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// Licensed to the Apache Software Foundation (ASF) under one
// or more contributor license agreements. See the NOTICE file
// distributed with this work for additional information
// regarding copyright ownership. The ASF licenses this file
// to you under the Apache License, Version 2.0 (the
// "License"); you may not use this file except in compliance
// with the License. You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing,
// software distributed under the License is distributed on an
// "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY
// KIND, either express or implied. See the License for the
// specific language governing permissions and limitations
// under the License.
package com.cloud.capacity;
import static com.cloud.utils.NumbersUtil.toHumanReadableSize;
import java.net.URI;
import java.util.HashMap;
import java.util.List;
import java.util.Map;
import java.util.Optional;
import java.util.stream.Collectors;
import javax.inject.Inject;
import javax.naming.ConfigurationException;
import org.apache.cloudstack.engine.subsystem.api.storage.DataStoreDriver;
import org.apache.cloudstack.engine.subsystem.api.storage.DataStoreProvider;
import org.apache.cloudstack.engine.subsystem.api.storage.DataStoreProviderManager;
import org.apache.cloudstack.engine.subsystem.api.storage.PrimaryDataStoreDriver;
import org.apache.cloudstack.framework.config.ConfigKey;
import org.apache.cloudstack.framework.config.Configurable;
import org.apache.cloudstack.framework.config.dao.ConfigurationDao;
import org.apache.cloudstack.framework.messagebus.MessageBus;
import org.apache.cloudstack.framework.messagebus.PublishScope;
import org.apache.cloudstack.storage.datastore.db.StoragePoolVO;
import org.apache.cloudstack.utils.cache.LazyCache;
import org.apache.cloudstack.utils.cache.SingleCache;
import org.apache.commons.collections.CollectionUtils;
import org.apache.commons.lang3.ObjectUtils;
import com.cloud.agent.AgentManager;
import com.cloud.agent.Listener;
import com.cloud.agent.api.AgentControlAnswer;
import com.cloud.agent.api.AgentControlCommand;
import com.cloud.agent.api.Answer;
import com.cloud.agent.api.Command;
import com.cloud.agent.api.StartupCommand;
import com.cloud.agent.api.StartupRoutingCommand;
import com.cloud.capacity.dao.CapacityDao;
import com.cloud.configuration.Config;
import com.cloud.dc.ClusterDetailsDao;
import com.cloud.dc.ClusterDetailsVO;
import com.cloud.dc.dao.ClusterDao;
import com.cloud.deploy.DeploymentClusterPlanner;
import com.cloud.event.UsageEventVO;
import com.cloud.exception.ConnectionException;
import com.cloud.host.Host;
import com.cloud.host.HostVO;
import com.cloud.host.Status;
import com.cloud.host.dao.HostDao;
import com.cloud.hypervisor.Hypervisor.HypervisorType;
import com.cloud.hypervisor.dao.HypervisorCapabilitiesDao;
import com.cloud.offering.ServiceOffering;
import com.cloud.resource.ResourceListener;
import com.cloud.resource.ResourceManager;
import com.cloud.resource.ResourceState;
import com.cloud.resource.ServerResource;
import com.cloud.service.ServiceOfferingVO;
import com.cloud.service.dao.ServiceOfferingDao;
import com.cloud.storage.StorageManager;
import com.cloud.storage.VMTemplateStoragePoolVO;
import com.cloud.storage.VMTemplateVO;
import com.cloud.storage.dao.VMTemplatePoolDao;
import com.cloud.storage.dao.VolumeDao;
import com.cloud.utils.DateUtil;
import com.cloud.utils.NumbersUtil;
import com.cloud.utils.Pair;
import com.cloud.utils.component.ManagerBase;
import com.cloud.utils.db.DB;
import com.cloud.utils.db.SearchCriteria;
import com.cloud.utils.db.Transaction;
import com.cloud.utils.db.TransactionCallbackNoReturn;
import com.cloud.utils.db.TransactionStatus;
import com.cloud.utils.exception.CloudRuntimeException;
import com.cloud.utils.fsm.StateListener;
import com.cloud.utils.fsm.StateMachine2;
import com.cloud.vm.VMInstanceDetailVO;
import com.cloud.vm.UserVmVO;
import com.cloud.vm.VMInstanceVO;
import com.cloud.vm.VirtualMachine;
import com.cloud.vm.VirtualMachine.Event;
import com.cloud.vm.VirtualMachine.State;
import com.cloud.vm.VmDetailConstants;
import com.cloud.vm.dao.UserVmDao;
import com.cloud.vm.dao.VMInstanceDetailsDao;
import com.cloud.vm.dao.VMInstanceDao;
import com.cloud.vm.snapshot.dao.VMSnapshotDao;
public class CapacityManagerImpl extends ManagerBase implements CapacityManager, StateListener<State, VirtualMachine.Event, VirtualMachine>, Listener, ResourceListener,
Configurable {
@Inject
CapacityDao _capacityDao;
@Inject
ConfigurationDao _configDao;
@Inject
ServiceOfferingDao _offeringsDao;
@Inject
HostDao _hostDao;
@Inject
VMInstanceDao _vmDao;
@Inject
VolumeDao _volumeDao;
@Inject
VMTemplatePoolDao _templatePoolDao;
@Inject
AgentManager _agentManager;
@Inject
ResourceManager _resourceMgr;
@Inject
StorageManager _storageMgr;
@Inject
HypervisorCapabilitiesDao _hypervisorCapabilitiesDao;
@Inject
protected VMSnapshotDao _vmSnapshotDao;
@Inject
protected UserVmDao _userVMDao;
@Inject
protected VMInstanceDetailsDao _vmInstanceDetailsDao;
@Inject
ClusterDao _clusterDao;
@Inject
DataStoreProviderManager _dataStoreProviderMgr;
@Inject
ClusterDetailsDao _clusterDetailsDao;
private int _vmCapacityReleaseInterval;
long _extraBytesPerVolume = 0;
@Inject
MessageBus _messageBus;
private LazyCache<Long, Pair<String, String>> clusterValuesCache;
private SingleCache<Map<Long, ServiceOfferingVO>> serviceOfferingsCache;
@Override
public boolean configure(String name, Map<String, Object> params) throws ConfigurationException {
_vmCapacityReleaseInterval = NumbersUtil.parseInt(_configDao.getValue(Config.CapacitySkipcountingHours.key()), 3600);
VirtualMachine.State.getStateMachine().registerListener(this);
_agentManager.registerForHostEvents(new StorageCapacityListener(_capacityDao, _storageMgr), true, false, false);
_agentManager.registerForHostEvents(new ComputeCapacityListener(_capacityDao, this), true, false, false);
return true;
}
@Override
public boolean start() {
_resourceMgr.registerResourceEvent(ResourceListener.EVENT_PREPARE_MAINTENANCE_AFTER, this);
_resourceMgr.registerResourceEvent(ResourceListener.EVENT_CANCEL_MAINTENANCE_AFTER, this);
clusterValuesCache = new LazyCache<>(128, 60, this::getClusterValues);
serviceOfferingsCache = new SingleCache<>(60, this::getServiceOfferingsMap);
return true;
}
@Override
public boolean stop() {
return true;
}
@DB
@Override
public boolean releaseVmCapacity(VirtualMachine vm, final boolean moveFromReserved, final boolean moveToReservered, final Long hostId) {
if (hostId == null) {
return true;
}
HostVO host = _hostDao.findById(hostId);
if (HypervisorType.External.equals(host.getHypervisorType())) {
return true;
}
return releaseVmCapacity(vm, moveFromReserved, moveToReservered, host);
}
@DB
public boolean releaseVmCapacity(VirtualMachine vm, final boolean moveFromReserved, final boolean moveToReservered, final Host host) {
if (host == null) {
return true;
}
if (HypervisorType.External.equals(host.getHypervisorType())) {
return true;
}
final ServiceOfferingVO svo = _offeringsDao.findById(vm.getId(), vm.getServiceOfferingId());
CapacityVO capacityCpu = _capacityDao.findByHostIdType(host.getId(), Capacity.CAPACITY_TYPE_CPU);
CapacityVO capacityMemory = _capacityDao.findByHostIdType(host.getId(), Capacity.CAPACITY_TYPE_MEMORY);
CapacityVO capacityCpuCore = _capacityDao.findByHostIdType(host.getId(), Capacity.CAPACITY_TYPE_CPU_CORE);
Long clusterId = host.getClusterId();
if (capacityCpu == null || capacityMemory == null || svo == null || capacityCpuCore == null) {
return false;
}
try {
final Long clusterIdFinal = clusterId;
final long capacityCpuId = capacityCpu.getId();
final long capacityMemoryId = capacityMemory.getId();
final long capacityCpuCoreId = capacityCpuCore.getId();
Transaction.execute(new TransactionCallbackNoReturn() {
@Override
public void doInTransactionWithoutResult(TransactionStatus status) {
CapacityVO capacityCpu = _capacityDao.lockRow(capacityCpuId, true);
CapacityVO capacityMemory = _capacityDao.lockRow(capacityMemoryId, true);
CapacityVO capacityCpuCore = _capacityDao.lockRow(capacityCpuCoreId, true);
long usedCpu = capacityCpu.getUsedCapacity();
long usedMem = capacityMemory.getUsedCapacity();
long usedCpuCore = capacityCpuCore.getUsedCapacity();
long reservedCpu = capacityCpu.getReservedCapacity();
long reservedMem = capacityMemory.getReservedCapacity();
long reservedCpuCore = capacityCpuCore.getReservedCapacity();
long actualTotalCpu = capacityCpu.getTotalCapacity();
float cpuOvercommitRatio = Float.parseFloat(_clusterDetailsDao.findDetail(clusterIdFinal, VmDetailConstants.CPU_OVER_COMMIT_RATIO).getValue());
float memoryOvercommitRatio = Float.parseFloat(_clusterDetailsDao.findDetail(clusterIdFinal, VmDetailConstants.MEMORY_OVER_COMMIT_RATIO).getValue());
int vmCPU = svo.getCpu() * svo.getSpeed();
int vmCPUCore = svo.getCpu();
long vmMem = svo.getRamSize() * 1024L * 1024L;
long actualTotalMem = capacityMemory.getTotalCapacity();
long totalMem = (long)(actualTotalMem * memoryOvercommitRatio);
long totalCpu = (long)(actualTotalCpu * cpuOvercommitRatio);
if (logger.isDebugEnabled()) {
logger.debug("Hosts's actual total CPU: " + actualTotalCpu + " and CPU after applying overprovisioning: " + totalCpu);
logger.debug("Hosts's actual total RAM: " + toHumanReadableSize(actualTotalMem) + " and RAM after applying overprovisioning: " + toHumanReadableSize(totalMem));
}
if (!moveFromReserved) {
/* move resource from used */
if (usedCpu >= vmCPU) {
capacityCpu.setUsedCapacity(usedCpu - vmCPU);
}
if (usedMem >= vmMem) {
capacityMemory.setUsedCapacity(usedMem - vmMem);
}
if (usedCpuCore >= vmCPUCore) {
capacityCpuCore.setUsedCapacity(usedCpuCore - vmCPUCore);
}
if (moveToReservered) {
if (reservedCpu + vmCPU <= totalCpu) {
capacityCpu.setReservedCapacity(reservedCpu + vmCPU);
}
if (reservedMem + vmMem <= totalMem) {
capacityMemory.setReservedCapacity(reservedMem + vmMem);
}
capacityCpuCore.setReservedCapacity(reservedCpuCore + vmCPUCore);
}
} else {
if (reservedCpu >= vmCPU) {
capacityCpu.setReservedCapacity(reservedCpu - vmCPU);
}
if (reservedMem >= vmMem) {
capacityMemory.setReservedCapacity(reservedMem - vmMem);
}
if (reservedCpuCore >= vmCPUCore) {
capacityCpuCore.setReservedCapacity(reservedCpuCore - vmCPUCore);
}
}
logger.debug("release cpu from host: {}, old used: {}, " +
"reserved: {}, actual total: {}, total with overprovisioning: {}; " +
"new used: {},reserved:{}; movedfromreserved: {},moveToReservered: {}", host, usedCpu, reservedCpu, actualTotalCpu, totalCpu, capacityCpu.getUsedCapacity(), capacityCpu.getReservedCapacity(), moveFromReserved, moveToReservered);
logger.debug("release mem from host: {}, old used: {}, " +
"reserved: {}, total: {}; new used: {}, reserved: {}; " +
"movedfromreserved: {}, moveToReservered: {}", host, toHumanReadableSize(usedMem), toHumanReadableSize(reservedMem), toHumanReadableSize(totalMem), toHumanReadableSize(capacityMemory.getUsedCapacity()), toHumanReadableSize(capacityMemory.getReservedCapacity()), moveFromReserved, moveToReservered);
_capacityDao.update(capacityCpu.getId(), capacityCpu);
_capacityDao.update(capacityMemory.getId(), capacityMemory);
_capacityDao.update(capacityCpuCore.getId(), capacityCpuCore);
}
});
return true;
} catch (Exception e) {
logger.debug("Failed to transit vm's state, due to " + e.getMessage());
return false;
}
}
@DB
@Override
public void allocateVmCapacity(VirtualMachine vm, final boolean fromLastHost) {
final long hostId = vm.getHostId();
final HostVO host = _hostDao.findById(hostId);
if (HypervisorType.External.equals(host.getHypervisorType())) {
return;
}
final long clusterId = host.getClusterId();
final float cpuOvercommitRatio = Float.parseFloat(_clusterDetailsDao.findDetail(clusterId, VmDetailConstants.CPU_OVER_COMMIT_RATIO).getValue());
final float memoryOvercommitRatio = Float.parseFloat(_clusterDetailsDao.findDetail(clusterId, VmDetailConstants.MEMORY_OVER_COMMIT_RATIO).getValue());
final ServiceOfferingVO svo = _offeringsDao.findById(vm.getId(), vm.getServiceOfferingId());
CapacityVO capacityCpu = _capacityDao.findByHostIdType(hostId, Capacity.CAPACITY_TYPE_CPU);
CapacityVO capacityMem = _capacityDao.findByHostIdType(hostId, Capacity.CAPACITY_TYPE_MEMORY);
CapacityVO capacityCpuCore = _capacityDao.findByHostIdType(hostId, Capacity.CAPACITY_TYPE_CPU_CORE);
if (capacityCpu == null || capacityMem == null || svo == null || capacityCpuCore == null) {
return;
}
final int cpu = svo.getCpu() * svo.getSpeed();
final int cpucore = svo.getCpu();
final int cpuspeed = svo.getSpeed();
final long ram = svo.getRamSize() * 1024L * 1024L;
try {
final long capacityCpuId = capacityCpu.getId();
final long capacityMemId = capacityMem.getId();
final long capacityCpuCoreId = capacityCpuCore.getId();
Transaction.execute(new TransactionCallbackNoReturn() {
@Override
public void doInTransactionWithoutResult(TransactionStatus status) {
CapacityVO capacityCpu = _capacityDao.lockRow(capacityCpuId, true);
CapacityVO capacityMem = _capacityDao.lockRow(capacityMemId, true);
CapacityVO capacityCpuCore = _capacityDao.lockRow(capacityCpuCoreId, true);
long usedCpu = capacityCpu.getUsedCapacity();
long usedMem = capacityMem.getUsedCapacity();
long usedCpuCore = capacityCpuCore.getUsedCapacity();
long reservedCpu = capacityCpu.getReservedCapacity();
long reservedMem = capacityMem.getReservedCapacity();
long reservedCpuCore = capacityCpuCore.getReservedCapacity();
long actualTotalCpu = capacityCpu.getTotalCapacity();
long actualTotalMem = capacityMem.getTotalCapacity();
long totalCpu = (long)(actualTotalCpu * cpuOvercommitRatio);
long totalMem = (long)(actualTotalMem * memoryOvercommitRatio);
if (logger.isDebugEnabled()) {
logger.debug("Hosts's actual total CPU: " + actualTotalCpu + " and CPU after applying overprovisioning: " + totalCpu);
}
long freeCpu = totalCpu - (reservedCpu + usedCpu);
long freeMem = totalMem - (reservedMem + usedMem);
if (logger.isDebugEnabled()) {
logger.debug("We are allocating VM, increasing the used capacity of this host:{}", host);
logger.debug("Current Used CPU: {} , Free CPU:{} ,Requested CPU: {}", usedCpu, freeCpu, cpu);
logger.debug("Current Used RAM: {} , Free RAM:{} ,Requested RAM: {}", toHumanReadableSize(usedMem), toHumanReadableSize(freeMem), toHumanReadableSize(ram));
}
capacityCpu.setUsedCapacity(usedCpu + cpu);
capacityMem.setUsedCapacity(usedMem + ram);
capacityCpuCore.setUsedCapacity(usedCpuCore + cpucore);
if (fromLastHost) {
/* alloc from reserved */
if (logger.isDebugEnabled()) {
logger.debug("We are allocating VM to the last host again, so adjusting the reserved capacity if it is not less than required");
logger.debug("Reserved CPU: " + reservedCpu + " , Requested CPU: " + cpu);
logger.debug("Reserved RAM: " + toHumanReadableSize(reservedMem) + " , Requested RAM: " + toHumanReadableSize(ram));
}
if (reservedCpu >= cpu && reservedMem >= ram) {
capacityCpu.setReservedCapacity(reservedCpu - cpu);
capacityMem.setReservedCapacity(reservedMem - ram);
capacityCpuCore.setReservedCapacity(reservedCpuCore - cpucore);
}
} else {
/* alloc from free resource */
if (!((reservedCpu + usedCpu + cpu <= totalCpu) && (reservedMem + usedMem + ram <= totalMem))) {
if (logger.isDebugEnabled()) {
logger.debug("Host doesn't seem to have enough free capacity, but increasing the used capacity anyways, " +
"since the VM is already starting on this host ");
}
}
}
logger.debug(String.format("CPU STATS after allocation: for host: %s, " +
"old used: %d, old reserved: %d, actual total: %d, " +
"total with overprovisioning: %d; new used: %d, reserved: %d; " +
"requested cpu: %d, alloc_from_last: %s",
host, usedCpu, reservedCpu, actualTotalCpu, totalCpu,
capacityCpu.getUsedCapacity(), capacityCpu.getReservedCapacity(), cpu, fromLastHost));
logger.debug("RAM STATS after allocation: for host: {}, " +
"old used: {}, old reserved: {}, total: {}; new used: {}, reserved: {}; " +
"requested mem: {}, alloc_from_last: {}",
host, toHumanReadableSize(usedMem), toHumanReadableSize(reservedMem),
toHumanReadableSize(totalMem), toHumanReadableSize(capacityMem.getUsedCapacity()),
toHumanReadableSize(capacityMem.getReservedCapacity()), toHumanReadableSize(ram), fromLastHost);
long cluster_id = host.getClusterId();
ClusterDetailsVO cluster_detail_cpu = _clusterDetailsDao.findDetail(cluster_id, VmDetailConstants.CPU_OVER_COMMIT_RATIO);
ClusterDetailsVO cluster_detail_ram = _clusterDetailsDao.findDetail(cluster_id, VmDetailConstants.MEMORY_OVER_COMMIT_RATIO);
Float cpuOvercommitRatio = Float.parseFloat(cluster_detail_cpu.getValue());
Float memoryOvercommitRatio = Float.parseFloat(cluster_detail_ram.getValue());
boolean hostHasCpuCapability, hostHasCapacity = false;
hostHasCpuCapability = checkIfHostHasCpuCapability(host, cpucore, cpuspeed);
if (hostHasCpuCapability) {
// first check from reserved capacity
hostHasCapacity = checkIfHostHasCapacity(host, cpu, ram, true, cpuOvercommitRatio, memoryOvercommitRatio, true);
// if not reserved, check the free capacity
if (!hostHasCapacity)
hostHasCapacity = checkIfHostHasCapacity(host, cpu, ram, false, cpuOvercommitRatio, memoryOvercommitRatio, true);
}
if (!hostHasCapacity || !hostHasCpuCapability) {
throw new CloudRuntimeException("Host does not have enough capacity for vm " + vm);
}
_capacityDao.update(capacityCpu.getId(), capacityCpu);
_capacityDao.update(capacityMem.getId(), capacityMem);
_capacityDao.update(capacityCpuCore.getId(), capacityCpuCore);
}
});
} catch (Exception e) {
logger.error("Exception allocating VM capacity", e);
if (e instanceof CloudRuntimeException) {
throw e;
}
return;
}
}
@Override
public boolean checkIfHostHasCpuCapability(Host host, Integer cpuNum, Integer cpuSpeed) {
// Check host can support the Cpu Number and Speed.
boolean isCpuNumGood = host.getCpus().intValue() >= cpuNum;
boolean isCpuSpeedGood = host.getSpeed().intValue() >= cpuSpeed;
boolean hasCpuCapability = isCpuNumGood && isCpuSpeedGood;
logger.debug("{} {} cpu capability (cpu: {}, speed: {} ) to support requested CPU: {} and requested speed: {}",
host, hasCpuCapability ? "has" : "doesn't have" ,host.getCpus(), host.getSpeed(), cpuNum, cpuSpeed);
return hasCpuCapability;
}
@Override
public boolean checkIfHostHasCapacity(Host host, Integer cpu, long ram, boolean checkFromReservedCapacity, float cpuOvercommitRatio, float memoryOvercommitRatio,
boolean considerReservedCapacity) {
boolean hasCapacity = false;
if (logger.isDebugEnabled()) {
logger.debug(String.format("Checking if host: %s has enough capacity for requested CPU: %d and requested RAM: %s , cpuOverprovisioningFactor: %s", host, cpu, toHumanReadableSize(ram), cpuOvercommitRatio));
}
CapacityVO capacityCpu = _capacityDao.findByHostIdType(host.getId(), Capacity.CAPACITY_TYPE_CPU);
CapacityVO capacityMem = _capacityDao.findByHostIdType(host.getId(), Capacity.CAPACITY_TYPE_MEMORY);
if (capacityCpu == null || capacityMem == null) {
if (capacityCpu == null) {
if (logger.isDebugEnabled()) {
logger.debug("Cannot checkIfHostHasCapacity, Capacity entry for CPU not found in Db, for host: {}", host);
}
}
if (capacityMem == null) {
if (logger.isDebugEnabled()) {
logger.debug("Cannot checkIfHostHasCapacity, Capacity entry for RAM not found in Db, for host: {}", host);
}
}
return false;
}
long usedCpu = capacityCpu.getUsedCapacity();
long usedMem = capacityMem.getUsedCapacity();
long reservedCpu = capacityCpu.getReservedCapacity();
long reservedMem = capacityMem.getReservedCapacity();
long actualTotalCpu = capacityCpu.getTotalCapacity();
long actualTotalMem = capacityMem.getTotalCapacity();
long totalCpu = (long)(actualTotalCpu * cpuOvercommitRatio);
long totalMem = (long)(actualTotalMem * memoryOvercommitRatio);
if (logger.isDebugEnabled()) {
logger.debug("Hosts's actual total CPU: " + actualTotalCpu + " and CPU after applying overprovisioning: " + totalCpu);
}
String failureReason = "";
if (checkFromReservedCapacity) {
long freeCpu = reservedCpu;
long freeMem = reservedMem;
if (logger.isDebugEnabled()) {
logger.debug("We need to allocate to the last host again, so checking if there is enough reserved capacity");
logger.debug("Reserved CPU: " + freeCpu + " , Requested CPU: " + cpu);
logger.debug("Reserved RAM: " + toHumanReadableSize(freeMem) + " , Requested RAM: " + toHumanReadableSize(ram));
}
/* alloc from reserved */
if (reservedCpu >= cpu) {
if (reservedMem >= ram) {
hasCapacity = true;
} else {
failureReason = "Host does not have enough reserved RAM available";
}
} else {
failureReason = "Host does not have enough reserved CPU available";
}
} else {
long reservedCpuValueToUse = reservedCpu;
long reservedMemValueToUse = reservedMem;
if (!considerReservedCapacity) {
if (logger.isDebugEnabled()) {
logger.debug("considerReservedCapacity is" + considerReservedCapacity + " , not considering reserved capacity for calculating free capacity");
}
reservedCpuValueToUse = 0;
reservedMemValueToUse = 0;
}
long freeCpu = totalCpu - (reservedCpuValueToUse + usedCpu);
long freeMem = totalMem - (reservedMemValueToUse + usedMem);
if (logger.isDebugEnabled()) {
logger.debug("Free CPU: " + freeCpu + " , Requested CPU: " + cpu);
logger.debug("Free RAM: " + toHumanReadableSize(freeMem) + " , Requested RAM: " + toHumanReadableSize(ram));
}
/* alloc from free resource */
if ((reservedCpuValueToUse + usedCpu + cpu <= totalCpu)) {
if ((reservedMemValueToUse + usedMem + ram <= totalMem)) {
hasCapacity = true;
} else {
failureReason = "Host does not have enough RAM available";
}
} else {
failureReason = "Host does not have enough CPU available";
}
}
if (hasCapacity) {
if (logger.isDebugEnabled()) {
logger.debug("Host has enough CPU and RAM available");
}
logger.debug("STATS: Can alloc CPU from host: {}, used: {}, reserved: {}, actual total: {}, total with overprovisioning: {}; requested cpu: {}, alloc_from_last_host?: {}, considerReservedCapacity?: {}", host, usedCpu, reservedCpu, actualTotalCpu, totalCpu, cpu, checkFromReservedCapacity, considerReservedCapacity);
logger.debug("STATS: Can alloc MEM from host: {}, used: {}, reserved: {}, total: {}; requested mem: {}, alloc_from_last_host?: {}, considerReservedCapacity?: {}", host, toHumanReadableSize(usedMem), toHumanReadableSize(reservedMem), toHumanReadableSize(totalMem), toHumanReadableSize(ram), checkFromReservedCapacity, considerReservedCapacity);
} else {
if (checkFromReservedCapacity) {
logger.debug("STATS: Failed to alloc resource from host: {} reservedCpu: {}, requested cpu: {}, reservedMem: {}, requested mem: {}", host, reservedCpu, cpu, toHumanReadableSize(reservedMem), toHumanReadableSize(ram));
} else {
logger.debug("STATS: Failed to alloc resource from host: {}, reservedCpu: {}, used cpu: {}, requested cpu: {}, actual total cpu: {}, total cpu with overprovisioning: {}, reservedMem: {}, used Mem: {}, requested mem: {}, total Mem: {}, considerReservedCapacity?: {}", host, reservedCpu, usedCpu, cpu, actualTotalCpu, totalCpu, toHumanReadableSize(reservedMem), toHumanReadableSize(usedMem), toHumanReadableSize(ram), toHumanReadableSize(totalMem), considerReservedCapacity);
}
if (logger.isDebugEnabled()) {
logger.debug(failureReason + ", cannot allocate to this host.");
}
}
return hasCapacity;
}
@Override
public long getUsedBytes(StoragePoolVO pool) {
DataStoreProvider storeProvider = _dataStoreProviderMgr.getDataStoreProvider(pool.getStorageProviderName());
DataStoreDriver storeDriver = storeProvider.getDataStoreDriver();
if (storeDriver instanceof PrimaryDataStoreDriver) {
PrimaryDataStoreDriver primaryStoreDriver = (PrimaryDataStoreDriver)storeDriver;
return primaryStoreDriver.getUsedBytes(pool);
}
throw new CloudRuntimeException("Storage driver in CapacityManagerImpl.getUsedBytes(StoragePoolVO) is not a PrimaryDataStoreDriver.");
}
@Override
public long getUsedIops(StoragePoolVO pool) {
DataStoreProvider storeProvider = _dataStoreProviderMgr.getDataStoreProvider(pool.getStorageProviderName());
DataStoreDriver storeDriver = storeProvider.getDataStoreDriver();
if (storeDriver instanceof PrimaryDataStoreDriver) {
PrimaryDataStoreDriver primaryStoreDriver = (PrimaryDataStoreDriver)storeDriver;
return primaryStoreDriver.getUsedIops(pool);
}
throw new CloudRuntimeException("Storage driver in CapacityManagerImpl.getUsedIops(StoragePoolVO) is not a PrimaryDataStoreDriver.");
}
@Override
public long getAllocatedPoolCapacity(StoragePoolVO pool, VMTemplateVO templateForVmCreation) {
long totalAllocatedSize = 0;
// if the storage pool is managed, the used bytes can be larger than the sum of the sizes of all of the non-destroyed volumes
// in this case, call getUsedBytes(StoragePoolVO)
if (pool.isManaged()) {
totalAllocatedSize = getUsedBytes(pool);
if (templateForVmCreation != null) {
VMTemplateStoragePoolVO templatePoolVO = _templatePoolDao.findByPoolTemplate(pool.getId(), templateForVmCreation.getId(), null);
if (templatePoolVO == null) {
// template is not installed in the pool, consider the template size for allocation
long templateForVmCreationSize = templateForVmCreation.getSize() != null ? templateForVmCreation.getSize() : 0;
totalAllocatedSize += templateForVmCreationSize;
}
}
return totalAllocatedSize;
} else {
// Get size for all the non-destroyed volumes.
Pair<Long, Long> sizes = _volumeDao.getNonDestroyedCountAndTotalByPool(pool.getId());
totalAllocatedSize = sizes.second() + sizes.first() * _extraBytesPerVolume;
}
// Get size for VM Snapshots.
totalAllocatedSize += _volumeDao.getVMSnapshotSizeByPool(pool.getId());
boolean tmpInstalled = false;
// Iterate through all templates on this storage pool.
List<VMTemplateStoragePoolVO> templatePoolVOs = _templatePoolDao.listByPoolId(pool.getId());
for (VMTemplateStoragePoolVO templatePoolVO : templatePoolVOs) {
if ((templateForVmCreation != null) && !tmpInstalled && (templatePoolVO.getTemplateId() == templateForVmCreation.getId())) {
tmpInstalled = true;
}
long templateSize = templatePoolVO.getTemplateSize();
totalAllocatedSize += templateSize + _extraBytesPerVolume;
}
if ((templateForVmCreation != null) && !tmpInstalled) {
long templateForVmCreationSize = templateForVmCreation.getSize() != null ? templateForVmCreation.getSize() : 0;
totalAllocatedSize += templateForVmCreationSize + _extraBytesPerVolume;
}
return totalAllocatedSize;
}
protected Pair<String, String> getClusterValues(long clusterId) {
Map<String, String> map = _clusterDetailsDao.findDetails(clusterId,
List.of(VmDetailConstants.CPU_OVER_COMMIT_RATIO, VmDetailConstants.MEMORY_OVER_COMMIT_RATIO));
return new Pair<>(map.get(VmDetailConstants.CPU_OVER_COMMIT_RATIO),
map.get(VmDetailConstants.MEMORY_OVER_COMMIT_RATIO));
}
protected Map<Long, ServiceOfferingVO> getServiceOfferingsMap() {
List<ServiceOfferingVO> serviceOfferings = _offeringsDao.listAllIncludingRemoved();
if (CollectionUtils.isEmpty(serviceOfferings)) {
return new HashMap<>();
}
return serviceOfferings.stream()
.collect(Collectors.toMap(
ServiceOfferingVO::getId,
offering -> offering
));
}
protected ServiceOfferingVO getServiceOffering(long id) {
Map <Long, ServiceOfferingVO> map = serviceOfferingsCache.get();
if (map.containsKey(id)) {
return map.get(id);
}
ServiceOfferingVO serviceOfferingVO = _offeringsDao.findByIdIncludingRemoved(id);
if (serviceOfferingVO != null) {
serviceOfferingsCache.invalidate();
}
return serviceOfferingVO;
}
protected Map<String, String> getVmDetailsForCapacityCalculation(long vmId) {
return _vmInstanceDetailsDao.listDetailsKeyPairs(vmId,
List.of(VmDetailConstants.CPU_OVER_COMMIT_RATIO,
VmDetailConstants.MEMORY_OVER_COMMIT_RATIO,
UsageEventVO.DynamicParameters.memory.name(),
UsageEventVO.DynamicParameters.cpuNumber.name(),
UsageEventVO.DynamicParameters.cpuSpeed.name()));
}
@DB
@Override
public void updateCapacityForHost(final Host host) {
if (HypervisorType.External.equals(host.getHypervisorType())) {
return;
}
long usedCpuCore = 0;
long reservedCpuCore = 0;
long usedCpu = 0;
long usedMemory = 0;
long reservedMemory = 0;
long reservedCpu = 0;
final CapacityState capacityState = (host.getResourceState() == ResourceState.Enabled) ? CapacityState.Enabled : CapacityState.Disabled;
List<VMInstanceVO> vms = _vmDao.listIdServiceOfferingForUpVmsByHostId(host.getId());
logger.debug("Found {} VMs on {}", vms.size(), host);
final List<VMInstanceVO> vosMigrating = _vmDao.listIdServiceOfferingForVmsMigratingFromHost(host.getId());
logger.debug("Found {} VMs are Migrating from {}", vosMigrating.size(), host);
vms.addAll(vosMigrating);
Pair<String, String> clusterValues =
clusterValuesCache.get(host.getClusterId());
Float clusterCpuOvercommitRatio = Float.parseFloat(clusterValues.first());
Float clusterRamOvercommitRatio = Float.parseFloat(clusterValues.second());
for (VMInstanceVO vm : vms) {
Float cpuOvercommitRatio = 1.0f;
Float ramOvercommitRatio = 1.0f;
Map<String, String> vmDetails = getVmDetailsForCapacityCalculation(vm.getId());
String vmDetailCpu = vmDetails.get(VmDetailConstants.CPU_OVER_COMMIT_RATIO);
String vmDetailRam = vmDetails.get(VmDetailConstants.MEMORY_OVER_COMMIT_RATIO);
// if vmDetailCpu or vmDetailRam is not null it means it is running in a overcommitted cluster.
cpuOvercommitRatio = (vmDetailCpu != null) ? Float.parseFloat(vmDetailCpu) : clusterCpuOvercommitRatio;
ramOvercommitRatio = (vmDetailRam != null) ? Float.parseFloat(vmDetailRam) : clusterRamOvercommitRatio;
ServiceOffering so = getServiceOffering(vm.getServiceOfferingId());
if (so == null) {
so = _offeringsDao.findByIdIncludingRemoved(vm.getServiceOfferingId());
}
if (so.isDynamic()) {
usedMemory +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.memory.name())) * 1024L * 1024L) / ramOvercommitRatio) *
clusterRamOvercommitRatio;
if(vmDetails.containsKey(UsageEventVO.DynamicParameters.cpuSpeed.name())) {
usedCpu +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name())) * Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuSpeed.name()))) / cpuOvercommitRatio) *
clusterCpuOvercommitRatio;
} else {
usedCpu +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name())) * so.getSpeed()) / cpuOvercommitRatio) *
clusterCpuOvercommitRatio;
}
usedCpuCore += Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name()));
} else {
usedMemory += ((so.getRamSize() * 1024L * 1024L) / ramOvercommitRatio) * clusterRamOvercommitRatio;
usedCpu += ((so.getCpu() * so.getSpeed()) / cpuOvercommitRatio) * clusterCpuOvercommitRatio;
usedCpuCore += so.getCpu();
}
}
List<VMInstanceVO> vmsByLastHostId = _vmDao.listByLastHostId(host.getId());
logger.debug("Found {} VM, not running on {}", vmsByLastHostId.size(), host);
for (VMInstanceVO vm : vmsByLastHostId) {
Float cpuOvercommitRatio = 1.0f;
Float ramOvercommitRatio = 1.0f;
long lastModificationTime = Optional.ofNullable(vm.getUpdateTime()).orElse(vm.getCreated()).getTime();
long secondsSinceLastUpdate = (DateUtil.currentGMTTime().getTime() - lastModificationTime) / 1000;
if (secondsSinceLastUpdate < _vmCapacityReleaseInterval) {
Map<String, String> vmDetails = getVmDetailsForCapacityCalculation(vm.getId());
String vmDetailCpu = vmDetails.get(VmDetailConstants.CPU_OVER_COMMIT_RATIO);
String vmDetailRam = vmDetails.get(VmDetailConstants.MEMORY_OVER_COMMIT_RATIO);
if (vmDetailCpu != null) {
//if vmDetail_cpu is not null it means it is running in a overcommited cluster.
cpuOvercommitRatio = Float.parseFloat(vmDetailCpu);
}
if (vmDetailRam != null) {
ramOvercommitRatio = Float.parseFloat(vmDetailRam);
}
ServiceOffering so = getServiceOffering(vm.getServiceOfferingId());
if (so == null) {
so = _offeringsDao.findByIdIncludingRemoved(vm.getServiceOfferingId());
}
if (so.isDynamic()) {
reservedMemory +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.memory.name())) * 1024L * 1024L) / ramOvercommitRatio) *
clusterRamOvercommitRatio;
if(vmDetails.containsKey(UsageEventVO.DynamicParameters.cpuSpeed.name())) {
reservedCpu +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name())) * Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuSpeed.name()))) / cpuOvercommitRatio) *
clusterCpuOvercommitRatio;
} else {
reservedCpu +=
((Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name())) * so.getSpeed()) / cpuOvercommitRatio) *
clusterCpuOvercommitRatio;
}
reservedCpuCore += Integer.parseInt(vmDetails.get(UsageEventVO.DynamicParameters.cpuNumber.name()));
} else {
reservedMemory += ((so.getRamSize() * 1024L * 1024L) / ramOvercommitRatio) * clusterRamOvercommitRatio;
reservedCpu += (so.getCpu() * so.getSpeed() / cpuOvercommitRatio) * clusterCpuOvercommitRatio;
reservedCpuCore += so.getCpu();
}
} else {
// signal if not done already, that the VM has been stopped for skip.counting.hours,
// hence capacity will not be reserved anymore.
VMInstanceDetailVO messageSentFlag = _vmInstanceDetailsDao.findDetail(vm.getId(), VmDetailConstants.MESSAGE_RESERVED_CAPACITY_FREED_FLAG);
if (messageSentFlag == null || !Boolean.valueOf(messageSentFlag.getValue())) {
_messageBus.publish(_name, "VM_ReservedCapacity_Free", PublishScope.LOCAL, vm);
if (vm.getType() == VirtualMachine.Type.User) {
UserVmVO userVM = _userVMDao.findById(vm.getId());
_userVMDao.loadDetails(userVM);
userVM.setDetail(VmDetailConstants.MESSAGE_RESERVED_CAPACITY_FREED_FLAG, "true");
_userVMDao.saveDetails(userVM);
}
}
}
}
List<CapacityVO> capacities = _capacityDao.listByHostIdTypes(host.getId(), List.of(Capacity.CAPACITY_TYPE_CPU,
Capacity.CAPACITY_TYPE_MEMORY,
CapacityVO.CAPACITY_TYPE_CPU_CORE));
CapacityVO cpuCap = null;
CapacityVO memCap = null;
CapacityVO cpuCoreCap = null;
for (CapacityVO c : capacities) {
if (c.getCapacityType() == Capacity.CAPACITY_TYPE_CPU) {
cpuCap = c;
} else if (c.getCapacityType() == Capacity.CAPACITY_TYPE_MEMORY) {
memCap = c;
} else if (c.getCapacityType() == Capacity.CAPACITY_TYPE_CPU_CORE) {
cpuCoreCap = c;
}
if (ObjectUtils.allNotNull(cpuCap, memCap, cpuCoreCap)) {
break;
}
}
if (cpuCoreCap != null) {
long hostTotalCpuCore = host.getCpus().longValue();
if (cpuCoreCap.getTotalCapacity() != hostTotalCpuCore) {
logger.debug("Calibrate total cpu for host: {} old total CPU:{} new total CPU:{}", host, cpuCoreCap.getTotalCapacity(), hostTotalCpuCore);
cpuCoreCap.setTotalCapacity(hostTotalCpuCore);
}
if (cpuCoreCap.getUsedCapacity() == usedCpuCore && cpuCoreCap.getReservedCapacity() == reservedCpuCore) {
logger.debug("No need to calibrate cpu capacity, host:{} usedCpuCore: {} reservedCpuCore: {}", host, cpuCoreCap.getUsedCapacity(), cpuCoreCap.getReservedCapacity());
} else {
if (cpuCoreCap.getReservedCapacity() != reservedCpuCore) {
logger.debug("Calibrate reserved cpu core for host: {} old reservedCpuCore: {} new reservedCpuCore: {}", host, cpuCoreCap.getReservedCapacity(), reservedCpuCore);
cpuCoreCap.setReservedCapacity(reservedCpuCore);
}
if (cpuCoreCap.getUsedCapacity() != usedCpuCore) {
logger.debug("Calibrate used cpu core for host: {} old usedCpuCore: {} new usedCpuCore: {}", host, cpuCoreCap.getUsedCapacity(), usedCpuCore);
cpuCoreCap.setUsedCapacity(usedCpuCore);
}
}
try {
_capacityDao.update(cpuCoreCap.getId(), cpuCoreCap);
} catch (Exception e) {
logger.error("Caught exception while updating cpucore capacity for the host {}", host, e);
}
} else {
final long usedCpuCoreFinal = usedCpuCore;
final long reservedCpuCoreFinal = reservedCpuCore;
Transaction.execute(new TransactionCallbackNoReturn() {
@Override
public void doInTransactionWithoutResult(TransactionStatus status) {
CapacityVO capacity = new CapacityVO(host.getId(), host.getDataCenterId(), host.getPodId(), host.getClusterId(), usedCpuCoreFinal, host.getCpus().longValue(),
CapacityVO.CAPACITY_TYPE_CPU_CORE);
capacity.setReservedCapacity(reservedCpuCoreFinal);
capacity.setCapacityState(capacityState);
_capacityDao.persist(capacity);
}
});
}
if (cpuCap != null && memCap != null) {
if (host.getTotalMemory() != null) {
memCap.setTotalCapacity(host.getTotalMemory());
}
long hostTotalCpu = host.getCpus().longValue() * host.getSpeed().longValue();
if (cpuCap.getTotalCapacity() != hostTotalCpu) {
logger.debug("Calibrate total cpu for host: {} old total CPU:{} new total CPU:{}", host, cpuCap.getTotalCapacity(), hostTotalCpu);
cpuCap.setTotalCapacity(hostTotalCpu);
}
// Set the capacity state as per the host allocation state.
if(capacityState != cpuCap.getCapacityState()){
logger.debug("Calibrate cpu capacity state for host: {} old capacity state:{} new capacity state:{}", host, cpuCap.getTotalCapacity(), hostTotalCpu);
cpuCap.setCapacityState(capacityState);
}
memCap.setCapacityState(capacityState);
if (cpuCap.getUsedCapacity() == usedCpu && cpuCap.getReservedCapacity() == reservedCpu) {
logger.debug("No need to calibrate cpu capacity, host:{} usedCpu: {} reservedCpu: {}", host, cpuCap.getUsedCapacity(), cpuCap.getReservedCapacity());
} else {
if (cpuCap.getReservedCapacity() != reservedCpu) {
logger.debug("Calibrate reserved cpu for host: {} old reservedCpu:{} new reservedCpu:{}", host, cpuCap.getReservedCapacity(), reservedCpu);
cpuCap.setReservedCapacity(reservedCpu);
}
if (cpuCap.getUsedCapacity() != usedCpu) {
logger.debug("Calibrate used cpu for host: {} old usedCpu:{} new usedCpu:{}", host, cpuCap.getUsedCapacity(), usedCpu);
cpuCap.setUsedCapacity(usedCpu);
}
}
if (memCap.getTotalCapacity() != host.getTotalMemory()) {
logger.debug("Calibrate total memory for host: {} old total memory:{} new total memory:{}", host, toHumanReadableSize(memCap.getTotalCapacity()), toHumanReadableSize(host.getTotalMemory()));
memCap.setTotalCapacity(host.getTotalMemory());
}
// Set the capacity state as per the host allocation state.
if(capacityState != memCap.getCapacityState()){
logger.debug("Calibrate memory capacity state for host: {} old capacity state:{} new capacity state:{}", host, memCap.getTotalCapacity(), hostTotalCpu);
memCap.setCapacityState(capacityState);
}
if (memCap.getUsedCapacity() == usedMemory && memCap.getReservedCapacity() == reservedMemory) {
logger.debug("No need to calibrate memory capacity, host:{} usedMem: {} reservedMem: {}", host, toHumanReadableSize(memCap.getUsedCapacity()), toHumanReadableSize(memCap.getReservedCapacity()));
} else {
if (memCap.getReservedCapacity() != reservedMemory) {
logger.debug("Calibrate reserved memory for host: {} old reservedMem:{} new reservedMem:{}", host, memCap.getReservedCapacity(), reservedMemory);
memCap.setReservedCapacity(reservedMemory);
}
if (memCap.getUsedCapacity() != usedMemory) {
/*
* Didn't calibrate for used memory, because VMs can be in
* state(starting/migrating) that I don't know on which host
* they are allocated
*/
logger.debug("Calibrate used memory for host: {} old usedMem: {} new usedMem: {}", host, toHumanReadableSize(memCap.getUsedCapacity()), toHumanReadableSize(usedMemory));
memCap.setUsedCapacity(usedMemory);
}
}
try {
_capacityDao.update(cpuCap.getId(), cpuCap);
_capacityDao.update(memCap.getId(), memCap);
} catch (Exception e) {
logger.error("Caught exception while updating cpu/memory capacity for the host {}", host, e);
}
} else {
final long usedMemoryFinal = usedMemory;
final long reservedMemoryFinal = reservedMemory;
final long usedCpuFinal = usedCpu;
final long reservedCpuFinal = reservedCpu;
Transaction.execute(new TransactionCallbackNoReturn() {
@Override
public void doInTransactionWithoutResult(TransactionStatus status) {
CapacityVO capacity =
new CapacityVO(host.getId(), host.getDataCenterId(), host.getPodId(), host.getClusterId(), usedMemoryFinal, host.getTotalMemory(),
Capacity.CAPACITY_TYPE_MEMORY);
capacity.setReservedCapacity(reservedMemoryFinal);
capacity.setCapacityState(capacityState);
_capacityDao.persist(capacity);
capacity =
new CapacityVO(host.getId(), host.getDataCenterId(), host.getPodId(), host.getClusterId(), usedCpuFinal, host.getCpus().longValue() *
host.getSpeed().longValue(), Capacity.CAPACITY_TYPE_CPU);
capacity.setReservedCapacity(reservedCpuFinal);
capacity.setCapacityState(capacityState);
_capacityDao.persist(capacity);
}
});
}
}
@Override
public boolean preStateTransitionEvent(State oldState, Event event, State newState, VirtualMachine vm, boolean transitionStatus, Object opaque) {
return true;
}
@Override
public boolean postStateTransitionEvent(StateMachine2.Transition<State, Event> transition, VirtualMachine vm, boolean status, Object opaque) {
if (!status) {
return false;
}
@SuppressWarnings("unchecked")
Pair<Long, Long> hosts = (Pair<Long, Long>)opaque;
Long oldHostId = hosts.first();
State oldState = transition.getCurrentState();
State newState = transition.getToState();
Event event = transition.getEvent();
Host lastHost = _hostDao.findById(vm.getLastHostId());
Host oldHost = _hostDao.findById(oldHostId);
Host newHost = _hostDao.findById(vm.getHostId());
logger.debug(String.format("%s state transited from [%s] to [%s] with event [%s]. VM's original host: %s, new host: %s, host before state transition: %s", vm, oldState,
newState, event, lastHost, newHost, oldHost));
if (oldState == State.Starting) {
if (newState != State.Running) {
releaseVmCapacity(vm, false, false, oldHost);
}
} else if (oldState == State.Running) {
if (event == Event.AgentReportStopped) {
releaseVmCapacity(vm, false, true, oldHost);
} else if (event == Event.AgentReportMigrated) {
releaseVmCapacity(vm, false, false, oldHost);
}
} else if (oldState == State.Migrating) {
if (event == Event.AgentReportStopped) {
/* Release capacity from original host */
releaseVmCapacity(vm, false, false, lastHost);
releaseVmCapacity(vm, false, false, oldHost);
} else if (event == Event.OperationFailed) {
/* Release from dest host */
releaseVmCapacity(vm, false, false, oldHost);
} else if (event == Event.OperationSucceeded) {
releaseVmCapacity(vm, false, false, lastHost);
}
} else if (oldState == State.Stopping) {
if (event == Event.OperationSucceeded) {
releaseVmCapacity(vm, false, true, oldHost);
} else if (event == Event.AgentReportStopped) {
releaseVmCapacity(vm, false, false, oldHost);
} else if (event == Event.AgentReportMigrated) {
releaseVmCapacity(vm, false, false, oldHost);
}
} else if (oldState == State.Stopped) {
if (event == Event.DestroyRequested || event == Event.ExpungeOperation) {
releaseVmCapacity(vm, true, false, lastHost);
} else if (event == Event.AgentReportMigrated) {
releaseVmCapacity(vm, false, false, oldHost);
}
}
if ((newState == State.Starting || newState == State.Migrating || event == Event.AgentReportMigrated) && vm.getHostId() != null) {
boolean fromLastHost = false;
if (vm.getHostId().equals(vm.getLastHostId())) {
logger.debug("VM starting again on the last host it was stopped on");
fromLastHost = true;
}
allocateVmCapacity(vm, fromLastHost);
}
if (newState == State.Stopped && event != Event.RestoringFailed && event != Event.RestoringSuccess && vm.getType() == VirtualMachine.Type.User) {
UserVmVO userVM = _userVMDao.findById(vm.getId());
_userVMDao.loadDetails(userVM);
// free the message sent flag if it exists
userVM.setDetail(VmDetailConstants.MESSAGE_RESERVED_CAPACITY_FREED_FLAG, "false");
_userVMDao.saveDetails(userVM);
}
return true;
}
// TODO: Get rid of this case once we've determined that the capacity listeners above have all the changes
// create capacity entries if none exist for this server
private void createCapacityEntry(StartupCommand startup, HostVO server) {
SearchCriteria<CapacityVO> capacitySC = _capacityDao.createSearchCriteria();
capacitySC.addAnd("hostOrPoolId", SearchCriteria.Op.EQ, server.getId());
capacitySC.addAnd("dataCenterId", SearchCriteria.Op.EQ, server.getDataCenterId());
capacitySC.addAnd("podId", SearchCriteria.Op.EQ, server.getPodId());
if (startup instanceof StartupRoutingCommand) {
SearchCriteria<CapacityVO> capacityCPU = _capacityDao.createSearchCriteria();
capacityCPU.addAnd("hostOrPoolId", SearchCriteria.Op.EQ, server.getId());
capacityCPU.addAnd("dataCenterId", SearchCriteria.Op.EQ, server.getDataCenterId());
capacityCPU.addAnd("podId", SearchCriteria.Op.EQ, server.getPodId());
capacityCPU.addAnd("capacityType", SearchCriteria.Op.EQ, Capacity.CAPACITY_TYPE_CPU);
List<CapacityVO> capacityVOCpus = _capacityDao.search(capacitySC, null);
Float cpuovercommitratio = Float.parseFloat(_clusterDetailsDao.findDetail(server.getClusterId(), VmDetailConstants.CPU_OVER_COMMIT_RATIO).getValue());
Float memoryOvercommitRatio = Float.parseFloat(_clusterDetailsDao.findDetail(server.getClusterId(), VmDetailConstants.MEMORY_OVER_COMMIT_RATIO).getValue());
if (capacityVOCpus != null && !capacityVOCpus.isEmpty()) {
CapacityVO CapacityVOCpu = capacityVOCpus.get(0);
long newTotalCpu = (long)(server.getCpus().longValue() * server.getSpeed().longValue() * cpuovercommitratio);
if ((CapacityVOCpu.getTotalCapacity() <= newTotalCpu) || ((CapacityVOCpu.getUsedCapacity() + CapacityVOCpu.getReservedCapacity()) <= newTotalCpu)) {
CapacityVOCpu.setTotalCapacity(newTotalCpu);
} else if ((CapacityVOCpu.getUsedCapacity() + CapacityVOCpu.getReservedCapacity() > newTotalCpu) && (CapacityVOCpu.getUsedCapacity() < newTotalCpu)) {
CapacityVOCpu.setReservedCapacity(0);
CapacityVOCpu.setTotalCapacity(newTotalCpu);
} else {
logger.debug("What? new cpu is :" + newTotalCpu + ", old one is " + CapacityVOCpu.getUsedCapacity() + "," + CapacityVOCpu.getReservedCapacity() +
"," + CapacityVOCpu.getTotalCapacity());
}
_capacityDao.update(CapacityVOCpu.getId(), CapacityVOCpu);
} else {
CapacityVO capacity =
new CapacityVO(server.getId(), server.getDataCenterId(), server.getPodId(), server.getClusterId(), 0L, server.getCpus().longValue() *
server.getSpeed().longValue(), Capacity.CAPACITY_TYPE_CPU);
_capacityDao.persist(capacity);
}
SearchCriteria<CapacityVO> capacityMem = _capacityDao.createSearchCriteria();
capacityMem.addAnd("hostOrPoolId", SearchCriteria.Op.EQ, server.getId());
capacityMem.addAnd("dataCenterId", SearchCriteria.Op.EQ, server.getDataCenterId());
capacityMem.addAnd("podId", SearchCriteria.Op.EQ, server.getPodId());
capacityMem.addAnd("capacityType", SearchCriteria.Op.EQ, Capacity.CAPACITY_TYPE_MEMORY);
List<CapacityVO> capacityVOMems = _capacityDao.search(capacityMem, null);
if (capacityVOMems != null && !capacityVOMems.isEmpty()) {
CapacityVO CapacityVOMem = capacityVOMems.get(0);
long newTotalMem = (long)((server.getTotalMemory()) * memoryOvercommitRatio);
if (CapacityVOMem.getTotalCapacity() <= newTotalMem || (CapacityVOMem.getUsedCapacity() + CapacityVOMem.getReservedCapacity() <= newTotalMem)) {
CapacityVOMem.setTotalCapacity(newTotalMem);
} else if (CapacityVOMem.getUsedCapacity() + CapacityVOMem.getReservedCapacity() > newTotalMem && CapacityVOMem.getUsedCapacity() < newTotalMem) {
CapacityVOMem.setReservedCapacity(0);
CapacityVOMem.setTotalCapacity(newTotalMem);
} else {
logger.debug("What? new mem is :" + newTotalMem + ", old one is " + CapacityVOMem.getUsedCapacity() + "," + CapacityVOMem.getReservedCapacity() +
"," + CapacityVOMem.getTotalCapacity());
}
_capacityDao.update(CapacityVOMem.getId(), CapacityVOMem);
} else {
CapacityVO capacity =
new CapacityVO(server.getId(), server.getDataCenterId(), server.getPodId(), server.getClusterId(), 0L, server.getTotalMemory(),
Capacity.CAPACITY_TYPE_MEMORY);
_capacityDao.persist(capacity);
}
}
}
@Override
public float getClusterOverProvisioningFactor(Long clusterId, short capacityType) {
String capacityOverProvisioningName = "";
if (capacityType == Capacity.CAPACITY_TYPE_CPU) {
capacityOverProvisioningName = VmDetailConstants.CPU_OVER_COMMIT_RATIO;
} else if (capacityType == Capacity.CAPACITY_TYPE_MEMORY) {
capacityOverProvisioningName = VmDetailConstants.MEMORY_OVER_COMMIT_RATIO;
} else {
throw new CloudRuntimeException("Invalid capacityType - " + capacityType);
}
ClusterDetailsVO clusterDetailCpu = _clusterDetailsDao.findDetail(clusterId, capacityOverProvisioningName);
Float clusterOverProvisioningRatio = Float.parseFloat(clusterDetailCpu.getValue());
return clusterOverProvisioningRatio;
}
@Override
public boolean checkIfClusterCrossesThreshold(Long clusterId, Integer cpuRequested, long ramRequested) {
Float clusterCpuOverProvisioning = getClusterOverProvisioningFactor(clusterId, Capacity.CAPACITY_TYPE_CPU);
Float clusterMemoryOverProvisioning = getClusterOverProvisioningFactor(clusterId, Capacity.CAPACITY_TYPE_MEMORY);
Float clusterCpuCapacityDisableThreshold = DeploymentClusterPlanner.ClusterCPUCapacityDisableThreshold.valueIn(clusterId);
Float clusterMemoryCapacityDisableThreshold = DeploymentClusterPlanner.ClusterMemoryCapacityDisableThreshold.valueIn(clusterId);
float cpuConsumption = _capacityDao.findClusterConsumption(clusterId, Capacity.CAPACITY_TYPE_CPU, cpuRequested);
if (cpuConsumption / clusterCpuOverProvisioning > clusterCpuCapacityDisableThreshold) {
logger.debug("Cluster: {} cpu consumption {} crosses disable threshold {}", _clusterDao.findById(clusterId), cpuConsumption / clusterCpuOverProvisioning, clusterCpuCapacityDisableThreshold);
return true;
}
float memoryConsumption = _capacityDao.findClusterConsumption(clusterId, Capacity.CAPACITY_TYPE_MEMORY, ramRequested);
if (memoryConsumption / clusterMemoryOverProvisioning > clusterMemoryCapacityDisableThreshold) {
logger.debug("Cluster: {} memory consumption {} crosses disable threshold {}", _clusterDao.findById(clusterId), memoryConsumption / clusterMemoryOverProvisioning, clusterMemoryCapacityDisableThreshold);
return true;
}
return false;
}
@Override
public Pair<Boolean, Boolean> checkIfHostHasCpuCapabilityAndCapacity(Host host, ServiceOffering offering, boolean considerReservedCapacity) {
if (HypervisorType.External.equals(host.getHypervisorType())) {
logger.debug("Skipping capability and capacity check for the External {}", host);
return new Pair<>(true, true);
}
int cpu_requested = offering.getCpu() * offering.getSpeed();
long ram_requested = offering.getRamSize() * 1024L * 1024L;
Pair<String, String> clusterDetails = getClusterValues(host.getClusterId());
Float cpuOvercommitRatio = Float.parseFloat(clusterDetails.first());
Float memoryOvercommitRatio = Float.parseFloat(clusterDetails.second());
boolean hostHasCpuCapability = checkIfHostHasCpuCapability(host, offering.getCpu(), offering.getSpeed());
boolean hostHasCapacity = checkIfHostHasCapacity(host, cpu_requested, ram_requested, false, cpuOvercommitRatio, memoryOvercommitRatio,
considerReservedCapacity);
return new Pair<>(hostHasCpuCapability, hostHasCapacity);
}
@Override
public boolean processAnswers(long agentId, long seq, Answer[] answers) {
// TODO Auto-generated method stub
return false;
}
@Override
public boolean processCommands(long agentId, long seq, Command[] commands) {
// TODO Auto-generated method stub
return false;
}
@Override
public AgentControlAnswer processControlCommand(long agentId, AgentControlCommand cmd) {
// TODO Auto-generated method stub
return null;
}
@Override
public void processHostAdded(long hostId) {
}
@Override
public void processConnect(Host host, StartupCommand cmd, boolean forRebalance) throws ConnectionException {
// TODO Auto-generated method stub
}
@Override
public boolean processDisconnect(long agentId, Status state) {
// TODO Auto-generated method stub
return false;
}
@Override
public void processHostAboutToBeRemoved(long hostId) {
}
@Override
public void processHostRemoved(long hostId, long clusterId) {
}
@Override
public boolean isRecurring() {
// TODO Auto-generated method stub
return false;
}
@Override
public int getTimeout() {
// TODO Auto-generated method stub
return 0;
}
@Override
public boolean processTimeout(long agentId, long seq) {
// TODO Auto-generated method stub
return false;
}
@Override
public void processCancelMaintenaceEventAfter(Long hostId) {
updateCapacityForHost(_hostDao.findById(hostId));
}
@Override
public void processCancelMaintenaceEventBefore(Long hostId) {
// TODO Auto-generated method stub
}
@Override
public void processDeletHostEventAfter(Host host) {
// TODO Auto-generated method stub
}
@Override
public void processDeleteHostEventBefore(Host host) {
// TODO Auto-generated method stub
}
@Override
public void processDiscoverEventAfter(Map<? extends ServerResource, Map<String, String>> resources) {
// TODO Auto-generated method stub
}
@Override
public void processDiscoverEventBefore(Long dcid, Long podId, Long clusterId, URI uri, String username, String password, List<String> hostTags) {
// TODO Auto-generated method stub
}
@Override
public void processPrepareMaintenaceEventAfter(Long hostId) {
_capacityDao.removeBy(Capacity.CAPACITY_TYPE_MEMORY, null, null, null, hostId);
_capacityDao.removeBy(Capacity.CAPACITY_TYPE_CPU, null, null, null, hostId);
_capacityDao.removeBy(Capacity.CAPACITY_TYPE_CPU_CORE, null, null, null, hostId);
}
@Override
public void processPrepareMaintenaceEventBefore(Long hostId) {
// TODO Auto-generated method stub
}
@Override
public boolean checkIfHostReachMaxGuestLimit(Host host) {
HypervisorType hypervisorType = host.getHypervisorType();
if (hypervisorType.equals(HypervisorType.KVM)) {
logger.debug(String.format("Host {id: %s, name: %s, uuid: %s} is %s hypervisor type, no max guest limit check needed", host.getId(), host.getName(), host.getUuid(), hypervisorType));
return false;
}
Long vmCount = _vmDao.countActiveByHostId(host.getId());
String hypervisorVersion = host.getHypervisorVersion();
Long maxGuestLimit = _hypervisorCapabilitiesDao.getMaxGuestsLimit(hypervisorType, hypervisorVersion);
if (vmCount >= maxGuestLimit) {
logger.info(String.format("Host {id: %s, name: %s, uuid: %s} already reached max Running VMs(count includes system VMs), limit: %d, running VM count: %s",
host.getId(), host.getName(), host.getUuid(), maxGuestLimit, vmCount));
return true;
}
return false;
}
@Override
public String getConfigComponentName() {
return CapacityManager.class.getSimpleName();
}
@Override
public ConfigKey<?>[] getConfigKeys() {
return new ConfigKey<?>[] {CpuOverprovisioningFactor, MemOverprovisioningFactor, StorageCapacityDisableThreshold, StorageOverprovisioningFactor,
StorageAllocatedCapacityDisableThreshold, StorageOperationsExcludeCluster, ImageStoreNFSVersion, SecondaryStorageCapacityThreshold,
StorageAllocatedCapacityDisableThresholdForVolumeSize, CapacityCalculateWorkers };
}
}