#include "../proc/devname.h"
#include <proc/meminfo.h>
+#include <proc/pids.h>
#include "../proc/procps.h"
#include "../proc/readproc.h"
#include <proc/readstat.h>
static RCF_t Rc = DEF_RCFILE;
static int Rc_questions;
- /* The run-time acquired page stuff */
-static long Page_size;
-static unsigned Pg2K_shft = 0;
-
/* SMP, Irix/Solaris mode, Linux 2.5.xx support (and beyond) */
static long Hertz;
static int Cpu_cnt;
static int Batch = 0, // batch mode, collect no input, dumb output
Loops = -1, // number of iterations, -1 loops forever
Secure_mode = 0, // set if some functionality restricted
- Thread_mode = 0, // set w/ 'H' - show threads via readeither()
+ Thread_mode = 0, // set w/ 'H' - show threads via pids_reap()
Width_mode = 0; // set w/ 'w' - potential output override
/* Unchangeable cap's stuff built just once (if at all) and
[ 'Frames_...' (plural) stuff persists beyond 1 frame ]
[ or are used in response to async signals received ! ] */
static volatile int Frames_signal; // time to rebuild all column headers
-static int Frames_libflags; // PROC_FILLxxx flags
-static int Frame_maxtask; // last known number of active tasks
// ie. current 'size' of proc table
static float Frame_etscale; // so we can '*' vs. '/' WHEN 'pcpu'
-static unsigned Frame_running, // state categories for this frame
- Frame_sleepin,
- Frame_stopped,
- Frame_zombied;
-static int Frame_srtflg, // the subject window's sort direction
- Frame_ctimes, // the subject window's ctimes flag
- Frame_cmdlin; // the subject window's cmdlin flag
-
- /* Support for 'history' processing so we can calculate %cpu */
-static int HHist_siz; // max number of HST_t structs
-static HST_t *PHist_sav, // alternating 'old/new' HST_t anchors
- *PHist_new;
-#ifndef OFF_HST_HASH
-#define HHASH_SIZ 1024
-static int HHash_one [HHASH_SIZ], // actual hash tables ( hereafter known
- HHash_two [HHASH_SIZ], // as PHash_sav/PHash_new )
- HHash_nul [HHASH_SIZ]; // 'empty' hash table image
-static int *PHash_sav = HHash_one, // alternating 'old/new' hash tables
- *PHash_new = HHash_two;
-#endif
/* Support for automatically sized fixed-width column expansions.
* (hopefully, the macros help clarify/document our new 'feature') */
/* Support for the new library API -- acquired (if necessary)
at program startup and referenced throughout our lifetime */
+ // ---------------------------------------------- <proc/meminfo.h>
static struct procps_meminfo *Mem_ctx;
static struct meminfo_stack *Mem_stack;
static enum meminfo_item Mem_items[] = {
mem_FREE, mem_USED, mem_TOTAL, mem_CACHE, mem_BUFFS,
mem_AVAIL, swp_TOTAL, swp_FREE, swp_USED
};
+ // mem stack results extractor macro, where e=rel enum
#define MEM_VAL(e) Mem_stack->head[e].result.ul_int
-
+ // --------------------------------------------- <proc/readstat.h>
static struct procps_stat *Cpu_ctx;
static struct procps_jiffs_hist *Cpu_jiffs;
-\f
-/*###### Sort callbacks ################################################*/
-
- /*
- * These happen to be coded in the enum identifier alphabetic order,
- * not the order of the enum 'pflgs' value. Also note that a callback
- * routine may serve more than one column.
- */
-
-SCB_STRS(CGR, cgroup[0])
-SCB_STRV(CMD, Frame_cmdlin, cmdline, cmd)
-SCB_NUM1(COD, trs)
-SCB_NUMx(CPN, processor)
-SCB_NUM1(CPU, pcpu)
-SCB_NUM1(DAT, drs)
-SCB_NUM1(DRT, dt)
-SCB_STRS(ENV, environ[0])
-SCB_NUM1(FL1, maj_flt)
-SCB_NUM1(FL2, min_flt)
-SCB_NUM1(FLG, flags)
-SCB_NUM1(FV1, maj_delta)
-SCB_NUM1(FV2, min_delta)
-SCB_NUMx(GID, egid)
-SCB_STRS(GRP, egroup)
-SCB_STRS(LXC, lxcname)
-SCB_NUMx(NCE, nice)
-SCB_NUM1(NS1, ns[IPCNS])
-SCB_NUM1(NS2, ns[MNTNS])
-SCB_NUM1(NS3, ns[NETNS])
-SCB_NUM1(NS4, ns[PIDNS])
-SCB_NUM1(NS5, ns[USERNS])
-SCB_NUM1(NS6, ns[UTSNS])
-#ifdef OOMEM_ENABLE
-SCB_NUM1(OOA, oom_adj)
-SCB_NUM1(OOM, oom_score)
-#endif
-SCB_NUMx(PGD, pgrp)
-SCB_NUMx(PID, tid)
-SCB_NUMx(PPD, ppid)
-SCB_NUMx(PRI, priority)
-SCB_NUM1(RES, vm_rss) // also serves MEM !
-SCB_STRX(SGD, supgid)
-SCB_STRS(SGN, supgrp)
-SCB_NUM1(SHR, share)
-SCB_NUM1(SID, session)
-SCB_NUMx(STA, state)
-SCB_NUM1(SWP, vm_swap)
-SCB_NUMx(TGD, tgid)
-SCB_NUMx(THD, nlwp)
- // also serves TM2 !
-static int SCB_NAME(TME) (const proc_t **P, const proc_t **Q) {
- if (Frame_ctimes) {
- if (((*P)->cutime + (*P)->cstime + (*P)->utime + (*P)->stime)
- < ((*Q)->cutime + (*Q)->cstime + (*Q)->utime + (*Q)->stime))
- return SORT_lt;
- if (((*P)->cutime + (*P)->cstime + (*P)->utime + (*P)->stime)
- > ((*Q)->cutime + (*Q)->cstime + (*Q)->utime + (*Q)->stime))
- return SORT_gt;
- } else {
- if (((*P)->utime + (*P)->stime) < ((*Q)->utime + (*Q)->stime))
- return SORT_lt;
- if (((*P)->utime + (*P)->stime) > ((*Q)->utime + (*Q)->stime))
- return SORT_gt;
- }
- return SORT_eq;
-}
-SCB_NUM1(TPG, tpgid)
-SCB_NUMx(TTY, tty)
-SCB_NUMx(UED, euid)
-SCB_STRS(UEN, euser)
-SCB_NUMx(URD, ruid)
-SCB_STRS(URN, ruser)
-SCB_NUMx(USD, suid)
-SCB_NUM2(USE, vm_rss, vm_swap)
-SCB_STRS(USN, suser)
-SCB_NUM1(VRT, size)
-SCB_NUM1(WCH, wchan)
-
-#ifdef OFF_HST_HASH
- /* special sort for procs_hlp() ! ------------------------ */
-static int sort_HST_t (const HST_t *P, const HST_t *Q) {
- return P->pid - Q->pid;
-}
-#endif
+ // ------------------------------------------------- <proc/pids.h>
+static struct procps_pidsinfo *Pids_ctx;
+static int Pids_itms_cur; // 'current' max (<= Fieldstab)
+static enum pids_item *Pids_itms; // allocated as MAXTBL(Fieldstab)
+static enum pids_reap_type Pids_type[] = { // indexed via Thread_mode w/ reap
+ PROCPS_REAP_TASKS_ONLY, PROCPS_REAP_THREADS_TOO
+};
+static struct pids_stack **Pids_stks; // for either reap or monpids
+static struct pids_counts *Pids_cnts; // for either reap or monpids
+static struct pids_reap *Pids_reap; // for reap only
+static struct pids_stacks *Pids_fill; // for fill only (w/ monpids)
+ // pid stack results extractor macro, where e=rel enum, t=type, s=stack
+#define PID_VAL(e,t,s) s ->head [Fieldstab[ e ].erel].result. t
\f
/*###### Tiny useful routine(s) ########################################*/
static void bye_bye (const char *str) {
at_eoj(); // restore tty in preparation for exit
#ifdef ATEOJ_RPTSTD
-{ proc_t *p;
+{ struct pids_stack *p;
if (!str && !Frames_signal && Ttychanged) { fprintf(stderr,
"\n%s's Summary report:"
"\n\tProgram"
"\n\t %s"
"\n\t Hertz = %u (%u bytes, %u-bit time)"
- "\n\t page_bytes = %d, Cpu_faux_cnt = %d, Cpu_cnt = %d"
- "\n\t sizeof(HST_t) = %u (%d HST_t's/Page), HHist_siz = %u"
- "\n\t sizeof(proc_t) = %u, sizeof(proc_t.cmd) = %u, sizeof(proc_t*) = %u"
- "\n\t sizeof(procps_jiffs) = %u, sizeof(procps_jiffs_hist) = %u, sizeof(procps_sys_result) = %u"
- "\n\t Frames_libflags = %08lX"
+ "\n\t Cpu_faux_cnt = %d, Cpu_cnt = %d"
+ "\n\t sizeof(procps_jiffs) = %u, sizeof(procps_jiffs_hist) = %u"
+ "\n\t sizeof(struct pids_stack) = %u, Pids_cnts->total = %u,, total overhead = %u"
"\n\t SCREENMAX = %u, ROWMINSIZ = %u, ROWMAXSIZ = %u"
"\n\t PACKAGE = '%s', LOCALEDIR = '%s'"
"\n\tTerminal: %s"
#ifdef CASEUP_HEXES
"\n\t winflags = %08X, maxpflgs = %d"
#else
- "\n\t winflags = %08x, maxpflgs = %d"
+ "\n\t winflags = x%08x, maxpflgs = %d"
#endif
- "\n\t sortindx = %d, fieldscur = %s"
- "\n\t maxtasks = %d, varcolsz = %d, winlines = %d"
+ "\n\t sortindx = %d, maxtasks = %d"
+ "\n\t varcolsz = %d, winlines = %d"
"\n\t strlen(columnhdr) = %d"
"\n"
, __func__
, PACKAGE_STRING
, (unsigned)Hertz, (unsigned)sizeof(Hertz), (unsigned)sizeof(Hertz) * 8
- , (int)Page_size, Cpu_faux_cnt, (int)Cpu_cnt
- , (unsigned)sizeof(HST_t), ((int)Page_size / (int)sizeof(HST_t)), HHist_siz
- , (unsigned)sizeof(proc_t), (unsigned)sizeof(p->cmd), (unsigned)sizeof(proc_t*)
- , (unsigned)sizeof(struct procps_jiffs), (unsigned)sizeof(struct procps_jiffs_hist), (unsigned)sizeof(struct procps_sys_result)
- , (long)Frames_libflags
+ , Cpu_faux_cnt, (int)Cpu_cnt
+ , (unsigned)sizeof(struct procps_jiffs), (unsigned)sizeof(struct procps_jiffs_hist)
+ , (unsigned)sizeof(*p), Pids_cnts->total, (unsigned)sizeof(p) * Pids_cnts->total
, (unsigned)SCREENMAX, (unsigned)ROWMINSIZ, (unsigned)ROWMAXSIZ
, PACKAGE, LOCALEDIR
#ifdef PRETENDNOCAP
, (unsigned)sizeof(WIN_t), GROUPSMAX
, Curwin->rc.winname, Curwin->grpname
, Curwin->rc.winflags, Curwin->maxpflgs
- , Curwin->rc.sortindx, Curwin->rc.fieldscur
- , Curwin->rc.maxtasks, Curwin->varcolsz, Curwin->winlines
+ , Curwin->rc.sortindx, Curwin->rc.maxtasks
+ , Curwin->varcolsz, Curwin->winlines
, (int)strlen(Curwin->columnhdr)
);
}
}
#endif // end: ATEOJ_RPTSTD
-#ifndef OFF_HST_HASH
-#ifdef ATEOJ_RPTHSH
- if (!str && !Frames_signal && Ttychanged) {
- int i, j, pop, total_occupied, maxdepth, maxdepth_sav, numdepth
- , cross_foot, sz = HHASH_SIZ * (unsigned)sizeof(int);
- int depths[HHASH_SIZ];
-
- for (i = 0, total_occupied = 0, maxdepth = 0; i < HHASH_SIZ; i++) {
- int V = PHash_new[i];
- j = 0;
- if (-1 < V) {
- ++total_occupied;
- while (-1 < V) {
- V = PHist_new[V].lnk;
- if (-1 < V) j++;
- }
- }
- depths[i] = j;
- if (maxdepth < j) maxdepth = j;
- }
- maxdepth_sav = maxdepth;
-
- fprintf(stderr,
- "\n%s's Supplementary HASH report:"
- "\n\tTwo Tables providing for %d entries each + 1 extra for 'empty' image"
- "\n\t%dk (%d bytes) per table, %d total bytes (including 'empty' image)"
- "\n\tResults from latest hash (PHash_new + PHist_new)..."
- "\n"
- "\n\tTotal hashed = %d"
- "\n\tLevel-0 hash entries = %d (%d%% occupied)"
- "\n\tMax Depth = %d"
- "\n\n"
- , __func__
- , HHASH_SIZ, sz / 1024, sz, sz * 3
- , Frame_maxtask
- , total_occupied, (total_occupied * 100) / HHASH_SIZ
- , maxdepth + 1);
-
- if (total_occupied) {
- for (pop = total_occupied, cross_foot = 0; maxdepth; maxdepth--) {
- for (i = 0, numdepth = 0; i < HHASH_SIZ; i++)
- if (depths[i] == maxdepth) ++numdepth;
- fprintf(stderr,
- "\t %5d (%3d%%) hash table entries at depth %d\n"
- , numdepth, (numdepth * 100) / total_occupied, maxdepth + 1);
- pop -= numdepth;
- cross_foot += numdepth;
- if (0 == pop && cross_foot == total_occupied) break;
- }
- if (pop) {
- fprintf(stderr, "\t %5d (%3d%%) unchained hash table entries\n"
- , pop, (pop * 100) / total_occupied);
- cross_foot += pop;
- }
- fprintf(stderr,
- "\t -----\n"
- "\t %5d total entries occupied\n", cross_foot);
-
- if (maxdepth_sav) {
- fprintf(stderr, "\nPIDs at max depth: ");
- for (i = 0; i < HHASH_SIZ; i++)
- if (depths[i] == maxdepth_sav) {
- j = PHash_new[i];
- fprintf(stderr, "\n\tpos %4d: %05d", i, PHist_new[j].pid);
- while (-1 < j) {
- j = PHist_new[j].lnk;
- if (-1 < j) fprintf(stderr, ", %05d", PHist_new[j].pid);
- }
- }
- fprintf(stderr, "\n");
- }
- }
- }
-#endif // end: ATEOJ_RPTHSH
-#endif // end: OFF_HST_HASH
-
procps_stat_unref(&Cpu_ctx);
procps_meminfo_unref(&Mem_ctx);
+ procps_pids_unref(&Pids_ctx);
#ifndef NUMA_DISABLE
if (Libnuma_handle) dlclose(Libnuma_handle);
#endif
char *endp;
uid_t num;
+ if (Pids_fill)
+ procps_pids_stacks_dealloc(Pids_ctx, &Pids_fill);
+ Monpidsidx = 0;
q->usrseltyp = 0;
q->usrselflg = 1;
- Monpidsidx = 0;
if (*str) {
if ('!' == *str) { ++str; q->usrselflg = 0; }
num = (uid_t)strtoul(str, &endp, 0);
}
return NULL;
} // end: user_certify
-
-
- /*
- * Determine if this proc_t matches the 'u/U' selection criteria
- * for a given window -- it's called from only one place, and
- * likely inlined even without the directive */
-static inline int user_matched (const WIN_t *q, const proc_t *p) {
- switch(q->usrseltyp) {
- case 0: // uid selection inactive
- return 1;
- case 'U': // match any uid
- if (p->ruid == q->usrseluid) return q->usrselflg;
- if (p->suid == q->usrseluid) return q->usrselflg;
- if (p->fuid == q->usrseluid) return q->usrselflg;
- // fall through...
- case 'u': // match effective uid
- if (p->euid == q->usrseluid) return q->usrselflg;
- // fall through...
- default: // no match...
- ;
- }
- return !q->usrselflg;
-} // end: user_matched
\f
/*###### Basic Formatting support ######################################*/
\f
/*###### Fields Management support #####################################*/
- /* These are the Fieldstab.lflg values used here and in calibrate_fields.
- (own identifiers as documentation and protection against changes) */
-#define L_stat PROC_FILLSTAT
-#define L_statm PROC_FILLMEM
-#define L_status PROC_FILLSTATUS
-#define L_CGROUP PROC_EDITCGRPCVT | PROC_FILLCGROUP
-#define L_CMDLINE PROC_EDITCMDLCVT | PROC_FILLARG
-#define L_ENVIRON PROC_EDITENVRCVT | PROC_FILLENV
-#define L_EUSER PROC_FILLUSR
-#define L_OUSER PROC_FILLSTATUS | PROC_FILLUSR
-#define L_EGROUP PROC_FILLSTATUS | PROC_FILLGRP
-#define L_SUPGRP PROC_FILLSTATUS | PROC_FILLSUPGRP
-#define L_NS PROC_FILLNS
-#define L_LXC PROC_FILL_LXC
- // make 'none' non-zero (used to be important to Frames_libflags)
-#define L_NONE PROC_SPARE_1
- // from either 'stat' or 'status' (preferred), via bits not otherwise used
-#define L_EITHER PROC_SPARE_2
- // for calibrate_fields and summary_show 1st pass
-#define L_DEFAULT PROC_FILLSTAT
-
/* These are our gosh darn 'Fields' !
They MUST be kept in sync with pflags !! */
-static FLD_t Fieldstab[] = {
+static struct {
+ int width; // field width, if applicable
+ int scale; // scaled target, if applicable
+ const int align; // the default column alignment flag
+ int esel; // set when our enum is selected
+ int erel; // relative position in dynamic Pids_itms
+ const enum pids_item item; // the new libproc item enum identifier
+} Fieldstab[] = {
// a temporary macro, soon to be undef'd...
#define SF(f) (QFP_t)SCB_NAME(f)
// these identifiers reflect the default column alignment but they really
/* .width anomalies:
a -1 width represents variable width columns
a 0 width represents columns set once at startup (see zap_fieldstab)
- .lflg anomalies:
- EU_UED, L_NONE - natural outgrowth of 'stat()' in readproc (euid)
- EU_CPU, L_stat - never filled by libproc, but requires times (pcpu)
- EU_CMD, L_stat - may yet require L_CMDLINE in calibrate_fields (cmd/cmdline)
- L_EITHER - must L_status, else L_stat == 64-bit math (__udivdi3) on 32-bit !
-
- .width .scale .align .sort .lflg
- ------ ------ -------- -------- -------- */
- { 0, -1, A_right, SF(PID), L_NONE },
- { 0, -1, A_right, SF(PPD), L_EITHER },
- { 5, -1, A_right, SF(UED), L_NONE },
- { 8, -1, A_left, SF(UEN), L_EUSER },
- { 5, -1, A_right, SF(URD), L_status },
- { 8, -1, A_left, SF(URN), L_OUSER },
- { 5, -1, A_right, SF(USD), L_status },
- { 8, -1, A_left, SF(USN), L_OUSER },
- { 5, -1, A_right, SF(GID), L_NONE },
- { 8, -1, A_left, SF(GRP), L_EGROUP },
- { 0, -1, A_right, SF(PGD), L_stat },
- { 8, -1, A_left, SF(TTY), L_stat },
- { 0, -1, A_right, SF(TPG), L_stat },
- { 0, -1, A_right, SF(SID), L_stat },
- { 3, -1, A_right, SF(PRI), L_stat },
- { 3, -1, A_right, SF(NCE), L_stat },
- { 3, -1, A_right, SF(THD), L_EITHER },
- { 0, -1, A_right, SF(CPN), L_stat },
- { 0, -1, A_right, SF(CPU), L_stat },
- { 6, -1, A_right, SF(TME), L_stat },
- { 9, -1, A_right, SF(TME), L_stat }, // EU_TM2 slot
+
+ .width .scale .align .esel .erel .item
+ ------ ------ -------- ----- ----- ------------------------- */
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_PID }, // s_int EU_PID
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_PPID }, // s_int EU_PPD
+ { 5, -1, A_right, 0, 0, PROCPS_PIDS_ID_EUID }, // u_int EU_UED
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_ID_EUSER }, // str EU_UEN
+ { 5, -1, A_right, 0, 0, PROCPS_PIDS_ID_RUID }, // u_int EU_URD
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_ID_RUSER }, // str EU_URN
+ { 5, -1, A_right, 0, 0, PROCPS_PIDS_ID_SUID }, // u_int EU_USD
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_ID_SUSER }, // str EU_USN
+ { 5, -1, A_right, 0, 0, PROCPS_PIDS_ID_EGID }, // u_int EU_GID
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_ID_EGROUP }, // str EU_GRP
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_PGRP }, // s_int EU_PGD
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_TTY }, // s_int EU_TTY
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_TPGID }, // s_int EU_TPG
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_SESSION }, // s_int EU_SID
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_PRIORITY }, // s_int EU_PRI
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_NICE }, // sl_int EU_NCE
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_NLWP }, // s_int EU_THD
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_PROCESSOR }, // u_int EU_CPN
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_TICS_DELTA }, // u_int EU_CPU
+ { 6, -1, A_right, 0, 0, PROCPS_PIDS_TICS_ALL }, // ull_int EU_TME
+ { 9, -1, A_right, 0, 0, PROCPS_PIDS_TICS_ALL }, // ull_int EU_TM2
#ifdef BOOST_PERCNT
- { 5, -1, A_right, SF(RES), L_status }, // EU_MEM slot
+ { 5, -1, A_right, 0, 0, PROCPS_PIDS_VM_RSS }, // ul_int EU_MEM
#else
- { 4, -1, A_right, SF(RES), L_status }, // EU_MEM slot
+ { 4, -1, A_right, 0, 0, PROCPS_PIDS_VM_RSS }, // ul_int EU_MEM,
#endif
#ifndef NOBOOST_MEMS
- { 7, SK_Kb, A_right, SF(VRT), L_statm },
- { 6, SK_Kb, A_right, SF(SWP), L_status },
- { 6, SK_Kb, A_right, SF(RES), L_status },
- { 6, SK_Kb, A_right, SF(COD), L_statm },
- { 7, SK_Kb, A_right, SF(DAT), L_statm },
- { 6, SK_Kb, A_right, SF(SHR), L_statm },
+ { 7, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_VIRT_KIB }, // sl_int EU_VRT
+ { 6, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_SWAP }, // ul_int EU_SWP
+ { 6, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_RSS }, // ul_int EU_RES
+ { 6, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_CODE_KIB }, // sl_int EU_COD
+ { 7, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_DATA_KIB }, // sl_int EU_DAT
+ { 6, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_SHR_KIB }, // sl_int EU_SHR
#else
- { 5, SK_Kb, A_right, SF(VRT), L_statm },
- { 4, SK_Kb, A_right, SF(SWP), L_status },
- { 4, SK_Kb, A_right, SF(RES), L_status },
- { 4, SK_Kb, A_right, SF(COD), L_statm },
- { 5, SK_Kb, A_right, SF(DAT), L_statm },
- { 4, SK_Kb, A_right, SF(SHR), L_statm },
+ { 5, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_VIRT_KIB }, // sl_int EU_VRT
+ { 4, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_SWAP }, // ul_int EU_SWP
+ { 4, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_RSS }, // ul_int EU_RES
+ { 4, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_CODE_KIB }, // sl_int EU_COD
+ { 5, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_DATA_KIB }, // sl_int EU_DAT
+ { 4, SK_Kb, A_right, 0, 0, PROCPS_PIDS_MEM_SHR_KIB }, // sl_int EU_SHR
#endif
- { 4, -1, A_right, SF(FL1), L_stat },
- { 4, -1, A_right, SF(FL2), L_stat },
- { 4, -1, A_right, SF(DRT), L_statm },
- { 1, -1, A_right, SF(STA), L_EITHER },
- { -1, -1, A_left, SF(CMD), L_EITHER },
- { 10, -1, A_left, SF(WCH), L_stat },
- { 8, -1, A_left, SF(FLG), L_stat },
- { -1, -1, A_left, SF(CGR), L_CGROUP },
- { -1, -1, A_left, SF(SGD), L_status },
- { -1, -1, A_left, SF(SGN), L_SUPGRP },
- { 0, -1, A_right, SF(TGD), L_status },
+ { 4, -1, A_right, 0, 0, PROCPS_PIDS_FLT_MAJ }, // ul_int EU_FL1
+ { 4, -1, A_right, 0, 0, PROCPS_PIDS_FLT_MIN }, // ul_int EU_FL2
+ { 4, -1, A_right, 0, 0, PROCPS_PIDS_MEM_DT }, // sl_int EU_DRT ( always 0 w/ since 2.6 )
+ { 1, -1, A_right, 0, 0, PROCPS_PIDS_STATE }, // s_ch EU_STA
+ { -1, -1, A_left, 0, 0, PROCPS_PIDS_CMD }, // str EU_CMD
+ { 10, -1, A_left, 0, 0, PROCPS_PIDS_WCHAN_NAME }, // str EU_WCH
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_FLAGS }, // ul_int EU_FLG
+ { -1, -1, A_left, 0, 0, PROCPS_PIDS_CGROUP }, // str EU_CGR
+ { -1, -1, A_left, 0, 0, PROCPS_PIDS_SUPGIDS }, // str EU_SGD
+ { -1, -1, A_left, 0, 0, PROCPS_PIDS_SUPGROUPS }, // str EU_SGN
+ { 0, -1, A_right, 0, 0, PROCPS_PIDS_ID_TGID }, // s_int EU_TGD
#ifdef OOMEM_ENABLE
-#define L_oom PROC_FILLOOM
- { 3, -1, A_right, SF(OOA), L_oom },
- { 8, -1, A_right, SF(OOM), L_oom },
-#undef L_oom
+ #define L_oom PROC_FILLOOM
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_OOM_ADJ }, // s_int EU_OOA
+ { 8, -1, A_right, 0, 0, PROCPS_PIDS_OOM_SCORE }, // s_int EU_OOM
+ #undef L_oom
#endif
- { -1, -1, A_left, SF(ENV), L_ENVIRON },
- { 3, -1, A_right, SF(FV1), L_stat },
- { 3, -1, A_right, SF(FV2), L_stat },
+ { -1, -1, A_left, 0, 0, PROCPS_PIDS_ENVIRON }, // str EU_ENV
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_FLT_MAJ_DELTA }, // ul_int EU_FV1
+ { 3, -1, A_right, 0, 0, PROCPS_PIDS_FLT_MIN_DELTA }, // ul_int EU_FV2
#ifndef NOBOOST_MEMS
- { 6, SK_Kb, A_right, SF(USE), L_status },
+ { 6, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_USED }, // ul_int EU_USE
#else
- { 4, SK_Kb, A_right, SF(USE), L_status },
+ { 4, SK_Kb, A_right, 0, 0, PROCPS_PIDS_VM_USED }, // ul_int EU_USE
#endif
- { 10, -1, A_right, SF(NS1), L_NS }, // IPCNS
- { 10, -1, A_right, SF(NS2), L_NS }, // MNTNS
- { 10, -1, A_right, SF(NS3), L_NS }, // NETNS
- { 10, -1, A_right, SF(NS4), L_NS }, // PIDNS
- { 10, -1, A_right, SF(NS5), L_NS }, // USERNS
- { 10, -1, A_right, SF(NS6), L_NS }, // UTSNS
- { 8, -1, A_left, SF(LXC), L_LXC }
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_IPC }, // ul_int EU_NS1
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_MNT }, // ul_int EU_NS2
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_NET }, // ul_int EU_NS3
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_PID }, // ul_int EU_NS4
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_USER }, // ul_int EU_NS5
+ { 10, -1, A_right, 0, 0, PROCPS_PIDS_NS_UTS }, // ul_int EU_NS6
+ { 8, -1, A_left, 0, 0, PROCPS_PIDS_LXCNAME }, // str EU_LXC ( the last real pflag )
+// xtra Fieldstab 'pseudo pflag' entries for the newlib interface . . . ------------------------------------------
+#define eu_CMDLINE EU_LXC +1
+#define eu_TICS_ALL_C EU_LXC +2
+#define eu_TIME_START EU_LXC +3
+#define eu_ID_FUID EU_LXC +4
+#define eu_NOOP EU_LXC +5
+ { -1, -1, -1, -1, -1, PROCPS_PIDS_CMDLINE }, // str ( if Show_CMDLIN )
+ { -1, -1, -1, -1, -1, PROCPS_PIDS_TICS_ALL_C }, // ull_int ( if Show_CTIMES )
+ { -1, -1, -1, -1, -1, PROCPS_PIDS_TIME_START }, // ull_int ( if Show_FOREST )
+ { -1, -1, -1, -1, -1, PROCPS_PIDS_ID_FUID }, // u_int ( if a usrseltyp )
+ { -1, -1, -1, -1, -1, PROCPS_PIDS_noop } // n/a ( why not? )
#undef SF
#undef A_left
#undef A_right
* A calibrate_fields() *Helper* function to build the
* actual column headers and required library flags */
static void build_headers (void) {
+ #define ckITEM(f) do { if (!Fieldstab[f].esel) { Fieldstab[f].erel = Pids_itms_cur; \
+ Pids_itms[Pids_itms_cur++] = Fieldstab[f].item; Fieldstab[f].esel = 1; } } while (0)
+ #define ckCMDS(w) do { if (CHKw(w, Show_CMDLIN)) ckITEM(eu_CMDLINE); \
+ else ckITEM(EU_CMD); } while (0)
FLG_t f;
char *s;
WIN_t *w = Curwin;
#endif
int i;
- Frames_libflags = 0;
+ // reset the newlib enum selected indicator
+ Pids_itms_cur = 0;
+ for (i = 0; i < MAXTBL(Fieldstab); i++)
+ Fieldstab[i].esel = Fieldstab[i].erel = 0;
+ ckITEM(EU_PID); // these 5 fields may not display,
+ ckITEM(EU_STA); // yet we'll always need the 1st 2
+ ckITEM(EU_CMD);
+ ckITEM(EU_UED); // plus the last 3 would have been
+ ckITEM(EU_GID); // guaranteed under old lib scheme
do {
if (VIZISw(w)) {
memset((s = w->columnhdr), 0, sizeof(w->columnhdr));
if (Rc.mode_altscr) s = scat(s, fmtmk("%d", w->winnum));
+
for (i = 0; i < w->maxpflgs; i++) {
f = w->procflgs[i];
#ifdef USE_X_COLHDR
#else
if (EU_MAXPFLGS <= f) continue;
#endif
- if (EU_CMD == f && CHKw(w, Show_CMDLIN)) Frames_libflags |= L_CMDLINE;
- Frames_libflags |= Fieldstab[f].lflg;
+ if (EU_CMD == f) ckCMDS(w);
+ else ckITEM(f);
+
s = scat(s, justify_pad(N_col(f)
, VARcol(f) ? w->varcolsz : Fieldstab[f].width
, CHKw(w, Fieldstab[f].align)));
// prepare to even out column header lengths...
if (hdrmax + w->hdrcaplen < (x = strlen(w->columnhdr))) hdrmax = x - w->hdrcaplen;
#endif
- // with forest view mode, we'll need tgid, ppid & start_time...
- if (CHKw(w, Show_FOREST)) Frames_libflags |= (L_status | L_stat);
- // for 'busy' only processes, we'll need pcpu (utime & stime)...
- if (!CHKw(w, Show_IDLEPS)) Frames_libflags |= L_stat;
+ // cpu calculations depend on number of threads
+ if (Fieldstab[EU_CPU].esel) ckITEM(EU_THD);
+ // for 'busy' only processes, we'll need elapsed tics
+ if (!CHKw(w, Show_IDLEPS)) ckITEM(EU_CPU);
+ // with forest view mode, we'll need pid, tgid, ppid & start_time...
+ if (CHKw(w, Show_FOREST)) { ckITEM(EU_PPD); ckITEM(EU_TGD); ckITEM(eu_TIME_START); }
+ // for 'cumulative' times, we'll need equivalent of cutime & cstime
+ if (Fieldstab[EU_TME].esel && CHKw(w, Show_CTIMES)) ckITEM(eu_TICS_ALL_C);
+ if (Fieldstab[EU_TM2].esel && CHKw(w, Show_CTIMES)) ckITEM(eu_TICS_ALL_C);
+ // for 'u/U' filtering we need these too (old top forgot that, oops)
+ if (w->usrseltyp) { ckITEM(EU_URD); ckITEM(EU_USD); ckITEM(eu_ID_FUID); }
+
// we must also accommodate an out of view sort field...
f = w->rc.sortindx;
- Frames_libflags |= Fieldstab[f].lflg;
- if (EU_CMD == f && CHKw(w, Show_CMDLIN)) Frames_libflags |= L_CMDLINE;
+ if (EU_CMD == f) ckCMDS(w);
+ else ckITEM(f);
} // end: VIZISw(w)
if (Rc.mode_altscr) w = w->next;
}
#endif
- // finalize/touchup the libproc PROC_FILLxxx flags for current config...
- if ((Frames_libflags & L_EITHER) && !(Frames_libflags & L_stat))
- Frames_libflags |= L_status;
- if (!Frames_libflags) Frames_libflags = L_DEFAULT;
- if (Monpidsidx) Frames_libflags |= PROC_PID;
+ #undef ckITEM
+ #undef ckCMDS
} // end: build_headers
} while (w != Curwin);
build_headers();
+
+ if (procps_pids_reset(Pids_ctx, Pids_itms_cur, Pids_itms))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
+
if (CHKw(Curwin, View_SCROLL))
updt_scroll_msg();
} // end: calibrate_fields
// 'hist_fill' also implies 'read', saving us one more call
Cpu_faux_cnt = procps_stat_jiffs_hist_fill(Cpu_ctx, Cpu_jiffs, sumSLOT);
if (Cpu_faux_cnt < 0)
- error_exit(N_txt(LIB_errorcpu_txt));
+ error_exit(fmtmk(N_fmt(LIB_errorcpu_fmt),__LINE__));
// 2nd, retrieve just the cpu summary jiffs
if (procps_stat_jiffs_hist_get(Cpu_ctx, &Cpu_jiffs[sumSLOT], -1) < 0)
- error_exit(N_txt(LIB_errorcpu_txt));
+ error_exit(fmtmk(N_fmt(LIB_errorcpu_fmt),__LINE__));
#ifndef NUMA_DISABLE
/* henceforth, with just a little more arithmetic we can avoid
} // end: cpus_refresh
-#ifdef OFF_HST_HASH
- /*
- * Binary Search for HST_t's put/get support */
-
-static inline HST_t *hstbsrch (HST_t *hst, int max, int pid) {
- int mid, min = 0;
-
- while (min <= max) {
- mid = (min + max) / 2;
- if (pid < hst[mid].pid) max = mid - 1;
- else if (pid > hst[mid].pid) min = mid + 1;
- else return &hst[mid];
- }
- return NULL;
-} // end: hstbsrch
-
-#else
- /*
- * Hashing functions for HST_t's put/get support
- * (not your normal 'chaining', those damn HST_t's might move!) */
-
-#define _HASH_(K) (K & (HHASH_SIZ - 1))
-
-static inline HST_t *hstget (int pid) {
- int V = PHash_sav[_HASH_(pid)];
-
- while (-1 < V) {
- if (PHist_sav[V].pid == pid) return &PHist_sav[V];
- V = PHist_sav[V].lnk; }
- return NULL;
-} // end: hstget
-
-
-static inline void hstput (unsigned idx) {
- int V = _HASH_(PHist_new[idx].pid);
-
- PHist_new[idx].lnk = PHash_new[V];
- PHash_new[V] = idx;
-} // end: hstput
-
-#undef _HASH_
-#endif
-
/*
- * Refresh procs *Helper* function to eliminate yet one more need
- * to loop through our darn proc_t table. He's responsible for:
- * 1) calculating the elapsed time since the previous frame
- * 2) counting the number of tasks in each state (run, sleep, etc)
- * 3) maintaining the HST_t's and priming the proc_t pcpu field
- * 4) establishing the total number tasks for this frame */
-static void procs_hlp (proc_t *this) {
-#ifdef OFF_HST_HASH
- static unsigned maxt_sav = 0; // prior frame's max tasks
-#endif
- TIC_t tics;
- HST_t *h;
-
- if (!this) {
- static double uptime_sav;
- double uptime_cur;
- float et;
- void *v;
-
- procps_uptime(&uptime_cur, NULL);
- et = uptime_cur - uptime_sav;
- if (et < 0.01) et = 0.005;
- uptime_sav = uptime_cur;
-
- // if in Solaris mode, adjust our scaling for all cpus
- Frame_etscale = 100.0f / ((float)Hertz * (float)et * (Rc.mode_irixps ? 1 : Cpu_cnt));
-#ifdef OFF_HST_HASH
- maxt_sav = Frame_maxtask;
-#endif
- Frame_maxtask = Frame_running = Frame_sleepin = Frame_stopped = Frame_zombied = 0;
-
- // prep for saving this frame's HST_t's (and reuse mem each time around)
- v = PHist_sav;
- PHist_sav = PHist_new;
- PHist_new = v;
-#ifdef OFF_HST_HASH
- // prep for binary search by sorting the last frame's HST_t's
- qsort(PHist_sav, maxt_sav, sizeof(HST_t), (QFP_t)sort_HST_t);
-#else
- v = PHash_sav;
- PHash_sav = PHash_new;
- PHash_new = v;
- memcpy(PHash_new, HHash_nul, sizeof(HHash_nul));
-#endif
- return;
- }
-
- switch (this->state) {
- case 'R':
- Frame_running++;
- break;
- case 'S':
- case 'D':
- Frame_sleepin++;
- break;
- case 'T':
- Frame_stopped++;
- break;
- case 'Z':
- Frame_zombied++;
- break;
- default: // keep gcc happy
- break;
- }
-
- if (Frame_maxtask+1 >= HHist_siz) {
- HHist_siz = HHist_siz * 5 / 4 + 100;
- PHist_sav = alloc_r(PHist_sav, sizeof(HST_t) * HHist_siz);
- PHist_new = alloc_r(PHist_new, sizeof(HST_t) * HHist_siz);
- }
-
- /* calculate time in this process; the sum of user time (utime) and
- system time (stime) -- but PLEASE dont waste time and effort on
- calcs and saves that go unused, like the old top! */
- PHist_new[Frame_maxtask].pid = this->tid;
- PHist_new[Frame_maxtask].tics = tics = (this->utime + this->stime);
- // finally, save major/minor fault counts in case the deltas are displayable
- PHist_new[Frame_maxtask].maj = this->maj_flt;
- PHist_new[Frame_maxtask].min = this->min_flt;
-
-#ifdef OFF_HST_HASH
- // find matching entry from previous frame and make stuff elapsed
- if ((h = hstbsrch(PHist_sav, maxt_sav - 1, this->tid))) {
- tics -= h->tics;
- this->maj_delta = this->maj_flt - h->maj;
- this->min_delta = this->min_flt - h->min;
- }
-#else
- // hash & save for the next frame
- hstput(Frame_maxtask);
- // find matching entry from previous frame and make stuff elapsed
- if ((h = hstget(this->tid))) {
- tics -= h->tics;
- this->maj_delta = this->maj_flt - h->maj;
- this->min_delta = this->min_flt - h->min;
- }
-#endif
-
- /* we're just saving elapsed tics, to be converted into %cpu if
- this task wins it's displayable screen row lottery... */
- this->pcpu = tics;
-
- // shout this to the world with the final call (or us the next time in)
- Frame_maxtask++;
-} // end: procs_hlp
-
-
- /*
- * This guy's modeled on libproc's 'readproctab' function except
- * we reuse and extend any prior proc_t's. He's been customized
- * for our specific needs and to avoid the use of <stdarg.h> */
+ * This guy's responsible for interfacing with the library 'reap' pids
+ * and 'fill' stacks capabilities and refreshing the individual WIN_t
+ * head-of-stacks arrays, growing them as appropirate. */
static void procs_refresh (void) {
- #define n_used Frame_maxtask // maintained by procs_hlp()
- static proc_t **private_ppt; // our base proc_t ptr table
- static int n_alloc = 0; // size of our private_ppt
- static int n_saved = 0; // last window ppt size
- proc_t *ptask;
- PROCTAB* PT;
+ #define nALIGN(n,m) (((n + m - 1) / m) * m) // unconditionally align
+ #define nALGN2(n,m) ((n + m - 1) & ~(m - 1)) // with power of 2 align
+ #define n_reap Pids_cnts->total // maintained by newlib
+ static double uptime_sav;
+ static int n_alloc; // size of windows stacks arrays
+ double uptime_cur;
+ float et;
int i;
- proc_t*(*read_something)(PROCTAB*, proc_t*);
- procs_hlp(NULL); // prep for a new frame
- if (NULL == (PT = openproc(Frames_libflags, Monpids)))
- error_exit(fmtmk(N_fmt(FAIL_openlib_fmt), strerror(errno)));
- read_something = Thread_mode ? readeither : readproc;
-
- for (;;) {
- if (n_used == n_alloc) {
- n_alloc = 10 + ((n_alloc * 5) / 4); // grow by over 25%
- private_ppt = alloc_r(private_ppt, sizeof(proc_t*) * n_alloc);
- // ensure NULL pointers for the additional memory just acquired
- memset(private_ppt + n_used, 0, sizeof(proc_t*) * (n_alloc - n_used));
- }
- // on the way to n_alloc, the library will allocate the underlying
- // proc_t storage whenever our private_ppt[] pointer is NULL...
- if (!(ptask = read_something(PT, private_ppt[n_used]))) break;
- procs_hlp((private_ppt[n_used] = ptask)); // tally this proc_t
+ procps_uptime(&uptime_cur, NULL);
+ et = uptime_cur - uptime_sav;
+ if (et < 0.01) et = 0.005;
+ uptime_sav = uptime_cur;
+ // if in Solaris mode, adjust our scaling for all cpus
+ Frame_etscale = 100.0f / ((float)Hertz * (float)et * (Rc.mode_irixps ? 1 : Cpu_cnt));
+
+ if (Pids_fill) {
+ if (!(Pids_cnts = procps_pids_stacks_fill(Pids_ctx, Pids_fill
+ , Monpidsidx, PROCPS_FILL_PID)))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
+ Pids_stks = Pids_fill->stacks;
+ } else {
+ if (!(Pids_reap = procps_pids_reap(Pids_ctx, Pids_type[Thread_mode])))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
+ Pids_stks = Pids_reap->reaped.stacks;
+ Pids_cnts = &Pids_reap->counts;
}
- closeproc(PT);
-
- // lastly, refresh each window's proc pointers table...
- if (n_saved == n_alloc)
- for (i = 0; i < GROUPSMAX; i++)
- memcpy(Winstk[i].ppt, private_ppt, sizeof(proc_t*) * n_used);
- else {
- n_saved = n_alloc;
+ // now refresh each window's stack heads pointers table...
+ if (n_alloc < n_reap) {
+// n_alloc = nALIGN(n_reap, 100);
+ n_alloc = nALGN2(n_reap, 128);
for (i = 0; i < GROUPSMAX; i++) {
- Winstk[i].ppt = alloc_r(Winstk[i].ppt, sizeof(proc_t*) * n_alloc);
- memcpy(Winstk[i].ppt, private_ppt, sizeof(proc_t*) * n_used);
+ Winstk[i].ppt = alloc_r(Winstk[i].ppt, sizeof(void*) * n_alloc);
+ memcpy(Winstk[i].ppt, Pids_stks, sizeof(void*) * n_reap);
}
+ } else {
+ for (i = 0; i < GROUPSMAX; i++)
+ memcpy(Winstk[i].ppt, Pids_stks, sizeof(void*) * n_reap);
}
- #undef n_used
+ #undef n_reap
+ #undef nALGN2
+ #undef nALIGN
} // end: procs_refresh
if (3 <= cur_secs - mem_secs) {
// 'stack_fill' also implies 'read', saving us one more call
if ((procps_meminfo_stack_fill(Mem_ctx, Mem_stack) < 0))
- error_exit(N_txt(LIB_errormem_txt));
+ error_exit(fmtmk(N_fmt(LIB_errormem_fmt),__LINE__));
mem_secs = cur_secs;
}
#ifndef PRETEND8CPUS
/*
* This guy is responsible for displaying the Insp_buf contents and
* managing all scrolling/locate requests until the user gives up. */
-static int insp_view_choice (proc_t *obj) {
+static int insp_view_choice (struct pids_stack *obj) {
#ifdef INSP_SLIDE_1
#define hzAMT 1
#else
#endif
#define maxLN (Screen_rows - (Msg_row +1))
#define makHD(b1,b2) { \
- snprintf(b1, sizeof(b1), "%d", obj->tid); \
- snprintf(b2, sizeof(b2), "%s", obj->cmd); }
+ snprintf(b1, sizeof(b1), "%d", PID_VAL(EU_PID, s_int, obj)); \
+ snprintf(b2, sizeof(b2), "%s", PID_VAL(EU_CMD, str, obj)); }
#define makFS(dst) { if (Insp_sel->flen < 22) \
snprintf(dst, sizeof(dst), "%s", Insp_sel->fstr); \
else snprintf(dst, sizeof(dst), "%.19s...", Insp_sel->fstr); }
char sels[MEDBUFSIZ];
static int sel;
int i, key;
- proc_t *p;
+ struct pids_stack *p;
- for (i = 0, p = NULL; i < Frame_maxtask; i++)
- if (pid == Curwin->ppt[i]->tid) {
+ for (i = 0, p = NULL; i < Pids_cnts->total; i++)
+ if (pid == PID_VAL(EU_PID, s_int, Curwin->ppt[i])) {
p = Curwin->ppt[i];
break;
}
mkSEL(sels);
putp(Cap_home);
show_special(1, fmtmk(N_unq(YINSP_hdsels_fmt)
- , pid, p->cmd, sels));
+ , pid, PID_VAL(EU_CMD, str, Curwin->ppt[i]), sels));
INSP_MKSL(0, " ");
if (Frames_signal) goto signify_that;
// establish cpu particulars
Hertz = procps_hertz_get();
Cpu_cnt = procps_cpu_count();
- Page_size = getpagesize();
#ifdef PRETEND8CPUS
Cpu_cnt = 8;
#endif
if (linux_version_code >= LINUX_VERSION(2, 6, 11))
Cpu_States_fmts = N_unq(STATE_lin2x7_fmt);
- // get virtual page stuff
- i = Page_size;
- while (i > 1024) { i >>= 1; Pg2K_shft++; }
-
// prepare for new library API ...
if (procps_meminfo_new(&Mem_ctx) < 0)
- error_exit(N_txt(LIB_errormem_txt));
+ error_exit(fmtmk(N_fmt(LIB_errormem_fmt),__LINE__));
if (!(Mem_stack = procps_meminfo_stack_alloc(Mem_ctx, MAXTBL(Mem_items), Mem_items)))
- error_exit(N_txt(LIB_errormem_txt));
+ error_exit(fmtmk(N_fmt(LIB_errormem_fmt),__LINE__));
if (procps_stat_new(&Cpu_ctx) < 0)
- error_exit(N_txt(LIB_errorcpu_txt));
-
-#ifndef OFF_HST_HASH
- // prep for HST_t's put/get hashing optimizations
- for (i = 0; i < HHASH_SIZ; i++) HHash_nul[i] = -1;
- memcpy(HHash_one, HHash_nul, sizeof(HHash_nul));
- memcpy(HHash_two, HHash_nul, sizeof(HHash_nul));
-#endif
+ error_exit(fmtmk(N_fmt(LIB_errorcpu_fmt),__LINE__));
+ // establish max depth for newlib pids stack (# of result structs)
+ Pids_itms = alloc_c(sizeof(enum pids_item) * MAXTBL(Fieldstab));
+ for (i = 0; i < MAXTBL(Fieldstab); i++)
+ Pids_itms[i] = Fieldstab[i].item;
+ Pids_itms_cur = i;
+ if (procps_pids_new(&Pids_ctx, Pids_itms_cur, Pids_itms))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
#ifndef NUMA_DISABLE
#if defined(PRETEND_NUMA) || defined(PRETEND8CPUS)
for (i = 0; i < EU_MAXPFLGS; i++)
puts(N_col(i));
bye_bye(NULL);
- case 'p': {
- int pid; char *p;
+ case 'p':
+ { int pid; char *p;
if (Curwin->usrseltyp) error_exit(N_txt(SELECT_clash_txt));
do {
if (cp[1]) cp++;
if (!(p = strchr(cp, ','))) break;
cp = p;
} while (*cp);
- } break;
+ }
+ if (!(Pids_fill = procps_pids_stacks_alloc(Pids_ctx, Monpidsidx)))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
+ for (i = 0; i < Monpidsidx; i++)
+ Pids_fill->stacks[i]->fill_id = Monpids[i];
+ break;
case 's':
Secure_mode = 1;
break;
else error_exit(fmtmk(N_fmt(MISSING_args_fmt), ch));
if ((errmsg = user_certify(Curwin, cp, ch))) error_exit(errmsg);
cp += strlen(cp);
- break;
}
+ break;
case 'w':
{ const char *pn = NULL;
int ai = 0, ci = 0;
cp++;
args += ai;
if (pn) cp = pn + ci;
- } continue;
+ }
+ continue;
default :
error_exit(fmtmk(N_fmt(UNKNOWN_opts_fmt)
, *cp, Myname, N_txt(USAGE_abbrev_txt)));
#else
q->rc.maxtasks = q->usrseltyp = q->begpflg = q->begtask = 0;
#endif
- Monpidsidx = 0;
osel_clear(q);
+ if (Pids_fill)
+ procps_pids_stacks_dealloc(Pids_ctx, &Pids_fill);
+ Monpidsidx = 0;
} // end: win_reset
sigaddset(&Sigwinch_set, SIGWINCH);
#endif
} // end: wins_stage_2
+
+
+ /*
+ * Determine if this task matches the 'u/U' selection criteria
+ * for a given window -- it is called from only one place, and
+ * will likely be inlined even without the following directive */
+static inline int wins_usrselect (const WIN_t *q, struct pids_stack *p) {
+ // our 'results stack value' extractor macro
+ #define rSv(E) PID_VAL(E, u_int, p)
+ switch(q->usrseltyp) {
+ case 0: // uid selection inactive
+ return 1;
+ case 'U': // match any uid
+ if (rSv(EU_URD) == q->usrseluid) return q->usrselflg;
+ if (rSv(EU_USD) == q->usrseluid) return q->usrselflg;
+ if (rSv(eu_ID_FUID) == q->usrseluid) return q->usrselflg;
+ // fall through...
+ case 'u': // match effective uid
+ if (rSv(EU_UED) == q->usrseluid) return q->usrselflg;
+ // fall through...
+ default: // no match...
+ ;
+ }
+ return !q->usrselflg;
+ #undef rSv
+} // end: wins_usrselect
\f
/*###### Interactive Input Tertiary support ############################*/
/* This is currently the one true prototype require by top.
It is placed here, instead of top.h, so as to avoid a compiler
warning when top_nls.c is compiled. */
-static const char *task_show (const WIN_t *q, const proc_t *p);
+static const char *task_show (const WIN_t *, const int);
static void find_string (int ch) {
#define reDUX (found) ? N_txt(WORD_another_txt) : ""
}
if (Curwin->findstr[0]) {
SETw(Curwin, INFINDS_xxx);
- for (i = Curwin->begtask; i < Frame_maxtask; i++) {
- const char *row = task_show(Curwin, Curwin->ppt[i]);
+ for (i = Curwin->begtask; i < Pids_cnts->total; i++) {
+ const char *row = task_show(Curwin, i);
if (*row && -1 < find_ofs(Curwin, row)) {
found = 1;
if (i == Curwin->begtask) continue;
show_msg(N_txt(NOT_onsecure_txt));
} else {
int sig = SIGTERM,
- def = w->ppt[w->begtask]->tid,
+ def = PID_VAL(EU_PID, s_int, w->ppt[w->begtask]),
pid = get_int(fmtmk(N_txt(GET_pid2kill_fmt), def));
if (pid > GET_NUM_ESC) {
char *str;
show_msg(N_txt(NOT_onsecure_txt));
else {
int val,
- def = w->ppt[w->begtask]->tid,
+ def = PID_VAL(EU_PID, s_int, w->ppt[w->begtask]),
pid = get_int(fmtmk(N_txt(GET_pid2nice_fmt), def));
if (pid > GET_NUM_ESC) {
if (pid == GET_NUM_NOT) pid = def;
if (!Inspect.total)
ioline(N_txt(YINSP_noents_txt));
else {
- int def = w->ppt[w->begtask]->tid,
+ int def = PID_VAL(EU_PID, s_int, w->ppt[w->begtask]),
pid = get_int(fmtmk(N_fmt(YINSP_pidsee_fmt), def));
if (pid > GET_NUM_ESC) {
if (pid == GET_NUM_NOT) pid = def;
if (VIZCHKw(w)) if (0 < w->begtask) w->begtask -= 1;
break;
case kbd_DOWN:
- if (VIZCHKw(w)) if (w->begtask < Frame_maxtask - 1) w->begtask += 1;
+ if (VIZCHKw(w)) if (w->begtask < Pids_cnts->total -1) w->begtask += 1;
break;
#ifdef USE_X_COLHDR // ------------------------------------
case kbd_LEFT:
}
break;
case kbd_PGDN:
- if (VIZCHKw(w)) if (w->begtask < Frame_maxtask - 1) {
+ if (VIZCHKw(w)) if (w->begtask < Pids_cnts->total -1) {
w->begtask += (w->winlines - 1);
- if (w->begtask > Frame_maxtask - 1) w->begtask = Frame_maxtask - 1;
+ if (w->begtask > Pids_cnts->total -1) w->begtask = Pids_cnts->total -1;
if (0 > w->begtask) w->begtask = 0;
}
break;
break;
case kbd_END:
if (VIZCHKw(w)) {
- w->begtask = (Frame_maxtask - w->winlines) + 1;
+ w->begtask = (Pids_cnts->total - w->winlines) +1;
if (0 > w->begtask) w->begtask = 0;
w->begpflg = w->endpflg;
#ifndef SCROLLVAR_NO
* ( plus, maintain alphabetical order with carefully chosen )
* ( function names: forest_a, forest_b, forest_c & forest_d )
* ( each with exactly one letter more than its predecessor! ) */
-static proc_t **Seed_ppt; // temporary win ppt pointer
-static proc_t **Tree_ppt; // forest_create will resize
-static int Tree_idx; // frame_make resets to zero
+static struct pids_stack **Seed_ppt; // temporary win stacks ptrs
+static struct pids_stack **Tree_ppt; // forest_create will resize
+static int Tree_idx; // frame_make resets to zero
+static int *Seed_lvl; // level array for Seeds ('from')
+static int *Tree_lvl; // level array for Trees ('to')
/*
* This little recursive guy is the real forest view workhorse.
* He fills in the Tree_ppt array and also sets the child indent
- * level which is stored in an unused proc_t padding byte. */
+ * level which is stored in the same slot of separate array. */
static void forest_adds (const int self, int level) {
+ // our 'results stack value' extractor macro
+ #define rSv(E,X) PID_VAL(E, s_int, Seed_ppt[X])
int i;
- if (Tree_idx < Frame_maxtask) { // immunize against insanity
+ if (Tree_idx < Pids_cnts->total) { // immunize against insanity
if (level > 100) level = 101; // our arbitrary nests limit
Tree_ppt[Tree_idx] = Seed_ppt[self]; // add this as root or child
- Tree_ppt[Tree_idx++]->pad_3 = level; // borrow 1 byte, 127 levels
+ Tree_lvl[Tree_idx++] = level; // while recording its level
+ Seed_lvl[self] = level; // then, note it's been seen
#ifdef TREE_SCANALL
- for (i = 0; i < Frame_maxtask; i++) {
+ for (i = 0; i < Pids_cnts->total; i++) {
if (i == self) continue;
#else
- for (i = self + 1; i < Frame_maxtask; i++) {
+ for (i = self + 1; i < Pids_cnts->total; i++) {
#endif
- if (Seed_ppt[self]->tid == Seed_ppt[i]->tgid
- || (Seed_ppt[self]->tid == Seed_ppt[i]->ppid && Seed_ppt[i]->tid == Seed_ppt[i]->tgid))
+ if (rSv(EU_PID, self) == rSv(EU_TGD, i)
+ || (rSv(EU_PID, self) == rSv(EU_PPD, i) && rSv(EU_PID, i) == rSv(EU_TGD, i)))
forest_adds(i, level + 1); // got one child any others?
}
}
+ #undef rSv
} // end: forest_adds
-#ifndef TREE_SCANALL
- /*
- * Our qsort callback to order a ppt by the non-display start_time
- * which will make us immune from any pid, ppid or tgid anomalies
- * if/when pid values are wrapped by the kernel! */
-static int forest_based (const proc_t **x, const proc_t **y) {
- if ( (*x)->start_time > (*y)->start_time ) return 1;
- if ( (*x)->start_time < (*y)->start_time ) return -1;
- return 0;
-} // end: forest_based
-#endif
-
-
/*
- * This routine is responsible for preparing the proc_t's for
+ * This routine is responsible for preparing the stacks array for
* a forest display in the designated window. Upon completion,
* he'll replace the original window ppt with our specially
* ordered forest version. */
static void forest_create (WIN_t *q) {
+ static int *lvl_arrays; // supports both 'lvl' arrays
static int hwmsav;
int i;
- Seed_ppt = q->ppt; // avoid passing WIN_t ptrs
- if (!Tree_idx) { // do just once per frame
- if (hwmsav < Frame_maxtask) { // grow, but never shrink
- hwmsav = Frame_maxtask;
- Tree_ppt = alloc_r(Tree_ppt, sizeof(proc_t*) * hwmsav);
+ Seed_ppt = q->ppt; // avoid passing WIN_t ptrs
+ if (!Tree_idx) { // do just once per frame
+ if (hwmsav < Pids_cnts->total) { // grow, but never shrink
+ hwmsav = Pids_cnts->total;
+ Tree_ppt = alloc_r(Tree_ppt, sizeof(void*) * hwmsav);
+ lvl_arrays = alloc_r(lvl_arrays, sizeof(int) * hwmsav * 2);
}
+ memset(lvl_arrays, 0, sizeof(int) * Pids_cnts->total * 2);
+ Tree_lvl = lvl_arrays;
+ Seed_lvl = Tree_lvl + Pids_cnts->total;
#ifndef TREE_SCANALL
- qsort(Seed_ppt, Frame_maxtask, sizeof(proc_t*), (QFP_t)forest_based);
+ if (!(procps_pids_stacks_sort(Pids_ctx, Seed_ppt, Pids_cnts->total
+ , PROCPS_PIDS_TIME_START, PROCPS_SORT_ASCEND)))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
#endif
- for (i = 0; i < Frame_maxtask; i++) // avoid any hidepid distortions
- if (!Seed_ppt[i]->pad_3) // identify real or pretend trees
- forest_adds(i, 1); // add as parent plus its children
+ for (i = 0; i < Pids_cnts->total; i++) // avoid any hidepid distortions
+ if (!Seed_lvl[i]) // identify real or pretend trees
+ forest_adds(i, 1); // add as parent plus its children
}
- memcpy(Seed_ppt, Tree_ppt, sizeof(proc_t*) * Frame_maxtask);
+ memcpy(Seed_ppt, Tree_ppt, sizeof(void*) * Pids_cnts->total);
} // end: forest_create
/*
- * This guy adds the artwork to either p->cmd or p->cmdline
+ * This guy adds the artwork to either a 'cmd' or 'cmdline'
* when in forest view mode, otherwise he just returns 'em. */
-static inline const char *forest_display (const WIN_t *q, const proc_t *p) {
+static inline const char *forest_display (const WIN_t *q, const int idx) {
+ // our 'results stack value' extractor macro
+ #define rSv(E) PID_VAL(E, str, q->ppt[idx])
#ifndef SCROLLVAR_NO
- static char buf[1024*64*2]; // the same as readproc's MAX_BUFSZ
+ static char buf[1024*64*2]; // the same as libray's max buffer size
#else
static char buf[ROWMINSIZ];
#endif
- const char *which = (CHKw(q, Show_CMDLIN)) ? *p->cmdline : p->cmd;
+ const char *which = (CHKw(q, Show_CMDLIN)) ? rSv(eu_CMDLINE) : rSv(EU_CMD);
- if (!CHKw(q, Show_FOREST) || 1 == p->pad_3) return which;
- if (p->pad_3 > 100) snprintf(buf, sizeof(buf), "%400s%s", " + ", which);
- else snprintf(buf, sizeof(buf), "%*s%s", 4 * (p->pad_3 - 1), " `- ", which);
+ if (!CHKw(q, Show_FOREST) || Tree_lvl[idx] < 2) return which;
+ if (Tree_lvl[idx] > 100) snprintf(buf, sizeof(buf), "%400s%s", " + ", which);
+ else snprintf(buf, sizeof(buf), "%*s%s", 4 * (Tree_lvl[idx] - 1), " `- ", which);
return buf;
+ #undef rSv
} // end: forest_display
\f
/*###### Main Screen routines ##########################################*/
if (isROOM(View_STATES, 2)) {
show_special(0, fmtmk(N_unq(STATE_line_1_fmt)
, Thread_mode ? N_txt(WORD_threads_txt) : N_txt(WORD_process_txt)
- , Frame_maxtask, Frame_running, Frame_sleepin
- , Frame_stopped, Frame_zombied));
+ , Pids_cnts->total, Pids_cnts->running, Pids_cnts->sleeping
+ , Pids_cnts->stopped, Pids_cnts->zombied));
Msg_row += 1;
cpus_refresh();
/*
* Build the information for a single task row and
* display the results or return them to the caller. */
-static const char *task_show (const WIN_t *q, const proc_t *p) {
+static const char *task_show (const WIN_t *q, const int idx) {
+ // our 'results stack value' extractor macro
+ #define rSv(E,T) PID_VAL(E, T, q->ppt[idx])
#ifndef SCROLLVAR_NO
- #define makeVAR(v) { const char *pv = v; \
- if (!q->varcolbeg) cp = make_str(pv, q->varcolsz, Js, AUTOX_NO); \
- else cp = make_str(q->varcolbeg < (int)strlen(pv) ? pv + q->varcolbeg : "", q->varcolsz, Js, AUTOX_NO); }
+ #define makeVAR(P) { if (!q->varcolbeg) cp = make_str(P, q->varcolsz, Js, AUTOX_NO); \
+ else cp = make_str(q->varcolbeg < (int)strlen(P) ? P + q->varcolbeg : "", q->varcolsz, Js, AUTOX_NO); }
#else
- #define makeVAR(v) cp = make_str(v, q->varcolsz, Js, AUTOX_NO)
+ #define makeVAR(P) cp = make_str(P, q->varcolsz, Js, AUTOX_NO)
#endif
- #define pages2K(n) (unsigned long)( (n) << Pg2K_shft )
static char rbuf[ROWMINSIZ];
char *rp;
int x;
#define Js CHKw(q, Show_JRSTRS) // represent them as #defines
#define Jn CHKw(q, Show_JRNUMS) // and only exec code if used
+ /* except for the XOF/XON pseudo flags, the following case labels are gouped
+ by result type according to capacity (small -> large) and then ordered by
+ additional processing requirements (as in plain, scaled, decorated, etc.) */
+
switch (i) {
#ifndef USE_X_COLHDR
// these 2 aren't real procflgs, they're used in column highlighting!
- case EU_XON:
case EU_XOF:
+ case EU_XON:
cp = NULL;
if (!CHKw(q, INFINDS_xxx | NOHIFND_xxx | NOHISEL_xxx)) {
/* treat running tasks specially - entire row may get highlighted
so we needn't turn it on and we MUST NOT turn it off */
- if (!('R' == p->state && CHKw(q, Show_HIROWS)))
+ if (!('R' == rSv(EU_STA, s_ch) && CHKw(q, Show_HIROWS)))
cp = (EU_XON == i ? q->capclr_rowhigh : q->capclr_rownorm);
}
break;
#endif
- case EU_CGR:
- makeVAR(p->cgroup[0]);
+ /* s_ch, make_chr */
+ case EU_STA:
+ cp = make_chr(rSv(EU_STA, s_ch), W, Js);
break;
- case EU_CMD:
- makeVAR(forest_display(q, p));
+ /* s_int, make_num without auto width */
+ case EU_OOA:
+ case EU_OOM:
+ case EU_PGD:
+ case EU_PID:
+ case EU_PPD:
+ case EU_SID:
+ case EU_TGD:
+ case EU_THD:
+ case EU_TPG:
+ cp = make_num(rSv(i, s_int), W, Jn, AUTOX_NO);
break;
- case EU_COD:
- cp = scale_mem(S, pages2K(p->trs), W, Jn);
+ /* s_int, make_num or make_str */
+ case EU_PRI:
+ if (-99 > rSv(EU_PRI, s_int) || 999 < rSv(EU_PRI, s_int)) {
+ cp = make_str("rt", W, Jn, AUTOX_NO);
+ } else
+ cp = make_num(rSv(EU_PRI, s_int), W, Jn, AUTOX_NO);
break;
+ /* s_int, scale_mem */
+ case EU_RES:
+ case EU_SWP:
+ case EU_USE:
+ cp = scale_mem(S, rSv(i, s_int), W, Jn);
+ break;
+ /* s_int, scale_pcnt */
+ case EU_MEM:
+ cp = scale_pcnt((float)rSv(EU_RES, s_int) * 100 / MEM_VAL(mem_TOTAL), W, Jn);
+ break;
+ /* u_int, make_num without auto width */
case EU_CPN:
- cp = make_num(p->processor, W, Jn, AUTOX_NO);
+ cp = make_num(rSv(i, u_int), W, Jn, AUTOX_NO);
+ break;
+ /* u_int, make_num with auto width */
+ case EU_GID:
+ case EU_UED:
+ case EU_URD:
+ case EU_USD:
+ cp = make_num(rSv(i, u_int), W, Jn, i);
break;
+ /* u_int, scale_pcnt with special handling */
case EU_CPU:
- { float u = (float)p->pcpu * Frame_etscale;
+ { float u = (float)rSv(EU_CPU, u_int) * Frame_etscale;
+ int n = rSv(EU_THD, s_int);
/* process can't use more %cpu than number of threads it has
( thanks Jaromir Capik <jcapik@redhat.com> ) */
- if (u > 100.0 * p->nlwp) u = 100.0 * p->nlwp;
+ if (u > 100.0 * n) u = 100.0 * n;
if (u > Cpu_pmax) u = Cpu_pmax;
cp = scale_pcnt(u, W, Jn);
}
break;
- case EU_DAT:
- cp = scale_mem(S, pages2K(p->drs), W, Jn);
- break;
- case EU_DRT:
- cp = scale_num(p->dt, W, Jn);
+ /* sl_int, make_num */
+ case EU_NCE:
+ cp = make_num(rSv(EU_NCE, sl_int), W, Jn, AUTOX_NO);
break;
- case EU_ENV:
- makeVAR(p->environ[0]);
+ /* ul_int, scale_mem */
+ case EU_COD:
+ case EU_DAT:
+ case EU_DRT: // really # pgs & sl_int, but always zero since 2.6
+ case EU_SHR:
+ case EU_VRT:
+ cp = scale_mem(S, rSv(i, ul_int), W, Jn);
break;
+ /* ul_int, scale_num */
case EU_FL1:
- cp = scale_num(p->maj_flt, W, Jn);
- break;
case EU_FL2:
- cp = scale_num(p->min_flt, W, Jn);
- break;
- case EU_FLG:
- cp = make_str(hex_make(p->flags, 1), W, Js, AUTOX_NO);
- break;
case EU_FV1:
- cp = scale_num(p->maj_delta, W, Jn);
- break;
case EU_FV2:
- cp = scale_num(p->min_delta, W, Jn);
- break;
- case EU_GID:
- cp = make_num(p->egid, W, Jn, EU_GID);
+ cp = scale_num(rSv(i, ul_int), W, Jn);
break;
- case EU_GRP:
- cp = make_str(p->egroup, W, Js, EU_GRP);
- break;
- case EU_LXC:
- cp = make_str(p->lxcname, W, Js, EU_LXC);
- break;
- case EU_MEM:
- cp = scale_pcnt((float)p->vm_rss * 100 / MEM_VAL(mem_TOTAL), W, Jn);
- break;
- case EU_NCE:
- cp = make_num(p->nice, W, Jn, AUTOX_NO);
+ /* ul_int, make_str with special handling */
+ case EU_FLG:
+ cp = make_str(hex_make(rSv(EU_FLG, ul_int), 1), W, Js, AUTOX_NO);
break;
- case EU_NS1: // IPCNS
- case EU_NS2: // MNTNS
- case EU_NS3: // NETNS
- case EU_NS4: // PIDNS
- case EU_NS5: // USERNS
- case EU_NS6: // UTSNS
- { long ino = p->ns[i - EU_NS1];
+ /* ul_int, make_num or make_str */
+ case EU_NS1:
+ case EU_NS2:
+ case EU_NS3:
+ case EU_NS4:
+ case EU_NS5:
+ case EU_NS6:
+ { long ino = rSv(i, ul_int);
if (ino > 0) cp = make_num(ino, W, Jn, i);
else cp = make_str("-", W, Js, i);
}
break;
-#ifdef OOMEM_ENABLE
- case EU_OOA:
- cp = make_num(p->oom_adj, W, Jn, AUTOX_NO);
- break;
- case EU_OOM:
- cp = make_num(p->oom_score, W, Jn, AUTOX_NO);
- break;
-#endif
- case EU_PGD:
- cp = make_num(p->pgrp, W, Jn, AUTOX_NO);
- break;
- case EU_PID:
- cp = make_num(p->tid, W, Jn, AUTOX_NO);
- break;
- case EU_PPD:
- cp = make_num(p->ppid, W, Jn, AUTOX_NO);
- break;
- case EU_PRI:
- if (-99 > p->priority || 999 < p->priority) {
- cp = make_str("rt", W, Jn, AUTOX_NO);
- } else
- cp = make_num(p->priority, W, Jn, AUTOX_NO);
- break;
- case EU_RES:
- cp = scale_mem(S, p->vm_rss, W, Jn);
- break;
- case EU_SGD:
- makeVAR(p->supgid);
- break;
- case EU_SGN:
- makeVAR(p->supgrp);
- break;
- case EU_SHR:
- cp = scale_mem(S, pages2K(p->share), W, Jn);
- break;
- case EU_SID:
- cp = make_num(p->session, W, Jn, AUTOX_NO);
- break;
- case EU_STA:
- cp = make_chr(p->state, W, Js);
- break;
- case EU_SWP:
- cp = scale_mem(S, p->vm_swap, W, Jn);
- break;
- case EU_TGD:
- cp = make_num(p->tgid, W, Jn, AUTOX_NO);
- break;
- case EU_THD:
- cp = make_num(p->nlwp, W, Jn, AUTOX_NO);
- break;
+ /* ull_int, scale_tics */
case EU_TM2:
case EU_TME:
- { TIC_t t = p->utime + p->stime;
- if (CHKw(q, Show_CTIMES)) t += (p->cutime + p->cstime);
+ { TIC_t t;
+ if (CHKw(q, Show_CTIMES)) t = rSv(eu_TICS_ALL_C, ull_int);
+ else t = rSv(i, ull_int);
cp = scale_tics(t, W, Jn);
}
break;
- case EU_TPG:
- cp = make_num(p->tpgid, W, Jn, AUTOX_NO);
- break;
- case EU_TTY:
- { char tmp[SMLBUFSIZ];
- dev_to_tty(tmp, W, p->tty, p->tid, ABBREV_DEV);
- cp = make_str(tmp, W, Js, EU_TTY);
- }
- break;
- case EU_UED:
- cp = make_num(p->euid, W, Jn, EU_UED);
- break;
+ /* str, make_str */
+ case EU_GRP:
+ case EU_LXC:
case EU_UEN:
- cp = make_str(p->euser, W, Js, EU_UEN);
- break;
- case EU_URD:
- cp = make_num(p->ruid, W, Jn, EU_URD);
- break;
case EU_URN:
- cp = make_str(p->ruser, W, Js, EU_URN);
- break;
- case EU_USD:
- cp = make_num(p->suid, W, Jn, EU_USD);
- break;
- case EU_USE:
- cp = scale_mem(S, (p->vm_swap + p->vm_rss), W, Jn);
- break;
case EU_USN:
- cp = make_str(p->suser, W, Js, EU_USN);
+ case EU_WCH:
+ cp = make_str(rSv(i, str), W, Js, i);
break;
- case EU_VRT:
- cp = scale_mem(S, pages2K(p->size), W, Jn);
+ /* str, make_str with varialbe width */
+ case EU_CGR:
+ case EU_ENV:
+ case EU_SGD:
+ case EU_SGN:
+ makeVAR(rSv(i, str));
break;
- case EU_WCH:
- cp = make_str(lookup_wchan(p->tid), W, Js, EU_WCH);
+ /* str, make_str with varialbe width + additional decoration */
+ case EU_CMD:
+ makeVAR(forest_display(q, idx));
break;
- default: // keep gcc happy
+ default: // keep gcc happy
continue;
-
} // end: switch 'procflag'
if (cp) {
} // end: for 'maxpflgs'
if (!CHKw(q, INFINDS_xxx)) {
- const char *cap = ((CHKw(q, Show_HIROWS) && 'R' == p->state))
+ const char *cap = ((CHKw(q, Show_HIROWS) && 'R' == rSv(EU_STA, s_ch)))
? q->capclr_rowhigh : q->capclr_rownorm;
char *row = rbuf;
int ofs;
PUFF("\n%s%s%s", cap, row, Caps_endline);
}
return rbuf;
+ #undef rSv
#undef makeVAR
- #undef pages2K
} // end: task_show
- /*
- * Squeeze as many tasks as we can into a single window,
- * after sorting the passed proc table. */
static int window_show (WIN_t *q, int wmax) {
+ #define sORDER CHKw(q, Qsrt_NORMAL) ? PROCPS_SORT_DESCEND : PROCPS_SORT_ASCEND
/* the isBUSY macro determines if a task is 'active' --
it returns true if some cpu was used since the last sample.
( actual 'running' tasks will be a subset of those selected ) */
- #define isBUSY(x) (0 < x->pcpu)
+ #define isBUSY(x) (0 < PID_VAL(EU_CPU, u_int, x))
#define winMIN(a,b) ((a < b) ? a : b)
int i, lwin;
if (CHKw(q, Show_FOREST))
forest_create(q);
else {
- if (CHKw(q, Qsrt_NORMAL)) Frame_srtflg = 1; // this is always needed!
- else Frame_srtflg = -1;
- Frame_ctimes = CHKw(q, Show_CTIMES); // this & next, only maybe
- Frame_cmdlin = CHKw(q, Show_CMDLIN);
- qsort(q->ppt, Frame_maxtask, sizeof(proc_t*), Fieldstab[q->rc.sortindx].sort);
+ enum pids_item item = Fieldstab[q->rc.sortindx].item;
+ if (item == PROCPS_PIDS_CMD && CHKw(q, Show_CMDLIN))
+ item = PROCPS_PIDS_CMDLINE;
+ else if (item == PROCPS_PIDS_TICS_ALL && CHKw(q, Show_CTIMES))
+ item = PROCPS_PIDS_TICS_ALL_C;
+ if (!(procps_pids_stacks_sort(Pids_ctx, q->ppt
+ , Pids_cnts->total, item, sORDER)))
+ error_exit(fmtmk(N_fmt(LIB_errorpid_fmt),__LINE__));
}
i = q->begtask;
/* the least likely scenario is also the most costly, so we'll try to avoid
checking some stuff with each iteration and check it just once... */
if (CHKw(q, Show_IDLEPS) && !q->usrseltyp)
- while (i < Frame_maxtask && lwin < wmax) {
- if (*task_show(q, q->ppt[i++]))
+ while (i < Pids_cnts->total && lwin < wmax) {
+ if (*task_show(q, i++))
++lwin;
}
else
- while (i < Frame_maxtask && lwin < wmax) {
+ while (i < Pids_cnts->total && lwin < wmax) {
if ((CHKw(q, Show_IDLEPS) || isBUSY(q->ppt[i]))
- && user_matched(q, q->ppt[i])
- && *task_show(q, q->ppt[i]))
+ && wins_usrselect(q, q->ppt[i])
+ && *task_show(q, i))
++lwin;
++i;
}
return lwin;
+ #undef sORDER
+ #undef sFIELD
#undef winMIN
#undef isBUSY
} // end: window_show
[ now that this is positioned after the call to summary_show(), ]
[ we no longer need or employ tg2(0, Msg_row) since all summary ]
[ lines end with a newline, and header lines begin with newline ] */
- if (VIZISw(w) && CHKw(w, View_SCROLL)) PUTT(Scroll_fmts, Frame_maxtask);
+ if (VIZISw(w) && CHKw(w, View_SCROLL)) PUTT(Scroll_fmts, Pids_cnts->total);
else putp(Cap_clr_eol);
if (!Rc.mode_altscr) {