o r_@sddlZddlZddlmZddlZddlZddlmZddlm Z dZ ddZ dd Z Gd d d Z d d ZddZGdddZGdddZGdddZGdddZGdddZGdddZGdddZGdddZGd d!d!ZGd"d#d#Zed$kr>ddlZeZeejD] Ze d%eejefqeZ!ee!j!D] Z"e d%e"e!j!e"fqeZ#e d&e#j$ee#D] Z%e d'e%e#e%fqe d(ee&ej'd)Z(ee(j)D]Ze d*e(j*ej+e(j*ej,fqe d+e(-ej'd,D] Z.e e.d-qeZ/e e/d)eZ0 e1d)e02e0D] Z#e d/e#j,e#j3fq*e d0qdS)1N)reduce)range) bitmasklistz0.5cCst}ttd|S)z) Return True if running on s390 or s390x s390)platformmachineboolresearch)rr //usr/lib/python3/dist-packages/procfs/procfs.pyis_s390 sr cCs*|drtdd|dS|ddS)z Returns the process command line, if available in the given `process' class, if not available, falls back to using the comm (short process name) in its pidstat key. cmdlinecSs |d|S)Nz %sr )abr r r ,s z!process_cmdline..statcomm)rstrip)pid_infor r r process_cmdline&s rc@seZdZdZdZdZdZdZdZdZ dZ d Z d Z d Z d Zd ZdZdZdZdZdZdZdZdZdZdZdZdZdZdZdZdZdZ dZ!dZ"dZ#dZ$d Z%d!Z&d!Z'gd"Z(d9d$d%Z)d&d'Z*d(d)Z+d*d+Z,d,d-Z-d.d/Z.d0d1Z/d9d2d3Z0d4d5Z1d6d7Z2d8S):pidstatagProvides a dictionary to access the fields in the per process /proc/PID/stat files. One can obtain the available fields asking for the keys of the dictionary, e.g.: >>> p = procfs.pidstat(1) >>> print p.keys() ['majflt', 'rss', 'cnswap', 'cstime', 'pid', 'session', 'startstack', 'startcode', 'cmajflt', 'blocked', 'exit_signal', 'minflt', 'nswap', 'environ', 'priority', 'state', 'delayacct_blkio_ticks', 'policy', 'rt_priority', 'ppid', 'nice', 'cutime', 'endcode', 'wchan', 'num_threads', 'sigcatch', 'comm', 'stime', 'sigignore', 'tty_nr', 'kstkeip', 'utime', 'tpgid', 'itrealvalue', 'kstkesp', 'rlim', 'signal', 'pgrp', 'flags', 'starttime', 'cminflt', 'vsize', 'processor'] And then access the various process properties using it as a dictionary: >>> print p['comm'] systemd >>> print p['priority'] 20 >>> print p['state'] S Please refer to the 'procfs(5)' man page, by using: $ man 5 procfs To see information for each of the above fields, it is part of the 'man-pages' RPM package.  @iiiii i@iiiiiii i@iiiiii i@l)+pidrstateppidpgrpsessiontty_nrtpgidflagsminfltcminfltmajfltcmajfltutimestimecutimecstimeprioritynice num_threads itrealvalue starttimevsizerssrlim startcodeendcode startstackkstkespkstkeipsignalblocked sigignoresigcatchwchannswapcnswap exit_signal processor rt_prioritypolicydelayacct_blkio_ticksenviron/proccC||_||dSNr"loadselfr"basedirr r r __init__zpidstat.__init__cC |j|SrNfieldsrR fieldnamer r r __getitem__ zpidstat.__getitem__cCt|jSrNlistrXkeysrRr r r r`z pidstat.keyscCr]rNr_rXvaluesrar r r rdrbzpidstat.valuescC ||jvSrNrWrYr r r has_keyr\zpidstat.has_keycC|jSrNrWrar r r itemsz pidstat.itemscCrerNrWrYr r r __contains__r\zpidstat.__contains__cCstd||jf}|d}||dd|d}i|_tt|t|j }t |D]+}|j |}||}|dkrL|d|jd<q4z t ||j|<Wq4||j|<Yq4dS)Nz %s/%d/statz) rz (rrz()) openr"readlinersplitcloserXminlenproc_stat_fieldsrint)rRrSfrX nr_fieldsiattrnamevaluer r r rPs   z pidstat.loadcCs|jd|j@r dp dS)z Returns true if this process has a fixed smp affinity mask, not allowing it to be moved to a different set of CPUs. r)TF)rXPF_THREAD_BOUNDrar r r is_bound_to_cpus zpidstat.is_bound_to_cpucCsJg}t|D]}|dddkrqt||}||jd@r"||q|S)a Returns a list with all the process flags known, details depend on kernel version, declared in the file include/linux/sched.h in the kernel sources. As of v4.2-rc7 these include (from include/linux/sched.h comments): PF_EXITING Getting shut down PF_EXITPIDONE Pi exit done on shut down PF_VCPU I'm a virtual CPU PF_WQ_WORKER I'm a workqueue worker PF_FORKNOEXEC Forked but didn't exec PF_MCE_PROCESS Process policy on mce errors PF_SUPERPRIV Used super-user privileges PF_DUMPCORE Dumped core PF_SIGNALED Killed by a signal PF_MEMALLOC Allocating memory PF_NPROC_EXCEEDED Set_user noticed that RLIMIT_NPROC was exceeded PF_USED_MATH If unset the fpu must be initialized before use PF_USED_ASYNC Used async_schedule*(), used by module init PF_NOFREEZE This thread should not be frozen PF_FROZEN Frozen for system suspend PF_FSTRANS Inside a filesystem transaction PF_KSWAPD I am kswapd PF_MEMALLOC_NOIO Allocating memory without IO involved PF_LESS_THROTTLE Throttle me less: I clean memory PF_KTHREAD I am a kernel thread PF_RANDOMIZE Randomize virtual address space PF_SWAPWRITE Allowed to write to swap PF_NO_SETAFFINITY Userland is not allowed to meddle with cpus_allowed PF_MCE_EARLY Early kill for mce process policy PF_MUTEX_TESTER Thread belongs to the rt mutex tester PF_FREEZER_SKIP Freezer should not count it as freezable PF_SUSPEND_TASK This thread called freeze_processes and should not be frozen NPF_r))dirgetattrrXappend)rRsflagsattrrwr r r process_flagss%   zpidstat.process_flagsNrL)3__name__ __module__ __qualname____doc__ PF_ALIGNWARN PF_STARTING PF_EXITING PF_EXITPIDONEPF_VCPU PF_WQ_WORKER PF_FORKNOEXECPF_MCE_PROCESS PF_SUPERPRIV PF_DUMPCORE PF_SIGNALED PF_MEMALLOCPF_NPROC_EXCEEDED PF_FLUSHER PF_USED_MATH PF_USED_ASYNC PF_NOFREEZE PF_FROZEN PF_FSTRANS PF_KSWAPDPF_MEMALLOC_NOIO PF_SWAPOFFPF_LESS_THROTTLE PF_KTHREAD PF_RANDOMIZE PF_SWAPWRITEPF_SPREAD_PAGEPF_SPREAD_SLABrxPF_NO_SETAFFINITY PF_MCE_EARLY PF_MEMPOLICYPF_MUTEX_TESTERPF_FREEZER_SKIPPF_FREEZER_NOSIGPF_SUSPEND_TASKrqrTr[r`rdrfrhrjrPryrr r r r r1sb   rcCs6d}zt|j|dd|@rdpdWSYdSNr!rr)TF)rr processes)rRr"rr r r cannot_set_affinitysrcCs<d}zt|j|j|dd|@rdpdWSYdSr)rrrthreads)rRr"tidrr r r cannot_set_thread_affinitysrc@sTeZdZdZdddZddZddZd d Zd d Zd dZ ddZ dddZ dS) pidstatusa Provides a dictionary to access the fields in the per process /proc/PID/status files. This provides additional information about processes and threads to what can be obtained with the procfs.pidstat() class. One can obtain the available fields asking for the keys of the dictionary, e.g.: >>> import procfs >>> p = procfs.pidstatus(1) >>> print p.keys() ['VmExe', 'CapBnd', 'NSpgid', 'Tgid', 'NSpid', 'VmSize', 'VmPMD', 'ShdPnd', 'State', 'Gid', 'nonvoluntary_ctxt_switches', 'SigIgn', 'VmStk', 'VmData', 'SigCgt', 'CapEff', 'VmPTE', 'Groups', 'NStgid', 'Threads', 'PPid', 'VmHWM', 'NSsid', 'VmSwap', 'Name', 'SigBlk', 'Mems_allowed_list', 'VmPeak', 'Ngid', 'VmLck', 'SigQ', 'VmPin', 'Mems_allowed', 'CapPrm', 'Seccomp', 'VmLib', 'Cpus_allowed', 'Uid', 'SigPnd', 'Pid', 'Cpus_allowed_list', 'TracerPid', 'CapInh', 'voluntary_ctxt_switches', 'VmRSS', 'FDSize'] >>> print p["Pid"] 1 >>> print p["Threads"] 1 >>> print p["VmExe"] 1248 kB >>> print p["Cpus_allowed"] f >>> print p["SigQ"] 0/30698 >>> print p["VmPeak"] 320300 kB >>> Please refer to the 'procfs(5)' man page, by using: $ man 5 procfs To see information for each of the above fields, it is part of the 'man-pages' RPM package. In the man page there will be references to further documentation, like referring to the "getrlimit(2)" man page when explaining the "SigQ" line/field. rLcCrMrNrOrQr r r rTrUzpidstatus.__init__cCrVrNrWrYr r r r[r\zpidstatus.__getitem__cCr]rNr^rar r r r`"rbzpidstatus.keyscCr]rNrcrar r r rd%rbzpidstatus.valuescCrerNrWrYr r r rf(r\zpidstatus.has_keycCrgrNrWrar r r rh+rizpidstatus.itemscCrerNrWrYr r r rj.r\zpidstatus.__contains__cCstd||jf}i|_|D]+}|d}t|dkrq|d}|d}z t||j|<Wq||j|<Yq|dS)Nz %s/%d/status:rrr) rkr"rX readlinesrmrprrrrn)rRrSrslinerXnamerwr r r rP1s     zpidstatus.loadNr) rrrrrTr[r`rdrfrhrjrPr r r r rs %rc@ReZdZdZdddZddZddZd d Zd d Zd dZ ddZ ddZ dS)processa+ Information about a process with a given pid, provides a dictionary with two entries, instances of different wrappers for /proc/ process related meta files: "stat" and "status", see the documentation for procfs.pidstat and procfs.pidstatus for further info about those classes. rLcCs||_||_dSrN)r"rSrQr r r rTIs zprocess.__init__cCst||sA|dvr|dkrt}nt}t||||j|jn#|dkr'|n|dkr0|n|dkr9|n|dkrA| t ||S)N)rstatusrrrcgroupsrK) hasattrrrsetattrr"rS load_cmdline load_threads load_cgroups load_environr})rRrsclassr r r r[Ms     zprocess.__getitem__cC t||SrNrrRrr r r rfar\zprocess.has_keycCrrNrrr r r rjdr\zprocess.__contains__cCs6td|j}|ddd|_|dS)Nz/proc/%d/cmdline)rkr"rlrrmrrn)rRrsr r r rgs zprocess.load_cmdlinecCstd|j|_|j|j=dS)Nz/proc/%d/task/)pidstatsr"rrar r r rlszprocess.load_threadscCshtd|j}d|_t|D]}t|jdkr&|jd|dd|_q|dd|_q|dS)Nz/proc/%d/cgroupr,r)rkr"rreversedrrprnrRrsrr r r rqs zprocess.load_cgroupscCs\i|_td|j}|dD]}t|dkr'|d}|d|j|d<q|dS)aD Loads the environment variables for this process. The entries then become available via the 'environ' member, or via the 'environ' dict key when accessing as p["environ"]. E.g.: >>> all_processes = procfs.pidstats() >>> firefox_pid = all_processes.find_by_name("firefox") >>> firefox_process = all_processes[firefox_pid[0]] >>> print firefox_process["environ"]["PWD"] /home/acme >>> print len(firefox_process.environ.keys()) 66 >>> print firefox_process["environ"]["SHELL"] /bin/bash >>> print firefox_process["environ"]["USERNAME"] acme >>> print firefox_process["environ"]["HOME"] /home/acme >>> print firefox_process["environ"]["MAIL"] /var/spool/mail/acme >>> z/proc/%d/environrr=rN)rKrkr"rlrmrprn)rRrsxyr r r r{s   zprocess.load_environNr) rrrrrTr[rfrjrrrrr r r r rAs  rc@seZdZdZd$ddZddZddZd d Zd d Zd dZ ddZ ddZ ddZ ddZ ddZddZddZddZdd Zd!d"Zd#S)%ra# Provides access to all the processes in the system, to get a picture of how many processes there are at any given moment. The entries can be accessed as a dictionary, keyed by pid. Also there are methods to find processes that match a given COMM or regular expression. rLcCs||_i|_|dSrN)rSrreload)rRrSr r r rT zpidstats.__init__cCrVrNrrRkeyr r r r[r\zpidstats.__getitem__cCsz|j|=WdSYdSrNrrr r r __delitem__szpidstats.__delitem__cCr]rN)r_rr`rar r r r`rbz pidstats.keyscCr]rN)r_rrdrar r r rdrbzpidstats.valuescCrerNrrr r r rfr\zpidstats.has_keycCrgrNrrar r r rhrizpidstats.itemscCrerNrrr r r rjr\zpidstats.__contains__cCsN|`i|_t|j}|D]}zt|}WnYq t||j|j|<q dS)a' This operation will throw away the current dictionary contents, if any, and read all the pid files from /proc/, instantiating a 'process' instance for each of them. This is a high overhead operation, and should be avoided if the perf python binding can be used to detect when new threads appear and existing ones terminate. In RHEL it is found in the python-perf rpm package. More information about the perf facilities can be found in the 'perf_event_open' man page. N)roslistdirrSrrr)rRpidsspidr"r r r rs  zpidstats.reloadc Cs\g}t|jD]}z |j|Wq ty"||Yq w|D]}|j|=q%dSrN)r_rr`rOSErrorr~)rR to_remover"r r r reload_threadss  zpidstats.reload_threadsc Csf|dd}g}t|jD]!}z||j|ddkr"||Wqty0|j|=Yqw|S)Nrr)r_rr`r~IOError)rRrrr"r r r find_by_names    zpidstats.find_by_namec Cs\g}t|jD]"}z||j|ddr||Wq ty+|j|=Yq w|S)Nrr)r_rr`matchr~rrRregexrr"r r r find_by_regexs   zpidstats.find_by_regexc CsXg}t|jD] }z|t|j|r||Wq ty)|j|=Yq w|SrN)r_rr`rrr~rrr r r find_by_cmdline_regexs   zpidstats.find_by_cmdline_regexc sd}d}g d||f}||}|r!tfdd|Ddkr"n*|D]}z|d|j|dd 7}Wq$tyB|j|=Yq$w|7|d 7}q|d }|S) NrrTz%s/%dcg|]}|vr|qSr r .0nprocessed_pidsr r z0pidstats.get_per_cpu_rtprios..%s,rrHrrrrprrr)rRbasenamecpu prioritiesrrr"r rr get_per_cpu_rtprioss&     zpidstats.get_per_cpu_rtpriosc sd}d}g ||}|rtfdd|Ddkrn*|D]}z|d|j|dd7}Wqty<|j|=Yqw|7|d 7}q|d }|S) NrrTcrr r rrr r r0rz(pidstats.get_rtprios..rrrHrrr)rRrrrrr"r rr get_rtprios*s$    zpidstats.get_rtprioscCs|j|dS)zQ Checks if a given pid can't have its SMP affinity mask changed. r)rryrRr"r r r ry@szpidstats.is_bound_to_cpuNr)rrrrrTr[rr`rdrfrhrjrrrrrrrryr r r r rs$     rc@speZdZdZddZddZddZdd Zd d Zd d Z ddZ ddZ ddZ ddZ ddZddZdS) interruptsam Information about IRQs in the system. A dictionary keyed by IRQ number will have as its value another dictionary with "cpu", "type" and "users" keys, with the SMP affinity mask, type of IRQ and the drivers associated with each interrupt. The information comes from the /proc/interrupts file, documented in 'man procfs(5)', for instance, the 'cpu' dict is an array with one entry per CPU present in the sistem, each value being the number of interrupts that took place per CPU. E.g.: >>> import procfs >>> interrupts = procfs.interrupts() >>> thunderbolt_irq = interrupts.find_by_user("thunderbolt") >>> print thunderbolt_irq 34 >>> thunderbolt = interrupts[thunderbolt_irq] >>> print thunderbolt {'affinity': [0, 1, 2, 3], 'type': 'PCI-MSI', 'cpu': [3495, 0, 81, 0], 'users': ['thunderbolt']} >>> cCi|_|dSrN)rrrar r r rT` zinterrupts.__init__cCs|jt|SrN)rstrrr r r r[drbzinterrupts.__getitem__cCr]rNr_rr`rar r r r`grbzinterrupts.keyscCr]rN)r_rrdrar r r rdjrbzinterrupts.valuescCt||jvSrNrrrr r r rfmrbzinterrupts.has_keycCrgrN)rrar r r rhprizinterrupts.itemscCrrNrrr r r rjsrbzinterrupts.__contains__cCs|`i|_td}|D]I}|}|}|ddddkr't||_q |dd}i|j|<||dd||j|<zt|}WnYq | ||j|d<q | dS)Nz/proc/interruptsrrzCPUrraffinity) rrkrrrmrpnr_cpus parse_entryrrparse_affinityrn)rRrsrrXirqnirqr r r rvs$     zinterrupts.reloadcCsi}g|d<|dt|dt|}||jkrU|ddd|d|jD7<||jkrU||j|d<||jdkrQdd||ddD|d <|Sg|d <|S) NrrcSg|]}t|qSr rrrrur r r rz*interrupts.parse_entry..rtypecSsg|]}|qSr )rrrr r r rs rusers)r~rrrprrm)rRrXrdictrtr r r rs $  zinterrupts.parse_entrycCsDztd|}|}|t||jWSty!dgYSw)Nz/proc/irq/%s/smp_affinityr)rkrlrnrrr)rRrrsrr r r rs   zinterrupts.parse_affinitycCs@t|jD]}d|j|vr||j|dvr|SqdS)a Looks up a interrupt number by the name of one of its users" E.g.: >>> import procfs >>> interrupts = procfs.interrupts() >>> thunderbolt_irq = interrupts.find_by_user("thunderbolt") >>> print thunderbolt_irq 34 >>> thunderbolt = interrupts[thunderbolt_irq] >>> print thunderbolt {'affinity': [0, 1, 2, 3], 'type': 'PCI-MSI', 'cpu': [3495, 0, 81, 0], 'users': ['thunderbolt']} >>> rNr)rRuserrur r r find_by_users zinterrupts.find_by_usercCsXg}t|jD] }d|j|vrq |j|dD]}||r(||nqq |S)a Looks up a interrupt number by a regex that matches names of its users" E.g.: >>> import procfs >>> import re >>> interrupts = procfs.interrupts() >>> usb_controllers = interrupts.find_by_user_regex(re.compile(".*hcd")) >>> print usb_controllers ['22', '23', '31'] >>> print [ interrupts[irq]["users"] for irq in usb_controllers ] [['ehci_hcd:usb4'], ['ehci_hcd:usb3'], ['xhci_hcd']] >>> r)r_rr`rr~)rRrirqsrurr r r find_by_user_regexs  zinterrupts.find_by_user_regexN)rrrrrTr[r`rdrfrhrjrrrr r r r r r rGs rc@@eZdZdZddZddZddZdd Zd d Zd d Z dS)ra9 Parses the kernel command line (/proc/cmdline), turning it into a dictionary." Useful to figure out if some kernel boolean knob has been turned on, as well as to find the value associated to other kernel knobs. It can also be used to find out about parameters passed to the init process, such as 'BOOT_IMAGE', etc. E.g.: >>> import procfs >>> kcmd = procfs.cmdline() >>> print kcmd.keys() ['LANG', 'BOOT_IMAGE', 'quiet', 'rhgb', 'rd.lvm.lv', 'ro', 'root'] >>> print kcmd["BOOT_IMAGE"] /vmlinuz-4.3.0-rc1+ >>> cCrrN)optionsparserar r r rTrzcmdline.__init__cCsbtd}|D]}|d}t|dkr!d|j|d<q |d|j|d<q |dS)Nz /proc/cmdlinerrTr)rkrlrrmrpr rn)rRrsoptionrXr r r rs   z cmdline.parsecCrVrNr rr r r r[r\zcmdline.__getitem__cCr]rN)r_r r`rar r r r`rbz cmdline.keyscCr]rN)r_r rdrar r r rdrbzcmdline.valuescCrgrNrrar r r rhriz cmdline.itemsN) rrrrrTrr[r`rdrhr r r r rs  rc@sBeZdZdZdddZddZddZd d Zd d Zd dZ dS)cpuinfoa Dictionary with information about CPUs in the system. Please refer to 'man procfs(5)' for further information about the '/proc/cpuinfo' file, that is the source of the information provided by this class. The 'man lscpu(1)' also has information about a program that uses the '/proc/cpuinfo' file. Using this class one can obtain the number of CPUs in a system: >>> cpus = procfs.cpuinfo() >>> print cpus.nr_cpus 4 It is also possible to figure out aspects of the CPU topology, such as how many CPU physical sockets exists, i.e. groups of CPUs sharing components such as CPU memory caches: >>> print len(cpus.sockets) 1 Additionally dictionary with information common to all CPUs in the system is available: >>> print cpus["model name"] Intel(R) Core(TM) i7-3667U CPU @ 2.00GHz >>> print cpus["cache size"] 4096 KB >>> /proc/cpuinfocCs i|_d|_g|_||dSNr)tagsrsocketsrrRfilenamer r r rT'szcpuinfo.__init__cC|j|SrNrlowerrr r r r[-rbzcpuinfo.__getitem__cCr]rNr_rr`rar r r r`0rbz cpuinfo.keyscCr]rNr_rrdrar r r rd3rbzcpuinfo.valuescCrgrNrrar r r rh6riz cpuinfo.itemscCst|}|D]S}|}|sq|d}|d}|dkr*|jd7_qtr9|dkr9|jd7_q|dkr>q|d|j|<|dkr[|j|}||jvr[|j |q| |jrht |jpx|jd|jvrvt |jdpwd|_ d |jvrt |jd pd|j |_dS) NrrrGrz cpu numberzcore idz physical idsiblingsz cpu cores)rkrrrmrrr rrr~rnrprr nr_socketsnr_cores)rRrrsrrXtagname socket_idr r r r9s@       z cpuinfo.parseN)r) rrrrrTr[r`rdrhrr r r r rs  rc@s8eZdZdZddZddZddZdd Zd d Zd S) smaps_libap Representation of an mmap in place for a process. Can be used to figure out which processes have an library mapped, etc. The 'perm' member can be used to figure out executable mmaps, i.e. libraries. The 'vm_start' and 'vm_end' in turn can be used when trying to resolve processor instruction pointer addresses to a symbol name in a library. cCs|d}dd|ddD\|_|_|d|_t|dd|_|dd \|_|_t|d |_t |d krA|d |_ nd|_ i|_ |ddD]%}|}|ddd  }z t|d|j |<WqM||j |<YqMdS) NrcSsg|]}t|dqS)rrrr r r rdsz&smaps_lib.__init__..-rrrrzrrr) rmvm_startvm_endpermsrroffsetmajorminorinoderprrr)rRlinesrXrtagr r r rTbs$     zsmaps_lib.__init__cCrrNrrr r r r[wrbzsmaps_lib.__getitem__cCr]rNrrar r r r`zrbzsmaps_lib.keyscCr]rNrrar r r rd}rbzsmaps_lib.valuescCrgrNrrar r r rhrizsmaps_lib.itemsN) rrrrrTr[r`rdrhr r r r r#Ws  r#c@r )smapsa~ List of libraries mapped by a process. Parses the lines in the /proc/PID/smaps file, that is further documented in the procfs(5) man page. Example: Listing the executable maps for the 'sshd' process: >>> import procfs >>> processes = procfs.pidstats() >>> sshd = processes.find_by_name("sshd") >>> sshd_maps = procfs.smaps(sshd[0]) >>> for i in range(len(sshd_maps)): ... if 'x' in sshd_maps[i].perms: ... print "%s: %s" % (sshd_maps[i].name, sshd_maps[i].perms) ... /usr/sbin/sshd: r-xp /usr/lib64/libnss_files-2.20.so: r-xp /usr/lib64/librt-2.20.so: r-xp /usr/lib64/libkeyutils.so.1.5: r-xp /usr/lib64/libkrb5support.so.0.1: r-xp /usr/lib64/libfreebl3.so: r-xp /usr/lib64/libpthread-2.20.so: r-xp ... cCs||_g|_|dSrN)r"entriesrrr r r rTrzsmaps.__init__cCsvg}|s |}|sdS|| |}|sn|}|dddkr/||nnq|jt||S)NTrrr)rlrr~rmr0r#)rRrsrr-r r r rs"    zsmaps.parse_entrycC t|jSrN)rpr0rar r r __len__r\z smaps.__len__cCrVrNr0)rRindexr r r r[r\zsmaps.__getitem__cCs@td|j}d} |||}|snq |t|j|_dS)Nz/proc/%d/smaps)rkr"rrnrpr0 nr_entriesrr r r rs z smaps.reloadcCsJg}t|jD]}|j|jr"|j|j|dkr"||j|q|Sr)rr5r0rfindr~)rRfragmentresultrur r r find_by_name_fragments zsmaps.find_by_name_fragmentN) rrrrrTrr2r[rr9r r r r r/s r/c@s eZdZdZddZddZdS)cpustatz CPU statistics, obtained from a line in the '/proc/stat' file, Please refer to 'man procfs(5)' for further information about the '/proc/stat' file, that is the source of the information provided by this class. cCs||d|_dd|ddD\|_|_|_|_|_|_|_t|dkr:t |d|_ t|dkr.rr) rrr3systemidleiowaitrsoftirqrprrstealguest)rRrXr r r rTs   zcpustat.__init__cCs\d|j|j|j|j|j|j|jf}t|dr|d|j7}t|dr*|d|j 7}|dS)NzL< user: %s, nice: %s, system: %s, idle: %s, iowait: %s, irq: %s, softirq: %sr@z , steal: %drAz , guest: %d>) rr3r<r=r>rr?rr@rA)rRsr r r __repr__s   zcpustat.__repr__N)rrrrrTrDr r r r r:s r:c@r) cpusstatsaN Dictionary with information about CPUs in the system. First entry in the dictionary gives an aggregate view of all CPUs, each other entry is about separate CPUs. Please refer to 'man procfs(5)' for further information about the '/proc/stat' file, that is the source of the information provided by this class. /proc/statcCs*i|_d|_td|_||_|dS)Nr)r0timersysconfhertzrrrr r r rTs   zcpusstats.__init__cCr1rN)iterr0rar r r __iter__r\zcpusstats.__iter__cCrVrNr3rr r r r[r\zcpusstats.__getitem__cCstt|jSrN)rpr_r0r`rar r r r2szcpusstats.__len__cCr]rN)r_r0r`rar r r r` rbzcpusstats.keyscCr]rN)r_r0rdrar r r rd rbzcpusstats.valuescCrgrNr3rar r r rhrizcpusstats.itemscCs2|j}i|_t|j}|D]1}|}|ddddkr$qt|}|jdkr0d}n t |jddd}||j|<q| |j }t |_ |r|j |}||j } t |jD]6} | |vrjd| _q`|j| } || } | j| j| j| j| j| j} | | d| _| jdkrd| _q`dSdS)Nrrzrrd)r0rkrrrrmrr:rrrrnrGrIr_r`usagerr3r<)rR last_entriesrsrrXcidx last_time delta_sec interval_hzrcurrprevdeltar r r rsF             zcpusstats.reloadN)rF) rrrrrTrKr[r2r`rdrhrr r r r rEs  rE__main__z%s: %sz cpuinfo data: %d processorsz%s=%sz/smaps: ----------------------------------------rz%#x %sz(----------------------------------------rSizeTz%s: %dz ----------)4rrG functoolsrrr six.movesrprocfs.utilistrVERSIONr rrrrrrrrrrr#r/r:rErsysintsr_r`ruprintr orrr.rrargvrCr5r0r&rr9rpscssleeprrMr r r r sp    3  L]*0P-L D"