if (processTree != null) { rss = processTree.getRssMemorySize(); vmem = processTree.getVirtualMemorySize();
/** * Get the virtual memory used by all the processes in the * process-tree. * * @return virtual memory used by the process-tree in bytes, * {@link #UNAVAILABLE} if it cannot be calculated. */ public long getVirtualMemorySize() { return getVirtualMemorySize(0); }
/** * Get the virtual memory used by all the processes in the * process-tree. * * @return virtual memory used by the process-tree in bytes, * {@link #UNAVAILABLE} if it cannot be calculated. */ public long getVirtualMemorySize() { return getVirtualMemorySize(0); }
/** * Get the virtual memory used by all the processes in the * process-tree. * * @return virtual memory used by the process-tree in bytes, * {@link #UNAVAILABLE} if it cannot be calculated. */ public long getVirtualMemorySize() { return getVirtualMemorySize(0); }
boolean isProcessTreeOverLimit(ResourceCalculatorProcessTree pTree, String containerId, long limit) { long currentMemUsage = pTree.getVirtualMemorySize(); // as processes begin with an age 1, we want to see if there are processes // more than 1 iteration old. long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); return isProcessTreeOverLimit(containerId, currentMemUsage, curMemUsageOfAgedProcesses, limit); }
boolean isProcessTreeOverLimit(ResourceCalculatorProcessTree pTree, String containerId, long limit) { long currentMemUsage = pTree.getVirtualMemorySize(); // as processes begin with an age 1, we want to see if there are processes // more than 1 iteration old. long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); return isProcessTreeOverLimit(containerId, currentMemUsage, curMemUsageOfAgedProcesses, limit); }
boolean isProcessTreeOverLimit(ResourceCalculatorProcessTree pTree, String containerId, long limit) { long currentMemUsage = pTree.getVirtualMemorySize(); // as processes begin with an age 1, we want to see if there are processes // more than 1 iteration old. long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); return isProcessTreeOverLimit(containerId, currentMemUsage, curMemUsageOfAgedProcesses, limit); }
boolean isProcessTreeOverLimit(ResourceCalculatorProcessTree pTree, String containerId, long limit) { long currentMemUsage = pTree.getVirtualMemorySize(); // as processes begin with an age 1, we want to see if there are processes // more than 1 iteration old. long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); return isProcessTreeOverLimit(containerId, currentMemUsage, curMemUsageOfAgedProcesses, limit); }
long currentVmemUsage = pTree.getVirtualMemorySize(); long currentPmemUsage = pTree.getRssMemorySize();
ResourceCalculatorProcessTree pTree = ptInfo.getProcessTree(); long currentVmemUsage = pTree.getVirtualMemorySize(); long currentPmemUsage = pTree.getRssMemorySize(); long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); long curRssMemUsageOfAgedProcesses = pTree.getRssMemorySize(1); long vmemLimit = ptInfo.getVmemLimit();
long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); long curRssMemUsageOfAgedProcesses = pTree.getRssMemorySize(1); if (isVmemCheckEnabled()
ResourceCalculatorProcessTree pTree = ptInfo.getProcessTree(); long currentVmemUsage = pTree.getVirtualMemorySize(); long currentPmemUsage = pTree.getRssMemorySize(); long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); long curRssMemUsageOfAgedProcesses = pTree.getRssMemorySize(1); long vmemLimit = ptInfo.getVmemLimit();
ResourceCalculatorProcessTree pTree = ptInfo.getProcessTree(); long currentVmemUsage = pTree.getVirtualMemorySize(); long currentPmemUsage = pTree.getRssMemorySize(); long curMemUsageOfAgedProcesses = pTree.getVirtualMemorySize(1); long curRssMemUsageOfAgedProcesses = pTree.getRssMemorySize(1); long vmemLimit = ptInfo.getVmemLimit();
/** * Update resource information counters */ void updateResourceCounters() { // Update generic resource counters updateHeapUsageCounter(); // Updating resources specified in ResourceCalculatorPlugin if (pTree == null) { return; } pTree.updateProcessTree(); long cpuTime = pTree.getCumulativeCpuTime(); long pMem = pTree.getRssMemorySize(); long vMem = pTree.getVirtualMemorySize(); // Remove the CPU time consumed previously by JVM reuse cpuTime -= initCpuCumulativeTime; tezCounters.findCounter(TaskCounter.CPU_MILLISECONDS).setValue(cpuTime); tezCounters.findCounter(TaskCounter.PHYSICAL_MEMORY_BYTES).setValue(pMem); tezCounters.findCounter(TaskCounter.VIRTUAL_MEMORY_BYTES).setValue(vMem); }
long cpuTime = pTree.getCumulativeCpuTime(); long pMem = pTree.getRssMemorySize(); long vMem = pTree.getVirtualMemorySize();
long cpuTime = pTree.getCumulativeCpuTime(); long pMem = pTree.getRssMemorySize(); long vMem = pTree.getVirtualMemorySize();
long cpuTime = pTree.getCumulativeCpuTime(); long pMem = pTree.getRssMemorySize(); long vMem = pTree.getVirtualMemorySize();
long cpuTime = pTree.getCumulativeCpuTime(); long pMem = pTree.getRssMemorySize(); long vMem = pTree.getVirtualMemorySize();
if (processTree != null) { rss = processTree.getRssMemorySize(); vmem = processTree.getVirtualMemorySize();