diff --git a/lib/common/acl.c b/lib/common/acl.c index 2fe0345c03..33a4e0099e 100644 --- a/lib/common/acl.c +++ b/lib/common/acl.c @@ -1,860 +1,860 @@ /* * Copyright 2004-2023 the Pacemaker project contributors * * The version control history for this file may have further details. * * This source code is licensed under the GNU Lesser General Public License * version 2.1 or later (LGPLv2.1+) WITHOUT ANY WARRANTY. */ #include #include #include #include #include #include #include #include #include #include #include #include #include "crmcommon_private.h" typedef struct xml_acl_s { enum xml_private_flags mode; char *xpath; } xml_acl_t; static void free_acl(void *data) { if (data) { xml_acl_t *acl = data; free(acl->xpath); free(acl); } } void pcmk__free_acls(GList *acls) { g_list_free_full(acls, free_acl); } static GList * create_acl(const xmlNode *xml, GList *acls, enum xml_private_flags mode) { xml_acl_t *acl = NULL; const char *tag = crm_element_value(xml, XML_ACL_ATTR_TAG); const char *ref = crm_element_value(xml, XML_ACL_ATTR_REF); const char *xpath = crm_element_value(xml, XML_ACL_ATTR_XPATH); const char *attr = crm_element_value(xml, XML_ACL_ATTR_ATTRIBUTE); if (tag == NULL) { // @COMPAT rolling upgrades <=1.1.11 tag = crm_element_value(xml, XML_ACL_ATTR_TAGv1); } if (ref == NULL) { // @COMPAT rolling upgrades <=1.1.11 ref = crm_element_value(xml, XML_ACL_ATTR_REFv1); } if ((tag == NULL) && (ref == NULL) && (xpath == NULL)) { // Schema should prevent this, but to be safe ... crm_trace("Ignoring ACL <%s> element without selection criteria", crm_element_name(xml)); return NULL; } acl = calloc(1, sizeof (xml_acl_t)); CRM_ASSERT(acl != NULL); acl->mode = mode; if (xpath) { acl->xpath = strdup(xpath); CRM_ASSERT(acl->xpath != NULL); crm_trace("Unpacked ACL <%s> element using xpath: %s", crm_element_name(xml), acl->xpath); } else { GString *buf = g_string_sized_new(128); if ((ref != NULL) && (attr != NULL)) { // NOTE: schema currently does not allow this pcmk__g_strcat(buf, "//", pcmk__s(tag, "*"), "[@" XML_ATTR_ID "='", ref, "' and @", attr, "]", NULL); } else if (ref != NULL) { pcmk__g_strcat(buf, "//", pcmk__s(tag, "*"), "[@" XML_ATTR_ID "='", ref, "']", NULL); } else if (attr != NULL) { pcmk__g_strcat(buf, "//", pcmk__s(tag, "*"), "[@", attr, "]", NULL); } else { pcmk__g_strcat(buf, "//", pcmk__s(tag, "*"), NULL); } acl->xpath = strdup((const char *) buf->str); CRM_ASSERT(acl->xpath != NULL); g_string_free(buf, TRUE); crm_trace("Unpacked ACL <%s> element as xpath: %s", crm_element_name(xml), acl->xpath); } return g_list_append(acls, acl); } /*! * \internal * \brief Unpack a user, group, or role subtree of the ACLs section * * \param[in] acl_top XML of entire ACLs section * \param[in] acl_entry XML of ACL element being unpacked * \param[in,out] acls List of ACLs unpacked so far * * \return New head of (possibly modified) acls * * \note This function is recursive */ static GList * parse_acl_entry(const xmlNode *acl_top, const xmlNode *acl_entry, GList *acls) { xmlNode *child = NULL; for (child = pcmk__xe_first_child(acl_entry); child; child = pcmk__xe_next(child)) { const char *tag = crm_element_name(child); const char *kind = crm_element_value(child, XML_ACL_ATTR_KIND); if (strcmp(XML_ACL_TAG_PERMISSION, tag) == 0){ CRM_ASSERT(kind != NULL); crm_trace("Unpacking ACL <%s> element of kind '%s'", tag, kind); tag = kind; } else { crm_trace("Unpacking ACL <%s> element", tag); } if (strcmp(XML_ACL_TAG_ROLE_REF, tag) == 0 || strcmp(XML_ACL_TAG_ROLE_REFv1, tag) == 0) { const char *ref_role = crm_element_value(child, XML_ATTR_ID); if (ref_role) { xmlNode *role = NULL; for (role = pcmk__xe_first_child(acl_top); role; role = pcmk__xe_next(role)) { if (!strcmp(XML_ACL_TAG_ROLE, (const char *) role->name)) { const char *role_id = crm_element_value(role, XML_ATTR_ID); if (role_id && strcmp(ref_role, role_id) == 0) { crm_trace("Unpacking referenced role '%s' in ACL <%s> element", role_id, crm_element_name(acl_entry)); acls = parse_acl_entry(acl_top, role, acls); break; } } } } } else if (strcmp(XML_ACL_TAG_READ, tag) == 0) { acls = create_acl(child, acls, pcmk__xf_acl_read); } else if (strcmp(XML_ACL_TAG_WRITE, tag) == 0) { acls = create_acl(child, acls, pcmk__xf_acl_write); } else if (strcmp(XML_ACL_TAG_DENY, tag) == 0) { acls = create_acl(child, acls, pcmk__xf_acl_deny); } else { crm_warn("Ignoring unknown ACL %s '%s'", (kind? "kind" : "element"), tag); } } return acls; } /* */ static const char * acl_to_text(enum xml_private_flags flags) { if (pcmk_is_set(flags, pcmk__xf_acl_deny)) { return "deny"; } else if (pcmk_any_flags_set(flags, pcmk__xf_acl_write|pcmk__xf_acl_create)) { return "read/write"; } else if (pcmk_is_set(flags, pcmk__xf_acl_read)) { return "read"; } return "none"; } void pcmk__apply_acl(xmlNode *xml) { GList *aIter = NULL; xml_doc_private_t *docpriv = xml->doc->_private; xml_node_private_t *nodepriv; xmlXPathObjectPtr xpathObj = NULL; if (!xml_acl_enabled(xml)) { crm_trace("Skipping ACLs for user '%s' because not enabled for this XML", docpriv->user); return; } for (aIter = docpriv->acls; aIter != NULL; aIter = aIter->next) { int max = 0, lpc = 0; xml_acl_t *acl = aIter->data; xpathObj = xpath_search(xml, acl->xpath); max = numXpathResults(xpathObj); for (lpc = 0; lpc < max; lpc++) { xmlNode *match = getXpathResult(xpathObj, lpc); nodepriv = match->_private; pcmk__set_xml_flags(nodepriv, acl->mode); // Build a GString only if tracing is enabled pcmk__if_tracing( { GString *path = pcmk__element_xpath(match); crm_trace("Applying %s ACL to %s matched by %s", acl_to_text(acl->mode), path->str, acl->xpath); g_string_free(path, TRUE); }, {} ); } crm_trace("Applied %s ACL %s (%d match%s)", acl_to_text(acl->mode), acl->xpath, max, ((max == 1)? "" : "es")); freeXpathObject(xpathObj); } } /*! * \internal * \brief Unpack ACLs for a given user into the * metadata of the target XML tree * * Taking the description of ACLs from the source XML tree and * marking up the target XML tree with access information for the * given user by tacking it onto the relevant nodes * * \param[in] source XML with ACL definitions * \param[in,out] target XML that ACLs will be applied to * \param[in] user Username whose ACLs need to be unpacked */ void pcmk__unpack_acl(xmlNode *source, xmlNode *target, const char *user) { xml_doc_private_t *docpriv = NULL; if ((target == NULL) || (target->doc == NULL) || (target->doc->_private == NULL)) { return; } docpriv = target->doc->_private; if (!pcmk_acl_required(user)) { crm_trace("Not unpacking ACLs because not required for user '%s'", user); } else if (docpriv->acls == NULL) { xmlNode *acls = get_xpath_object("//" XML_CIB_TAG_ACLS, source, LOG_NEVER); pcmk__str_update(&docpriv->user, user); if (acls) { xmlNode *child = NULL; for (child = pcmk__xe_first_child(acls); child; child = pcmk__xe_next(child)) { const char *tag = crm_element_name(child); if (!strcmp(tag, XML_ACL_TAG_USER) || !strcmp(tag, XML_ACL_TAG_USERv1)) { const char *id = crm_element_value(child, XML_ATTR_NAME); if (id == NULL) { id = crm_element_value(child, XML_ATTR_ID); } if (id && strcmp(id, user) == 0) { crm_debug("Unpacking ACLs for user '%s'", id); docpriv->acls = parse_acl_entry(acls, child, docpriv->acls); } } else if (!strcmp(tag, XML_ACL_TAG_GROUP)) { const char *id = crm_element_value(child, XML_ATTR_NAME); if (id == NULL) { id = crm_element_value(child, XML_ATTR_ID); } if (id && pcmk__is_user_in_group(user,id)) { crm_debug("Unpacking ACLs for group '%s'", id); docpriv->acls = parse_acl_entry(acls, child, docpriv->acls); } } } } } } /*! * \internal * \brief Copy source to target and set xf_acl_enabled flag in target * * \param[in] acl_source XML with ACL definitions * \param[in,out] target XML that ACLs will be applied to * \param[in] user Username whose ACLs need to be set */ void pcmk__enable_acl(xmlNode *acl_source, xmlNode *target, const char *user) { pcmk__unpack_acl(acl_source, target, user); pcmk__set_xml_doc_flag(target, pcmk__xf_acl_enabled); pcmk__apply_acl(target); } static inline bool test_acl_mode(enum xml_private_flags allowed, enum xml_private_flags requested) { if (pcmk_is_set(allowed, pcmk__xf_acl_deny)) { return false; } else if (pcmk_all_flags_set(allowed, requested)) { return true; } else if (pcmk_is_set(requested, pcmk__xf_acl_read) && pcmk_is_set(allowed, pcmk__xf_acl_write)) { return true; } else if (pcmk_is_set(requested, pcmk__xf_acl_create) && pcmk_any_flags_set(allowed, pcmk__xf_acl_write|pcmk__xf_created)) { return true; } return false; } /*! * \internal * \brief Rid XML tree of all unreadable nodes and node properties * * \param[in,out] xml Root XML node to be purged of attributes * * \return true if this node or any of its children are readable * if false is returned, xml will be freed * * \note This function is recursive */ static bool purge_xml_attributes(xmlNode *xml) { xmlNode *child = NULL; xmlAttr *xIter = NULL; bool readable_children = false; xml_node_private_t *nodepriv = xml->_private; if (test_acl_mode(nodepriv->flags, pcmk__xf_acl_read)) { crm_trace("%s[@" XML_ATTR_ID "=%s] is readable", crm_element_name(xml), ID(xml)); return true; } xIter = xml->properties; while (xIter != NULL) { xmlAttr *tmp = xIter; const char *prop_name = (const char *)xIter->name; xIter = xIter->next; if (strcmp(prop_name, XML_ATTR_ID) == 0) { continue; } xmlUnsetProp(xml, tmp->name); } child = pcmk__xml_first_child(xml); while ( child != NULL ) { xmlNode *tmp = child; child = pcmk__xml_next(child); readable_children |= purge_xml_attributes(tmp); } if (!readable_children) { free_xml(xml); /* Nothing readable under here, purge completely */ } return readable_children; } /*! * \brief Copy ACL-allowed portions of specified XML * * \param[in] user Username whose ACLs should be used * \param[in] acl_source XML containing ACLs * \param[in] xml XML to be copied * \param[out] result Copy of XML portions readable via ACLs * * \return true if xml exists and ACLs are required for user, false otherwise * \note If this returns true, caller should use \p result rather than \p xml */ bool xml_acl_filtered_copy(const char *user, xmlNode *acl_source, xmlNode *xml, xmlNode **result) { GList *aIter = NULL; xmlNode *target = NULL; xml_doc_private_t *docpriv = NULL; *result = NULL; if ((xml == NULL) || !pcmk_acl_required(user)) { crm_trace("Not filtering XML because ACLs not required for user '%s'", user); return false; } crm_trace("Filtering XML copy using user '%s' ACLs", user); target = copy_xml(xml); if (target == NULL) { return true; } pcmk__enable_acl(acl_source, target, user); docpriv = target->doc->_private; for(aIter = docpriv->acls; aIter != NULL && target; aIter = aIter->next) { int max = 0; xml_acl_t *acl = aIter->data; if (acl->mode != pcmk__xf_acl_deny) { /* Nothing to do */ } else if (acl->xpath) { int lpc = 0; xmlXPathObjectPtr xpathObj = xpath_search(target, acl->xpath); max = numXpathResults(xpathObj); for(lpc = 0; lpc < max; lpc++) { xmlNode *match = getXpathResult(xpathObj, lpc); if (!purge_xml_attributes(match) && (match == target)) { crm_trace("ACLs deny user '%s' access to entire XML document", user); freeXpathObject(xpathObj); return true; } } crm_trace("ACLs deny user '%s' access to %s (%d %s)", user, acl->xpath, max, pcmk__plural_alt(max, "match", "matches")); freeXpathObject(xpathObj); } } if (!purge_xml_attributes(target)) { crm_trace("ACLs deny user '%s' access to entire XML document", user); return true; } if (docpriv->acls) { g_list_free_full(docpriv->acls, free_acl); docpriv->acls = NULL; } else { crm_trace("User '%s' without ACLs denied access to entire XML document", user); free_xml(target); target = NULL; } if (target) { *result = target; } return true; } /*! * \internal * \brief Check whether creation of an XML element is implicitly allowed * * Check whether XML is a "scaffolding" element whose creation is implicitly * allowed regardless of ACLs (that is, it is not in the ACL section and has * no attributes other than "id"). * * \param[in] xml XML element to check * * \return true if XML element is implicitly allowed, false otherwise */ static bool implicitly_allowed(const xmlNode *xml) { GString *path = NULL; for (xmlAttr *prop = xml->properties; prop != NULL; prop = prop->next) { if (strcmp((const char *) prop->name, XML_ATTR_ID) != 0) { return false; } } path = pcmk__element_xpath(xml); CRM_ASSERT(path != NULL); if (strstr((const char *) path->str, "/" XML_CIB_TAG_ACLS "/") != NULL) { g_string_free(path, TRUE); return false; } g_string_free(path, TRUE); return true; } #define display_id(xml) (ID(xml)? ID(xml) : "") /*! * \internal * \brief Drop XML nodes created in violation of ACLs * - * Given an XML element, free all of its descendent nodes created in violation + * Given an XML element, free all of its descendant nodes created in violation * of ACLs, with the exception of allowing "scaffolding" elements (i.e. those * that aren't in the ACL section and don't have any attributes other than * "id"). * * \param[in,out] xml XML to check * \param[in] check_top Whether to apply checks to argument itself * (if true, xml might get freed) * * \note This function is recursive */ void pcmk__apply_creation_acl(xmlNode *xml, bool check_top) { xml_node_private_t *nodepriv = xml->_private; if (pcmk_is_set(nodepriv->flags, pcmk__xf_created)) { if (implicitly_allowed(xml)) { crm_trace("Creation of <%s> scaffolding with id=\"%s\"" " is implicitly allowed", crm_element_name(xml), display_id(xml)); } else if (pcmk__check_acl(xml, NULL, pcmk__xf_acl_write)) { crm_trace("ACLs allow creation of <%s> with id=\"%s\"", crm_element_name(xml), display_id(xml)); } else if (check_top) { crm_trace("ACLs disallow creation of <%s> with id=\"%s\"", crm_element_name(xml), display_id(xml)); pcmk_free_xml_subtree(xml); return; } else { crm_notice("ACLs would disallow creation of %s<%s> with id=\"%s\"", ((xml == xmlDocGetRootElement(xml->doc))? "root element " : ""), crm_element_name(xml), display_id(xml)); } } for (xmlNode *cIter = pcmk__xml_first_child(xml); cIter != NULL; ) { xmlNode *child = cIter; cIter = pcmk__xml_next(cIter); /* In case it is free'd */ pcmk__apply_creation_acl(child, true); } } /*! * \brief Check whether or not an XML node is ACL-denied * * \param[in] xml node to check * * \return true if XML node exists and is ACL-denied, false otherwise */ bool xml_acl_denied(const xmlNode *xml) { if (xml && xml->doc && xml->doc->_private){ xml_doc_private_t *docpriv = xml->doc->_private; return pcmk_is_set(docpriv->flags, pcmk__xf_acl_denied); } return false; } void xml_acl_disable(xmlNode *xml) { if (xml_acl_enabled(xml)) { xml_doc_private_t *docpriv = xml->doc->_private; /* Catch anything that was created but shouldn't have been */ pcmk__apply_acl(xml); pcmk__apply_creation_acl(xml, false); pcmk__clear_xml_flags(docpriv, pcmk__xf_acl_enabled); } } /*! * \brief Check whether or not an XML node is ACL-enabled * * \param[in] xml node to check * * \return true if XML node exists and is ACL-enabled, false otherwise */ bool xml_acl_enabled(const xmlNode *xml) { if (xml && xml->doc && xml->doc->_private){ xml_doc_private_t *docpriv = xml->doc->_private; return pcmk_is_set(docpriv->flags, pcmk__xf_acl_enabled); } return false; } bool pcmk__check_acl(xmlNode *xml, const char *name, enum xml_private_flags mode) { CRM_ASSERT(xml); CRM_ASSERT(xml->doc); CRM_ASSERT(xml->doc->_private); if (pcmk__tracking_xml_changes(xml, false) && xml_acl_enabled(xml)) { xmlNode *parent = xml; xml_doc_private_t *docpriv = xml->doc->_private; GString *xpath = NULL; if (docpriv->acls == NULL) { pcmk__set_xml_doc_flag(xml, pcmk__xf_acl_denied); pcmk__if_tracing({}, return false); xpath = pcmk__element_xpath(xml); if (name != NULL) { pcmk__g_strcat(xpath, "[@", name, "]", NULL); } qb_log_from_external_source(__func__, __FILE__, "User '%s' without ACLs denied %s " "access to %s", LOG_TRACE, __LINE__, 0, docpriv->user, acl_to_text(mode), (const char *) xpath->str); g_string_free(xpath, TRUE); return false; } /* Walk the tree upwards looking for xml_acl_* flags * - Creating an attribute requires write permissions for the node * - Creating a child requires write permissions for the parent */ if (name) { xmlAttr *attr = xmlHasProp(xml, (pcmkXmlStr) name); if (attr && mode == pcmk__xf_acl_create) { mode = pcmk__xf_acl_write; } } while (parent && parent->_private) { xml_node_private_t *nodepriv = parent->_private; if (test_acl_mode(nodepriv->flags, mode)) { return true; } else if (pcmk_is_set(nodepriv->flags, pcmk__xf_acl_deny)) { pcmk__set_xml_doc_flag(xml, pcmk__xf_acl_denied); pcmk__if_tracing({}, return false); xpath = pcmk__element_xpath(xml); if (name != NULL) { pcmk__g_strcat(xpath, "[@", name, "]", NULL); } qb_log_from_external_source(__func__, __FILE__, "%sACL denies user '%s' %s access " "to %s", LOG_TRACE, __LINE__, 0, (parent != xml)? "Parent ": "", docpriv->user, acl_to_text(mode), (const char *) xpath->str); g_string_free(xpath, TRUE); return false; } parent = parent->parent; } pcmk__set_xml_doc_flag(xml, pcmk__xf_acl_denied); pcmk__if_tracing({}, return false); xpath = pcmk__element_xpath(xml); if (name != NULL) { pcmk__g_strcat(xpath, "[@", name, "]", NULL); } qb_log_from_external_source(__func__, __FILE__, "Default ACL denies user '%s' %s access to " "%s", LOG_TRACE, __LINE__, 0, docpriv->user, acl_to_text(mode), (const char *) xpath->str); g_string_free(xpath, TRUE); return false; } return true; } /*! * \brief Check whether ACLs are required for a given user * * \param[in] User name to check * * \return true if the user requires ACLs, false otherwise */ bool pcmk_acl_required(const char *user) { if (pcmk__str_empty(user)) { crm_trace("ACLs not required because no user set"); return false; } else if (!strcmp(user, CRM_DAEMON_USER) || !strcmp(user, "root")) { crm_trace("ACLs not required for privileged user %s", user); return false; } crm_trace("ACLs required for %s", user); return true; } char * pcmk__uid2username(uid_t uid) { char *result = NULL; struct passwd *pwent = getpwuid(uid); if (pwent == NULL) { crm_perror(LOG_INFO, "Cannot get user details for user ID %d", uid); return NULL; } pcmk__str_update(&result, pwent->pw_name); return result; } /*! * \internal * \brief Set the ACL user field properly on an XML request * * Multiple user names are potentially involved in an XML request: the effective * user of the current process; the user name known from an IPC client * connection; and the user name obtained from the request itself, whether by * the current standard XML attribute name or an older legacy attribute name. * This function chooses the appropriate one that should be used for ACLs, sets * it in the request (using the standard attribute name, and the legacy name if * given), and returns it. * * \param[in,out] request XML request to update * \param[in] field Alternate name for ACL user name XML attribute * \param[in] peer_user User name as known from IPC connection * * \return ACL user name actually used */ const char * pcmk__update_acl_user(xmlNode *request, const char *field, const char *peer_user) { static const char *effective_user = NULL; const char *requested_user = NULL; const char *user = NULL; if (effective_user == NULL) { effective_user = pcmk__uid2username(geteuid()); if (effective_user == NULL) { effective_user = strdup("#unprivileged"); CRM_CHECK(effective_user != NULL, return NULL); crm_err("Unable to determine effective user, assuming unprivileged for ACLs"); } } requested_user = crm_element_value(request, XML_ACL_TAG_USER); if (requested_user == NULL) { /* @COMPAT rolling upgrades <=1.1.11 * * field is checked for backward compatibility with older versions that * did not use XML_ACL_TAG_USER. */ requested_user = crm_element_value(request, field); } if (!pcmk__is_privileged(effective_user)) { /* We're not running as a privileged user, set or overwrite any existing * value for $XML_ACL_TAG_USER */ user = effective_user; } else if (peer_user == NULL && requested_user == NULL) { /* No user known or requested, use 'effective_user' and make sure one is * set for the request */ user = effective_user; } else if (peer_user == NULL) { /* No user known, trusting 'requested_user' */ user = requested_user; } else if (!pcmk__is_privileged(peer_user)) { /* The peer is not a privileged user, set or overwrite any existing * value for $XML_ACL_TAG_USER */ user = peer_user; } else if (requested_user == NULL) { /* Even if we're privileged, make sure there is always a value set */ user = peer_user; } else { /* Legal delegation to 'requested_user' */ user = requested_user; } // This requires pointer comparison, not string comparison if (user != crm_element_value(request, XML_ACL_TAG_USER)) { crm_xml_add(request, XML_ACL_TAG_USER, user); } if (field != NULL && user != crm_element_value(request, field)) { crm_xml_add(request, field, user); } return requested_user; } diff --git a/lib/pacemaker/libpacemaker_private.h b/lib/pacemaker/libpacemaker_private.h index 7792dc39b3..1b9bacfd62 100644 --- a/lib/pacemaker/libpacemaker_private.h +++ b/lib/pacemaker/libpacemaker_private.h @@ -1,944 +1,944 @@ /* * Copyright 2021-2023 the Pacemaker project contributors * * The version control history for this file may have further details. * * This source code is licensed under the GNU Lesser General Public License * version 2.1 or later (LGPLv2.1+) WITHOUT ANY WARRANTY. */ #ifndef PCMK__LIBPACEMAKER_PRIVATE__H # define PCMK__LIBPACEMAKER_PRIVATE__H /* This header is for the sole use of libpacemaker, so that functions can be * declared with G_GNUC_INTERNAL for efficiency. */ #include // pe_action_t, pe_node_t, pe_working_set_t // Flags to modify the behavior of pcmk__add_colocated_node_scores() enum pcmk__coloc_select { // With no other flags, apply all "with this" colocations pcmk__coloc_select_default = 0, // Apply "this with" colocations instead of "with this" colocations pcmk__coloc_select_this_with = (1 << 0), // Apply only colocations with non-negative scores pcmk__coloc_select_nonnegative = (1 << 1), // Apply only colocations with at least one matching node pcmk__coloc_select_active = (1 << 2), }; // Flags the update_ordered_actions() method can return enum pcmk__updated { pcmk__updated_none = 0, // Nothing changed pcmk__updated_first = (1 << 0), // First action was updated pcmk__updated_then = (1 << 1), // Then action was updated }; #define pcmk__set_updated_flags(au_flags, action, flags_to_set) do { \ au_flags = pcmk__set_flags_as(__func__, __LINE__, \ LOG_TRACE, "Action update", \ (action)->uuid, au_flags, \ (flags_to_set), #flags_to_set); \ } while (0) #define pcmk__clear_updated_flags(au_flags, action, flags_to_clear) do { \ au_flags = pcmk__clear_flags_as(__func__, __LINE__, \ LOG_TRACE, "Action update", \ (action)->uuid, au_flags, \ (flags_to_clear), #flags_to_clear); \ } while (0) // Resource allocation methods struct resource_alloc_functions_s { /*! * \internal * \brief Assign a resource to a node * * \param[in,out] rsc Resource to assign to a node * \param[in] prefer Node to prefer, if all else is equal * * \return Node that \p rsc is assigned to, if assigned entirely to one node */ pe_node_t *(*assign)(pe_resource_t *rsc, const pe_node_t *prefer); /*! * \internal * \brief Create all actions needed for a given resource * * \param[in,out] rsc Resource to create actions for */ void (*create_actions)(pe_resource_t *rsc); /*! * \internal * \brief Schedule any probes needed for a resource on a node * * \param[in,out] rsc Resource to create probe for * \param[in,out] node Node to create probe on * * \return true if any probe was created, otherwise false */ bool (*create_probe)(pe_resource_t *rsc, pe_node_t *node); /*! * \internal * \brief Create implicit constraints needed for a resource * * \param[in,out] rsc Resource to create implicit constraints for */ void (*internal_constraints)(pe_resource_t *rsc); /*! * \internal * \brief Apply a colocation's score to node weights or resource priority * * Given a colocation constraint, apply its score to the dependent's * allowed node weights (if we are still placing resources) or priority (if * we are choosing promotable clone instance roles). * * \param[in,out] dependent Dependent resource in colocation * \param[in] primary Primary resource in colocation * \param[in] colocation Colocation constraint to apply * \param[in] for_dependent true if called on behalf of dependent */ void (*apply_coloc_score) (pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool for_dependent); /*! * \internal * \brief Create list of all resources in colocations with a given resource * * Given a resource, create a list of all resources involved in mandatory * colocations with it, whether directly or indirectly via chained colocations. * * \param[in] rsc Resource to add to colocated list * \param[in] orig_rsc Resource originally requested * \param[in,out] colocated_rscs Existing list * * \return List of given resource and all resources involved in colocations * * \note This function is recursive; top-level callers should pass NULL as * \p colocated_rscs and \p orig_rsc, and the desired resource as * \p rsc. The recursive calls will use other values. */ GList *(*colocated_resources)(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *colocated_rscs); /*! * \internal * \brief Add colocations affecting a resource as primary to a list * * \param[in] rsc Resource whose colocations should be added - * \param[in] orig_rsc Affected resource (\p rsc or a descendent) + * \param[in] orig_rsc Affected resource (\p rsc or a descendant) * \param[in,out] list List of colocations to add to * * \note All arguments should be non-NULL. * \note The pcmk__with_this_colocations() wrapper should usually be used * instead of using this method directly. */ void (*with_this_colocations)(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); /*! * \internal * \brief Add colocations affecting a resource as dependent to a list * * \param[in] rsc Resource whose colocations should be added - * \param[in] orig_rsc Affected resource (\p rsc or a descendent) + * \param[in] orig_rsc Affected resource (\p rsc or a descendant) * \param[in,out] list List of colocations to add to * * \note All arguments should be non-NULL. * \note The pcmk__this_with_colocations() wrapper should usually be used * instead of using this method directly. */ void (*this_with_colocations)(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); /*! * \internal * \brief Apply a location constraint to a resource's allowed node scores * * \param[in,out] rsc Resource to apply constraint to * \param[in,out] location Location constraint to apply */ void (*apply_location)(pe_resource_t *rsc, pe__location_t *location); /*! * \internal * \brief Return action flags for a given resource action * * \param[in,out] action Action to get flags for * \param[in] node If not NULL, limit effects to this node * * \return Flags appropriate to \p action on \p node * \note For primitives, this will be the same as action->flags regardless * of node. For collective resources, the flags can differ due to * multiple instances possibly being involved. */ enum pe_action_flags (*action_flags)(pe_action_t *action, const pe_node_t *node); /*! * \internal * \brief Update two actions according to an ordering between them * * Given information about an ordering of two actions, update the actions' * flags (and runnable_before members if appropriate) as appropriate for the * ordering. Effects may cascade to other orderings involving the actions as * well. * * \param[in,out] first 'First' action in an ordering * \param[in,out] then 'Then' action in an ordering * \param[in] node If not NULL, limit scope of ordering to this * node (only used when interleaving instances) * \param[in] flags Action flags for \p first for ordering purposes * \param[in] filter Action flags to limit scope of certain updates * (may include pe_action_optional to affect only * mandatory actions, and pe_action_runnable to * affect only runnable actions) * \param[in] type Group of enum pe_ordering flags to apply * \param[in,out] data_set Cluster working set * * \return Group of enum pcmk__updated flags indicating what was updated */ uint32_t (*update_ordered_actions)(pe_action_t *first, pe_action_t *then, const pe_node_t *node, uint32_t flags, uint32_t filter, uint32_t type, pe_working_set_t *data_set); void (*output_actions)(pe_resource_t *rsc); /*! * \internal * \brief Add a resource's actions to the transition graph * * \param[in,out] rsc Resource whose actions should be added */ void (*add_actions_to_graph)(pe_resource_t *rsc); /*! * \internal * \brief Add meta-attributes relevant to transition graph actions to XML * * If a given resource supports variant-specific meta-attributes that are * needed for transition graph actions, add them to a given XML element. * * \param[in] rsc Resource whose meta-attributes should be added * \param[in,out] xml Transition graph action attributes XML to add to */ void (*add_graph_meta)(const pe_resource_t *rsc, xmlNode *xml); /*! * \internal * \brief Add a resource's utilization to a table of utilization values * * This function is used when summing the utilization of a resource and all * resources colocated with it, to determine whether a node has sufficient * capacity. Given a resource and a table of utilization values, it will add * the resource's utilization to the existing values, if the resource has * not yet been allocated to a node. * * \param[in] rsc Resource with utilization to add * \param[in] orig_rsc Resource being allocated (for logging only) * \param[in] all_rscs List of all resources that will be summed * \param[in,out] utilization Table of utilization values to add to */ void (*add_utilization)(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *all_rscs, GHashTable *utilization); /*! * \internal * \brief Apply a shutdown lock for a resource, if appropriate * * \param[in,out] rsc Resource to check for shutdown lock */ void (*shutdown_lock)(pe_resource_t *rsc); }; // Actions (pcmk_sched_actions.c) G_GNUC_INTERNAL void pcmk__update_action_for_orderings(pe_action_t *action, pe_working_set_t *data_set); G_GNUC_INTERNAL uint32_t pcmk__update_ordered_actions(pe_action_t *first, pe_action_t *then, const pe_node_t *node, uint32_t flags, uint32_t filter, uint32_t type, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__log_action(const char *pre_text, const pe_action_t *action, bool details); G_GNUC_INTERNAL pe_action_t *pcmk__new_cancel_action(pe_resource_t *rsc, const char *name, guint interval_ms, const pe_node_t *node); G_GNUC_INTERNAL pe_action_t *pcmk__new_shutdown_action(pe_node_t *node); G_GNUC_INTERNAL bool pcmk__action_locks_rsc_to_node(const pe_action_t *action); G_GNUC_INTERNAL void pcmk__deduplicate_action_inputs(pe_action_t *action); G_GNUC_INTERNAL void pcmk__output_actions(pe_working_set_t *data_set); G_GNUC_INTERNAL bool pcmk__check_action_config(pe_resource_t *rsc, pe_node_t *node, const xmlNode *xml_op); G_GNUC_INTERNAL void pcmk__handle_rsc_config_changes(pe_working_set_t *data_set); // Recurring actions (pcmk_sched_recurring.c) G_GNUC_INTERNAL void pcmk__create_recurring_actions(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__schedule_cancel(pe_resource_t *rsc, const char *call_id, const char *task, guint interval_ms, const pe_node_t *node, const char *reason); G_GNUC_INTERNAL void pcmk__reschedule_recurring(pe_resource_t *rsc, const char *task, guint interval_ms, pe_node_t *node); G_GNUC_INTERNAL bool pcmk__action_is_recurring(const pe_action_t *action); // Producing transition graphs (pcmk_graph_producer.c) G_GNUC_INTERNAL bool pcmk__graph_has_loop(const pe_action_t *init_action, const pe_action_t *action, pe_action_wrapper_t *input); G_GNUC_INTERNAL void pcmk__add_rsc_actions_to_graph(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__create_graph(pe_working_set_t *data_set); // Fencing (pcmk_sched_fencing.c) G_GNUC_INTERNAL void pcmk__order_vs_fence(pe_action_t *stonith_op, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__order_vs_unfence(const pe_resource_t *rsc, pe_node_t *node, pe_action_t *action, enum pe_ordering order); G_GNUC_INTERNAL void pcmk__fence_guest(pe_node_t *node); G_GNUC_INTERNAL bool pcmk__node_unfenced(const pe_node_t *node); G_GNUC_INTERNAL void pcmk__order_restart_vs_unfence(gpointer data, gpointer user_data); // Injected scheduler inputs (pcmk_sched_injections.c) void pcmk__inject_scheduler_input(pe_working_set_t *data_set, cib_t *cib, const pcmk_injections_t *injections); // Constraints of any type (pcmk_sched_constraints.c) G_GNUC_INTERNAL pe_resource_t *pcmk__find_constraint_resource(GList *rsc_list, const char *id); G_GNUC_INTERNAL xmlNode *pcmk__expand_tags_in_sets(xmlNode *xml_obj, const pe_working_set_t *data_set); G_GNUC_INTERNAL bool pcmk__valid_resource_or_tag(const pe_working_set_t *data_set, const char *id, pe_resource_t **rsc, pe_tag_t **tag); G_GNUC_INTERNAL bool pcmk__tag_to_set(xmlNode *xml_obj, xmlNode **rsc_set, const char *attr, bool convert_rsc, const pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__create_internal_constraints(pe_working_set_t *data_set); // Location constraints G_GNUC_INTERNAL void pcmk__unpack_location(xmlNode *xml_obj, pe_working_set_t *data_set); G_GNUC_INTERNAL pe__location_t *pcmk__new_location(const char *id, pe_resource_t *rsc, int node_weight, const char *discover_mode, pe_node_t *foo_node, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__apply_locations(pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__apply_location(pe_resource_t *rsc, pe__location_t *constraint); // Colocation constraints (pcmk_sched_colocation.c) enum pcmk__coloc_affects { pcmk__coloc_affects_nothing = 0, pcmk__coloc_affects_location, pcmk__coloc_affects_role, }; G_GNUC_INTERNAL enum pcmk__coloc_affects pcmk__colocation_affects(const pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool preview); G_GNUC_INTERNAL void pcmk__apply_coloc_to_weights(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation); G_GNUC_INTERNAL void pcmk__apply_coloc_to_priority(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation); G_GNUC_INTERNAL void pcmk__add_colocated_node_scores(pe_resource_t *rsc, const char *log_id, GHashTable **nodes, const char *attr, float factor, uint32_t flags); G_GNUC_INTERNAL void pcmk__unpack_colocation(xmlNode *xml_obj, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__add_this_with(GList **list, const pcmk__colocation_t *colocation); G_GNUC_INTERNAL void pcmk__add_this_with_list(GList **list, GList *addition); G_GNUC_INTERNAL void pcmk__add_with_this(GList **list, const pcmk__colocation_t *colocation); G_GNUC_INTERNAL void pcmk__add_with_this_list(GList **list, GList *addition); G_GNUC_INTERNAL void pcmk__new_colocation(const char *id, const char *node_attr, int score, pe_resource_t *dependent, pe_resource_t *primary, const char *dependent_role, const char *primary_role, bool influence, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__block_colocation_dependents(pe_action_t *action, pe_working_set_t *data_set); /*! * \internal * \brief Check whether colocation's dependent preferences should be considered * * \param[in] colocation Colocation constraint * \param[in] rsc Primary instance (normally this will be * colocation->primary, which NULL will be treated as, * but for clones or bundles with multiple instances * this can be a particular instance) * * \return true if colocation influence should be effective, otherwise false */ static inline bool pcmk__colocation_has_influence(const pcmk__colocation_t *colocation, const pe_resource_t *rsc) { if (rsc == NULL) { rsc = colocation->primary; } /* A bundle replica colocates its remote connection with its container, * using a finite score so that the container can run on Pacemaker Remote * nodes. * * Moving a connection is lightweight and does not interrupt the service, * while moving a container is heavyweight and does interrupt the service, * so don't move a clean, active container based solely on the preferences * of its connection. * * This also avoids problematic scenarios where two containers want to * perpetually swap places. */ if (pcmk_is_set(colocation->dependent->flags, pe_rsc_allow_remote_remotes) && !pcmk_is_set(rsc->flags, pe_rsc_failed) && pcmk__list_of_1(rsc->running_on)) { return false; } /* The dependent in a colocation influences the primary's location * if the influence option is true or the primary is not yet active. */ return colocation->influence || (rsc->running_on == NULL); } // Ordering constraints (pcmk_sched_ordering.c) G_GNUC_INTERNAL void pcmk__new_ordering(pe_resource_t *first_rsc, char *first_task, pe_action_t *first_action, pe_resource_t *then_rsc, char *then_task, pe_action_t *then_action, uint32_t flags, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__unpack_ordering(xmlNode *xml_obj, pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__disable_invalid_orderings(pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__order_stops_before_shutdown(pe_node_t *node, pe_action_t *shutdown_op); G_GNUC_INTERNAL void pcmk__apply_orderings(pe_working_set_t *data_set); G_GNUC_INTERNAL void pcmk__order_after_each(pe_action_t *after, GList *list); /*! * \internal * \brief Create a new ordering between two resource actions * * \param[in,out] first_rsc Resource for 'first' action * \param[in,out] first_task Action key for 'first' action * \param[in] then_rsc Resource for 'then' action * \param[in,out] then_task Action key for 'then' action * \param[in] flags Bitmask of enum pe_ordering flags */ #define pcmk__order_resource_actions(first_rsc, first_task, \ then_rsc, then_task, flags) \ pcmk__new_ordering((first_rsc), \ pcmk__op_key((first_rsc)->id, (first_task), 0), \ NULL, \ (then_rsc), \ pcmk__op_key((then_rsc)->id, (then_task), 0), \ NULL, (flags), (first_rsc)->cluster) #define pcmk__order_starts(rsc1, rsc2, flags) \ pcmk__order_resource_actions((rsc1), CRMD_ACTION_START, \ (rsc2), CRMD_ACTION_START, (flags)) #define pcmk__order_stops(rsc1, rsc2, flags) \ pcmk__order_resource_actions((rsc1), CRMD_ACTION_STOP, \ (rsc2), CRMD_ACTION_STOP, (flags)) // Ticket constraints (pcmk_sched_tickets.c) G_GNUC_INTERNAL void pcmk__unpack_rsc_ticket(xmlNode *xml_obj, pe_working_set_t *data_set); // Promotable clone resources (pcmk_sched_promotable.c) G_GNUC_INTERNAL void pcmk__add_promotion_scores(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__require_promotion_tickets(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__set_instance_roles(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__create_promotable_actions(pe_resource_t *clone); G_GNUC_INTERNAL void pcmk__promotable_restart_ordering(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__order_promotable_instances(pe_resource_t *clone); G_GNUC_INTERNAL void pcmk__update_dependent_with_promotable(const pe_resource_t *primary, pe_resource_t *dependent, const pcmk__colocation_t *colocation); G_GNUC_INTERNAL void pcmk__update_promotable_dependent_priority(const pe_resource_t *primary, pe_resource_t *dependent, const pcmk__colocation_t *colocation); // Pacemaker Remote nodes (pcmk_sched_remote.c) G_GNUC_INTERNAL bool pcmk__is_failed_remote_node(const pe_node_t *node); G_GNUC_INTERNAL void pcmk__order_remote_connection_actions(pe_working_set_t *data_set); G_GNUC_INTERNAL bool pcmk__rsc_corresponds_to_guest(const pe_resource_t *rsc, const pe_node_t *node); G_GNUC_INTERNAL pe_node_t *pcmk__connection_host_for_action(const pe_action_t *action); G_GNUC_INTERNAL void pcmk__substitute_remote_addr(pe_resource_t *rsc, GHashTable *params); G_GNUC_INTERNAL void pcmk__add_bundle_meta_to_xml(xmlNode *args_xml, const pe_action_t *action); // Primitives (pcmk_sched_primitive.c) G_GNUC_INTERNAL pe_node_t *pcmk__primitive_assign(pe_resource_t *rsc, const pe_node_t *prefer); G_GNUC_INTERNAL void pcmk__primitive_create_actions(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__primitive_internal_constraints(pe_resource_t *rsc); G_GNUC_INTERNAL enum pe_action_flags pcmk__primitive_action_flags(pe_action_t *action, const pe_node_t *node); G_GNUC_INTERNAL void pcmk__primitive_apply_coloc_score(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool for_dependent); G_GNUC_INTERNAL void pcmk__with_primitive_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__primitive_with_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__schedule_cleanup(pe_resource_t *rsc, const pe_node_t *node, bool optional); G_GNUC_INTERNAL void pcmk__primitive_add_graph_meta(const pe_resource_t *rsc, xmlNode *xml); G_GNUC_INTERNAL void pcmk__primitive_add_utilization(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *all_rscs, GHashTable *utilization); G_GNUC_INTERNAL void pcmk__primitive_shutdown_lock(pe_resource_t *rsc); // Groups (pcmk_sched_group.c) G_GNUC_INTERNAL pe_node_t *pcmk__group_assign(pe_resource_t *rsc, const pe_node_t *prefer); G_GNUC_INTERNAL void pcmk__group_create_actions(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__group_internal_constraints(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__group_apply_coloc_score(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool for_dependent); G_GNUC_INTERNAL void pcmk__with_group_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__group_with_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__group_apply_location(pe_resource_t *rsc, pe__location_t *location); G_GNUC_INTERNAL enum pe_action_flags pcmk__group_action_flags(pe_action_t *action, const pe_node_t *node); G_GNUC_INTERNAL uint32_t pcmk__group_update_ordered_actions(pe_action_t *first, pe_action_t *then, const pe_node_t *node, uint32_t flags, uint32_t filter, uint32_t type, pe_working_set_t *data_set); G_GNUC_INTERNAL GList *pcmk__group_colocated_resources(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *colocated_rscs); G_GNUC_INTERNAL void pcmk__group_add_utilization(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *all_rscs, GHashTable *utilization); G_GNUC_INTERNAL void pcmk__group_shutdown_lock(pe_resource_t *rsc); // Clones (pcmk_sched_clone.c) G_GNUC_INTERNAL void pcmk__clone_apply_coloc_score(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool for_dependent); G_GNUC_INTERNAL void pcmk__with_clone_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__clone_with_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); // Bundles (pcmk_sched_bundle.c) G_GNUC_INTERNAL const pe_resource_t *pcmk__get_rsc_in_container(const pe_resource_t *instance); G_GNUC_INTERNAL void pcmk__bundle_apply_coloc_score(pe_resource_t *dependent, const pe_resource_t *primary, const pcmk__colocation_t *colocation, bool for_dependent); G_GNUC_INTERNAL void pcmk__with_bundle_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__bundle_with_colocations(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList **list); G_GNUC_INTERNAL void pcmk__output_bundle_actions(pe_resource_t *rsc); // Clone instances or bundle replica containers (pcmk_sched_instances.c) G_GNUC_INTERNAL void pcmk__assign_instances(pe_resource_t *collective, GList *instances, int max_total, int max_per_node); G_GNUC_INTERNAL void pcmk__create_instance_actions(pe_resource_t *rsc, GList *instances, notify_data_t **start_notify, notify_data_t **stop_notify); G_GNUC_INTERNAL bool pcmk__instance_matches(const pe_resource_t *instance, const pe_node_t *node, enum rsc_role_e role, bool current); G_GNUC_INTERNAL pe_resource_t *pcmk__find_compatible_instance(const pe_resource_t *match_rsc, const pe_resource_t *rsc, enum rsc_role_e role, bool current); G_GNUC_INTERNAL uint32_t pcmk__instance_update_ordered_actions(pe_action_t *first, pe_action_t *then, const pe_node_t *node, uint32_t flags, uint32_t filter, uint32_t type, pe_working_set_t *data_set); G_GNUC_INTERNAL enum pe_action_flags pcmk__collective_action_flags(pe_action_t *action, const GList *instances, const pe_node_t *node); G_GNUC_INTERNAL void pcmk__add_collective_constraints(GList **list, const pe_resource_t *instance, const pe_resource_t *collective, bool with_this); // Injections (pcmk_injections.c) G_GNUC_INTERNAL xmlNode *pcmk__inject_node(cib_t *cib_conn, const char *node, const char *uuid); G_GNUC_INTERNAL xmlNode *pcmk__inject_node_state_change(cib_t *cib_conn, const char *node, bool up); G_GNUC_INTERNAL xmlNode *pcmk__inject_resource_history(pcmk__output_t *out, xmlNode *cib_node, const char *resource, const char *lrm_name, const char *rclass, const char *rtype, const char *rprovider); G_GNUC_INTERNAL void pcmk__inject_failcount(pcmk__output_t *out, xmlNode *cib_node, const char *resource, const char *task, guint interval_ms, int rc); G_GNUC_INTERNAL xmlNode *pcmk__inject_action_result(xmlNode *cib_resource, lrmd_event_data_t *op, int target_rc); // Nodes (pcmk_sched_nodes.c) G_GNUC_INTERNAL bool pcmk__node_available(const pe_node_t *node, bool consider_score, bool consider_guest); G_GNUC_INTERNAL bool pcmk__any_node_available(GHashTable *nodes); G_GNUC_INTERNAL GHashTable *pcmk__copy_node_table(GHashTable *nodes); G_GNUC_INTERNAL GList *pcmk__sort_nodes(GList *nodes, pe_node_t *active_node); G_GNUC_INTERNAL void pcmk__apply_node_health(pe_working_set_t *data_set); G_GNUC_INTERNAL pe_node_t *pcmk__top_allowed_node(const pe_resource_t *rsc, const pe_node_t *node); // Functions applying to more than one variant (pcmk_sched_resource.c) G_GNUC_INTERNAL void pcmk__set_allocation_methods(pe_working_set_t *data_set); G_GNUC_INTERNAL bool pcmk__rsc_agent_changed(pe_resource_t *rsc, pe_node_t *node, const xmlNode *rsc_entry, bool active_on_node); G_GNUC_INTERNAL GList *pcmk__rscs_matching_id(const char *id, const pe_working_set_t *data_set); G_GNUC_INTERNAL GList *pcmk__colocated_resources(const pe_resource_t *rsc, const pe_resource_t *orig_rsc, GList *colocated_rscs); G_GNUC_INTERNAL void pcmk__noop_add_graph_meta(const pe_resource_t *rsc, xmlNode *xml); G_GNUC_INTERNAL void pcmk__output_resource_actions(pe_resource_t *rsc); G_GNUC_INTERNAL bool pcmk__finalize_assignment(pe_resource_t *rsc, pe_node_t *chosen, bool force); G_GNUC_INTERNAL bool pcmk__assign_resource(pe_resource_t *rsc, pe_node_t *node, bool force); G_GNUC_INTERNAL void pcmk__unassign_resource(pe_resource_t *rsc); G_GNUC_INTERNAL bool pcmk__threshold_reached(pe_resource_t *rsc, const pe_node_t *node, pe_resource_t **failed); G_GNUC_INTERNAL void pcmk__sort_resources(pe_working_set_t *data_set); G_GNUC_INTERNAL gint pcmk__cmp_instance(gconstpointer a, gconstpointer b); G_GNUC_INTERNAL gint pcmk__cmp_instance_number(gconstpointer a, gconstpointer b); // Functions related to probes (pcmk_sched_probes.c) G_GNUC_INTERNAL bool pcmk__probe_rsc_on_node(pe_resource_t *rsc, pe_node_t *node); G_GNUC_INTERNAL void pcmk__order_probes(pe_working_set_t *data_set); G_GNUC_INTERNAL bool pcmk__probe_resource_list(GList *rscs, pe_node_t *node); G_GNUC_INTERNAL void pcmk__schedule_probes(pe_working_set_t *data_set); // Functions related to live migration (pcmk_sched_migration.c) void pcmk__create_migration_actions(pe_resource_t *rsc, const pe_node_t *current); void pcmk__abort_dangling_migration(void *data, void *user_data); bool pcmk__rsc_can_migrate(const pe_resource_t *rsc, const pe_node_t *current); void pcmk__order_migration_equivalents(pe__ordering_t *order); // Functions related to node utilization (pcmk_sched_utilization.c) G_GNUC_INTERNAL int pcmk__compare_node_capacities(const pe_node_t *node1, const pe_node_t *node2); G_GNUC_INTERNAL void pcmk__consume_node_capacity(GHashTable *current_utilization, const pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__release_node_capacity(GHashTable *current_utilization, const pe_resource_t *rsc); G_GNUC_INTERNAL const pe_node_t *pcmk__ban_insufficient_capacity(pe_resource_t *rsc); G_GNUC_INTERNAL void pcmk__create_utilization_constraints(pe_resource_t *rsc, const GList *allowed_nodes); G_GNUC_INTERNAL void pcmk__show_node_capacities(const char *desc, pe_working_set_t *data_set); #endif // PCMK__LIBPACEMAKER_PRIVATE__H diff --git a/lib/pacemaker/pcmk_sched_constraints.c b/lib/pacemaker/pcmk_sched_constraints.c index f0218a1cc1..bae6827b31 100644 --- a/lib/pacemaker/pcmk_sched_constraints.c +++ b/lib/pacemaker/pcmk_sched_constraints.c @@ -1,421 +1,421 @@ /* * Copyright 2004-2023 the Pacemaker project contributors * * The version control history for this file may have further details. * * This source code is licensed under the GNU General Public License version 2 * or later (GPLv2+) WITHOUT ANY WARRANTY. */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include "libpacemaker_private.h" static bool evaluate_lifetime(xmlNode *lifetime, pe_working_set_t *data_set) { bool result = FALSE; crm_time_t *next_change = crm_time_new_undefined(); result = pe_evaluate_rules(lifetime, NULL, data_set->now, next_change); if (crm_time_is_defined(next_change)) { time_t recheck = (time_t) crm_time_get_seconds_since_epoch(next_change); pe__update_recheck_time(recheck, data_set); } crm_time_free(next_change); return result; } /*! * \internal * \brief Unpack constraints from XML * * Given a cluster working set, unpack all constraints from its input XML into * data structures. * * \param[in,out] data_set Cluster working set */ void pcmk__unpack_constraints(pe_working_set_t *data_set) { xmlNode *xml_constraints = pcmk_find_cib_element(data_set->input, XML_CIB_TAG_CONSTRAINTS); for (xmlNode *xml_obj = pcmk__xe_first_child(xml_constraints); xml_obj != NULL; xml_obj = pcmk__xe_next(xml_obj)) { xmlNode *lifetime = NULL; const char *id = crm_element_value(xml_obj, XML_ATTR_ID); const char *tag = crm_element_name(xml_obj); if (id == NULL) { pcmk__config_err("Ignoring <%s> constraint without " XML_ATTR_ID, tag); continue; } crm_trace("Unpacking %s constraint '%s'", tag, id); lifetime = first_named_child(xml_obj, "lifetime"); if (lifetime != NULL) { pcmk__config_warn("Support for 'lifetime' attribute (in %s) is " "deprecated (the rules it contains should " - "instead be direct descendents of the " + "instead be direct descendants of the " "constraint object)", id); } if ((lifetime != NULL) && !evaluate_lifetime(lifetime, data_set)) { crm_info("Constraint %s %s is not active", tag, id); } else if (pcmk__str_eq(XML_CONS_TAG_RSC_ORDER, tag, pcmk__str_casei)) { pcmk__unpack_ordering(xml_obj, data_set); } else if (pcmk__str_eq(XML_CONS_TAG_RSC_DEPEND, tag, pcmk__str_casei)) { pcmk__unpack_colocation(xml_obj, data_set); } else if (pcmk__str_eq(XML_CONS_TAG_RSC_LOCATION, tag, pcmk__str_casei)) { pcmk__unpack_location(xml_obj, data_set); } else if (pcmk__str_eq(XML_CONS_TAG_RSC_TICKET, tag, pcmk__str_casei)) { pcmk__unpack_rsc_ticket(xml_obj, data_set); } else { pe_err("Unsupported constraint type: %s", tag); } } } pe_resource_t * pcmk__find_constraint_resource(GList *rsc_list, const char *id) { GList *rIter = NULL; for (rIter = rsc_list; id && rIter; rIter = rIter->next) { pe_resource_t *parent = rIter->data; pe_resource_t *match = parent->fns->find_rsc(parent, id, NULL, pe_find_renamed); if (match != NULL) { if(!pcmk__str_eq(match->id, id, pcmk__str_casei)) { /* We found an instance of a clone instead */ match = uber_parent(match); crm_debug("Found %s for %s", match->id, id); } return match; } } crm_trace("No match for %s", id); return NULL; } /*! * \internal * \brief Check whether an ID references a resource tag * * \param[in] data_set Cluster working set * \param[in] id Tag ID to search for * \param[out] tag Where to store tag, if found * * \return true if ID refers to a tagged resource or resource set template, * otherwise false */ static bool find_constraint_tag(const pe_working_set_t *data_set, const char *id, pe_tag_t **tag) { *tag = NULL; // Check whether id refers to a resource set template if (g_hash_table_lookup_extended(data_set->template_rsc_sets, id, NULL, (gpointer *) tag)) { if (*tag == NULL) { crm_warn("No resource is derived from template '%s'", id); return false; } return true; } // If not, check whether id refers to a tag if (g_hash_table_lookup_extended(data_set->tags, id, NULL, (gpointer *) tag)) { if (*tag == NULL) { crm_warn("No resource is tagged with '%s'", id); return false; } return true; } crm_warn("No template or tag named '%s'", id); return false; } /*! * \brief * \internal Check whether an ID refers to a valid resource or tag * * \param[in] data_set Cluster working set * \param[in] id ID to search for * \param[out] rsc Where to store resource, if found (or NULL to skip * searching resources) * \param[out] tag Where to store tag, if found (or NULL to skip searching * tags) * * \return true if id refers to a resource (possibly indirectly via a tag) */ bool pcmk__valid_resource_or_tag(const pe_working_set_t *data_set, const char *id, pe_resource_t **rsc, pe_tag_t **tag) { if (rsc != NULL) { *rsc = pcmk__find_constraint_resource(data_set->resources, id); if (*rsc != NULL) { return true; } } if ((tag != NULL) && find_constraint_tag(data_set, id, tag)) { return true; } return false; } /*! * \internal * \brief Replace any resource tags with equivalent resource_ref entries * * If a given constraint has resource sets, check each set for resource_ref * entries that list tags rather than resource IDs, and replace any found with * resource_ref entries for the corresponding resource IDs. * * \param[in,out] xml_obj Constraint XML * \param[in] data_set Cluster working set * * \return Equivalent XML with resource tags replaced (or NULL if none) * \note It is the caller's responsibility to free the result with free_xml(). */ xmlNode * pcmk__expand_tags_in_sets(xmlNode *xml_obj, const pe_working_set_t *data_set) { xmlNode *new_xml = NULL; bool any_refs = false; // Short-circuit if there are no sets if (first_named_child(xml_obj, XML_CONS_TAG_RSC_SET) == NULL) { return NULL; } new_xml = copy_xml(xml_obj); for (xmlNode *set = first_named_child(new_xml, XML_CONS_TAG_RSC_SET); set != NULL; set = crm_next_same_xml(set)) { GList *tag_refs = NULL; GList *gIter = NULL; for (xmlNode *xml_rsc = first_named_child(set, XML_TAG_RESOURCE_REF); xml_rsc != NULL; xml_rsc = crm_next_same_xml(xml_rsc)) { pe_resource_t *rsc = NULL; pe_tag_t *tag = NULL; if (!pcmk__valid_resource_or_tag(data_set, ID(xml_rsc), &rsc, &tag)) { pcmk__config_err("Ignoring resource sets for constraint '%s' " "because '%s' is not a valid resource or tag", ID(xml_obj), ID(xml_rsc)); free_xml(new_xml); return NULL; } else if (rsc) { continue; } else if (tag) { /* The resource_ref under the resource_set references a template/tag */ xmlNode *last_ref = xml_rsc; /* A sample: Original XML: Now we are appending rsc2 and rsc3 which are tagged with tag1 right after it: */ for (gIter = tag->refs; gIter != NULL; gIter = gIter->next) { const char *obj_ref = (const char *) gIter->data; xmlNode *new_rsc_ref = NULL; new_rsc_ref = xmlNewDocRawNode(getDocPtr(set), NULL, (pcmkXmlStr) XML_TAG_RESOURCE_REF, NULL); crm_xml_add(new_rsc_ref, XML_ATTR_ID, obj_ref); xmlAddNextSibling(last_ref, new_rsc_ref); last_ref = new_rsc_ref; } any_refs = true; /* Freeing the resource_ref now would break the XML child * iteration, so just remember it for freeing later. */ tag_refs = g_list_append(tag_refs, xml_rsc); } } /* Now free '', and finally get: */ for (gIter = tag_refs; gIter != NULL; gIter = gIter->next) { xmlNode *tag_ref = gIter->data; free_xml(tag_ref); } g_list_free(tag_refs); } if (!any_refs) { free_xml(new_xml); new_xml = NULL; } return new_xml; } /*! * \internal * \brief Convert a tag into a resource set of tagged resources * * \param[in,out] xml_obj Constraint XML * \param[out] rsc_set Where to store resource set XML created based on tag * \param[in] attr Name of XML attribute containing resource or tag ID * \param[in] convert_rsc Convert to set even if \p attr references a resource * \param[in] data_set Cluster working set */ bool pcmk__tag_to_set(xmlNode *xml_obj, xmlNode **rsc_set, const char *attr, bool convert_rsc, const pe_working_set_t *data_set) { const char *cons_id = NULL; const char *id = NULL; pe_resource_t *rsc = NULL; pe_tag_t *tag = NULL; *rsc_set = NULL; CRM_CHECK((xml_obj != NULL) && (attr != NULL), return false); cons_id = ID(xml_obj); if (cons_id == NULL) { pcmk__config_err("Ignoring <%s> constraint without " XML_ATTR_ID, crm_element_name(xml_obj)); return false; } id = crm_element_value(xml_obj, attr); if (id == NULL) { return true; } if (!pcmk__valid_resource_or_tag(data_set, id, &rsc, &tag)) { pcmk__config_err("Ignoring constraint '%s' because '%s' is not a " "valid resource or tag", cons_id, id); return false; } else if (tag) { GList *gIter = NULL; /* A template/tag is referenced by the "attr" attribute (first, then, rsc or with-rsc). Add the template/tag's corresponding "resource_set" which contains the resources derived from it or tagged with it under the constraint. */ *rsc_set = create_xml_node(xml_obj, XML_CONS_TAG_RSC_SET); crm_xml_add(*rsc_set, XML_ATTR_ID, id); for (gIter = tag->refs; gIter != NULL; gIter = gIter->next) { const char *obj_ref = (const char *) gIter->data; xmlNode *rsc_ref = NULL; rsc_ref = create_xml_node(*rsc_set, XML_TAG_RESOURCE_REF); crm_xml_add(rsc_ref, XML_ATTR_ID, obj_ref); } /* Set sequential="false" for the resource_set */ pcmk__xe_set_bool_attr(*rsc_set, "sequential", false); } else if ((rsc != NULL) && convert_rsc) { /* Even a regular resource is referenced by "attr", convert it into a resource_set. Because the other side of the constraint could be a template/tag reference. */ xmlNode *rsc_ref = NULL; *rsc_set = create_xml_node(xml_obj, XML_CONS_TAG_RSC_SET); crm_xml_add(*rsc_set, XML_ATTR_ID, id); rsc_ref = create_xml_node(*rsc_set, XML_TAG_RESOURCE_REF); crm_xml_add(rsc_ref, XML_ATTR_ID, id); } else { return true; } /* Remove the "attr" attribute referencing the template/tag */ if (*rsc_set != NULL) { xml_remove_prop(xml_obj, attr); } return true; } /*! * \internal * \brief Create constraints inherent to resource types * * \param[in,out] data_set Cluster working set */ void pcmk__create_internal_constraints(pe_working_set_t *data_set) { crm_trace("Create internal constraints"); for (GList *iter = data_set->resources; iter != NULL; iter = iter->next) { pe_resource_t *rsc = (pe_resource_t *) iter->data; rsc->cmds->internal_constraints(rsc); } } diff --git a/lib/pacemaker/pcmk_scheduler.c b/lib/pacemaker/pcmk_scheduler.c index 8ec75a7407..b4e670d865 100644 --- a/lib/pacemaker/pcmk_scheduler.c +++ b/lib/pacemaker/pcmk_scheduler.c @@ -1,811 +1,811 @@ /* * Copyright 2004-2023 the Pacemaker project contributors * * The version control history for this file may have further details. * * This source code is licensed under the GNU General Public License version 2 * or later (GPLv2+) WITHOUT ANY WARRANTY. */ #include #include #include #include #include #include #include #include #include #include "libpacemaker_private.h" CRM_TRACE_INIT_DATA(pacemaker); /*! * \internal * \brief Do deferred action checks after allocation * * When unpacking the resource history, the scheduler checks for resource * configurations that have changed since an action was run. However, at that * time, bundles using the REMOTE_CONTAINER_HACK don't have their final * parameter information, so instead they add a deferred check to a list. This * function processes one entry in that list. * * \param[in,out] rsc Resource that action history is for * \param[in,out] node Node that action history is for * \param[in] rsc_op Action history entry * \param[in] check Type of deferred check to do */ static void check_params(pe_resource_t *rsc, pe_node_t *node, const xmlNode *rsc_op, enum pe_check_parameters check) { const char *reason = NULL; op_digest_cache_t *digest_data = NULL; switch (check) { case pe_check_active: if (pcmk__check_action_config(rsc, node, rsc_op) && pe_get_failcount(node, rsc, NULL, pe_fc_effective, NULL)) { reason = "action definition changed"; } break; case pe_check_last_failure: digest_data = rsc_action_digest_cmp(rsc, rsc_op, node, rsc->cluster); switch (digest_data->rc) { case RSC_DIGEST_UNKNOWN: crm_trace("Resource %s history entry %s on %s has " "no digest to compare", rsc->id, ID(rsc_op), node->details->id); break; case RSC_DIGEST_MATCH: break; default: reason = "resource parameters have changed"; break; } break; } if (reason != NULL) { pe__clear_failcount(rsc, node, reason, rsc->cluster); } } /*! * \internal * \brief Check whether a resource has failcount clearing scheduled on a node * * \param[in] node Node to check * \param[in] rsc Resource to check * * \return true if \p rsc has failcount clearing scheduled on \p node, * otherwise false */ static bool failcount_clear_action_exists(const pe_node_t *node, const pe_resource_t *rsc) { GList *list = pe__resource_actions(rsc, node, CRM_OP_CLEAR_FAILCOUNT, TRUE); if (list != NULL) { g_list_free(list); return true; } return false; } /*! * \internal * \brief Ban a resource from a node if it reached its failure threshold there * * \param[in,out] rsc Resource to check failure threshold for * \param[in] node Node to check \p rsc on */ static void check_failure_threshold(pe_resource_t *rsc, const pe_node_t *node) { // If this is a collective resource, apply recursively to children instead if (rsc->children != NULL) { g_list_foreach(rsc->children, (GFunc) check_failure_threshold, (gpointer) node); return; } else if (failcount_clear_action_exists(node, rsc)) { /* Don't force the resource away from this node due to a failcount * that's going to be cleared. * * @TODO Failcount clearing can be scheduled in * pcmk__handle_rsc_config_changes() via process_rsc_history(), or in * schedule_resource_actions() via check_params(). This runs well before * then, so it cannot detect those, meaning we might check the migration * threshold when we shouldn't. Worst case, we stop or move the * resource, then move it back in the next transition. */ return; } else { pe_resource_t *failed = NULL; if (pcmk__threshold_reached(rsc, node, &failed)) { resource_location(failed, node, -INFINITY, "__fail_limit__", rsc->cluster); } } } /*! * \internal * \brief If resource has exclusive discovery, ban node if not allowed * * Location constraints have a resource-discovery option that allows users to * specify where probes are done for the affected resource. If this is set to * exclusive, probes will only be done on nodes listed in exclusive constraints. * This function bans the resource from the node if the node is not listed. * * \param[in,out] rsc Resource to check * \param[in] node Node to check \p rsc on */ static void apply_exclusive_discovery(pe_resource_t *rsc, const pe_node_t *node) { if (rsc->exclusive_discover || pe__const_top_resource(rsc, false)->exclusive_discover) { pe_node_t *match = NULL; // If this is a collective resource, apply recursively to children g_list_foreach(rsc->children, (GFunc) apply_exclusive_discovery, (gpointer) node); match = g_hash_table_lookup(rsc->allowed_nodes, node->details->id); if ((match != NULL) && (match->rsc_discover_mode != pe_discover_exclusive)) { match->weight = -INFINITY; } } } /*! * \internal * \brief Apply stickiness to a resource if appropriate * * \param[in,out] rsc Resource to check for stickiness * \param[in,out] data_set Cluster working set */ static void apply_stickiness(pe_resource_t *rsc, pe_working_set_t *data_set) { pe_node_t *node = NULL; // If this is a collective resource, apply recursively to children instead if (rsc->children != NULL) { g_list_foreach(rsc->children, (GFunc) apply_stickiness, data_set); return; } /* A resource is sticky if it is managed, has stickiness configured, and is * active on a single node. */ if (!pcmk_is_set(rsc->flags, pe_rsc_managed) || (rsc->stickiness < 1) || !pcmk__list_of_1(rsc->running_on)) { return; } node = rsc->running_on->data; /* In a symmetric cluster, stickiness can always be used. In an * asymmetric cluster, we have to check whether the resource is still * allowed on the node, so we don't keep the resource somewhere it is no * longer explicitly enabled. */ if (!pcmk_is_set(rsc->cluster->flags, pe_flag_symmetric_cluster) && (pe_hash_table_lookup(rsc->allowed_nodes, node->details->id) == NULL)) { pe_rsc_debug(rsc, "Ignoring %s stickiness because the cluster is " "asymmetric and %s is not explicitly allowed", rsc->id, pe__node_name(node)); return; } pe_rsc_debug(rsc, "Resource %s has %d stickiness on %s", rsc->id, rsc->stickiness, pe__node_name(node)); resource_location(rsc, node, rsc->stickiness, "stickiness", data_set); } /*! * \internal * \brief Apply shutdown locks for all resources as appropriate * * \param[in,out] data_set Cluster working set */ static void apply_shutdown_locks(pe_working_set_t *data_set) { if (!pcmk_is_set(data_set->flags, pe_flag_shutdown_lock)) { return; } for (GList *iter = data_set->resources; iter != NULL; iter = iter->next) { pe_resource_t *rsc = (pe_resource_t *) iter->data; rsc->cmds->shutdown_lock(rsc); } } /*! * \internal * \brief Calculate the number of available nodes in the cluster * * \param[in,out] data_set Cluster working set */ static void count_available_nodes(pe_working_set_t *data_set) { if (pcmk_is_set(data_set->flags, pe_flag_no_compat)) { return; } // @COMPAT for API backward compatibility only (cluster does not use value) for (GList *iter = data_set->nodes; iter != NULL; iter = iter->next) { pe_node_t *node = (pe_node_t *) iter->data; if ((node != NULL) && (node->weight >= 0) && node->details->online && (node->details->type != node_ping)) { data_set->max_valid_nodes++; } } crm_trace("Online node count: %d", data_set->max_valid_nodes); } /* * \internal * \brief Apply node-specific scheduling criteria * * After the CIB has been unpacked, process node-specific scheduling criteria * including shutdown locks, location constraints, resource stickiness, * migration thresholds, and exclusive resource discovery. */ static void apply_node_criteria(pe_working_set_t *data_set) { crm_trace("Applying node-specific scheduling criteria"); apply_shutdown_locks(data_set); count_available_nodes(data_set); pcmk__apply_locations(data_set); g_list_foreach(data_set->resources, (GFunc) apply_stickiness, data_set); for (GList *node_iter = data_set->nodes; node_iter != NULL; node_iter = node_iter->next) { for (GList *rsc_iter = data_set->resources; rsc_iter != NULL; rsc_iter = rsc_iter->next) { pe_node_t *node = (pe_node_t *) node_iter->data; pe_resource_t *rsc = (pe_resource_t *) rsc_iter->data; check_failure_threshold(rsc, node); apply_exclusive_discovery(rsc, node); } } } /*! * \internal * \brief Allocate resources to nodes * * \param[in,out] data_set Cluster working set */ static void allocate_resources(pe_working_set_t *data_set) { GList *iter = NULL; crm_trace("Allocating resources to nodes"); if (!pcmk__str_eq(data_set->placement_strategy, "default", pcmk__str_casei)) { pcmk__sort_resources(data_set); } pcmk__show_node_capacities("Original", data_set); if (pcmk_is_set(data_set->flags, pe_flag_have_remote_nodes)) { /* Allocate remote connection resources first (which will also allocate * any colocation dependencies). If the connection is migrating, always * prefer the partial migration target. */ for (iter = data_set->resources; iter != NULL; iter = iter->next) { pe_resource_t *rsc = (pe_resource_t *) iter->data; if (rsc->is_remote_node) { pe_rsc_trace(rsc, "Allocating remote connection resource '%s'", rsc->id); rsc->cmds->assign(rsc, rsc->partial_migration_target); } } } /* now do the rest of the resources */ for (iter = data_set->resources; iter != NULL; iter = iter->next) { pe_resource_t *rsc = (pe_resource_t *) iter->data; if (!rsc->is_remote_node) { pe_rsc_trace(rsc, "Allocating %s resource '%s'", crm_element_name(rsc->xml), rsc->id); rsc->cmds->assign(rsc, NULL); } } pcmk__show_node_capacities("Remaining", data_set); } /*! * \internal * \brief Schedule fail count clearing on online nodes if resource is orphaned * * \param[in,out] rsc Resource to check * \param[in,out] data_set Cluster working set */ static void clear_failcounts_if_orphaned(pe_resource_t *rsc, pe_working_set_t *data_set) { if (!pcmk_is_set(rsc->flags, pe_rsc_orphan)) { return; } crm_trace("Clear fail counts for orphaned resource %s", rsc->id); /* There's no need to recurse into rsc->children because those * should just be unallocated clone instances. */ for (GList *iter = data_set->nodes; iter != NULL; iter = iter->next) { pe_node_t *node = (pe_node_t *) iter->data; pe_action_t *clear_op = NULL; if (!node->details->online) { continue; } if (pe_get_failcount(node, rsc, NULL, pe_fc_effective, NULL) == 0) { continue; } clear_op = pe__clear_failcount(rsc, node, "it is orphaned", data_set); /* We can't use order_action_then_stop() here because its * pe_order_preserve breaks things */ pcmk__new_ordering(clear_op->rsc, NULL, clear_op, rsc, stop_key(rsc), NULL, pe_order_optional, data_set); } } /*! * \internal * \brief Schedule any resource actions needed * * \param[in,out] data_set Cluster working set */ static void schedule_resource_actions(pe_working_set_t *data_set) { // Process deferred action checks pe__foreach_param_check(data_set, check_params); pe__free_param_checks(data_set); if (pcmk_is_set(data_set->flags, pe_flag_startup_probes)) { crm_trace("Scheduling probes"); pcmk__schedule_probes(data_set); } if (pcmk_is_set(data_set->flags, pe_flag_stop_rsc_orphans)) { g_list_foreach(data_set->resources, (GFunc) clear_failcounts_if_orphaned, data_set); } crm_trace("Scheduling resource actions"); for (GList *iter = data_set->resources; iter != NULL; iter = iter->next) { pe_resource_t *rsc = (pe_resource_t *) iter->data; rsc->cmds->create_actions(rsc); } } /*! * \internal * \brief Check whether a resource or any of its descendants are managed * * \param[in] rsc Resource to check * - * \return true if resource or any descendent is managed, otherwise false + * \return true if resource or any descendant is managed, otherwise false */ static bool is_managed(const pe_resource_t *rsc) { if (pcmk_is_set(rsc->flags, pe_rsc_managed)) { return true; } for (GList *iter = rsc->children; iter != NULL; iter = iter->next) { if (is_managed((pe_resource_t *) iter->data)) { return true; } } return false; } /*! * \internal * \brief Check whether any resources in the cluster are managed * * \param[in] data_set Cluster working set * * \return true if any resource is managed, otherwise false */ static bool any_managed_resources(const pe_working_set_t *data_set) { for (const GList *iter = data_set->resources; iter != NULL; iter = iter->next) { if (is_managed((const pe_resource_t *) iter->data)) { return true; } } return false; } /*! * \internal * \brief Check whether a node requires fencing * * \param[in] node Node to check * \param[in] have_managed Whether any resource in cluster is managed * \param[in] data_set Cluster working set * * \return true if \p node should be fenced, otherwise false */ static bool needs_fencing(const pe_node_t *node, bool have_managed, const pe_working_set_t *data_set) { return have_managed && node->details->unclean && pe_can_fence(data_set, node); } /*! * \internal * \brief Check whether a node requires shutdown * * \param[in] node Node to check * * \return true if \p node should be shut down, otherwise false */ static bool needs_shutdown(const pe_node_t *node) { if (pe__is_guest_or_remote_node(node)) { /* Do not send shutdown actions for Pacemaker Remote nodes. * @TODO We might come up with a good use for this in the future. */ return false; } return node->details->online && node->details->shutdown; } /*! * \internal * \brief Track and order non-DC fencing * * \param[in,out] list List of existing non-DC fencing actions * \param[in,out] action Fencing action to prepend to \p list * \param[in] data_set Cluster working set * * \return (Possibly new) head of \p list */ static GList * add_nondc_fencing(GList *list, pe_action_t *action, const pe_working_set_t *data_set) { if (!pcmk_is_set(data_set->flags, pe_flag_concurrent_fencing) && (list != NULL)) { /* Concurrent fencing is disabled, so order each non-DC * fencing in a chain. If there is any DC fencing or * shutdown, it will be ordered after the last action in the * chain later. */ order_actions((pe_action_t *) list->data, action, pe_order_optional); } return g_list_prepend(list, action); } /*! * \internal * \brief Schedule a node for fencing * * \param[in,out] node Node that requires fencing * \param[in,out] data_set Cluster working set */ static pe_action_t * schedule_fencing(pe_node_t *node, pe_working_set_t *data_set) { pe_action_t *fencing = pe_fence_op(node, NULL, FALSE, "node is unclean", FALSE, data_set); pe_warn("Scheduling node %s for fencing", pe__node_name(node)); pcmk__order_vs_fence(fencing, data_set); return fencing; } /*! * \internal * \brief Create and order node fencing and shutdown actions * * \param[in,out] data_set Cluster working set */ static void schedule_fencing_and_shutdowns(pe_working_set_t *data_set) { pe_action_t *dc_down = NULL; bool integrity_lost = false; bool have_managed = any_managed_resources(data_set); GList *fencing_ops = NULL; GList *shutdown_ops = NULL; crm_trace("Scheduling fencing and shutdowns as needed"); if (!have_managed) { crm_notice("No fencing will be done until there are resources to manage"); } // Check each node for whether it needs fencing or shutdown for (GList *iter = data_set->nodes; iter != NULL; iter = iter->next) { pe_node_t *node = (pe_node_t *) iter->data; pe_action_t *fencing = NULL; /* Guest nodes are "fenced" by recovering their container resource, * so handle them separately. */ if (pe__is_guest_node(node)) { if (node->details->remote_requires_reset && have_managed && pe_can_fence(data_set, node)) { pcmk__fence_guest(node); } continue; } if (needs_fencing(node, have_managed, data_set)) { fencing = schedule_fencing(node, data_set); // Track DC and non-DC fence actions separately if (node->details->is_dc) { dc_down = fencing; } else { fencing_ops = add_nondc_fencing(fencing_ops, fencing, data_set); } } else if (needs_shutdown(node)) { pe_action_t *down_op = pcmk__new_shutdown_action(node); // Track DC and non-DC shutdown actions separately if (node->details->is_dc) { dc_down = down_op; } else { shutdown_ops = g_list_prepend(shutdown_ops, down_op); } } if ((fencing == NULL) && node->details->unclean) { integrity_lost = true; pe_warn("Node %s is unclean but cannot be fenced", pe__node_name(node)); } } if (integrity_lost) { if (!pcmk_is_set(data_set->flags, pe_flag_stonith_enabled)) { pe_warn("Resource functionality and data integrity cannot be " "guaranteed (configure, enable, and test fencing to " "correct this)"); } else if (!pcmk_is_set(data_set->flags, pe_flag_have_quorum)) { crm_notice("Unclean nodes will not be fenced until quorum is " "attained or no-quorum-policy is set to ignore"); } } if (dc_down != NULL) { /* Order any non-DC shutdowns before any DC shutdown, to avoid repeated * DC elections. However, we don't want to order non-DC shutdowns before * a DC *fencing*, because even though we don't want a node that's * shutting down to become DC, the DC fencing could be ordered before a * clone stop that's also ordered before the shutdowns, thus leading to * a graph loop. */ if (pcmk__str_eq(dc_down->task, CRM_OP_SHUTDOWN, pcmk__str_none)) { pcmk__order_after_each(dc_down, shutdown_ops); } // Order any non-DC fencing before any DC fencing or shutdown if (pcmk_is_set(data_set->flags, pe_flag_concurrent_fencing)) { /* With concurrent fencing, order each non-DC fencing action * separately before any DC fencing or shutdown. */ pcmk__order_after_each(dc_down, fencing_ops); } else if (fencing_ops != NULL) { /* Without concurrent fencing, the non-DC fencing actions are * already ordered relative to each other, so we just need to order * the DC fencing after the last action in the chain (which is the * first item in the list). */ order_actions((pe_action_t *) fencing_ops->data, dc_down, pe_order_optional); } } g_list_free(fencing_ops); g_list_free(shutdown_ops); } static void log_resource_details(pe_working_set_t *data_set) { pcmk__output_t *out = data_set->priv; GList *all = NULL; /* We need a list of nodes that we are allowed to output information for. * This is necessary because out->message for all the resource-related * messages expects such a list, due to the `crm_mon --node=` feature. Here, * we just make it a list of all the nodes. */ all = g_list_prepend(all, (gpointer) "*"); for (GList *item = data_set->resources; item != NULL; item = item->next) { pe_resource_t *rsc = (pe_resource_t *) item->data; // Log all resources except inactive orphans if (!pcmk_is_set(rsc->flags, pe_rsc_orphan) || (rsc->role != RSC_ROLE_STOPPED)) { out->message(out, crm_map_element_name(rsc->xml), 0, rsc, all, all); } } g_list_free(all); } static void log_all_actions(pe_working_set_t *data_set) { /* This only ever outputs to the log, so ignore whatever output object was * previously set and just log instead. */ pcmk__output_t *prev_out = data_set->priv; pcmk__output_t *out = NULL; if (pcmk__log_output_new(&out) != pcmk_rc_ok) { return; } pe__register_messages(out); pcmk__register_lib_messages(out); pcmk__output_set_log_level(out, LOG_NOTICE); data_set->priv = out; out->begin_list(out, NULL, NULL, "Actions"); pcmk__output_actions(data_set); out->end_list(out); out->finish(out, CRM_EX_OK, true, NULL); pcmk__output_free(out); data_set->priv = prev_out; } /*! * \internal * \brief Log all required but unrunnable actions at trace level * * \param[in] data_set Cluster working set */ static void log_unrunnable_actions(const pe_working_set_t *data_set) { const uint64_t flags = pe_action_optional|pe_action_runnable|pe_action_pseudo; crm_trace("Required but unrunnable actions:"); for (const GList *iter = data_set->actions; iter != NULL; iter = iter->next) { const pe_action_t *action = (const pe_action_t *) iter->data; if (!pcmk_any_flags_set(action->flags, flags)) { pcmk__log_action("\t", action, true); } } } /*! * \internal * \brief Unpack the CIB for scheduling * * \param[in,out] cib CIB XML to unpack (may be NULL if already unpacked) * \param[in] flags Working set flags to set in addition to defaults * \param[in,out] data_set Cluster working set */ static void unpack_cib(xmlNode *cib, unsigned long long flags, pe_working_set_t *data_set) { const char* localhost_save = NULL; if (pcmk_is_set(data_set->flags, pe_flag_have_status)) { crm_trace("Reusing previously calculated cluster status"); pe__set_working_set_flags(data_set, flags); return; } if (data_set->localhost) { localhost_save = data_set->localhost; } CRM_ASSERT(cib != NULL); crm_trace("Calculating cluster status"); /* This will zero the entire struct without freeing anything first, so * callers should never call pcmk__schedule_actions() with a populated data * set unless pe_flag_have_status is set (i.e. cluster_status() was * previously called, whether directly or via pcmk__schedule_actions()). */ set_working_set_defaults(data_set); if (localhost_save) { data_set->localhost = localhost_save; } pe__set_working_set_flags(data_set, flags); data_set->input = cib; cluster_status(data_set); // Sets pe_flag_have_status } /*! * \internal * \brief Run the scheduler for a given CIB * * \param[in,out] cib CIB XML to use as scheduler input * \param[in] flags Working set flags to set in addition to defaults * \param[in,out] data_set Cluster working set */ void pcmk__schedule_actions(xmlNode *cib, unsigned long long flags, pe_working_set_t *data_set) { unpack_cib(cib, flags, data_set); pcmk__set_allocation_methods(data_set); pcmk__apply_node_health(data_set); pcmk__unpack_constraints(data_set); if (pcmk_is_set(data_set->flags, pe_flag_check_config)) { return; } if (!pcmk_is_set(data_set->flags, pe_flag_quick_location) && pcmk__is_daemon) { log_resource_details(data_set); } apply_node_criteria(data_set); if (pcmk_is_set(data_set->flags, pe_flag_quick_location)) { return; } pcmk__create_internal_constraints(data_set); pcmk__handle_rsc_config_changes(data_set); allocate_resources(data_set); schedule_resource_actions(data_set); /* Remote ordering constraints need to happen prior to calculating fencing * because it is one more place we can mark nodes as needing fencing. */ pcmk__order_remote_connection_actions(data_set); schedule_fencing_and_shutdowns(data_set); pcmk__apply_orderings(data_set); log_all_actions(data_set); pcmk__create_graph(data_set); if (get_crm_log_level() == LOG_TRACE) { log_unrunnable_actions(data_set); } } diff --git a/lib/pengine/native.c b/lib/pengine/native.c index b3f903985e..5e92ddcefd 100644 --- a/lib/pengine/native.c +++ b/lib/pengine/native.c @@ -1,1414 +1,1414 @@ /* * Copyright 2004-2023 the Pacemaker project contributors * * The version control history for this file may have further details. * * This source code is licensed under the GNU Lesser General Public License * version 2.1 or later (LGPLv2.1+) WITHOUT ANY WARRANTY. */ #include #include #include #include #include #include #include #include #include #ifdef PCMK__COMPAT_2_0 #define PROVIDER_SEP "::" #else #define PROVIDER_SEP ":" #endif /*! * \internal * \brief Check whether a resource is active on multiple nodes */ static bool is_multiply_active(const pe_resource_t *rsc) { unsigned int count = 0; if (rsc->variant == pe_native) { pe__find_active_requires(rsc, &count); } return count > 1; } static void native_priority_to_node(pe_resource_t * rsc, pe_node_t * node, gboolean failed) { int priority = 0; if ((rsc->priority == 0) || (failed == TRUE)) { return; } if (rsc->role == RSC_ROLE_PROMOTED) { // Promoted instance takes base priority + 1 priority = rsc->priority + 1; } else { priority = rsc->priority; } node->details->priority += priority; pe_rsc_trace(rsc, "%s now has priority %d with %s'%s' (priority: %d%s)", pe__node_name(node), node->details->priority, (rsc->role == RSC_ROLE_PROMOTED)? "promoted " : "", rsc->id, rsc->priority, (rsc->role == RSC_ROLE_PROMOTED)? " + 1" : ""); /* Priority of a resource running on a guest node is added to the cluster * node as well. */ if (node->details->remote_rsc && node->details->remote_rsc->container) { GList *gIter = node->details->remote_rsc->container->running_on; for (; gIter != NULL; gIter = gIter->next) { pe_node_t *a_node = gIter->data; a_node->details->priority += priority; pe_rsc_trace(rsc, "%s now has priority %d with %s'%s' (priority: %d%s) " "from guest node %s", pe__node_name(a_node), a_node->details->priority, (rsc->role == RSC_ROLE_PROMOTED)? "promoted " : "", rsc->id, rsc->priority, (rsc->role == RSC_ROLE_PROMOTED)? " + 1" : "", pe__node_name(node)); } } } void native_add_running(pe_resource_t * rsc, pe_node_t * node, pe_working_set_t * data_set, gboolean failed) { GList *gIter = rsc->running_on; CRM_CHECK(node != NULL, return); for (; gIter != NULL; gIter = gIter->next) { pe_node_t *a_node = (pe_node_t *) gIter->data; CRM_CHECK(a_node != NULL, return); if (pcmk__str_eq(a_node->details->id, node->details->id, pcmk__str_casei)) { return; } } pe_rsc_trace(rsc, "Adding %s to %s %s", rsc->id, pe__node_name(node), pcmk_is_set(rsc->flags, pe_rsc_managed)? "" : "(unmanaged)"); rsc->running_on = g_list_append(rsc->running_on, node); if (rsc->variant == pe_native) { node->details->running_rsc = g_list_append(node->details->running_rsc, rsc); native_priority_to_node(rsc, node, failed); } if (rsc->variant == pe_native && node->details->maintenance) { pe__clear_resource_flags(rsc, pe_rsc_managed); pe__set_resource_flags(rsc, pe_rsc_maintenance); } if (!pcmk_is_set(rsc->flags, pe_rsc_managed)) { pe_resource_t *p = rsc->parent; pe_rsc_info(rsc, "resource %s isn't managed", rsc->id); resource_location(rsc, node, INFINITY, "not_managed_default", data_set); while(p && node->details->online) { /* add without the additional location constraint */ p->running_on = g_list_append(p->running_on, node); p = p->parent; } return; } if (is_multiply_active(rsc)) { switch (rsc->recovery_type) { case recovery_stop_only: { GHashTableIter gIter; pe_node_t *local_node = NULL; /* make sure it doesn't come up again */ if (rsc->allowed_nodes != NULL) { g_hash_table_destroy(rsc->allowed_nodes); } rsc->allowed_nodes = pe__node_list2table(data_set->nodes); g_hash_table_iter_init(&gIter, rsc->allowed_nodes); while (g_hash_table_iter_next(&gIter, NULL, (void **)&local_node)) { local_node->weight = -INFINITY; } } break; case recovery_block: pe__clear_resource_flags(rsc, pe_rsc_managed); pe__set_resource_flags(rsc, pe_rsc_block); /* If the resource belongs to a group or bundle configured with * multiple-active=block, block the entire entity. */ if (rsc->parent && (rsc->parent->variant == pe_group || rsc->parent->variant == pe_container) && rsc->parent->recovery_type == recovery_block) { GList *gIter = rsc->parent->children; for (; gIter != NULL; gIter = gIter->next) { pe_resource_t *child = (pe_resource_t *) gIter->data; pe__clear_resource_flags(child, pe_rsc_managed); pe__set_resource_flags(child, pe_rsc_block); } } break; default: // recovery_stop_start, recovery_stop_unexpected /* The scheduler will do the right thing because the relevant * variables and flags are set when unpacking the history. */ break; } crm_debug("%s is active on multiple nodes including %s: %s", rsc->id, pe__node_name(node), recovery2text(rsc->recovery_type)); } else { pe_rsc_trace(rsc, "Resource %s is active on %s", rsc->id, pe__node_name(node)); } if (rsc->parent != NULL) { native_add_running(rsc->parent, node, data_set, FALSE); } } static void recursive_clear_unique(pe_resource_t *rsc, gpointer user_data) { pe__clear_resource_flags(rsc, pe_rsc_unique); add_hash_param(rsc->meta, XML_RSC_ATTR_UNIQUE, XML_BOOLEAN_FALSE); g_list_foreach(rsc->children, (GFunc) recursive_clear_unique, NULL); } gboolean native_unpack(pe_resource_t * rsc, pe_working_set_t * data_set) { pe_resource_t *parent = uber_parent(rsc); const char *standard = crm_element_value(rsc->xml, XML_AGENT_ATTR_CLASS); uint32_t ra_caps = pcmk_get_ra_caps(standard); pe_rsc_trace(rsc, "Processing resource %s...", rsc->id); // Only some agent standards support unique and promotable clones if (!pcmk_is_set(ra_caps, pcmk_ra_cap_unique) && pcmk_is_set(rsc->flags, pe_rsc_unique) && pe_rsc_is_clone(parent)) { /* @COMPAT We should probably reject this situation as an error (as we * do for promotable below) rather than warn and convert, but that would * be a backward-incompatible change that we should probably do with a * transform at a schema major version bump. */ pe__force_anon(standard, parent, rsc->id, data_set); - /* Clear globally-unique on the parent and all its descendents unpacked + /* Clear globally-unique on the parent and all its descendants unpacked * so far (clearing the parent should make any future children unpacking * correct). We have to clear this resource explicitly because it isn't * hooked into the parent's children yet. */ recursive_clear_unique(parent, NULL); recursive_clear_unique(rsc, NULL); } if (!pcmk_is_set(ra_caps, pcmk_ra_cap_promotable) && pcmk_is_set(parent->flags, pe_rsc_promotable)) { pe_err("Resource %s is of type %s and therefore " "cannot be used as a promotable clone resource", rsc->id, standard); return FALSE; } return TRUE; } static bool rsc_is_on_node(pe_resource_t *rsc, const pe_node_t *node, int flags) { pe_rsc_trace(rsc, "Checking whether %s is on %s", rsc->id, pe__node_name(node)); if (pcmk_is_set(flags, pe_find_current) && rsc->running_on) { for (GList *iter = rsc->running_on; iter; iter = iter->next) { pe_node_t *loc = (pe_node_t *) iter->data; if (loc->details == node->details) { return true; } } } else if (pcmk_is_set(flags, pe_find_inactive) && (rsc->running_on == NULL)) { return true; } else if (!pcmk_is_set(flags, pe_find_current) && rsc->allocated_to && (rsc->allocated_to->details == node->details)) { return true; } return false; } pe_resource_t * native_find_rsc(pe_resource_t * rsc, const char *id, const pe_node_t *on_node, int flags) { bool match = false; pe_resource_t *result = NULL; CRM_CHECK(id && rsc && rsc->id, return NULL); if (flags & pe_find_clone) { const char *rid = ID(rsc->xml); if (!pe_rsc_is_clone(pe__const_top_resource(rsc, false))) { match = false; } else if (!strcmp(id, rsc->id) || pcmk__str_eq(id, rid, pcmk__str_none)) { match = true; } } else if (!strcmp(id, rsc->id)) { match = true; } else if (pcmk_is_set(flags, pe_find_renamed) && rsc->clone_name && strcmp(rsc->clone_name, id) == 0) { match = true; } else if (pcmk_is_set(flags, pe_find_any) || (pcmk_is_set(flags, pe_find_anon) && !pcmk_is_set(rsc->flags, pe_rsc_unique))) { match = pe_base_name_eq(rsc, id); } if (match && on_node) { if (!rsc_is_on_node(rsc, on_node, flags)) { match = false; } } if (match) { return rsc; } for (GList *gIter = rsc->children; gIter != NULL; gIter = gIter->next) { pe_resource_t *child = (pe_resource_t *) gIter->data; result = rsc->fns->find_rsc(child, id, on_node, flags); if (result) { return result; } } return NULL; } // create is ignored char * native_parameter(pe_resource_t * rsc, pe_node_t * node, gboolean create, const char *name, pe_working_set_t * data_set) { char *value_copy = NULL; const char *value = NULL; GHashTable *params = NULL; CRM_CHECK(rsc != NULL, return NULL); CRM_CHECK(name != NULL && strlen(name) != 0, return NULL); pe_rsc_trace(rsc, "Looking up %s in %s", name, rsc->id); params = pe_rsc_params(rsc, node, data_set); value = g_hash_table_lookup(params, name); if (value == NULL) { /* try meta attributes instead */ value = g_hash_table_lookup(rsc->meta, name); } pcmk__str_update(&value_copy, value); return value_copy; } gboolean native_active(pe_resource_t * rsc, gboolean all) { for (GList *gIter = rsc->running_on; gIter != NULL; gIter = gIter->next) { pe_node_t *a_node = (pe_node_t *) gIter->data; if (a_node->details->unclean) { pe_rsc_trace(rsc, "Resource %s: %s is unclean", rsc->id, pe__node_name(a_node)); return TRUE; } else if (a_node->details->online == FALSE && pcmk_is_set(rsc->flags, pe_rsc_managed)) { pe_rsc_trace(rsc, "Resource %s: %s is offline", rsc->id, pe__node_name(a_node)); } else { pe_rsc_trace(rsc, "Resource %s active on %s", rsc->id, pe__node_name(a_node)); return TRUE; } } return FALSE; } struct print_data_s { long options; void *print_data; }; static const char * native_pending_state(const pe_resource_t *rsc) { const char *pending_state = NULL; if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_START, pcmk__str_casei)) { pending_state = "Starting"; } else if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_STOP, pcmk__str_casei)) { pending_state = "Stopping"; } else if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_MIGRATE, pcmk__str_casei)) { pending_state = "Migrating"; } else if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_MIGRATED, pcmk__str_casei)) { /* Work might be done in here. */ pending_state = "Migrating"; } else if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_PROMOTE, pcmk__str_casei)) { pending_state = "Promoting"; } else if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_DEMOTE, pcmk__str_casei)) { pending_state = "Demoting"; } return pending_state; } static const char * native_pending_task(const pe_resource_t *rsc) { const char *pending_task = NULL; if (pcmk__str_eq(rsc->pending_task, CRMD_ACTION_STATUS, pcmk__str_casei)) { pending_task = "Monitoring"; /* Pending probes are not printed, even if pending * operations are requested. If someone ever requests that * behavior, uncomment this and the corresponding part of * unpack.c:unpack_rsc_op(). */ /* } else if (pcmk__str_eq(rsc->pending_task, "probe", pcmk__str_casei)) { pending_task = "Checking"; */ } return pending_task; } static enum rsc_role_e native_displayable_role(const pe_resource_t *rsc) { enum rsc_role_e role = rsc->role; if ((role == RSC_ROLE_STARTED) && pcmk_is_set(pe__const_top_resource(rsc, false)->flags, pe_rsc_promotable)) { role = RSC_ROLE_UNPROMOTED; } return role; } static const char * native_displayable_state(const pe_resource_t *rsc, bool print_pending) { const char *rsc_state = NULL; if (print_pending) { rsc_state = native_pending_state(rsc); } if (rsc_state == NULL) { rsc_state = role2text(native_displayable_role(rsc)); } return rsc_state; } /*! * \internal * \deprecated This function will be removed in a future release */ static void native_print_xml(pe_resource_t *rsc, const char *pre_text, long options, void *print_data) { const char *class = crm_element_value(rsc->xml, XML_AGENT_ATTR_CLASS); const char *prov = crm_element_value(rsc->xml, XML_AGENT_ATTR_PROVIDER); const char *rsc_state = native_displayable_state(rsc, pcmk_is_set(options, pe_print_pending)); const char *target_role = NULL; /* resource information. */ status_print("%sxml, XML_ATTR_TYPE)); status_print("role=\"%s\" ", rsc_state); if (rsc->meta) { target_role = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_TARGET_ROLE); } if (target_role) { status_print("target_role=\"%s\" ", target_role); } status_print("active=\"%s\" ", pcmk__btoa(rsc->fns->active(rsc, TRUE))); status_print("orphaned=\"%s\" ", pe__rsc_bool_str(rsc, pe_rsc_orphan)); status_print("blocked=\"%s\" ", pe__rsc_bool_str(rsc, pe_rsc_block)); status_print("managed=\"%s\" ", pe__rsc_bool_str(rsc, pe_rsc_managed)); status_print("failed=\"%s\" ", pe__rsc_bool_str(rsc, pe_rsc_failed)); status_print("failure_ignored=\"%s\" ", pe__rsc_bool_str(rsc, pe_rsc_failure_ignored)); status_print("nodes_running_on=\"%d\" ", g_list_length(rsc->running_on)); if (options & pe_print_pending) { const char *pending_task = native_pending_task(rsc); if (pending_task) { status_print("pending=\"%s\" ", pending_task); } } /* print out the nodes this resource is running on */ if (options & pe_print_rsconly) { status_print("/>\n"); /* do nothing */ } else if (rsc->running_on != NULL) { GList *gIter = rsc->running_on; status_print(">\n"); for (; gIter != NULL; gIter = gIter->next) { pe_node_t *node = (pe_node_t *) gIter->data; status_print("%s \n", pre_text, pcmk__s(node->details->uname, ""), node->details->id, pcmk__btoa(!node->details->online)); } status_print("%s\n", pre_text); } else { status_print("/>\n"); } } // Append a flag to resource description string's flags list static bool add_output_flag(GString *s, const char *flag_desc, bool have_flags) { g_string_append(s, (have_flags? ", " : " (")); g_string_append(s, flag_desc); return true; } // Append a node name to resource description string's node list static bool add_output_node(GString *s, const char *node, bool have_nodes) { g_string_append(s, (have_nodes? " " : " [ ")); g_string_append(s, node); return true; } /*! * \internal * \brief Create a string description of a resource * * \param[in] rsc Resource to describe * \param[in] name Desired identifier for the resource * \param[in] node If not NULL, node that resource is "on" * \param[in] show_opts Bitmask of pcmk_show_opt_e. * \param[in] target_role Resource's target role * \param[in] show_nodes Whether to display nodes when multiply active * * \return Newly allocated string description of resource * \note Caller must free the result with g_free(). */ gchar * pcmk__native_output_string(const pe_resource_t *rsc, const char *name, const pe_node_t *node, uint32_t show_opts, const char *target_role, bool show_nodes) { const char *class = crm_element_value(rsc->xml, XML_AGENT_ATTR_CLASS); const char *provider = NULL; const char *kind = crm_element_value(rsc->xml, XML_ATTR_TYPE); GString *outstr = NULL; bool have_flags = false; if (rsc->variant != pe_native) { return NULL; } CRM_CHECK(name != NULL, name = "unknown"); CRM_CHECK(kind != NULL, kind = "unknown"); CRM_CHECK(class != NULL, class = "unknown"); if (pcmk_is_set(pcmk_get_ra_caps(class), pcmk_ra_cap_provider)) { provider = crm_element_value(rsc->xml, XML_AGENT_ATTR_PROVIDER); } if ((node == NULL) && (rsc->lock_node != NULL)) { node = rsc->lock_node; } if (pcmk_any_flags_set(show_opts, pcmk_show_rsc_only) || pcmk__list_of_multiple(rsc->running_on)) { node = NULL; } outstr = g_string_sized_new(128); // Resource name and agent pcmk__g_strcat(outstr, name, "\t(", class, ((provider == NULL)? "" : PROVIDER_SEP), pcmk__s(provider, ""), ":", kind, "):\t", NULL); // State on node if (pcmk_is_set(rsc->flags, pe_rsc_orphan)) { g_string_append(outstr, " ORPHANED"); } if (pcmk_is_set(rsc->flags, pe_rsc_failed)) { enum rsc_role_e role = native_displayable_role(rsc); g_string_append(outstr, " FAILED"); if (role > RSC_ROLE_UNPROMOTED) { pcmk__add_word(&outstr, 0, role2text(role)); } } else { bool show_pending = pcmk_is_set(show_opts, pcmk_show_pending); pcmk__add_word(&outstr, 0, native_displayable_state(rsc, show_pending)); } if (node) { pcmk__add_word(&outstr, 0, pe__node_name(node)); } // Failed probe operation if (native_displayable_role(rsc) == RSC_ROLE_STOPPED) { xmlNode *probe_op = pe__failed_probe_for_rsc(rsc, node ? node->details->uname : NULL); if (probe_op != NULL) { int rc; pcmk__scan_min_int(crm_element_value(probe_op, XML_LRM_ATTR_RC), &rc, 0); pcmk__g_strcat(outstr, " (", services_ocf_exitcode_str(rc), ") ", NULL); } } // Flags, as: ( [...]) if (node && !(node->details->online) && node->details->unclean) { have_flags = add_output_flag(outstr, "UNCLEAN", have_flags); } if (node && (node == rsc->lock_node)) { have_flags = add_output_flag(outstr, "LOCKED", have_flags); } if (pcmk_is_set(show_opts, pcmk_show_pending)) { const char *pending_task = native_pending_task(rsc); if (pending_task) { have_flags = add_output_flag(outstr, pending_task, have_flags); } } if (target_role) { enum rsc_role_e target_role_e = text2role(target_role); /* Only show target role if it limits our abilities (i.e. ignore * Started, as it is the default anyways, and doesn't prevent the * resource from becoming promoted). */ if (target_role_e == RSC_ROLE_STOPPED) { have_flags = add_output_flag(outstr, "disabled", have_flags); } else if (pcmk_is_set(pe__const_top_resource(rsc, false)->flags, pe_rsc_promotable) && target_role_e == RSC_ROLE_UNPROMOTED) { have_flags = add_output_flag(outstr, "target-role:", have_flags); g_string_append(outstr, target_role); } } // Blocked or maintenance implies unmanaged if (pcmk_any_flags_set(rsc->flags, pe_rsc_block|pe_rsc_maintenance)) { if (pcmk_is_set(rsc->flags, pe_rsc_block)) { have_flags = add_output_flag(outstr, "blocked", have_flags); } else if (pcmk_is_set(rsc->flags, pe_rsc_maintenance)) { have_flags = add_output_flag(outstr, "maintenance", have_flags); } } else if (!pcmk_is_set(rsc->flags, pe_rsc_managed)) { have_flags = add_output_flag(outstr, "unmanaged", have_flags); } if (pcmk_is_set(rsc->flags, pe_rsc_failure_ignored)) { have_flags = add_output_flag(outstr, "failure ignored", have_flags); } if (have_flags) { g_string_append_c(outstr, ')'); } // User-supplied description if (pcmk_any_flags_set(show_opts, pcmk_show_rsc_only|pcmk_show_description) || pcmk__list_of_multiple(rsc->running_on)) { const char *desc = crm_element_value(rsc->xml, XML_ATTR_DESC); if (desc) { g_string_append(outstr, " ("); g_string_append(outstr, desc); g_string_append(outstr, ")"); } } if (show_nodes && !pcmk_is_set(show_opts, pcmk_show_rsc_only) && pcmk__list_of_multiple(rsc->running_on)) { bool have_nodes = false; for (GList *iter = rsc->running_on; iter != NULL; iter = iter->next) { pe_node_t *n = (pe_node_t *) iter->data; have_nodes = add_output_node(outstr, n->details->uname, have_nodes); } if (have_nodes) { g_string_append(outstr, " ]"); } } return g_string_free(outstr, FALSE); } int pe__common_output_html(pcmk__output_t *out, const pe_resource_t *rsc, const char *name, const pe_node_t *node, uint32_t show_opts) { const char *kind = crm_element_value(rsc->xml, XML_ATTR_TYPE); const char *target_role = NULL; xmlNodePtr list_node = NULL; const char *cl = NULL; CRM_ASSERT(rsc->variant == pe_native); CRM_ASSERT(kind != NULL); if (rsc->meta) { const char *is_internal = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_INTERNAL_RSC); if (crm_is_true(is_internal) && !pcmk_is_set(show_opts, pcmk_show_implicit_rscs)) { crm_trace("skipping print of internal resource %s", rsc->id); return pcmk_rc_no_output; } target_role = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_TARGET_ROLE); } if (!pcmk_is_set(rsc->flags, pe_rsc_managed)) { cl = "rsc-managed"; } else if (pcmk_is_set(rsc->flags, pe_rsc_failed)) { cl = "rsc-failed"; } else if (rsc->variant == pe_native && (rsc->running_on == NULL)) { cl = "rsc-failed"; } else if (pcmk__list_of_multiple(rsc->running_on)) { cl = "rsc-multiple"; } else if (pcmk_is_set(rsc->flags, pe_rsc_failure_ignored)) { cl = "rsc-failure-ignored"; } else { cl = "rsc-ok"; } { gchar *s = pcmk__native_output_string(rsc, name, node, show_opts, target_role, true); list_node = pcmk__output_create_html_node(out, "li", NULL, NULL, NULL); pcmk_create_html_node(list_node, "span", NULL, cl, s); g_free(s); } return pcmk_rc_ok; } int pe__common_output_text(pcmk__output_t *out, const pe_resource_t *rsc, const char *name, const pe_node_t *node, uint32_t show_opts) { const char *target_role = NULL; CRM_ASSERT(rsc->variant == pe_native); if (rsc->meta) { const char *is_internal = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_INTERNAL_RSC); if (crm_is_true(is_internal) && !pcmk_is_set(show_opts, pcmk_show_implicit_rscs)) { crm_trace("skipping print of internal resource %s", rsc->id); return pcmk_rc_no_output; } target_role = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_TARGET_ROLE); } { gchar *s = pcmk__native_output_string(rsc, name, node, show_opts, target_role, true); out->list_item(out, NULL, "%s", s); g_free(s); } return pcmk_rc_ok; } /*! * \internal * \deprecated This function will be removed in a future release */ void common_print(pe_resource_t *rsc, const char *pre_text, const char *name, const pe_node_t *node, long options, void *print_data) { const char *target_role = NULL; CRM_ASSERT(rsc->variant == pe_native); if (rsc->meta) { const char *is_internal = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_INTERNAL_RSC); if (crm_is_true(is_internal) && !pcmk_is_set(options, pe_print_implicit)) { crm_trace("skipping print of internal resource %s", rsc->id); return; } target_role = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_TARGET_ROLE); } if (options & pe_print_xml) { native_print_xml(rsc, pre_text, options, print_data); return; } if ((pre_text == NULL) && (options & pe_print_printf)) { pre_text = " "; } if (options & pe_print_html) { if (!pcmk_is_set(rsc->flags, pe_rsc_managed)) { status_print(""); } else if (pcmk_is_set(rsc->flags, pe_rsc_failed)) { status_print(""); } else if (rsc->running_on == NULL) { status_print(""); } else if (pcmk__list_of_multiple(rsc->running_on)) { status_print(""); } else if (pcmk_is_set(rsc->flags, pe_rsc_failure_ignored)) { status_print(""); } else { status_print(""); } } { gchar *resource_s = pcmk__native_output_string(rsc, name, node, options, target_role, false); status_print("%s%s", (pre_text? pre_text : ""), resource_s); g_free(resource_s); } if (pcmk_is_set(options, pe_print_html)) { status_print(" "); } if (!pcmk_is_set(options, pe_print_rsconly) && pcmk__list_of_multiple(rsc->running_on)) { GList *gIter = rsc->running_on; int counter = 0; if (options & pe_print_html) { status_print("
    \n"); } else if ((options & pe_print_printf) || (options & pe_print_ncurses)) { status_print("["); } for (; gIter != NULL; gIter = gIter->next) { pe_node_t *n = (pe_node_t *) gIter->data; counter++; if (options & pe_print_html) { status_print("
  • \n%s", pe__node_name(n)); } else if ((options & pe_print_printf) || (options & pe_print_ncurses)) { status_print(" %s", pe__node_name(n)); } else if ((options & pe_print_log)) { status_print("\t%d : %s", counter, pe__node_name(n)); } else { status_print("%s", pe__node_name(n)); } if (options & pe_print_html) { status_print("
    • \n"); } } if (options & pe_print_html) { status_print("
\n"); } else if ((options & pe_print_printf) || (options & pe_print_ncurses)) { status_print(" ]"); } } if (options & pe_print_html) { status_print("
\n"); } else if (options & pe_print_suppres_nl) { /* nothing */ } else if ((options & pe_print_printf) || (options & pe_print_ncurses)) { status_print("\n"); } } /*! * \internal * \deprecated This function will be removed in a future release */ void native_print(pe_resource_t *rsc, const char *pre_text, long options, void *print_data) { const pe_node_t *node = NULL; CRM_ASSERT(rsc->variant == pe_native); if (options & pe_print_xml) { native_print_xml(rsc, pre_text, options, print_data); return; } node = pe__current_node(rsc); if (node == NULL) { // This is set only if a non-probe action is pending on this node node = rsc->pending_node; } common_print(rsc, pre_text, rsc_printable_id(rsc), node, options, print_data); } PCMK__OUTPUT_ARGS("primitive", "uint32_t", "pe_resource_t *", "GList *", "GList *") int pe__resource_xml(pcmk__output_t *out, va_list args) { uint32_t show_opts = va_arg(args, uint32_t); pe_resource_t *rsc = va_arg(args, pe_resource_t *); GList *only_node G_GNUC_UNUSED = va_arg(args, GList *); GList *only_rsc = va_arg(args, GList *); bool print_pending = pcmk_is_set(show_opts, pcmk_show_pending); const char *class = crm_element_value(rsc->xml, XML_AGENT_ATTR_CLASS); const char *prov = crm_element_value(rsc->xml, XML_AGENT_ATTR_PROVIDER); const char *rsc_state = native_displayable_state(rsc, print_pending); const char *desc = NULL; char ra_name[LINE_MAX]; char *nodes_running_on = NULL; const char *lock_node_name = NULL; int rc = pcmk_rc_no_output; const char *target_role = NULL; desc = pe__resource_description(rsc, show_opts); if (rsc->meta != NULL) { target_role = g_hash_table_lookup(rsc->meta, XML_RSC_ATTR_TARGET_ROLE); } CRM_ASSERT(rsc->variant == pe_native); if (rsc->fns->is_filtered(rsc, only_rsc, TRUE)) { return pcmk_rc_no_output; } /* resource information. */ snprintf(ra_name, LINE_MAX, "%s%s%s:%s", class, ((prov == NULL)? "" : PROVIDER_SEP), ((prov == NULL)? "" : prov), crm_element_value(rsc->xml, XML_ATTR_TYPE)); nodes_running_on = pcmk__itoa(g_list_length(rsc->running_on)); if (rsc->lock_node != NULL) { lock_node_name = rsc->lock_node->details->uname; } rc = pe__name_and_nvpairs_xml(out, true, "resource", 15, "id", rsc_printable_id(rsc), "resource_agent", ra_name, "role", rsc_state, "target_role", target_role, "active", pcmk__btoa(rsc->fns->active(rsc, TRUE)), "orphaned", pe__rsc_bool_str(rsc, pe_rsc_orphan), "blocked", pe__rsc_bool_str(rsc, pe_rsc_block), "maintenance", pe__rsc_bool_str(rsc, pe_rsc_maintenance), "managed", pe__rsc_bool_str(rsc, pe_rsc_managed), "failed", pe__rsc_bool_str(rsc, pe_rsc_failed), "failure_ignored", pe__rsc_bool_str(rsc, pe_rsc_failure_ignored), "nodes_running_on", nodes_running_on, "pending", (print_pending? native_pending_task(rsc) : NULL), "locked_to", lock_node_name, "description", desc); free(nodes_running_on); CRM_ASSERT(rc == pcmk_rc_ok); if (rsc->running_on != NULL) { GList *gIter = rsc->running_on; for (; gIter != NULL; gIter = gIter->next) { pe_node_t *node = (pe_node_t *) gIter->data; rc = pe__name_and_nvpairs_xml(out, false, "node", 3, "name", node->details->uname, "id", node->details->id, "cached", pcmk__btoa(node->details->online)); CRM_ASSERT(rc == pcmk_rc_ok); } } pcmk__output_xml_pop_parent(out); return rc; } PCMK__OUTPUT_ARGS("primitive", "uint32_t", "pe_resource_t *", "GList *", "GList *") int pe__resource_html(pcmk__output_t *out, va_list args) { uint32_t show_opts = va_arg(args, uint32_t); pe_resource_t *rsc = va_arg(args, pe_resource_t *); GList *only_node G_GNUC_UNUSED = va_arg(args, GList *); GList *only_rsc = va_arg(args, GList *); const pe_node_t *node = pe__current_node(rsc); if (rsc->fns->is_filtered(rsc, only_rsc, TRUE)) { return pcmk_rc_no_output; } CRM_ASSERT(rsc->variant == pe_native); if (node == NULL) { // This is set only if a non-probe action is pending on this node node = rsc->pending_node; } return pe__common_output_html(out, rsc, rsc_printable_id(rsc), node, show_opts); } PCMK__OUTPUT_ARGS("primitive", "uint32_t", "pe_resource_t *", "GList *", "GList *") int pe__resource_text(pcmk__output_t *out, va_list args) { uint32_t show_opts = va_arg(args, uint32_t); pe_resource_t *rsc = va_arg(args, pe_resource_t *); GList *only_node G_GNUC_UNUSED = va_arg(args, GList *); GList *only_rsc = va_arg(args, GList *); const pe_node_t *node = pe__current_node(rsc); CRM_ASSERT(rsc->variant == pe_native); if (rsc->fns->is_filtered(rsc, only_rsc, TRUE)) { return pcmk_rc_no_output; } if (node == NULL) { // This is set only if a non-probe action is pending on this node node = rsc->pending_node; } return pe__common_output_text(out, rsc, rsc_printable_id(rsc), node, show_opts); } void native_free(pe_resource_t * rsc) { pe_rsc_trace(rsc, "Freeing resource action list (not the data)"); common_free(rsc); } enum rsc_role_e native_resource_state(const pe_resource_t * rsc, gboolean current) { enum rsc_role_e role = rsc->next_role; if (current) { role = rsc->role; } pe_rsc_trace(rsc, "%s state: %s", rsc->id, role2text(role)); return role; } /*! * \internal * \brief List nodes where a resource (or any of its children) is * * \param[in] rsc Resource to check * \param[out] list List to add result to * \param[in] current 0 = where allocated, 1 = where running, * 2 = where running or pending * * \return If list contains only one node, that node, or NULL otherwise */ pe_node_t * native_location(const pe_resource_t *rsc, GList **list, int current) { pe_node_t *one = NULL; GList *result = NULL; if (rsc->children) { GList *gIter = rsc->children; for (; gIter != NULL; gIter = gIter->next) { pe_resource_t *child = (pe_resource_t *) gIter->data; child->fns->location(child, &result, current); } } else if (current) { if (rsc->running_on) { result = g_list_copy(rsc->running_on); } if ((current == 2) && rsc->pending_node && !pe_find_node_id(result, rsc->pending_node->details->id)) { result = g_list_append(result, rsc->pending_node); } } else if (current == FALSE && rsc->allocated_to) { result = g_list_append(NULL, rsc->allocated_to); } if (result && (result->next == NULL)) { one = result->data; } if (list) { GList *gIter = result; for (; gIter != NULL; gIter = gIter->next) { pe_node_t *node = (pe_node_t *) gIter->data; if (*list == NULL || pe_find_node_id(*list, node->details->id) == NULL) { *list = g_list_append(*list, node); } } } g_list_free(result); return one; } static void get_rscs_brief(GList *rsc_list, GHashTable * rsc_table, GHashTable * active_table) { GList *gIter = rsc_list; for (; gIter != NULL; gIter = gIter->next) { pe_resource_t *rsc = (pe_resource_t *) gIter->data; const char *class = crm_element_value(rsc->xml, XML_AGENT_ATTR_CLASS); const char *kind = crm_element_value(rsc->xml, XML_ATTR_TYPE); int offset = 0; char buffer[LINE_MAX]; int *rsc_counter = NULL; int *active_counter = NULL; if (rsc->variant != pe_native) { continue; } offset += snprintf(buffer + offset, LINE_MAX - offset, "%s", class); if (pcmk_is_set(pcmk_get_ra_caps(class), pcmk_ra_cap_provider)) { const char *prov = crm_element_value(rsc->xml, XML_AGENT_ATTR_PROVIDER); if (prov != NULL) { offset += snprintf(buffer + offset, LINE_MAX - offset, PROVIDER_SEP "%s", prov); } } offset += snprintf(buffer + offset, LINE_MAX - offset, ":%s", kind); CRM_LOG_ASSERT(offset > 0); if (rsc_table) { rsc_counter = g_hash_table_lookup(rsc_table, buffer); if (rsc_counter == NULL) { rsc_counter = calloc(1, sizeof(int)); *rsc_counter = 0; g_hash_table_insert(rsc_table, strdup(buffer), rsc_counter); } (*rsc_counter)++; } if (active_table) { GList *gIter2 = rsc->running_on; for (; gIter2 != NULL; gIter2 = gIter2->next) { pe_node_t *node = (pe_node_t *) gIter2->data; GHashTable *node_table = NULL; if (node->details->unclean == FALSE && node->details->online == FALSE && pcmk_is_set(rsc->flags, pe_rsc_managed)) { continue; } node_table = g_hash_table_lookup(active_table, node->details->uname); if (node_table == NULL) { node_table = pcmk__strkey_table(free, free); g_hash_table_insert(active_table, strdup(node->details->uname), node_table); } active_counter = g_hash_table_lookup(node_table, buffer); if (active_counter == NULL) { active_counter = calloc(1, sizeof(int)); *active_counter = 0; g_hash_table_insert(node_table, strdup(buffer), active_counter); } (*active_counter)++; } } } } static void destroy_node_table(gpointer data) { GHashTable *node_table = data; if (node_table) { g_hash_table_destroy(node_table); } } /*! * \internal * \deprecated This function will be removed in a future release */ void print_rscs_brief(GList *rsc_list, const char *pre_text, long options, void *print_data, gboolean print_all) { GHashTable *rsc_table = pcmk__strkey_table(free, free); GHashTable *active_table = pcmk__strkey_table(free, destroy_node_table); GHashTableIter hash_iter; char *type = NULL; int *rsc_counter = NULL; get_rscs_brief(rsc_list, rsc_table, active_table); g_hash_table_iter_init(&hash_iter, rsc_table); while (g_hash_table_iter_next(&hash_iter, (gpointer *)&type, (gpointer *)&rsc_counter)) { GHashTableIter hash_iter2; char *node_name = NULL; GHashTable *node_table = NULL; int active_counter_all = 0; g_hash_table_iter_init(&hash_iter2, active_table); while (g_hash_table_iter_next(&hash_iter2, (gpointer *)&node_name, (gpointer *)&node_table)) { int *active_counter = g_hash_table_lookup(node_table, type); if (active_counter == NULL || *active_counter == 0) { continue; } else { active_counter_all += *active_counter; } if (options & pe_print_rsconly) { node_name = NULL; } if (options & pe_print_html) { status_print("
  • \n"); } if (print_all) { status_print("%s%d/%d\t(%s):\tActive %s\n", pre_text ? pre_text : "", active_counter ? *active_counter : 0, rsc_counter ? *rsc_counter : 0, type, active_counter && (*active_counter > 0) && node_name ? node_name : ""); } else { status_print("%s%d\t(%s):\tActive %s\n", pre_text ? pre_text : "", active_counter ? *active_counter : 0, type, active_counter && (*active_counter > 0) && node_name ? node_name : ""); } if (options & pe_print_html) { status_print("
    • \n"); } } if (print_all && active_counter_all == 0) { if (options & pe_print_html) { status_print("
  • \n"); } status_print("%s%d/%d\t(%s):\tActive\n", pre_text ? pre_text : "", active_counter_all, rsc_counter ? *rsc_counter : 0, type); if (options & pe_print_html) { status_print("
    • \n"); } } } if (rsc_table) { g_hash_table_destroy(rsc_table); rsc_table = NULL; } if (active_table) { g_hash_table_destroy(active_table); active_table = NULL; } } int pe__rscs_brief_output(pcmk__output_t *out, GList *rsc_list, uint32_t show_opts) { GHashTable *rsc_table = pcmk__strkey_table(free, free); GHashTable *active_table = pcmk__strkey_table(free, destroy_node_table); GList *sorted_rscs; int rc = pcmk_rc_no_output; get_rscs_brief(rsc_list, rsc_table, active_table); /* Make a list of the rsc_table keys so that it can be sorted. This is to make sure * output order stays consistent between systems. */ sorted_rscs = g_hash_table_get_keys(rsc_table); sorted_rscs = g_list_sort(sorted_rscs, (GCompareFunc) strcmp); for (GList *gIter = sorted_rscs; gIter; gIter = gIter->next) { char *type = (char *) gIter->data; int *rsc_counter = g_hash_table_lookup(rsc_table, type); GList *sorted_nodes = NULL; int active_counter_all = 0; /* Also make a list of the active_table keys so it can be sorted. If there's * more than one instance of a type of resource running, we need the nodes to * be sorted to make sure output order stays consistent between systems. */ sorted_nodes = g_hash_table_get_keys(active_table); sorted_nodes = g_list_sort(sorted_nodes, (GCompareFunc) pcmk__numeric_strcasecmp); for (GList *gIter2 = sorted_nodes; gIter2; gIter2 = gIter2->next) { char *node_name = (char *) gIter2->data; GHashTable *node_table = g_hash_table_lookup(active_table, node_name); int *active_counter = NULL; if (node_table == NULL) { continue; } active_counter = g_hash_table_lookup(node_table, type); if (active_counter == NULL || *active_counter == 0) { continue; } else { active_counter_all += *active_counter; } if (pcmk_is_set(show_opts, pcmk_show_rsc_only)) { node_name = NULL; } if (pcmk_is_set(show_opts, pcmk_show_inactive_rscs)) { out->list_item(out, NULL, "%d/%d\t(%s):\tActive %s", *active_counter, rsc_counter ? *rsc_counter : 0, type, (*active_counter > 0) && node_name ? node_name : ""); } else { out->list_item(out, NULL, "%d\t(%s):\tActive %s", *active_counter, type, (*active_counter > 0) && node_name ? node_name : ""); } rc = pcmk_rc_ok; } if (pcmk_is_set(show_opts, pcmk_show_inactive_rscs) && active_counter_all == 0) { out->list_item(out, NULL, "%d/%d\t(%s):\tActive", active_counter_all, rsc_counter ? *rsc_counter : 0, type); rc = pcmk_rc_ok; } if (sorted_nodes) { g_list_free(sorted_nodes); } } if (rsc_table) { g_hash_table_destroy(rsc_table); rsc_table = NULL; } if (active_table) { g_hash_table_destroy(active_table); active_table = NULL; } if (sorted_rscs) { g_list_free(sorted_rscs); } return rc; } gboolean pe__native_is_filtered(const pe_resource_t *rsc, GList *only_rsc, gboolean check_parent) { if (pcmk__str_in_list(rsc_printable_id(rsc), only_rsc, pcmk__str_star_matches) || pcmk__str_in_list(rsc->id, only_rsc, pcmk__str_star_matches)) { return FALSE; } else if (check_parent && rsc->parent) { const pe_resource_t *up = pe__const_top_resource(rsc, true); return up->fns->is_filtered(up, only_rsc, FALSE); } return TRUE; }