/* SPDX-License-Identifier: LGPL-2.1-or-later */ #include "bpf-socket-bind.h" #include "bus-util.h" #include "dbus.h" #include "fileio-label.h" #include "fileio.h" #include "format-util.h" #include "parse-util.h" #include "restrict-ifaces.h" #include "serialize.h" #include "string-table.h" #include "unit-serialize.h" #include "user-util.h" static int serialize_cgroup_mask(FILE *f, const char *key, CGroupMask mask) { _cleanup_free_ char *s = NULL; int r; assert(f); assert(key); if (mask == 0) return 0; r = cg_mask_to_string(mask, &s); if (r < 0) return log_error_errno(r, "Failed to format cgroup mask: %m"); return serialize_item(f, key, s); } /* Make sure out values fit in the bitfield. */ assert_cc(_UNIT_MARKER_MAX <= sizeof(((Unit){}).markers) * 8); static int serialize_markers(FILE *f, unsigned markers) { assert(f); if (markers == 0) return 0; fputs("markers=", f); for (UnitMarker m = 0; m < _UNIT_MARKER_MAX; m++) if (FLAGS_SET(markers, 1u << m)) fputs(unit_marker_to_string(m), f); fputc('\n', f); return 0; } static int deserialize_markers(Unit *u, const char *value) { assert(u); assert(value); int r; for (const char *p = value;;) { _cleanup_free_ char *word = NULL; r = extract_first_word(&p, &word, NULL, 0); if (r <= 0) return r; UnitMarker m = unit_marker_from_string(word); if (m < 0) { log_unit_debug_errno(u, m, "Unknown unit marker \"%s\", ignoring.", word); continue; } u->markers |= 1u << m; } } static const char *const ip_accounting_metric_field[_CGROUP_IP_ACCOUNTING_METRIC_MAX] = { [CGROUP_IP_INGRESS_BYTES] = "ip-accounting-ingress-bytes", [CGROUP_IP_INGRESS_PACKETS] = "ip-accounting-ingress-packets", [CGROUP_IP_EGRESS_BYTES] = "ip-accounting-egress-bytes", [CGROUP_IP_EGRESS_PACKETS] = "ip-accounting-egress-packets", }; static const char *const io_accounting_metric_field_base[_CGROUP_IO_ACCOUNTING_METRIC_MAX] = { [CGROUP_IO_READ_BYTES] = "io-accounting-read-bytes-base", [CGROUP_IO_WRITE_BYTES] = "io-accounting-write-bytes-base", [CGROUP_IO_READ_OPERATIONS] = "io-accounting-read-operations-base", [CGROUP_IO_WRITE_OPERATIONS] = "io-accounting-write-operations-base", }; static const char *const io_accounting_metric_field_last[_CGROUP_IO_ACCOUNTING_METRIC_MAX] = { [CGROUP_IO_READ_BYTES] = "io-accounting-read-bytes-last", [CGROUP_IO_WRITE_BYTES] = "io-accounting-write-bytes-last", [CGROUP_IO_READ_OPERATIONS] = "io-accounting-read-operations-last", [CGROUP_IO_WRITE_OPERATIONS] = "io-accounting-write-operations-last", }; int unit_serialize(Unit *u, FILE *f, FDSet *fds, bool switching_root) { int r; assert(u); assert(f); assert(fds); if (switching_root && UNIT_VTABLE(u)->exclude_from_switch_root_serialization) { /* In the new root, paths for mounts and automounts will be different, so it doesn't make * much sense to serialize things. API file systems will be moved to the new root, but we * don't have mount units for those. */ log_unit_debug(u, "not serializing before switch-root"); return 0; } /* Start marker */ fputs(u->id, f); fputc('\n', f); assert(!!UNIT_VTABLE(u)->serialize == !!UNIT_VTABLE(u)->deserialize_item); if (UNIT_VTABLE(u)->serialize) { r = UNIT_VTABLE(u)->serialize(u, f, fds); if (r < 0) return r; } (void) serialize_dual_timestamp(f, "state-change-timestamp", &u->state_change_timestamp); (void) serialize_dual_timestamp(f, "inactive-exit-timestamp", &u->inactive_exit_timestamp); (void) serialize_dual_timestamp(f, "active-enter-timestamp", &u->active_enter_timestamp); (void) serialize_dual_timestamp(f, "active-exit-timestamp", &u->active_exit_timestamp); (void) serialize_dual_timestamp(f, "inactive-enter-timestamp", &u->inactive_enter_timestamp); (void) serialize_dual_timestamp(f, "condition-timestamp", &u->condition_timestamp); (void) serialize_dual_timestamp(f, "assert-timestamp", &u->assert_timestamp); if (dual_timestamp_is_set(&u->condition_timestamp)) (void) serialize_bool(f, "condition-result", u->condition_result); if (dual_timestamp_is_set(&u->assert_timestamp)) (void) serialize_bool(f, "assert-result", u->assert_result); (void) serialize_bool(f, "transient", u->transient); (void) serialize_bool(f, "in-audit", u->in_audit); (void) serialize_bool(f, "exported-invocation-id", u->exported_invocation_id); (void) serialize_bool(f, "exported-log-level-max", u->exported_log_level_max); (void) serialize_bool(f, "exported-log-extra-fields", u->exported_log_extra_fields); (void) serialize_bool(f, "exported-log-rate-limit-interval", u->exported_log_ratelimit_interval); (void) serialize_bool(f, "exported-log-rate-limit-burst", u->exported_log_ratelimit_burst); (void) serialize_item_format(f, "cpu-usage-base", "%" PRIu64, u->cpu_usage_base); if (u->cpu_usage_last != NSEC_INFINITY) (void) serialize_item_format(f, "cpu-usage-last", "%" PRIu64, u->cpu_usage_last); if (u->managed_oom_kill_last > 0) (void) serialize_item_format(f, "managed-oom-kill-last", "%" PRIu64, u->managed_oom_kill_last); if (u->oom_kill_last > 0) (void) serialize_item_format(f, "oom-kill-last", "%" PRIu64, u->oom_kill_last); for (CGroupIOAccountingMetric im = 0; im < _CGROUP_IO_ACCOUNTING_METRIC_MAX; im++) { (void) serialize_item_format(f, io_accounting_metric_field_base[im], "%" PRIu64, u->io_accounting_base[im]); if (u->io_accounting_last[im] != UINT64_MAX) (void) serialize_item_format(f, io_accounting_metric_field_last[im], "%" PRIu64, u->io_accounting_last[im]); } if (u->cgroup_path) (void) serialize_item(f, "cgroup", u->cgroup_path); (void) serialize_bool(f, "cgroup-realized", u->cgroup_realized); (void) serialize_cgroup_mask(f, "cgroup-realized-mask", u->cgroup_realized_mask); (void) serialize_cgroup_mask(f, "cgroup-enabled-mask", u->cgroup_enabled_mask); (void) serialize_cgroup_mask(f, "cgroup-invalidated-mask", u->cgroup_invalidated_mask); (void) bpf_serialize_socket_bind(u, f, fds); (void) bpf_program_serialize_attachment(f, fds, "ip-bpf-ingress-installed", u->ip_bpf_ingress_installed); (void) bpf_program_serialize_attachment(f, fds, "ip-bpf-egress-installed", u->ip_bpf_egress_installed); (void) bpf_program_serialize_attachment(f, fds, "bpf-device-control-installed", u->bpf_device_control_installed); (void) bpf_program_serialize_attachment_set(f, fds, "ip-bpf-custom-ingress-installed", u->ip_bpf_custom_ingress_installed); (void) bpf_program_serialize_attachment_set(f, fds, "ip-bpf-custom-egress-installed", u->ip_bpf_custom_egress_installed); (void) serialize_restrict_network_interfaces(u, f, fds); if (uid_is_valid(u->ref_uid)) (void) serialize_item_format(f, "ref-uid", UID_FMT, u->ref_uid); if (gid_is_valid(u->ref_gid)) (void) serialize_item_format(f, "ref-gid", GID_FMT, u->ref_gid); if (!sd_id128_is_null(u->invocation_id)) (void) serialize_item_format(f, "invocation-id", SD_ID128_FORMAT_STR, SD_ID128_FORMAT_VAL(u->invocation_id)); (void) serialize_item_format(f, "freezer-state", "%s", freezer_state_to_string(unit_freezer_state(u))); (void) serialize_markers(f, u->markers); bus_track_serialize(u->bus_track, f, "ref"); for (CGroupIPAccountingMetric m = 0; m < _CGROUP_IP_ACCOUNTING_METRIC_MAX; m++) { uint64_t v; r = unit_get_ip_accounting(u, m, &v); if (r >= 0) (void) serialize_item_format(f, ip_accounting_metric_field[m], "%" PRIu64, v); } if (!switching_root) { if (u->job) { fputs("job\n", f); job_serialize(u->job, f); } if (u->nop_job) { fputs("job\n", f); job_serialize(u->nop_job, f); } } /* End marker */ fputc('\n', f); return 0; } static int unit_deserialize_job(Unit *u, FILE *f) { _cleanup_(job_freep) Job *j = NULL; int r; assert(u); assert(f); j = job_new_raw(u); if (!j) return log_oom(); r = job_deserialize(j, f); if (r < 0) return r; r = job_install_deserialized(j); if (r < 0) return r; TAKE_PTR(j); return 0; } #define MATCH_DESERIALIZE(key, l, v, parse_func, target) \ ({ \ bool _deserialize_matched = streq(l, key); \ if (_deserialize_matched) { \ int _deserialize_r = parse_func(v); \ if (_deserialize_r < 0) \ log_unit_debug_errno(u, _deserialize_r, \ "Failed to parse \"%s=%s\", ignoring.", l, v); \ else \ target = _deserialize_r; \ }; \ _deserialize_matched; \ }) #define MATCH_DESERIALIZE_IMMEDIATE(key, l, v, parse_func, target) \ ({ \ bool _deserialize_matched = streq(l, key); \ if (_deserialize_matched) { \ int _deserialize_r = parse_func(v, &target); \ if (_deserialize_r < 0) \ log_unit_debug_errno(u, _deserialize_r, \ "Failed to parse \"%s=%s\", ignoring", l, v); \ }; \ _deserialize_matched; \ }) int unit_deserialize(Unit *u, FILE *f, FDSet *fds) { int r; assert(u); assert(f); assert(fds); for (;;) { _cleanup_free_ char *l = NULL; ssize_t m; size_t k; char *v; r = deserialize_read_line(f, &l); if (r < 0) return r; if (r == 0) /* eof or end marker */ break; k = strcspn(l, "="); if (l[k] == '=') { l[k] = 0; v = l+k+1; } else v = l+k; if (streq(l, "job")) { if (v[0] == '\0') { /* New-style serialized job */ r = unit_deserialize_job(u, f); if (r < 0) return r; } else /* Legacy for pre-44 */ log_unit_warning(u, "Update from too old systemd versions are unsupported, cannot deserialize job: %s", v); continue; } else if (streq(l, "state-change-timestamp")) { (void) deserialize_dual_timestamp(v, &u->state_change_timestamp); continue; } else if (streq(l, "inactive-exit-timestamp")) { (void) deserialize_dual_timestamp(v, &u->inactive_exit_timestamp); continue; } else if (streq(l, "active-enter-timestamp")) { (void) deserialize_dual_timestamp(v, &u->active_enter_timestamp); continue; } else if (streq(l, "active-exit-timestamp")) { (void) deserialize_dual_timestamp(v, &u->active_exit_timestamp); continue; } else if (streq(l, "inactive-enter-timestamp")) { (void) deserialize_dual_timestamp(v, &u->inactive_enter_timestamp); continue; } else if (streq(l, "condition-timestamp")) { (void) deserialize_dual_timestamp(v, &u->condition_timestamp); continue; } else if (streq(l, "assert-timestamp")) { (void) deserialize_dual_timestamp(v, &u->assert_timestamp); continue; } else if (MATCH_DESERIALIZE("condition-result", l, v, parse_boolean, u->condition_result)) continue; else if (MATCH_DESERIALIZE("assert-result", l, v, parse_boolean, u->assert_result)) continue; else if (MATCH_DESERIALIZE("transient", l, v, parse_boolean, u->transient)) continue; else if (MATCH_DESERIALIZE("in-audit", l, v, parse_boolean, u->in_audit)) continue; else if (MATCH_DESERIALIZE("exported-invocation-id", l, v, parse_boolean, u->exported_invocation_id)) continue; else if (MATCH_DESERIALIZE("exported-log-level-max", l, v, parse_boolean, u->exported_log_level_max)) continue; else if (MATCH_DESERIALIZE("exported-log-extra-fields", l, v, parse_boolean, u->exported_log_extra_fields)) continue; else if (MATCH_DESERIALIZE("exported-log-rate-limit-interval", l, v, parse_boolean, u->exported_log_ratelimit_interval)) continue; else if (MATCH_DESERIALIZE("exported-log-rate-limit-burst", l, v, parse_boolean, u->exported_log_ratelimit_burst)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("cpu-usage-base", l, v, safe_atou64, u->cpu_usage_base) || MATCH_DESERIALIZE_IMMEDIATE("cpuacct-usage-base", l, v, safe_atou64, u->cpu_usage_base)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("cpu-usage-last", l, v, safe_atou64, u->cpu_usage_last)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("managed-oom-kill-last", l, v, safe_atou64, u->managed_oom_kill_last)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("oom-kill-last", l, v, safe_atou64, u->oom_kill_last)) continue; else if (streq(l, "cgroup")) { r = unit_set_cgroup_path(u, v); if (r < 0) log_unit_debug_errno(u, r, "Failed to set cgroup path %s, ignoring: %m", v); (void) unit_watch_cgroup(u); (void) unit_watch_cgroup_memory(u); continue; } else if (MATCH_DESERIALIZE("cgroup-realized", l, v, parse_boolean, u->cgroup_realized)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("cgroup-realized-mask", l, v, cg_mask_from_string, u->cgroup_realized_mask)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("cgroup-enabled-mask", l, v, cg_mask_from_string, u->cgroup_enabled_mask)) continue; else if (MATCH_DESERIALIZE_IMMEDIATE("cgroup-invalidated-mask", l, v, cg_mask_from_string, u->cgroup_invalidated_mask)) continue; else if (STR_IN_SET(l, "ipv4-socket-bind-bpf-link-fd", "ipv6-socket-bind-bpf-link-fd")) { int fd; if ((fd = parse_fd(v)) < 0 || !fdset_contains(fds, fd)) log_unit_debug(u, "Failed to parse %s value: %s, ignoring.", l, v); else { if (fdset_remove(fds, fd) < 0) { log_unit_debug(u, "Failed to remove %s value=%d from fdset", l, fd); continue; } (void) bpf_socket_bind_add_initial_link_fd(u, fd); } continue; } else if (streq(l, "ip-bpf-ingress-installed")) { (void) bpf_program_deserialize_attachment(v, fds, &u->ip_bpf_ingress_installed); continue; } else if (streq(l, "ip-bpf-egress-installed")) { (void) bpf_program_deserialize_attachment(v, fds, &u->ip_bpf_egress_installed); continue; } else if (streq(l, "bpf-device-control-installed")) { (void) bpf_program_deserialize_attachment(v, fds, &u->bpf_device_control_installed); continue; } else if (streq(l, "ip-bpf-custom-ingress-installed")) { (void) bpf_program_deserialize_attachment_set(v, fds, &u->ip_bpf_custom_ingress_installed); continue; } else if (streq(l, "ip-bpf-custom-egress-installed")) { (void) bpf_program_deserialize_attachment_set(v, fds, &u->ip_bpf_custom_egress_installed); continue; } else if (streq(l, "restrict-ifaces-bpf-fd")) { int fd; if ((fd = parse_fd(v)) < 0 || !fdset_contains(fds, fd)) { log_unit_debug(u, "Failed to parse restrict-ifaces-bpf-fd value: %s", v); continue; } if (fdset_remove(fds, fd) < 0) { log_unit_debug(u, "Failed to remove restrict-ifaces-bpf-fd %d from fdset", fd); continue; } (void) restrict_network_interfaces_add_initial_link_fd(u, fd); continue; } else if (streq(l, "ref-uid")) { uid_t uid; r = parse_uid(v, &uid); if (r < 0) log_unit_debug(u, "Failed to parse \"%s=%s\", ignoring.", l, v); else unit_ref_uid_gid(u, uid, GID_INVALID); continue; } else if (streq(l, "ref-gid")) { gid_t gid; r = parse_gid(v, &gid); if (r < 0) log_unit_debug(u, "Failed to parse \"%s=%s\", ignoring.", l, v); else unit_ref_uid_gid(u, UID_INVALID, gid); continue; } else if (streq(l, "ref")) { r = strv_extend(&u->deserialized_refs, v); if (r < 0) return log_oom(); continue; } else if (streq(l, "invocation-id")) { sd_id128_t id; r = sd_id128_from_string(v, &id); if (r < 0) log_unit_debug(u, "Failed to parse \"%s=%s\", ignoring.", l, v); else { r = unit_set_invocation_id(u, id); if (r < 0) log_unit_warning_errno(u, r, "Failed to set invocation ID for unit: %m"); } continue; } else if (MATCH_DESERIALIZE("freezer-state", l, v, freezer_state_from_string, u->freezer_state)) continue; else if (streq(l, "markers")) { r = deserialize_markers(u, v); if (r < 0) log_unit_debug_errno(u, r, "Failed to deserialize \"%s=%s\", ignoring: %m", l, v); continue; } /* Check if this is an IP accounting metric serialization field */ m = string_table_lookup(ip_accounting_metric_field, ELEMENTSOF(ip_accounting_metric_field), l); if (m >= 0) { uint64_t c; r = safe_atou64(v, &c); if (r < 0) log_unit_debug(u, "Failed to parse IP accounting value %s, ignoring.", v); else u->ip_accounting_extra[m] = c; continue; } m = string_table_lookup(io_accounting_metric_field_base, ELEMENTSOF(io_accounting_metric_field_base), l); if (m >= 0) { uint64_t c; r = safe_atou64(v, &c); if (r < 0) log_unit_debug(u, "Failed to parse IO accounting base value %s, ignoring.", v); else u->io_accounting_base[m] = c; continue; } m = string_table_lookup(io_accounting_metric_field_last, ELEMENTSOF(io_accounting_metric_field_last), l); if (m >= 0) { uint64_t c; r = safe_atou64(v, &c); if (r < 0) log_unit_debug(u, "Failed to parse IO accounting last value %s, ignoring.", v); else u->io_accounting_last[m] = c; continue; } r = exec_shared_runtime_deserialize_compat(u, l, v, fds); if (r < 0) { log_unit_warning(u, "Failed to deserialize runtime parameter '%s', ignoring.", l); continue; } else if (r > 0) /* Returns positive if key was handled by the call */ continue; if (UNIT_VTABLE(u)->deserialize_item) { r = UNIT_VTABLE(u)->deserialize_item(u, l, v, fds); if (r < 0) log_unit_warning(u, "Failed to deserialize unit parameter '%s', ignoring.", l); } } /* Versions before 228 did not carry a state change timestamp. In this case, take the current * time. This is useful, so that timeouts based on this timestamp don't trigger too early, and is * in-line with the logic from before 228 where the base for timeouts was not persistent across * reboots. */ if (!dual_timestamp_is_set(&u->state_change_timestamp)) dual_timestamp_get(&u->state_change_timestamp); /* Let's make sure that everything that is deserialized also gets any potential new cgroup settings * applied after we are done. For that we invalidate anything already realized, so that we can * realize it again. */ if (u->cgroup_realized) { unit_invalidate_cgroup(u, _CGROUP_MASK_ALL); unit_invalidate_cgroup_bpf(u); } return 0; } int unit_deserialize_skip(FILE *f) { int r; assert(f); /* Skip serialized data for this unit. We don't know what it is. */ for (;;) { _cleanup_free_ char *line = NULL; char *l; r = read_line(f, LONG_LINE_MAX, &line); if (r < 0) return log_error_errno(r, "Failed to read serialization line: %m"); if (r == 0) return 0; l = strstrip(line); /* End marker */ if (isempty(l)) return 1; } } static void print_unit_dependency_mask(FILE *f, const char *kind, UnitDependencyMask mask, bool *space) { const struct { UnitDependencyMask mask; const char *name; } table[] = { { UNIT_DEPENDENCY_FILE, "file" }, { UNIT_DEPENDENCY_IMPLICIT, "implicit" }, { UNIT_DEPENDENCY_DEFAULT, "default" }, { UNIT_DEPENDENCY_UDEV, "udev" }, { UNIT_DEPENDENCY_PATH, "path" }, { UNIT_DEPENDENCY_MOUNT_FILE, "mount-file" }, { UNIT_DEPENDENCY_MOUNTINFO, "mountinfo" }, { UNIT_DEPENDENCY_PROC_SWAP, "proc-swap" }, { UNIT_DEPENDENCY_SLICE_PROPERTY, "slice-property" }, }; assert(f); assert(kind); assert(space); for (size_t i = 0; i < ELEMENTSOF(table); i++) { if (mask == 0) break; if (FLAGS_SET(mask, table[i].mask)) { if (*space) fputc(' ', f); else *space = true; fputs(kind, f); fputs("-", f); fputs(table[i].name, f); mask &= ~table[i].mask; } } assert(mask == 0); } void unit_dump(Unit *u, FILE *f, const char *prefix) { char *t; const char *prefix2; Unit *following; _cleanup_set_free_ Set *following_set = NULL; CGroupMask m; int r; assert(u); assert(u->type >= 0); prefix = strempty(prefix); prefix2 = strjoina(prefix, "\t"); fprintf(f, "%s-> Unit %s:\n", prefix, u->id); SET_FOREACH(t, u->aliases) fprintf(f, "%s\tAlias: %s\n", prefix, t); fprintf(f, "%s\tDescription: %s\n" "%s\tInstance: %s\n" "%s\tUnit Load State: %s\n" "%s\tUnit Active State: %s\n" "%s\tState Change Timestamp: %s\n" "%s\tInactive Exit Timestamp: %s\n" "%s\tActive Enter Timestamp: %s\n" "%s\tActive Exit Timestamp: %s\n" "%s\tInactive Enter Timestamp: %s\n" "%s\tMay GC: %s\n" "%s\tNeed Daemon Reload: %s\n" "%s\tTransient: %s\n" "%s\tPerpetual: %s\n" "%s\tGarbage Collection Mode: %s\n", prefix, unit_description(u), prefix, strna(u->instance), prefix, unit_load_state_to_string(u->load_state), prefix, unit_active_state_to_string(unit_active_state(u)), prefix, strna(FORMAT_TIMESTAMP(u->state_change_timestamp.realtime)), prefix, strna(FORMAT_TIMESTAMP(u->inactive_exit_timestamp.realtime)), prefix, strna(FORMAT_TIMESTAMP(u->active_enter_timestamp.realtime)), prefix, strna(FORMAT_TIMESTAMP(u->active_exit_timestamp.realtime)), prefix, strna(FORMAT_TIMESTAMP(u->inactive_enter_timestamp.realtime)), prefix, yes_no(unit_may_gc(u)), prefix, yes_no(unit_need_daemon_reload(u)), prefix, yes_no(u->transient), prefix, yes_no(u->perpetual), prefix, collect_mode_to_string(u->collect_mode)); if (u->markers != 0) { fprintf(f, "%s\tMarkers:", prefix); for (UnitMarker marker = 0; marker < _UNIT_MARKER_MAX; marker++) if (FLAGS_SET(u->markers, 1u << marker)) fprintf(f, " %s", unit_marker_to_string(marker)); fputs("\n", f); } if (UNIT_HAS_CGROUP_CONTEXT(u)) { fprintf(f, "%s\tSlice: %s\n" "%s\tCGroup: %s\n" "%s\tCGroup realized: %s\n", prefix, strna(unit_slice_name(u)), prefix, strna(u->cgroup_path), prefix, yes_no(u->cgroup_realized)); if (u->cgroup_realized_mask != 0) { _cleanup_free_ char *s = NULL; (void) cg_mask_to_string(u->cgroup_realized_mask, &s); fprintf(f, "%s\tCGroup realized mask: %s\n", prefix, strnull(s)); } if (u->cgroup_enabled_mask != 0) { _cleanup_free_ char *s = NULL; (void) cg_mask_to_string(u->cgroup_enabled_mask, &s); fprintf(f, "%s\tCGroup enabled mask: %s\n", prefix, strnull(s)); } m = unit_get_own_mask(u); if (m != 0) { _cleanup_free_ char *s = NULL; (void) cg_mask_to_string(m, &s); fprintf(f, "%s\tCGroup own mask: %s\n", prefix, strnull(s)); } m = unit_get_members_mask(u); if (m != 0) { _cleanup_free_ char *s = NULL; (void) cg_mask_to_string(m, &s); fprintf(f, "%s\tCGroup members mask: %s\n", prefix, strnull(s)); } m = unit_get_delegate_mask(u); if (m != 0) { _cleanup_free_ char *s = NULL; (void) cg_mask_to_string(m, &s); fprintf(f, "%s\tCGroup delegate mask: %s\n", prefix, strnull(s)); } } if (!sd_id128_is_null(u->invocation_id)) fprintf(f, "%s\tInvocation ID: " SD_ID128_FORMAT_STR "\n", prefix, SD_ID128_FORMAT_VAL(u->invocation_id)); STRV_FOREACH(j, u->documentation) fprintf(f, "%s\tDocumentation: %s\n", prefix, *j); if (u->access_selinux_context) fprintf(f, "%s\tAccess SELinux Context: %s\n", prefix, u->access_selinux_context); following = unit_following(u); if (following) fprintf(f, "%s\tFollowing: %s\n", prefix, following->id); r = unit_following_set(u, &following_set); if (r >= 0) { Unit *other; SET_FOREACH(other, following_set) fprintf(f, "%s\tFollowing Set Member: %s\n", prefix, other->id); } if (u->fragment_path) fprintf(f, "%s\tFragment Path: %s\n", prefix, u->fragment_path); if (u->source_path) fprintf(f, "%s\tSource Path: %s\n", prefix, u->source_path); STRV_FOREACH(j, u->dropin_paths) fprintf(f, "%s\tDropIn Path: %s\n", prefix, *j); if (u->failure_action != EMERGENCY_ACTION_NONE) fprintf(f, "%s\tFailure Action: %s\n", prefix, emergency_action_to_string(u->failure_action)); if (u->failure_action_exit_status >= 0) fprintf(f, "%s\tFailure Action Exit Status: %i\n", prefix, u->failure_action_exit_status); if (u->success_action != EMERGENCY_ACTION_NONE) fprintf(f, "%s\tSuccess Action: %s\n", prefix, emergency_action_to_string(u->success_action)); if (u->success_action_exit_status >= 0) fprintf(f, "%s\tSuccess Action Exit Status: %i\n", prefix, u->success_action_exit_status); if (u->job_timeout != USEC_INFINITY) fprintf(f, "%s\tJob Timeout: %s\n", prefix, FORMAT_TIMESPAN(u->job_timeout, 0)); if (u->job_timeout_action != EMERGENCY_ACTION_NONE) fprintf(f, "%s\tJob Timeout Action: %s\n", prefix, emergency_action_to_string(u->job_timeout_action)); if (u->job_timeout_reboot_arg) fprintf(f, "%s\tJob Timeout Reboot Argument: %s\n", prefix, u->job_timeout_reboot_arg); condition_dump_list(u->conditions, f, prefix, condition_type_to_string); condition_dump_list(u->asserts, f, prefix, assert_type_to_string); if (dual_timestamp_is_set(&u->condition_timestamp)) fprintf(f, "%s\tCondition Timestamp: %s\n" "%s\tCondition Result: %s\n", prefix, strna(FORMAT_TIMESTAMP(u->condition_timestamp.realtime)), prefix, yes_no(u->condition_result)); if (dual_timestamp_is_set(&u->assert_timestamp)) fprintf(f, "%s\tAssert Timestamp: %s\n" "%s\tAssert Result: %s\n", prefix, strna(FORMAT_TIMESTAMP(u->assert_timestamp.realtime)), prefix, yes_no(u->assert_result)); for (UnitDependency d = 0; d < _UNIT_DEPENDENCY_MAX; d++) { UnitDependencyInfo di; Unit *other; HASHMAP_FOREACH_KEY(di.data, other, unit_get_dependencies(u, d)) { bool space = false; fprintf(f, "%s\t%s: %s (", prefix, unit_dependency_to_string(d), other->id); print_unit_dependency_mask(f, "origin", di.origin_mask, &space); print_unit_dependency_mask(f, "destination", di.destination_mask, &space); fputs(")\n", f); } } if (!hashmap_isempty(u->requires_mounts_for)) { UnitDependencyInfo di; const char *path; HASHMAP_FOREACH_KEY(di.data, path, u->requires_mounts_for) { bool space = false; fprintf(f, "%s\tRequiresMountsFor: %s (", prefix, path); print_unit_dependency_mask(f, "origin", di.origin_mask, &space); print_unit_dependency_mask(f, "destination", di.destination_mask, &space); fputs(")\n", f); } } if (u->load_state == UNIT_LOADED) { fprintf(f, "%s\tStopWhenUnneeded: %s\n" "%s\tRefuseManualStart: %s\n" "%s\tRefuseManualStop: %s\n" "%s\tDefaultDependencies: %s\n" "%s\tSurviveFinalKillSignal: %s\n" "%s\tOnSuccessJobMode: %s\n" "%s\tOnFailureJobMode: %s\n" "%s\tIgnoreOnIsolate: %s\n", prefix, yes_no(u->stop_when_unneeded), prefix, yes_no(u->refuse_manual_start), prefix, yes_no(u->refuse_manual_stop), prefix, yes_no(u->default_dependencies), prefix, yes_no(u->survive_final_kill_signal), prefix, job_mode_to_string(u->on_success_job_mode), prefix, job_mode_to_string(u->on_failure_job_mode), prefix, yes_no(u->ignore_on_isolate)); if (UNIT_VTABLE(u)->dump) UNIT_VTABLE(u)->dump(u, f, prefix2); } else if (u->load_state == UNIT_MERGED) fprintf(f, "%s\tMerged into: %s\n", prefix, u->merged_into->id); else if (u->load_state == UNIT_ERROR) { errno = abs(u->load_error); fprintf(f, "%s\tLoad Error Code: %m\n", prefix); } for (const char *n = sd_bus_track_first(u->bus_track); n; n = sd_bus_track_next(u->bus_track)) fprintf(f, "%s\tBus Ref: %s\n", prefix, n); if (u->job) job_dump(u->job, f, prefix2); if (u->nop_job) job_dump(u->nop_job, f, prefix2); }