static int
ik_rec_update(struct btr_instance *tins, struct btr_record *rec,
daos_iov_t *key, daos_iov_t *val_iov)
{
struct umem_instance *umm = &tins->ti_umm;
struct ik_rec *irec;
char *val;
TMMID(struct ik_rec) irec_mmid;
irec_mmid = umem_id_u2t(rec->rec_mmid, struct ik_rec);
irec = umem_id2ptr_typed(umm, irec_mmid);
if (irec->ir_val_msize >= val_iov->iov_len) {
umem_tx_add(umm, irec->ir_val_mmid, irec->ir_val_msize);
} else {
umem_tx_add_mmid_typed(umm, irec_mmid);
umem_free(umm, irec->ir_val_mmid);
irec->ir_val_msize = val_iov->iov_len;
irec->ir_val_mmid = umem_alloc(umm, val_iov->iov_len);
D_ASSERT(!UMMID_IS_NULL(irec->ir_val_mmid));
}
val = umem_id2ptr(umm, irec->ir_val_mmid);
memcpy(val, val_iov->iov_buf, val_iov->iov_len);
irec->ir_val_size = val_iov->iov_len;
return 0;
}
void
rm_str(char *str)
{
size_t sz = strlen(str);
sz++;
umem_free(str, sz);
}
static void
smu_free(struct storage *s)
{
struct smu *smu;
CHECK_OBJ_NOTNULL(s, STORAGE_MAGIC);
smu = s->priv;
assert(smu->sz == smu->s.space);
Lck_Lock(&smu_mtx);
VSC_C_main->sma_nobj--;
VSC_C_main->sma_nbytes -= smu->sz;
VSC_C_main->sma_bfree += smu->sz;
Lck_Unlock(&smu_mtx);
umem_free(smu->s.ptr, smu->s.space);
umem_free(smu, sizeof *smu);
}
int main(int argc, char** argv){
ZVM_UMEM_INIT;
int c=0;
int i;
const int size = 1024*1024;
for (i=0; i < 100000; i++){
c+=size+i;
void* addr = umem_alloc(size+i, UMEM_NOFAIL);
if ( addr != NULL ){
printf("OK i=%d alloc size=%d, addr=%p\n", i, size+i, addr );
umem_free(addr, size+i);
}
else{
printf("FAIL i=%d alloc size=%d, addr=%p\n", i, size+i, addr );
}
}
/* write to default device (in our case it is stdout) */
printf("hello, world\n");
/* write to user log (stderr) */
fprintf(stderr, "hello, world\n");
return 0;
}
void
fmd_agent_close(fmd_agent_hdl_t *hdl)
{
(void) close(hdl->agent_devfd);
nvlist_free(hdl->agent_ioc_versions);
umem_free(hdl, sizeof (fmd_agent_hdl_t));
}
/*
* Open /dev/fm and return a handle. ver is the overall interface version.
*/
static fmd_agent_hdl_t *
fmd_agent_open_dev(int ver, int mode)
{
fmd_agent_hdl_t *hdl;
int fd, err;
nvlist_t *nvl;
if ((fd = open("/dev/fm", mode)) < 0)
return (NULL); /* errno is set for us */
if ((hdl = umem_alloc(sizeof (fmd_agent_hdl_t),
UMEM_DEFAULT)) == NULL) {
err = errno;
(void) close(fd);
errno = err;
return (NULL);
}
hdl->agent_devfd = fd;
hdl->agent_version = ver;
/*
* Get the individual interface versions.
*/
if ((err = fmd_agent_nvl_ioctl(hdl, FM_IOC_VERSIONS, ver, NULL, &nvl))
< 0) {
(void) close(fd);
umem_free(hdl, sizeof (fmd_agent_hdl_t));
errno = err;
return (NULL);
}
hdl->agent_ioc_versions = nvl;
return (hdl);
}
static int32_t
fma_cap_cpu_info(cpu_tbl_t *ci)
{
nvlist_t **cpus, *nvl;
uint_t ncpu, i;
fmd_agent_hdl_t *hdl;
char *ven;
int32_t family, model;
if ((hdl = fmd_agent_open(FMD_AGENT_VERSION)) == NULL)
return (-1);
if (fmd_agent_physcpu_info(hdl, &cpus, &ncpu) != 0) {
fmd_agent_close(hdl);
return (-1);
}
fmd_agent_close(hdl);
if (cpus == NULL)
return (-1);
/*
* There is no mixed CPU type on x86 systems, it's ok to
* just pick the first one
*/
nvl = cpus[0];
if (nvlist_lookup_string(nvl, FM_PHYSCPU_INFO_VENDOR_ID, &ven) != 0 ||
nvlist_lookup_int32(nvl, FM_PHYSCPU_INFO_FAMILY, &family) != 0 ||
nvlist_lookup_int32(nvl, FM_PHYSCPU_INFO_MODEL, &model) != 0) {
for (i = 0; i < ncpu; i++)
nvlist_free(cpus[i]);
umem_free(cpus, sizeof (nvlist_t *) * ncpu);
return (-1);
}
(void) snprintf(ci->vendor, X86_VENDOR_STRLEN, "%s", ven);
ci->family = family;
ci->model = model;
for (i = 0; i < ncpu; i++)
nvlist_free(cpus[i]);
umem_free(cpus, sizeof (nvlist_t *) * ncpu);
return (0);
}
static void
handle_comments(char *buf, int len)
{
if (cind >= 2)
return;
if (buf[0] != '#')
return;
if (ccmnt[cind] != NULL)
umem_free(ccmnt[cind], strlen(ccmnt[cind]) + 1);
ccmnt[cind] = mystrcpy(buf, len);
cind++;
}
void
taskq_destroy(taskq_t *tq)
{
int t;
int nthreads = tq->tq_nthreads;
taskq_wait(tq);
mxlock(&tq->tq_lock);
tq->tq_flags &= ~TASKQ_ACTIVE;
condbcast(&tq->tq_dispatch_cv);
while (tq->tq_nthreads != 0)
condwait(&tq->tq_wait_cv, &tq->tq_lock);
tq->tq_minalloc = 0;
while (tq->tq_nalloc != 0) {
assert(tq->tq_freelist != NULL);
task_free(tq, task_alloc(tq, UMEM_NOFAIL));
}
mxunlock(&tq->tq_lock);
for (t = 0; t < nthreads; t++)
pthread_join(tq->tq_threadlist[t], NULL);
umem_free(tq->tq_threadlist, nthreads * sizeof (pthread_t));
rwdestroy(&tq->tq_threadlock);
mxdestroy(&tq->tq_lock);
conddestroy(&tq->tq_dispatch_cv);
conddestroy(&tq->tq_wait_cv);
conddestroy(&tq->tq_maxalloc_cv);
umem_free(tq, sizeof (taskq_t));
}
void
zk_thread_exit(void)
{
kthread_t *kt = curthread;
ASSERT(pthread_equal(kt->t_tid, pthread_self()));
umem_free(kt, sizeof (kthread_t));
pthread_mutex_lock(&kthread_lock);
kthread_nr--;
pthread_mutex_unlock(&kthread_lock);
pthread_cond_broadcast(&kthread_cond);
pthread_exit((void *)TS_MAGIC);
}
static void
task_free(taskq_t *tq, taskq_ent_t *t)
{
if (tq->tq_nalloc <= tq->tq_minalloc) {
t->tqent_next = tq->tq_freelist;
tq->tq_freelist = t;
} else {
tq->tq_nalloc--;
mxunlock(&tq->tq_lock);
umem_free(t, sizeof (taskq_ent_t));
mxlock(&tq->tq_lock);
}
if (tq->tq_maxalloc_wait)
condsig(&tq->tq_maxalloc_cv);
}
static void
print_list(list_t *seg_list, char *fname, int options)
{
uint64_t lz_holes, bs = 0;
uint64_t hole_blks_seen = 0, data_blks_seen = 0;
seg_t *seg;
if (0 == bs)
if (zfs_get_hole_count(fname, &lz_holes, &bs) != 0) {
perror("zfs_get_hole_count");
exit(1);
}
while ((seg = list_remove_head(seg_list)) != NULL) {
if (options & PRINT_VERBOSE)
(void) fprintf(stdout, "%c %llu:%llu\n",
seg->seg_type == SEEK_HOLE ? 'h' : 'd',
seg->seg_offset, seg->seg_len);
if (seg->seg_type == SEEK_HOLE) {
hole_blks_seen += seg->seg_len / bs;
} else {
data_blks_seen += seg->seg_len / bs;
}
umem_free(seg, sizeof (seg_t));
}
/* Verify libzfs sees the same number of hole blocks found manually. */
if (lz_holes != hole_blks_seen) {
(void) fprintf(stderr, "Counted %llu holes, but libzfs found "
"%llu\n", hole_blks_seen, lz_holes);
exit(1);
}
if (options & PRINT_HOLE && options & PRINT_DATA) {
(void) fprintf(stdout, "datablks: %llu\n", data_blks_seen);
(void) fprintf(stdout, "holeblks: %llu\n", hole_blks_seen);
return;
}
if (options & PRINT_DATA)
(void) fprintf(stdout, "%llu\n", data_blks_seen);
if (options & PRINT_HOLE)
(void) fprintf(stdout, "%llu\n", hole_blks_seen);
}
static int
pool_active(void *unused, const char *name, uint64_t guid,
boolean_t *isactive)
{
zfs_cmd_t *zcp;
nvlist_t *innvl;
char *packed = NULL;
size_t size = 0;
int fd, ret;
/*
* Use ZFS_IOC_POOL_SYNC to confirm if a pool is active
*/
fd = open("/dev/zfs", O_RDWR);
if (fd < 0)
return (-1);
zcp = umem_zalloc(sizeof (zfs_cmd_t), UMEM_NOFAIL);
innvl = fnvlist_alloc();
fnvlist_add_boolean_value(innvl, "force", B_FALSE);
(void) strlcpy(zcp->zc_name, name, sizeof (zcp->zc_name));
packed = fnvlist_pack(innvl, &size);
zcp->zc_nvlist_src = (uint64_t)(uintptr_t)packed;
zcp->zc_nvlist_src_size = size;
ret = ioctl(fd, ZFS_IOC_POOL_SYNC, zcp);
fnvlist_pack_free(packed, size);
free((void *)(uintptr_t)zcp->zc_nvlist_dst);
nvlist_free(innvl);
umem_free(zcp, sizeof (zfs_cmd_t));
(void) close(fd);
*isactive = (ret == 0);
return (0);
}
static void
smu_trim(const struct storage *s, size_t size)
{
struct smu *smu;
void *p;
CHECK_OBJ_NOTNULL(s, STORAGE_MAGIC);
smu = s->priv;
assert(smu->sz == smu->s.space);
if ((p = umem_alloc(size, UMEM_DEFAULT)) != NULL) {
memcpy(p, smu->s.ptr, size);
umem_free(smu->s.ptr, smu->s.space);
Lck_Lock(&smu_mtx);
VSC_C_main->sma_nbytes -= (smu->sz - size);
VSC_C_main->sma_bfree += smu->sz - size;
smu->sz = size;
Lck_Unlock(&smu_mtx);
smu->s.ptr = p;
smu->s.space = size;
}
}
void
thread_fini(void)
{
kthread_t *kt = curthread;
ASSERT(pthread_equal(kt->t_tid, pthread_self()));
ASSERT3P(kt->t_func, ==, NULL);
umem_free(kt, sizeof (kthread_t));
/* Wait for all threads to exit via thread_exit() */
VERIFY3S(pthread_mutex_lock(&kthread_lock), ==, 0);
kthread_nr--; /* Main thread is exiting */
while (kthread_nr > 0)
VERIFY0(pthread_cond_wait(&kthread_cond, &kthread_lock));
ASSERT3S(kthread_nr, ==, 0);
VERIFY3S(pthread_mutex_unlock(&kthread_lock), ==, 0);
VERIFY3S(pthread_key_delete(kthread_key), ==, 0);
}
/*ARGSUSED*/
static int
create_chips(topo_mod_t *mod, tnode_t *pnode, const char *name,
topo_instance_t min, topo_instance_t max, void *arg, nvlist_t *auth,
int mc_offchip)
{
fmd_agent_hdl_t *hdl;
nvlist_t **cpus;
int nerr = 0;
uint_t i, ncpu;
if (strcmp(name, CHIP_NODE_NAME) != 0)
return (0);
if ((hdl = fmd_agent_open(FMD_AGENT_VERSION)) == NULL)
return (-1);
if (fmd_agent_physcpu_info(hdl, &cpus, &ncpu) != 0) {
whinge(mod, NULL, "create_chip: fmd_agent_physcpu_info "
"failed: %s\n", fmd_agent_errmsg(hdl));
fmd_agent_close(hdl);
return (-1);
}
fmd_agent_close(hdl);
for (i = 0; i < ncpu; i++) {
nerr -= create_chip(mod, pnode, min, max, cpus[i], auth,
mc_offchip);
nvlist_free(cpus[i]);
}
umem_free(cpus, sizeof (nvlist_t *) * ncpu);
if (nerr == 0) {
return (0);
} else {
(void) topo_mod_seterrno(mod, EMOD_PARTIAL_ENUM);
return (-1);
}
}
void
inj_free(void *buf, size_t sz)
{
umem_free(buf, sz);
}
int32_t fork() {
/* Time to... fork!
* I had spent a long time preparing for this!
* now I am done, it's time to start working on fork().
*/
int32_t i;
proc_t *newproc;
/* create a new process structure: */
newproc = kmalloc(sizeof(proc_t));
if (newproc == NULL)
return -1;
/* set parent */
newproc->parent = curproc;
/* initialize descriptors: */
newproc->plist.proc = newproc;
newproc->sched.proc = newproc;
newproc->irqd.proc = newproc;
newproc->semad.proc = newproc;
/* create memory: */
if (umem_init(&(newproc->umem))) {
kfree(newproc);
return -1; /* error. */
}
/* inherit parent's memory: */
if (umem_copy(&(curproc->umem), &(newproc->umem))) {
umem_free(&(newproc->umem));
kfree(newproc);
return -1; /* error. */
}
/* create a new kernel stack. */
newproc->kstack = (unsigned char *) kmalloc(KERNEL_STACK_SIZE);
if (newproc->kstack == NULL) {
umem_free(&(newproc->umem));
kfree(newproc);
return -1; /* error. */
}
initproc->phy_stack_bot = arch_vmpage_getAddr(NULL, newproc->kstack);
/* initialize kernel stack...
* this invokes page faults to allocate memory for
* the stack early.
*/
for (i = 0; i < KERNEL_STACK_SIZE; i++)
newproc->kstack[i] = 0;
/* copy context from parent's stack to child's stack: */
copy_context(newproc);
/* copy the set of file descriptors: */
for (i = 0; i < FD_MAX; i++) {
if (curproc->file[i] == NULL) {
newproc->file[i] = NULL;
} else {
curproc->file[i]->fcount++;
newproc->file[i] = curproc->file[i];
}
}
/* inherit the current working directory: */
curproc->cwd->fcount++;
newproc->cwd = curproc->cwd;
/* set pid: */
newproc->pid = ++last_pid;
/* inform the scheduler that this is a just-forked process: */
newproc->after_fork = 1;
/* initialize inbox */
newproc->inbox_lock = 0;
newproc->blocked_for_msg = 0;
linkedlist_init(&(newproc->inbox));
/* children */
newproc->blocked_for_child = 0;
/* not blocked */
newproc->blocked = 0;
newproc->lock_to_unlock = NULL;
/* exit status: */
newproc->terminated = 0;
newproc->status = 0;
/* add the new process to the list of processes: */
linkedlist_addlast((linkedlist*)&proclist, (linknode*)&(newproc->plist));
/* add to scheduler's queue: */
linkedlist_addlast((linkedlist*)&q_ready, (linknode*)&(newproc->sched));
/* call the scheduler */
scheduler();
/* return */
if (curproc == newproc) {
return 0;
} else {
return newproc->pid;
}
}
/*
* Ontario SBL event handler, subscribed to:
* PICLEVENT_SYSEVENT_DEVICE_ADDED
* PICLEVENT_SYSEVENT_DEVICE_REMOVED
*/
static void
piclsbl_handler(const char *ename, const void *earg, size_t size,
void *cookie)
{
char *devfs_path;
char hdd_location[PICL_PROPNAMELEN_MAX];
nvlist_t *nvlp = NULL;
pcp_msg_t send_msg;
pcp_msg_t recv_msg;
pcp_sbl_req_t *req_ptr = NULL;
pcp_sbl_resp_t *resp_ptr = NULL;
int status = -1;
int target;
disk_lookup_t lookup;
int channel_fd;
/*
* setup the request data to attach to the libpcp msg
*/
if ((req_ptr = (pcp_sbl_req_t *)umem_zalloc(sizeof (pcp_sbl_req_t),
UMEM_DEFAULT)) == NULL)
goto sbl_return;
/*
* This plugin serves to enable or disable the blue RAS
* 'ok-to-remove' LED that is on each of the 4 disks on the
* Ontario. We catch the event via the picl handler, and
* if the event is DEVICE_ADDED for one of our onboard disks,
* then we'll be turning off the LED. Otherwise, if the event
* is DEVICE_REMOVED, then we turn it on.
*/
if (strcmp(ename, PICLEVENT_SYSEVENT_DEVICE_ADDED) == 0)
req_ptr->sbl_action = PCP_SBL_DISABLE;
else if (strcmp(ename, PICLEVENT_SYSEVENT_DEVICE_REMOVED) == 0)
req_ptr->sbl_action = PCP_SBL_ENABLE;
else
goto sbl_return;
/*
* retrieve the device's physical path from the event payload
*/
if (nvlist_unpack((char *)earg, size, &nvlp, NULL))
goto sbl_return;
if (nvlist_lookup_string(nvlp, "devfs-path", &devfs_path))
goto sbl_return;
/*
* look for this disk in the picl tree, and if it's
* location indicates that it's one of our internal
* disks, then set sbl_id to incdicate which one.
* otherwise, return as it is not one of our disks.
*/
lookup.path = strdup(devfs_path);
lookup.disk = NULL;
lookup.result = DISK_NOT_FOUND;
/* first, find the disk */
status = ptree_walk_tree_by_class(root_node, "disk", (void *)&lookup,
cb_find_disk);
if (status != PICL_SUCCESS)
goto sbl_return;
if (lookup.result == DISK_FOUND) {
/* now, lookup it's location in the node */
status = ptree_get_propval_by_name(lookup.disk, "Location",
(void *)&hdd_location, PICL_PROPNAMELEN_MAX);
if (status != PICL_SUCCESS) {
syslog(LOG_ERR, "piclsbl: failed hdd discovery");
goto sbl_return;
}
}
if (strcmp(hdd_location, HDD0) == 0) {
req_ptr->sbl_id = PCP_SBL_HDD0;
target = 0;
} else if (strcmp(hdd_location, HDD1) == 0) {
req_ptr->sbl_id = PCP_SBL_HDD1;
target = 1;
} else if (strcmp(hdd_location, HDD2) == 0) {
req_ptr->sbl_id = PCP_SBL_HDD2;
target = 2;
} else if (strcmp(hdd_location, HDD3) == 0) {
req_ptr->sbl_id = PCP_SBL_HDD3;
target = 3;
} else {
/* this is not one of the onboard disks */
goto sbl_return;
}
/*
* check the onboard RAID configuration for this disk. if it is
* a member of a RAID and is not the RAID itself, ignore the event
*/
if (check_raid(target))
goto sbl_return;
/*
* we have the information we need, init the platform channel.
* the platform channel driver will only allow one connection
* at a time on this socket. on the offchance that more than
* one event comes in, we'll retry to initialize this connection
* up to 3 times
*/
if ((channel_fd = (*pcp_init_ptr)(LED_CHANNEL)) < 0) {
/* failed to init; wait and retry up to 3 times */
int s = PCPINIT_TIMEOUT;
int retries = 0;
while (++retries) {
(void) sleep(s);
if ((channel_fd = (*pcp_init_ptr)(LED_CHANNEL)) >= 0)
break;
else if (retries == 3) {
syslog(LOG_ERR, "piclsbl: ",
"SC channel initialization failed");
goto sbl_return;
}
/* continue */
}
}
/*
* populate the message for libpcp
*/
send_msg.msg_type = PCP_SBL_CONTROL;
send_msg.sub_type = NULL;
send_msg.msg_len = sizeof (pcp_sbl_req_t);
send_msg.msg_data = (uint8_t *)req_ptr;
/*
* send the request, receive the response
*/
if ((*pcp_send_recv_ptr)(channel_fd, &send_msg, &recv_msg,
PCPCOMM_TIMEOUT) < 0) {
/* we either timed out or erred; either way try again */
int s = PCPCOMM_TIMEOUT;
(void) sleep(s);
if ((*pcp_send_recv_ptr)(channel_fd, &send_msg, &recv_msg,
PCPCOMM_TIMEOUT) < 0) {
syslog(LOG_ERR, "piclsbl: communication failure");
goto sbl_return;
}
}
/*
* validate that this data was meant for us
*/
if (recv_msg.msg_type != PCP_SBL_CONTROL_R) {
syslog(LOG_ERR, "piclsbl: unbound packet received");
goto sbl_return;
}
/*
* verify that the LED action has taken place
*/
resp_ptr = (pcp_sbl_resp_t *)recv_msg.msg_data;
if (resp_ptr->status == PCP_SBL_ERROR) {
syslog(LOG_ERR, "piclsbl: OK2RM LED action error");
goto sbl_return;
}
/*
* ensure the LED action taken is the one requested
*/
if ((req_ptr->sbl_action == PCP_SBL_DISABLE) &&
(resp_ptr->sbl_state != SBL_STATE_OFF))
syslog(LOG_ERR, "piclsbl: OK2RM LED not OFF after disk "
"configuration");
else if ((req_ptr->sbl_action == PCP_SBL_ENABLE) &&
(resp_ptr->sbl_state != SBL_STATE_ON))
syslog(LOG_ERR, "piclsbl: OK2RM LED not ON after disk "
"unconfiguration");
else if (resp_ptr->sbl_state == SBL_STATE_UNKNOWN)
syslog(LOG_ERR, "piclsbl: OK2RM LED set to unknown state");
sbl_return:
(*pcp_close_ptr)(channel_fd);
if (req_ptr != NULL)
umem_free(req_ptr, sizeof (pcp_sbl_req_t));
if (resp_ptr != NULL)
free(resp_ptr);
if (nvlp != NULL)
nvlist_free(nvlp);
}
static void
freeentry(pkgentry_t *p)
{
umem_free(p->line, p->len);
umem_cache_free(ecache, p);
}
static void
cpu_free(void *data, size_t size)
{
umem_free(data, size);
}
/*
* Perform /dev/fm ioctl. The input and output data are represented by
* name-value lists (nvlists).
*/
int
fmd_agent_nvl_ioctl(fmd_agent_hdl_t *hdl, int cmd, uint32_t ver,
nvlist_t *innvl, nvlist_t **outnvlp)
{
fm_ioc_data_t fid;
int err = 0;
char *inbuf = NULL, *outbuf = NULL;
size_t insz = 0, outsz = 0;
if (innvl != NULL) {
if ((err = nvlist_size(innvl, &insz, NV_ENCODE_NATIVE)) != 0)
return (err);
if (insz > FM_IOC_MAXBUFSZ)
return (ENAMETOOLONG);
if ((inbuf = umem_alloc(insz, UMEM_DEFAULT)) == NULL)
return (errno);
if ((err = nvlist_pack(innvl, &inbuf, &insz,
NV_ENCODE_NATIVE, 0)) != 0) {
umem_free(inbuf, insz);
return (err);
}
}
if (outnvlp != NULL) {
outsz = FM_IOC_OUT_BUFSZ;
}
for (;;) {
if (outnvlp != NULL) {
outbuf = umem_alloc(outsz, UMEM_DEFAULT);
if (outbuf == NULL) {
err = errno;
break;
}
}
fid.fid_version = ver;
fid.fid_insz = insz;
fid.fid_inbuf = inbuf;
fid.fid_outsz = outsz;
fid.fid_outbuf = outbuf;
if (ioctl(hdl->agent_devfd, cmd, &fid) < 0) {
if (errno == ENAMETOOLONG && outsz != 0 &&
outsz < (FM_IOC_OUT_MAXBUFSZ / 2)) {
umem_free(outbuf, outsz);
outsz *= 2;
outbuf = umem_alloc(outsz, UMEM_DEFAULT);
if (outbuf == NULL) {
err = errno;
break;
}
} else {
err = errno;
break;
}
} else if (outnvlp != NULL) {
err = nvlist_unpack(fid.fid_outbuf, fid.fid_outsz,
outnvlp, 0);
break;
} else {
break;
}
}
if (inbuf != NULL)
umem_free(inbuf, insz);
if (outbuf != NULL)
umem_free(outbuf, outsz);
return (err);
}