec.Memory.SwapLimit = math.MaxUint64
	if config.Config.Memory > 0 {
		spec.Memory.Limit = uint64(config.Config.Memory)
	}
	if config.Config.MemorySwap > 0 {
		spec.Memory.SwapLimit = uint64(config.Config.MemorySwap - config.Config.Memory)
	}
	if mi != nil {
		spec.Cpu = new(info.CpuSpec)
		spec.Cpu.Limit = math.MaxUint64
		n := mi.NumCores / 64
		if mi.NumCores%64 > 0 {
			n++
		}
		spec.Cpu.Mask.Data = make([]uint64, n)
		for i := 0; i < n; i++ {
			spec.Cpu.Mask.Data[i] = math.MaxUint64
		}
	}
	return spec
}
Example #3
0
func libcontainerConfigToContainerSpec(config *libcontainer.Container, mi *info.MachineInfo) *info.ContainerSpec {
	spec := new(info.ContainerSpec)
	spec.Memory = new(info.MemorySpec)
	spec.Memory.Limit = math.MaxUint64
	spec.Memory.SwapLimit = math.MaxUint64
	if config.Cgroups.Memory > 0 {
		spec.Memory.Limit = uint64(config.Cgroups.Memory)
	}
	if config.Cgroups.MemorySwap > 0 {
		spec.Memory.SwapLimit = uint64(config.Cgroups.MemorySwap)
	}

	// Get CPU info
	spec.Cpu = new(info.CpuSpec)
	spec.Cpu.Limit = 1024
	if config.Cgroups.CpuShares != 0 {
		spec.Cpu.Limit = uint64(config.Cgroups.CpuShares)
	}
	n := (mi.NumCores + 63) / 64
	spec.Cpu.Mask.Data = make([]uint64, n)
	for i := 0; i < n; i++ {
		spec.Cpu.Mask.Data[i] = math.MaxUint64
	}
	// TODO(vmarmol): Get CPUs from config.Cgroups.CpusetCpus
	return spec
}
Example #4
0
func libcontainerConfigToContainerSpec(config *libcontainer.Config, mi *info.MachineInfo) info.ContainerSpec {
	var spec info.ContainerSpec
	spec.HasMemory = true
	spec.Memory.Limit = math.MaxUint64
	spec.Memory.SwapLimit = math.MaxUint64
	if config.Cgroups.Memory > 0 {
		spec.Memory.Limit = uint64(config.Cgroups.Memory)
	}
	if config.Cgroups.MemorySwap > 0 {
		spec.Memory.SwapLimit = uint64(config.Cgroups.MemorySwap)
	}

	// Get CPU info
	spec.HasCpu = true
	spec.Cpu.Limit = 1024
	if config.Cgroups.CpuShares != 0 {
		spec.Cpu.Limit = uint64(config.Cgroups.CpuShares)
	}
	if config.Cgroups.CpusetCpus == "" {
		// All cores are active.
		spec.Cpu.Mask = fmt.Sprintf("0-%d", mi.NumCores-1)
	} else {
		spec.Cpu.Mask = config.Cgroups.CpusetCpus
	}

	spec.HasNetwork = true
	spec.HasDiskIo = true

	return spec
}
Example #5
0
func (self *rawContainerHandler) GetSpec() (*info.ContainerSpec, error) {
	spec := new(info.ContainerSpec)

	// The raw driver assumes unified hierarchy containers.

	// Get machine info.
	mi, err := self.machineInfoFactory.GetMachineInfo()
	if err != nil {
		return nil, err
	}

	// CPU.
	cpuRoot, ok := self.cgroupSubsystems.mountPoints["cpu"]
	if ok {
		cpuRoot = path.Join(cpuRoot, self.name)
		if utils.FileExists(cpuRoot) {
			spec.Cpu = new(info.CpuSpec)
			spec.Cpu.Limit = readInt64(cpuRoot, "cpu.shares")
		}
	}

	// Cpu Mask.
	// This will fail for non-unified hierarchies. We'll return the whole machine mask in that case.
	cpusetRoot, ok := self.cgroupSubsystems.mountPoints["cpuset"]
	if ok {
		if spec.Cpu == nil {
			spec.Cpu = new(info.CpuSpec)
		}
		cpusetRoot = path.Join(cpusetRoot, self.name)
		if utils.FileExists(cpusetRoot) {
			spec.Cpu.Mask = readString(cpusetRoot, "cpuset.cpus")
			if spec.Cpu.Mask == "" {
				spec.Cpu.Mask = fmt.Sprintf("0-%d", mi.NumCores-1)
			}
		}
	}

	// Memory.
	memoryRoot, ok := self.cgroupSubsystems.mountPoints["memory"]
	if ok {
		memoryRoot = path.Join(memoryRoot, self.name)
		if utils.FileExists(memoryRoot) {
			spec.Memory = new(info.MemorySpec)
			spec.Memory.Limit = readInt64(memoryRoot, "memory.limit_in_bytes")
			spec.Memory.SwapLimit = readInt64(memoryRoot, "memory.memsw.limit_in_bytes")
		}
	}

	return spec, nil
}
Example #6
0
func (self *rawContainerHandler) GetSpec() (*info.ContainerSpec, error) {
	spec := new(info.ContainerSpec)

	// The raw driver assumes unified hierarchy containers.

	// CPU.
	cpuRoot, ok := self.cgroupSubsystems.mountPoints["cpu"]
	if ok {
		cpuRoot = filepath.Join(cpuRoot, self.name)
		if utils.FileExists(cpuRoot) {
			// Get machine info.
			mi, err := self.machineInfoFactory.GetMachineInfo()
			if err != nil {
				return nil, err
			}

			spec.Cpu = new(info.CpuSpec)
			spec.Cpu.Limit = readInt64(cpuRoot, "cpu.shares")

			// TODO(vmarmol): Get CPUs from config.Cgroups.CpusetCpus
			n := (mi.NumCores + 63) / 64
			spec.Cpu.Mask.Data = make([]uint64, n)
			for i := 0; i < n; i++ {
				spec.Cpu.Mask.Data[i] = math.MaxUint64
			}
		}
	}

	// Memory.
	memoryRoot, ok := self.cgroupSubsystems.mountPoints["memory"]
	if ok {
		memoryRoot = filepath.Join(memoryRoot, self.name)
		if utils.FileExists(memoryRoot) {
			spec.Memory = new(info.MemorySpec)
			spec.Memory.Limit = readInt64(memoryRoot, "memory.limit_in_bytes")
			spec.Memory.SwapLimit = readInt64(memoryRoot, "memory.limit_in_bytes")
		}
	}

	return spec, nil
}
func protobufToContainerSpec(pspec *ContainerSpec) *info.ContainerSpec {
	ret := new(info.ContainerSpec)
	if pspec.GetCpu() != nil {
		cpuspec := new(info.CpuSpec)
		cpuspec.Limit = pspec.GetCpu().GetLimit()
		cpuspec.MaxLimit = pspec.GetCpu().GetMaxLimit()
		if pspec.GetCpu().GetMask() != nil {
			cpuspec.Mask.Data = pspec.GetCpu().GetMask().GetData()
		}
		ret.Cpu = cpuspec
	}
	if pspec.GetMemory() != nil {
		pmem := pspec.GetMemory()
		memspec := new(info.MemorySpec)
		memspec.Limit = uint64(pmem.GetLimit())
		memspec.Reservation = uint64(pmem.GetReservation())
		memspec.SwapLimit = uint64(pmem.GetSwapLimit())
		ret.Memory = memspec
	}
	return ret
}
Example #8
0
func (self *rawContainerHandler) GetSpec() (info.ContainerSpec, error) {
	var spec info.ContainerSpec

	// The raw driver assumes unified hierarchy containers.

	// Get machine info.
	mi, err := self.machineInfoFactory.GetMachineInfo()
	if err != nil {
		return spec, err
	}

	// CPU.
	cpuRoot, ok := self.cgroupSubsystems.mountPoints["cpu"]
	if ok {
		cpuRoot = path.Join(cpuRoot, self.name)
		if utils.FileExists(cpuRoot) {
			spec.HasCpu = true
			spec.Cpu.Limit = readInt64(cpuRoot, "cpu.shares")
		}
	}

	// Cpu Mask.
	// This will fail for non-unified hierarchies. We'll return the whole machine mask in that case.
	cpusetRoot, ok := self.cgroupSubsystems.mountPoints["cpuset"]
	if ok {
		cpusetRoot = path.Join(cpusetRoot, self.name)
		if utils.FileExists(cpusetRoot) {
			spec.HasCpu = true
			spec.Cpu.Mask = readString(cpusetRoot, "cpuset.cpus")
			if spec.Cpu.Mask == "" {
				spec.Cpu.Mask = fmt.Sprintf("0-%d", mi.NumCores-1)
			}
		}
	}

	// Memory.
	memoryRoot, ok := self.cgroupSubsystems.mountPoints["memory"]
	if ok {
		memoryRoot = path.Join(memoryRoot, self.name)
		if utils.FileExists(memoryRoot) {
			spec.HasMemory = true
			spec.Memory.Limit = readInt64(memoryRoot, "memory.limit_in_bytes")
			spec.Memory.SwapLimit = readInt64(memoryRoot, "memory.memsw.limit_in_bytes")
		}
	}

	// Fs.
	if self.name == "/" || self.externalMounts != nil {
		spec.HasFilesystem = true
	}

	//Network
	if self.networkInterface != nil {
		spec.HasNetwork = true
	}
	return spec, nil
}
Example #9
0
func (self *rawContainerHandler) GetSpec() (info.ContainerSpec, error) {
	var spec info.ContainerSpec

	// The raw driver assumes unified hierarchy containers.

	// Get machine info.
	mi, err := self.machineInfoFactory.GetMachineInfo()
	if err != nil {
		return spec, err
	}

	// CPU.
	cpuRoot, ok := self.cgroupPaths["cpu"]
	if ok {
		if utils.FileExists(cpuRoot) {
			spec.HasCpu = true
			spec.Cpu.Limit = readInt64(cpuRoot, "cpu.shares")
		}
	}

	// Cpu Mask.
	// This will fail for non-unified hierarchies. We'll return the whole machine mask in that case.
	cpusetRoot, ok := self.cgroupPaths["cpuset"]
	if ok {
		if utils.FileExists(cpusetRoot) {
			spec.HasCpu = true
			spec.Cpu.Mask = readString(cpusetRoot, "cpuset.cpus")
			if spec.Cpu.Mask == "" {
				spec.Cpu.Mask = fmt.Sprintf("0-%d", mi.NumCores-1)
			}
		}
	}

	// Memory.
	memoryRoot, ok := self.cgroupPaths["memory"]
	if ok {
		if utils.FileExists(memoryRoot) {
			spec.HasMemory = true
			spec.Memory.Limit = readInt64(memoryRoot, "memory.limit_in_bytes")
			spec.Memory.SwapLimit = readInt64(memoryRoot, "memory.memsw.limit_in_bytes")
		}
	}

	// Fs.
	if self.name == "/" || self.externalMounts != nil {
		spec.HasFilesystem = true
	}

	//Network
	spec.HasNetwork = self.hasNetwork

	// DiskIo.
	if blkioRoot, ok := self.cgroupPaths["blkio"]; ok && utils.FileExists(blkioRoot) {
		spec.HasDiskIo = true
	}

	// Check physical network devices for root container.
	nd, err := self.GetRootNetworkDevices()
	if err != nil {
		return spec, err
	}
	if len(nd) != 0 {
		spec.HasNetwork = true
	}
	return spec, nil
}