1ipmi_cmdlang(7) Shell interface to an IPMI system ipmi_cmdlang(7)
2
6 ipmi_cmdlang - A command language interface to the IPMI library
7
10 ipmi_cmdlang is a command language designed to supply the full power of
11 OpenIPMI on a command line. It has a large number of commands and
12 well-formed responses to each command. Note that this assumes some
13 knowledge of OpenIPMI and how it works; you can get that from the IPMI
14 document that comes with OpenIPMI.
15 ipmish starts up with no connections or anything of that nature. You
17 must enter commands to make connections to domains. Then you can enter
18 commands to manipulate those domains or objects inside those domains.
19 Note that you may use quotes, either '' or to contain parameters with
21 spaces.
22
25 Lines with a # character in the first column are ignored.
26
29 In the command language, you will deal with various objects like sen‐
30 sors, controls, domains, and entities. Each of these has a name. The
31 name of the domain is assigned by the user in the domain new command,
32 all the other names are based on the domain name of the domain they
33 belong to and various attributes about the object. These names are all
34 well-formed. They are
35 <domain> - A name of a domain. Each registered domain in a system has
37 a name assigned by the user.
38 <entity> - Entity names are in the form:
40 [<domain>[(<entity spec>)]]
41 Notice that the <entity spec> is optional. If it is not listed, then
42 the operation is done on all entities in the domain. The whole thing
43 is optional, too, if nothing is given then the operation is done on
44 every entity in every domain.
45 The <entity spec> is either
47 <entity id>.<entity instance>
48 for system-relative entities, or:
49 r<channel>.<IPMB>.<entity id>.<entity instance-0x60>
50 for device-relative entities. In IPMI, device-relative entity
51 instances always start at 0x60; the specification suggests that you
52 subtract off the 0x60 from the entity instance when displaying these;
53 the command language follows this suggestion.
54 <sensor> - These come in the form
56 [<entity>[.name]]
57 As with entities, only listing a domain will cause the operation to be
58 done on every sensor in the domain, just listing an entity will cause
59 it to be done to every sensor in that entity. An empty sensor entry
60 will cause an operation to be done on every sensor in every domain.
61 <control> - These come in the form
63 [<entity>[.name]]
64 These work exactly like sensors.
65 <mc> - A management controller. These come in the form
67 [<domain>[(<channel>.<IPMB>)]]
68 As usual, the parts left empty will cause defaulting to all things in
69 the previously specified parts.
70 <connection> - A connection number, in the form
72 [<domain>[.<integer>]]
73 The number is the connection number of the domain.
74 <pet> - A platform event trap id, in the form
76 [<domain>[.<integer>]]
77 The number is arbitrarily assigned by the system.
78 <lanparm> - A LAN parameter id, in the form
80 [<domain>[.<integer>]]
81 The number is arbitrarily assigned by the system.
82 <pef> - A PEF id, in the form
84 [<domain>[.<integer>]]
85 The number is arbitrarily assigned by the system.
86 <fru> - A FRU id, in the form
88 [<domain>[.<integer>]]
89 The number is arbitrarily assigned by the system.
90 In all cases, the object names have parts that are optional, and the
92 entire object name is optional. If a part is left empty, then all
93 objects that are part of the specified parts are operated on. For
94 instance, if the system has a sensor named d1(7.1).temp then specifying
95 d1 would operation on all sensors in the domain named d1. Specifying
96 d1(7.1) Would operation on all sensors in that entity. Specifying an
97 empty name, either with or by just entering nothing if the object is
98 the last thing in the command's parameters.
99 Note this optionality gives a lot of power, but can be very dangerous.
101 Entering domain close will close every domain, for instance.
102 In commands, every object operated on will generate a response for that
104 object. If no object is operated on, the command will produce an
105 error.
106
109 The commands and displays use a variety of other parameters for speci‐
110 fying various IPMI things.
111 <guid> - a 16-byte globally unique ID, all globbed together in one big
113 hexadecimal thing.
114 <threshold> is a threshold for a sensor; the value it must go
116 over/under to generate an event. It is always displayed as one of
117 lower non-critical lower critical lower non-recoverable upper non-crit‐
118 ical upper critical upper non-recoverable. It may be entered as one of
119 the above, or as ln, lc, lr, un, uc, ur as a short form.
120 <threshold enable> is the enable for a threshold. It is like <thresh‐
122 old> above, but also has a going-high or going-low and an assertion or
123 deassertion appended to the end of the name. The short form will have
124 a l or h for going-low and going high and then a a or d appended for
125 assertion and deassertion So for instance, urld is upper non-recover‐
126 able going-low deassertion.
127 <discrete enable> is the enable or disable for a discrete sensor and is
129 specified with the sensor offset. The long form is <integer> assertion
130 or <integer> deassertion and the short form is <integer>[ad] where the
131 number is the offset and [ad] means assertion or deassertion.
132 <hot-swap state> is one of not_present, inactive activation_requested
134 activation_in_progress active deactivation_requested deactiva‐
135 tion_in_progress or out_of_con.
136 <color> is one of black, white, red, green blue yellow or orange.
138 <bool> is one of true, on, t, or 1 for true and one of false, off, f,
140 or 0 for false. Output is always true or false.
141
144 The command language is hierarchical, meaning that commands may have
145 subcommands, and subcommands may have subsubcommands, etc. So, for
146 instance, the command to create a domain is domain new. The command to
147 list all sensors in a domain named domain1 is sensor list domain1.
148 Each command has a reponse for each object operated on, which is listed
150 after the command description. In those responses, anything that
151 begins with a % is optional. Entries of the form **name** refer to
152 object info descriptions that are listed in the object info section.
153 If an entry has two '.' indented one space below it, then that entry
154 may occur zero or more times.
155 Each section below defines the unique subcommands of a main command.
157 Help for any command is available with:
159 help command [subcommand [...]] - Help for any command.
161 Some commands are common to almost all subcommands. These are:
163 list <containing object> - List all objects of the specified type that
165 are contained in the specified object. For instance, control list
166 <entity> will list all controls in the given entity.
167 Response:
169 <containing object type>
170 Name: <name>
171 .
172 .
173 info <object> - List static information about the given object.
176 Response:
178 <object type>
179 Name: <name>
180 **object info**
181 domain
184 These commands deal with domain objects.
185 new <domain> <options> <parms> [<parms>] - Open a connection to a new
187 domain. <parms> are either:
188 lan <IP> <port> [<IP> <port>] <enc> <auth> <name> <password>
189 for a RMCP LAN connection or
190 smi <smi num>
191 for a system interface connection. Note that <parms> is listed twice
192 (second one is optional); if the system support it you can make two
193 connections to two independent management controllers in the system.
194 Note that this is not for multiple IP addresses to the same BMC. For
195 that, notice that the LAN connection has an options extra IP and port
196 for the second IP address. OpenIPMI supports these IP addresses and
197 connection, detecting failures, switching between addresses, and other
198 fault-tolerant things. It does this transparently to the user. Muti‐
199 ple connections may require special OEM support, read the documentation
200 about your specific system if you need this.
201 The <IP> is the IP address or host name of the LAN-capable BMC to con‐
203 nect with. The <port> is generally 623. <enc> is the authentication
204 type, either md5, md2, straight, or none. <auth> is the authentication
205 level, either admin, operator or user. <name> and <password> are the
206 user name and password of the IPMI user to use for the connection. The
207 <smi num> is the driver number, generally 0. Options enable and dis‐
208 able various automitic processing and are:
209 -[no]all - all automatic handling. This will override the other pro‐
210 cessing options and turn them all on. This is true by default.
211 -[no]sdrs - sdr fetching. This turns on fetching SDRs when they are
212 found. This is false by default.
213 -[no]frus - FRU fetching This turns on fetching FRU information when
214 it is found. This is false by default.
215 -[no]sel - SEL fetching. This turns on fetching SELs when they are
216 found. This is false by default.
217 -[no]ipmbscan - IPMB bus scanning. This turns on scanning IPMB busses
218 when they are found. This is false by default.
219 -[no]oeminit - enable or disable special OEM processing (like ATCA).
220 -[no]seteventrcvr - setting event receivers. Note that setting event
221 receivers and waiting til up is not affected by the -all option.
222 If this is true (the default) then OpenIPMI will attempt to set
223 the event receiver for an MC it finds that does not have it set
224 to a valid destination.
225 -wait_til_up - wait until the domain is up before returning Note that
226 if you specify this and the domain never comes up, you will
227 never get a prompt. This is not affected by the -all option.
228 By default -all and -seteventrcvr are true, which turns every‐
229 thing on.
230 Response:
232 Domain Created: <domain>
233 open <domain> <options> <parms> [<parms>] - Open a connection to a new
235 domain. <parms> are either:
236 lan [-U <username>] [-P <password>] [-A <authtype>]
237 [-L <privilege>] [-s] [-p[2] <port number>]
238 [-Ra <auth alg>] [-Ri <integ alg>] [-Rc <conf algo>]
239 [-Rl] [-Rk <bmc key>] [-H <hackname>]
240 [-M <max oustanding msgs>] <IP> [<IP>]
241 for a RMCP/RMCP+ LAN connection or
242 smi <smi num>
243 for a system interface connection. Note that <parms> is listed twice
244 (second one is optional); if the system support it you can make two
245 connections to two independent management controllers in the system.
246 Note that this is not for multiple IP addresses to the same BMC. For
247 that, use the -s option and the second IP (and -p2) for the second IP
248 address. OpenIPMI supports these IP addresses and connections, detect‐
249 ing failures, switching between addresses, and other fault-tolerant
250 things. It does this transparently to the user. Multiple connections
251 may require special OEM support, read the documentation about your spe‐
252 cific system if you need this.
253 The <IP> is the IP address or host name of the LAN-capable BMC to con‐
255 nect with. The <port> defaults 623. <authtype> is the authentication
256 type, either rmcp+, md5, md2, straight, or none. It defaults to the
257 best authentication supported by the server. <auth> is the authentica‐
258 tion level, either admin, operator or user. It defaults to admin.
259 <username> and <password> are the user name and password of the IPMI
260 user to use for the connection. For RMCP+ connections, the authentica‐
261 tion algorithms supported (-Ra) are: bmcpick, rakp_none,
262 rakp_hmac_sha1, and rakp_hmac_md5. The integrity algorithms (-Ri) sup‐
263 ported are: bmcpick, none, hmac_sha1, hmac_md5, and md5. The confiden‐
264 tiality algorithms (-Rc) are: bmcpick, aes_cbc_128, xrc4_128, and
265 xrc_40. The defaults are rackp_hmac_sha1, hmac_sha1, and aes_cb_128.
266 -Rl turns on lookup up names by the name and the privilege level
267 (allowing the same name with different privileges and different pass‐
268 words), the default is straight name lookup. -Rk sets the BMC key,
269 needed if the system does two-key lookups.
270 For SMI types, the <smi num> is the driver number, generally 0.
272 The <hackname> enables certain hacks for broken platforms. This may be
274 listed multiple times to enable multiple hacks. The currently avail‐
275 able hacks are:
276 intelplus - For Intel platforms that have broken RMCP+.
277 rakp3_wrong_rolem - For systems that truncate role(m) in the RAKP3 msg.
278 rmcpp_integ_sik - For systems that use SIK instead of K(1) for
279 integrity.
280 The -M option sets the maximum outstanding messages. The
282 default is 2, ranges 1-63.
283 Options enable and disable various automitic processing and are:
285 -[no]all - all automatic handling. This will override the other pro‐
286 cessing options and turn them all on. This is true by default.
287 -[no]sdrs - sdr fetching. This turns on fetching SDRs when they are
288 found. This is false by default.
289 -[no]frus - FRU fetching This turns on fetching FRU information when
290 it is found. This is false by default.
291 -[no]sel - SEL fetching. This turns on fetching SELs when they are
292 found. This is false by default.
293 -[no]ipmbscan - IPMB bus scanning. This turns on scanning IPMB busses
294 when they are found. This is false by default.
295 -[no]oeminit - enable or disable special OEM processing (like ATCA).
296 -[no]seteventrcvr - setting event receivers. Note that setting event
297 receivers is not affected by the -all option. If this is true
298 (the default) then OpenIPMI will attempt to set the event
299 receiver for an MC it finds that does not have it set to a valid
300 destination. -[no]setseltime - set SEL time. Note that setting
301 the SEL time is not affected by the -all option. If this is
302 true (the default) then OpenIPMI will attempt to set the time in
303 the SELs it finds. It will set it to the current system time.
304 -wait_til_up - wait until the domain is up before returning Note that
305 if you specify this and the domain never comes up, you will
306 never get a prompt. This is not affected by the -all option.
307 By default -all and -seteventrcvr are true, which turns every‐
308 thing on.
309 Response:
311 Domain Created: <domain>
312 fru <domain> <is_logical> <device_address> <device_id> <lun> <pri‐
314 vate_bus> <channel> - dump a fru given all it's insundry information.
315 Response:
317 Domain
318 Name: <domain>
319 FRU
320 **FRU INFO**
321 msg <domain> <channel> <ipmb> <LUN> <NetFN> <Cmd> [data...] - Send a
323 command to the given IPMB address on the given channel and display the
324 response. Note that this does not require the existance of an MC in
325 OpenIPMI.
326 Response:
328 Domain: <domain>
329 channel: <chan>
330 ipmb: <ipmb>
331 LUN: <lun>
332 NetFN: <netfn>
333 command: <cmd>
334 Data: <data bytes>
335 scan <domain> <ipmb addr> [ipmb addr] - scan an IPMB to add or remove
337 it. If a range is given, then scan all IPMBs in the range.
338 Response:
340 Scan done: <domain>
341 rescan_sels <domain> - Rescan all the SELs in the domain.
343 Response:
345 SEL Rescan done: <domain>
346 presence <domain> - Audit the presence of all enities in the domain.
348 Note that this just starts the process; it will run in the background.
349 Response is:
351 Presence check started: <domain>
352 close <domain> - close the given domain.
354 Response:
356 Domain closed: <domain>
357 sel_rescan_time <domain> <time in seconds> - Set the time between SEL
359 rescans for all. It affects all current SELs and SELs that are discov‐
360 ered in the future. Zero disables scans.
361 Response:
363 Domain SEL rescan time set: <domain>
364 ipmb_rescan_time <domain> <time in seconds> - Set the time between IPMB
366 rescans for this domain. zero disables scans.
367 Response:
369 Domain IPMB rescan time set: <domain>
370 fru
373 These commands deal with FRU objects. Note that FRU objects are allo‐
374 cated by the domain fru command, and are not allocated here.
375 list - List all the frus in the system
377 Response:
379 Domain
380 Name: <domain>
381 FRUs
382 Name: <fru>
383 .
384 .
385 .
386 .
387 info <fru> - Dump information about a FRU
389 Response:
391 **FRU INFO**
392 areainfo <fru> - Dump the info about the FRU's areas
394 Response:
396 FRU
397 Name: <fru>
398 FRU Length: <integer>
399 Area
400 Name: <area name>
401 Number: <integer>
402 Offset: <integer>
403 Length: <integer>
404 Used Length: <Integer>
405 .
406 .
407 write <fru> - Write the local FRU data out into the FRU
409 Response:
411 FRU written: <fru>
412 close <fru> - Delete the FRU
414 Response:
416 FRU deleted: <fru>
417 setval <fru> <name> [num] value - Set the value of a FRU element. The
419 name is the record name, or multi-record. The number is required for
420 fields that need it (custom and multi-record). The value is an a sin‐
421 gle value for integers. For strings it is a string type (either
422 binary, ascii, or unicode) and the info. Binary and unicode data is
423 specified as numbers. ascii data is specified in a string. Note that
424 setting a ascii value with no string will clear the value. Zero length
425 strings and data is valid.
426 Response:
428 FRU value set: <fru>
429 area_offset <fru> <area name> <offset> - Set the offset of the given
431 area to the given value. Area names are internal_data, chassis_info,
432 board_info, product_info, and multi_record.
433 Response:
435 FRU area offset set: <fru>
436 area_length <fru> <area name> <length> - Set the length of the given
438 area to the given value. Area names are internal_data, chassis_info
439 board_info, product_info, and multi_record
440 Response:
442 FRU area length set: <fru>
443 area_add <fru> <area name> <offset> <length> - Add the given area to
445 the FRU.
446 Response:
448 FRU area added: <fru>
449 area_delete <fru> <area name> - Delete the given area from the FRU
451 Response:
453 FRU area deleted: <fru>
454 entity
458 These commands deal with entity objects.
459 list <entity> - List all the entities that meed the criteria
461 Response:
463 Domain
464 Name: <domain>
465 Entities
466 Name: <entity>
467 .
468 .
469 .
470 .
471 info <entity> - Dump information about an entity.
473 Reponse:
475 Entity
476 Name: <entity>
477 **ENTITY INFO**
478 .
479 .
480 fru <entity> - Dump the FRU information about the given entity.
482 Reponse:
484 Entity
485 Name: <entity>
486 FRU
487 **FRU INFO**
488 entity hs
491 These commands deal with hot-swap of entities. Note that there is no
492 info or list command for this subcommand.
493 get_act_time <entity> - Get the hot-swap auto-activate time.
495 Response:
497 Entity
498 Name: <entity>
499 Auto-Activation Time: <integer>
500 set_act_time <entity> - Set the hot-swap auto-activate time.
502 Reponse:
504 Set act time: <entity>
505 get_deact_time <entity> - Get the hot-swap auto-deactivate time
507 Response:
508 Entity
509 Name: <entity>
510 Auto-Deactivation Time: <integer>
511 set_deact_time <entity> - Set the hot-swap auto-deactivate time
513 Response:
515 Set deact time: <entity>
516 activation_request <entity> - Act like a user requested an activation
518 of the entity. This is generally equivalent to closing the handle
519 latch or something like that.
520 Response:
522 Activation requested: <entity>
523 activate <entity> - activate the given entity
525 Response:
527 Activated: <entity>
528 deactivate <entity> - deactivate the given entity
530 Response:
532 Deactivated: <entity>
533 state <entity> - Return the current hot-swap state of the given entity.
535 Response:
537 Entity
538 Name: <entity>
539 State: <hot-swap state>
540 check <entity> - Audit the entity's hot-swap state
542 Response:
544 Check started: <entity>
545 sensor
548 get <sensor> - Get the sensor's current reading.
549 Response:
551 Sensor
552 Name: <sensor>
553 Event Messages Enabled: <bool>
554 Sensor Scanning Enabled: <bool>
555 Initial Update In Progress: <bool>
556 For threshold sensors, the following will be output:
557 %Value: <double>
558 %Raw Value: <integer>
559 Threshold
560 Name: <threshold>
561 Out Of Range: <bool>
562 For discrete sensors, the following will be output:
563 Event
564 Offset: <integer>
565 %Name: <string name of event offset>
566 Set: <bool>
567 The name field may be custom and is not explicitly specified.
568 rearm <sensor> global | <threshold enable> [<threshold enable> ..] |
570 <discrete enable> [<discrete enable> ..] - Rearm the sensor. If
571 global is specified, then rearm all events in the sensor. Otherwise,
572 if it is a threshold sensor, then put in a list of threshold enables.
573 If it is a discrete sensor, then put in a list of discrete enables.
574 Response:
576 Rearm done: <sensor>
577 get_thresholds <sensor> - Get the sensor's thresholds
579 Response:
581 Sensor
582 Name: <sensor>
583 Threshold
584 Name: <threshold>
585 Value: <double>
586 set_thresholds <sensor> <threshold> <value> ... - Set the sensor's
588 thresholds to the given values. If a threshold is not specified, it
589 will not be modified. Thresholds are un, uc, ur, lr, lc, ln. The u
590 stands for upper, l for lower, n for non-critical, c for critical, and
591 r for non-recoverable. The value is floating point.
592 Response:
594 Thresholds set: <sensor>
595 get_hysteresis <sensor> - Get the sensor's hysteresis values
597 Response:
599 Sensor
600 Name: <sensor>
601 Positivie Hysteresis: <integer>
602 Negative Hysteresis: <integer>
603 set_hysteresis <sensor> <pos hyst> <neg hyst> - Set the sensor's hys‐
605 teresis to the given values. These are raw integer value; hystersis is
606 specified as a raw value and it cannot be converted to floating point
607 because the function may be non-linear.
608 Response:
610 Hysteresis set: <sensor>
611 get_event_enables <sensor> - Get the sensor's event enable values
613 Response:
615 Sensor
616 Name: <sensor>
617 Event Messages Enabled: <bool>
618 Sensor Scanning Enabled: <bool>
619 Busy: <bool>
620 Threshold sensors report:
621 Threshold
622 Name: <threshold>
623 Enabled: <bool>
624 .
625 .
626 only supported thresholds are listed. Discrete sensors report:
627 Event
628 Offset: <integer>
629 Name: <event offset name for sensor>
630 %Assertion Enabled: <bool>
631 %Deassertion Enabled: <bool>
632 only supported offsets are listed. The assertion and deassertion
633 enables are listed only if the offset support them.
634 set_event_enables <sensor> msg|nomsg scan|noscan [<enable> [<enable>
636 ...]] - Set the sensor's event enable values. This turns sensor mes‐
637 sages and scanning on and off and will enable all the listed enables
638 and disable all over ones. The enables are either a <threshold enable>
639 or a <discrete enable>.
640 Response:
642 Event enables set: <sensor>
643 enable_events <sensor> msg|nomsg scan|noscan [<enable> [<enable> ...]]
645 - Enable event enable values. This turns sensor messages and scanning
646 on and off and will enable all the listed enables. All other enables
647 will be left alone. The enables are either a <threshold enable> or a
648 <discrete enable>.
649 Response:
651 Event enables set: <sensor>
652 disable_events <sensor> msg|nomsg scan|noscan [<enable> [<enable> ...]]
654 - Disable event enable values. This turns sensor messages and scanning
655 on and off and will disable all the listed enable. All other enables
656 will be left alone. The enables are either a <threshold enable> or a
657 <discrete enable>.
658 Response:
660 Event enables set: <sensor>
661 control
664 Commands dealing with controls.
665 set <control> <value> [<value> ..] - Set the value of a control. The
667 settings depend on control type, most take one or more integer values
668 depending on the number of physical things the control contains. An
669 identifier type takes one or more unsigned characters. A light set
670 with settings take the form
671 lc|nolc <color> <on time> <off time>
672 lc and nolc turn on or of local control, the over values should be
673 obvious. Note all lights support local control, you need to see if it
674 supports the value.
675 Response:
677 Set done: <control>
678 get <control> - Get the value of a control. The reponse depends on the
680 control type.
681 Response:
683 Control
684 Name: <control>
685 Response for setting lights is:
686 Light
687 Num: 0
688 Local Control: <bool>
689 %Color: <color>
690 %On Time: <integer>
691 %Off Time: <integer>
692 Note that multiple lights may be present if the control supports multi‐
693 ple lights. The options values (marked with % ) will not be present if
694 local control is set to true. Local control means that the LED takes
695 whatever default function it does on the device (like disk activity,
696 ethernet activity, hot-swap LED, etc.). Response for id control:
697 Data: <byte1> <byte2> ...
698 Response for other controls:
699 Value
700 Num: <integer>
701 Value: <integer>
702 There will be one Value for each value the control supports.
703 mc
706 Commands dealing with MC objects.
707 reset <warm | cold> <mc> - Do a warm or cold reset on the given MC
709 Response:
711 Reset done: <mc>
712 msg <mc> <LUN> <NetFN> <Cmd> [data...] - Send the given command to the
714 management controller and display the response.
715 Response:
717 MC: <mc>
718 LUN: <lun>
719 NetFN: <netfn>
720 command: <cmd>
721 Data: <data bytes>
722 set_events_enable <mc> <enable | disable> - enables or disables events
724 on the MC.
725 Response:
727 Events enable done: <mc>
728 get_events_enable <mc> - Prints out if the events are enabled for the
730 given MC.
731 Response:
733 Events Enable: <bool>
734 sdrs <mc> <main | sensor> - list the SDRs for the mc. Either gets the
736 main SDR repository or the sensor SDR repository.
737 Response:
739 MC
740 Name: <mc>
741 SDR
742 Record ID: <integer>
743 Type: <integer>
744 Version: <integer>.<integer>
745 Data: <data bytes>
746 One SDR will be present for each SDR in the repository.
747 get_sel_time <mc> - Get the time in the SEL for the given MC.
749 Response:
751 MC
752 Name: <mc>
753 SEL Time: <integer>
754 set_sel_time <mc> <time> - Set the time in the SEL for the given MC.
756 Response:
758 MC SEL time set
759 Name: <mc>
760 rescan_sel <mc> - Rescan the SEL in the MC.
762 Response:
764 SEL Rescan done: <mc>
765 sel_rescan_time <mc> <time in seconds> - Set the time between SEL res‐
767 cans for the SEL on this MC. Zero disables scans.
768 Response:
770 MC SEL rescan time set: <domain>
771 sel_info <mc> - Dump information about the MC's SEL.
773 Response:
775 MC
776 Name: <mc>
777 SEL Version: <integer>.<integer>
778 SEL Count: <integer>
779 SEL Slots Used: <integer>
780 SEL Free Bytes: <integer>
781 SEL Last Addition Timestamp: <integer>
782 SEL overflow: <bool>
783 SEL Supports Delete: <bool>
784 SEL Supports Partial Add: <bool>
785 SEL Supports Reserve: <bool>
786 SEL Supports Get SEL Allocation: <bool>
787 chan info <mc> <channel> - Dump information about the MC's channel.
789 Response:
791 Channel Info
792 MC: <mc>
793 Number: <integer>
794 Medium: <integer>
795 Protocol Type: <integer>
796 Session Support: session-less|single-session|multi-session|session-based
797 Vendor ID: <data bytes>
798 Aux Info: <data bytes>
799 chan get_access <mc> <channel> non-volatile|present|both - Dump infor‐
801 mation about the MC's channel access. There are two different places
802 where this is stored, the present in-use values (volatile) and the non-
803 volatile storage that is loaded at startup. Note if you specify chan‐
804 nel 0xe, the response channel will be different; it will be the current
805 channel.
806 Response:
808 Channel Access
809 MC: <mc>
810 Channel: <integer>
811 Type: non-volatile|present
812 Alerting Enabled: <bool>
813 Per-Message Auth: <bool>
814 User Auth: <bool>
815 Access Mode: disable|pre-boot|always|shared
816 Privilege Limit: callback|user|operator|admin|oem
817 chan set_access <mc> <channel> non-volatile|present|both <parm> <value>
819 ... - Set information about the MC's channel access. There are two
820 different places where this is stored, the present in-use values
821 (volatile) and the non-volatile storage that is loaded at startup.
822 Note if you specify channel 0xe, the modified channel will be the cur‐
823 rent channel. Parms are:
824 alert true|false
825 msg_auth true|false
826 user_auth true|false
827 access_mode disabled|pre-boot|always|shared
828 privilege_limit callback|user|operator|admin|oem
829 Response:
831 Channel Access Set
832 MC: <mc>
833 Channel: <integer>
834 chan user list <mc> <channel> [<user num>] - List users associated with
836 the channel. Each user number has an associated name and password that
837 is global in the MC (not associated with a channel). There is also
838 channel-specific information for each user. This command lists the
839 global user information and the channel-specific information for the
840 channel specified. If no user number is listed, then all users for the
841 channel are listed. Otherwise only the given user is listed.
842 Response:
844 Channel Access Set
845 MC: <mc>
846 Channel: <integer>
847 Max User: <integer>
848 Enabled Users: <integer>
849 Fixed Users: <integer>
850 User
851 Number: <integer>
852 *String Name: <string>
853 *Binary Name: <data bytes>
854 Link Auth Enabled: <bool>
855 Msg Auth Enabled: <bool>
856 Access CB Only: <bool>
857 Privilege Limit: <integer>
858 Session Limit: <integer>
859 .
860 .
861 All the users are listed. One of string name or binary name is
862 present, if the name is not a printable string, then the binary data is
863 dumped.
864 chan user set <mc> <channel> <user num> <parm> <value> ... - Set
866 information about the user number. Only the specified values are modi‐
867 fied. The name and password are global values, all other are channel-
868 specific. The parms are: are:
869 link_enabled true|false
870 msg_enabled true|false
871 cb_only true|false
872 privilege_limit callback|user|operator|admin|oem|no_access
873 session_limit <integer>
874 name <user name string>
875 password <password string, <= 16 characters>
876 password2 <password string, <= 20 characters>
877 enable
878 disable
879 The password is the 16-byte IPMI 1.5 passwords., the password2 is for
880 20-byte IPMI 2.0 passwords. Note that setting the session limit to
881 zero means there is no session limit. Also note that some systems have
882 a bug where the session limit is not optional (as the spec says it is).
883 If you get C7 errors back from this command, you will have to always
884 specify the session limit. Note that you must enable the user for it
885 to work, but there seems to be no way to get if the user is enabled or
886 not.
887 Response:
889 User Info Set: <mc>
890 sel
894 Commands dealing with the system event log. Note that there is no info
895 command.
896 list <domain> - The list command is unique in this object, so it is
898 specified explicitly here. List the local copy of the system event log
899 for the entire domain.
900 Response:
902 Domain
903 Name: <domain>
904 Entries: <integer>
905 Slots in use: <integer>
906 Event
907 **EVENT INFO**
908 .
909 .
910 mc_list <domain> - List the local copy of the system event log on the
912 given MC.
913 Response:
915 MC
916 Name: <mc>
917 Entries: <integer>
918 Slots in use: <integer>
919 Event
920 **EVENT INFO**
921 .
922 .
923 delete <mc> <record #> - Delete the given event number from the SEL
925 Response:
927 Event deleted
928 MC: <mc>
929 Record: <integer>
930 add <mc> <type> <13 bytes of data> - Add the event data to the SEL.
932 Response:
934 MC
935 Name: <mc>
936 Record ID: <integer>
937 clear <domain> - clear the system event log
939 Response:
941 SEL Clear done: <domain>
942 con
945 Commands dealing with connections.
946 activate <connection> - Activate the given connection
948 Response:
950 Connection activated: <connection>
951 pet
954 Commands dealing with platform event traps.
955 new <domain> <connection> <channel> <ip addr> <mac_addr> <eft selector>
957 <policy num> <apt selector> <lan dest selector> - Set up the domain to
958 send PET traps from the given connection to the given IP/MAC address
959 over the given channel.
960 Response:
962 PET Created: <pet>
963 mcnew <mc> <channel> <ip addr> <mac_addr> <eft selector> <policy num>
965 <apt selector> <lan dest selector> - Set up the domain to send PET
966 traps from the given connection to the given IP/MAC address over the
967 given channel. This takes an MC instead of a connection.
968 Response:
970 PET Created: <pet>
971 close <pet> - Close the pet.
973 Response:
975 PET destroyed: <pet>
976 pef
979 commands dealing with platform even filters. These are basically con‐
980 nections to the PEF configuration parameters in an MC. You use a pef
981 to fetch a pef config, which you can then modify and write back to the
982 MC. Note that when you get a pef config, you claim a lock on the MC
983 that must be unlocked.
984 new <mc> - Create a pef for the given MC.
986 Response:
988 PEF: <pef>
989 unlock_mc <mc> - Unlock the PEF lock on the given MC.
991 Response:
993 PEF unlocked: <mc>
994 close <pef> - Free the given pef
996 Response:
998 PEF destroyed: <pef>
999 pef config
1002 Commands dealing with PEF configurations. These are the actual PEF
1003 data items.
1004 get <pef> - Fetch the pef data items from the pef and create a pef con‐
1006 fig.
1007 Response:
1009 PEF Config
1010 Name: <pef config>
1011 **PEF CONFIG**
1012 update <pef config> <parm> [selector] <value> - Set the given parameter
1014 in the pef config to the given value. If the parameter has a selector
1015 of some type, the selector must be given, otherwise no selector should
1016 be given.
1017 Response:
1019 PEF config updated: <pef config>
1020 set <pef> <pef config> - Write the pef data back to the pef. Note that
1022 this must be the same pef used to create the config.
1023 Response:
1025 PEF config set: <pef config>
1026 unlock <pef> <pef config> - Unlock the lock in the MC and mark the pef
1028 config as unlocked.
1029 Response:
1031 PEF config unlocked: <pef config>
1032 close <pef config> - Free the pef config.
1034 Response:
1036 PEF config destroyed: <pef config>
1037 lanparm
1040 Commands dealing with lanparms. These are basically connections to the
1041 LAN configuration parameters in an MC. You use a lanparm to fetch a
1042 lanparm config, which you can then modify and write back to the MC.
1043 Note that when you get a lanparm config, you claim a lock on the MC
1044 that must be unlocked.
1045 new <mc> <channel> - Create a lanparm for the given MC and channel.
1047 Response:
1049 LANPARM: <lanparm>
1050 unlock_mc <mc> <channel> - Unlock the lanparm lock on the given MC and
1052 channel.
1053 Response:
1055 LANPARM unlocked: <mc>
1056 close <lanparm> - Free the given lanparm
1058 Response:
1060 LANPARM destroyed: <lanparm>
1061 lanparm config
1064 Commands dealing with lanparm configurations. These are the actual
1065 lanparm data items.
1066 get <lanparm> - Fetch the lanparm data items from the lanparm and cre‐
1068 ate a lanparm config.
1069 Response:
1071 LANPARM Config
1072 Name: <lanparm config>
1073 **LANPARM CONFIG**
1074 set <lanparm> <lanparm config> - Write the lanparm data back to the
1076 lanparm. Note that this must be the same lanparm used to create the
1077 config.
1078 Response:
1080 LANPARM config set: <lanparm config>
1081 unlock <lanparm> <lanparm config> - Unlock the lock in the MC and mark
1083 the lanparm config as unlocked.
1084 Response:
1086 LANPARM config unlocked: <lanparm config>
1087 close <lanparm config> - Free the lanparm config.
1089 Response:
1091 LANPARM config destroyed: <lanparm config>
1092
1095 A few general commands exist.
1096 evinfo <bool> - Turn on or off dumping object information when an event
1098 comes in. This is false by default.
1099 debug <type> <bool> - Turn the given debugging type on or off
1101
1105 The command language will output events to the console when they hap‐
1106 pen. Events all occur in the format:
1107 Event
1108 **EVENT INFO**
1109 The event info varies on the type of events. The defined events are
1111 listed below. Note that the output of some events depends on the set‐
1112 ting of the evinfo command; the information about the object itself may
1113 or may not be output.
1114 Some events have another event container; this is the IPMI event that
1116 caused the event to be output.
1117 The following event is output when the domain is completely up and
1119 operational and finished all it SDR, FRU, and bus scans:
1120 EVENT
1121 Object Type: Domain
1122 Name: <domain>
1123 Operation: Domain fully up
1124 Connection Number: <integer>
1125 Port Number: <integer>
1126 Any Connection Up: <bool>
1127 Error: <integer>
1128 The following comes out when domain connection infomration changes:
1130 EVENT
1131 Object Type: Domain
1132 Name: <domain>
1133 Operation: Connection Change
1134 The following comes out when domains are added:
1136 EVENT
1137 Object Type: Domain
1138 Name: <domain>
1139 Operation: Add
1140 %**DOMAIN INFO**
1141 The following comes out when domains are destroyed:
1143 EVENT
1144 Object Type: Domain
1145 Name: <domain>
1146 Operation: Delete
1147 The following comes out when the domain gets an event that does not
1149 have a handler:
1150 EVENT
1151 Object Type: Event
1152 **EVENT INFO**
1153 The following comes out when an entity is added:
1155 EVENT
1156 Object Type: Entity
1157 Name: <entity>
1158 Operation: Add
1159 %**ENTITY INFO**
1160 The following comes out when an entity is deleted:
1162 EVENT
1163 Object Type: Entity
1164 Name: <entity>
1165 Operation: Delete
1166 The following comes out when an entity is changed:
1168 EVENT
1169 Object Type: Entity
1170 Name: <entity>
1171 Operation: Change
1172 %**ENTITY INFO**
1173 The following comes out when an entity's FRU is added:
1175 EVENT
1176 Object Type: Entity FRU
1177 Name: <entity>
1178 Operation: Add
1179 %**FRU INFO**
1180 The following comes out when an entity's FRU is deleted:
1182 EVENT
1183 Object Type: Entity FRU
1184 Name: <entity>
1185 Operation: Delete
1186 The following comes out when an entity's FRU is changed:
1188 EVENT
1189 Object Type: Entity FRU
1190 Name: <entity>
1191 Operation: Change
1192 %**FRU INFO**
1193 The following comes out when an entity's presence changes:
1195 EVENT
1196 Object Type: Entity
1197 Name: <entity>
1198 Operation: Presence Change
1199 Present: <bool>
1200 %Event
1201 **EVENT INFO**
1202 The following comes out when an entity's hot-swap state changes:
1204 EVENT
1205 Object Type: Entity
1206 Name: <entity>
1207 Operation: Hot-Swap Change
1208 Last State: <hot-swap state>
1209 State: <hot-swap state>
1210 %Event
1211 **EVENT INFO**
1212 The following comes out when an MC is added:
1214 EVENT
1215 Object Type: MC
1216 Name: <mc>
1217 Operation: Add
1218 %**MC INFO**
1219 The following comes out when an MC is removed:
1221 EVENT
1222 Object Type: MC
1223 Name: <mc>
1224 Operation: Delete
1225 The following comes out when an MC is changed:
1227 EVENT
1228 Object Type: MC
1229 Name: <mc>
1230 Operation: Change
1231 %**MC INFO**
1232 The following comes out when an MC changes active state:
1234 EVENT
1235 Object Type: MC
1236 Name: <mc>
1237 Operation: Active Changed
1238 Active: <bool>
1239 The following comes out when a discrete sensor gets an event:
1241 EVENT
1242 Object Type: Sensor
1243 Name: <sensor>
1244 Operation: Event
1245 Offset: <integer>
1246 Direction: assertion | deassertion
1247 Severity: <integer>
1248 Previous Severity: <integer>
1249 %Event
1250 **EVENT INFO**
1251 The following comes out when a threshold sensor gets an event:
1253 EVENT
1254 Object Type: Sensor
1255 Name: <sensor>
1256 Operation: Event
1257 Threshold: <threshold>
1258 High/Low: going-high | going-low
1259 Direction: assertion | deassertion
1260 %Value: <double>
1261 %Raw Value: <integer>
1262 %Event
1263 **EVENT INFO**
1264 The following comes out when a sensor is added:
1266 EVENT
1267 Object Type: Sensor
1268 Name: <sensor>
1269 Operation: Add
1270 %**SENSOR INFO**
1271 The following comes out when a sensor is deleted:
1273 EVENT
1274 Object Type: Sensor
1275 Name: <sensor>
1276 Operation: Delete
1277 The following comes out when a sensor is changed:
1279 EVENT
1280 Object Type: Sensor
1281 Name: <sensor>
1282 Operation: Change
1283 %**SENSOR INFO**
1284 The following comes out when a control gets an event:
1286 EVENT
1287 Object Type: Control
1288 Name: <control>
1289 Operation: Event
1290 Value
1291 Number: <integer>
1292 Value: <integer>
1293 %Event
1294 **EVENT INFO**
1295 The following comes out when a control is added:
1297 EVENT
1298 Object Type: Control
1299 Name: <control>
1300 Operation: Add
1301 %**CONTROL INFO**
1302 The following comes out when a control is deleted:
1304 EVENT
1305 Object Type: Control
1306 Name: <control>
1307 Operation: Delete
1308 The following comes out when a control is changed:
1310 EVENT
1311 Object Type: Control
1312 Name: <control>
1313 Operation: Change
1314 %**CONTROL INFO**
1315
1319 Many of the command responses and events contain information about an
1320 objects. The definitions of this information output is done here.
1321 **EVENT INFO**
1324 MC: <mc>
1325 Record ID: <integer>
1326 Event type: <integer>
1327 Timestamp: <integer>
1328 Data: <data bytes>
1329 **DOMAIN INFO**
1332 Type: <domain type>
1333 GUID: <hex string>
1334 SEL Rescan Time: <time>
1335 IPMB Rescan Time: <time>
1336 **ENTITY INFO**
1339 Type: unknown | mc | fru | generic
1340 Present: <bool>
1341 Presence sensor always there: <bool>
1342 Hot swappable: <bool>
1343 %Supports managed hot swap: <bool>
1344 %Parents
1345 Name: <entity>
1346 Name: <entity>
1347 .
1348 .
1349 %Children
1350 Name: <entity>
1351 Name: <entity>
1352 .
1353 .
1354 %Physical Slot: <integer>
1355 %Id: <string>
1356 Entity ID String: <string>
1357 Note that Parents and Children fields will not be present if the entity
1359 has no parents or children. Each entity type except unknown will have
1360 its own output info. These are:
1361 mc
1363 Channel: <channel>
1364 LUN: <lun>
1365 OEM: <oem field from SDR>
1366 Slave Address: <ipmb>
1367 ACPI_system_power_notify_required: <bool>
1368 ACPI_device_power_notify_required: <bool>
1369 controller_logs_init_agent_errors: <bool>
1370 log_init_agent_errors_accessing: <bool>
1371 global_init: <bool>
1372 chassis_device: <bool>
1373 bridge: <bool>
1374 IPMB_event_generator: <bool>
1375 IPMB_event_receiver: <bool>
1376 FRU_inventory_device: <bool>
1377 SEL_device: <bool>
1378 SDR_repository_device: <bool>
1379 sensor_device: <bool>
1380 fru
1382 Channel: <channel>
1383 LUN: <lun>
1384 OEM: <oem field from SDR>
1385 Slave Address: <ipmb>
1386 access_address: <ipmb>
1387 private_bus_id: <integer>
1388 device_type: <integer>
1389 device_modifier: <integer>
1390 is_logical_fru: <bool>
1391 fru_device_id: <integer>
1392 generic
1394 Channel: <channel>
1395 LUN: <lun>
1396 OEM: <oem field from SDR>
1397 access_address: <ipmb>
1398 private_bus_id: <integer>
1399 device_type: <integer>
1400 device_modifier: <integer>
1401 slave_address: <ipmb>
1402 address_span: <integer>
1403 **MC INFO**
1406 Active: <bool>
1407 GUID: <hex string>
1408 SEL Rescan Time: <integer>
1409 provides_device_sdrs: <bool>
1410 device_available: <bool>
1411 chassis_support: <bool>
1412 bridge_support: <bool>
1413 ipmb_event_generator: <bool>
1414 ipmb_event_receiver: <bool>
1415 fru_inventory_support: <bool>
1416 sel_device_support: <bool>
1417 sdr_repository_support: <bool>
1418 sensor_device_support: <bool>
1419 device_id: <ipmb>
1420 device_revision: <integer>
1421 fw_revision: <integer>.<integer>
1422 version: <integer>.<integer>
1423 manufacturer_id: <integer>
1424 product_id: <integer>
1425 aux_fw_revision: <integer> <integer> <integer> <integer>
1426 *SENSOR INFO**
1429 LUN: <integer>
1430 Number: <integer>
1431 Event Reading Type: <integer>
1432 Event Reading Type Name: one of:
1433 unspecified threshold discrete_usage discrete_state
1434 discrete_predictive_failure discrete_limit_exceeded
1435 discrete_performance_met discrete_severity discrete_device_presense
1436 discrete_device_enable discrete_availability discrete_redundancy
1437 discrete_acpi_power
1438 Type: <integer>
1439 Type Name: <sensor type (a generic string)>
1440 %Direction: input | output
1441 %Event Support: per state | entire sensor | global
1442 Init Scanning: <bool>
1443 Init Events: <bool>
1444 Init Thresholds: <bool>
1445 Init Hysteresis: <bool>
1446 Init Type: <bool>
1447 Init Power Up Events: <bool>
1448 Init Power Up Scanning: <bool>
1449 Ignore If No Entity: <bool>
1450 Auto Rearm: <bool>
1451 OEM1: <integer>
1452 Id: <string>
1453 For threshold sensors, the following exist:
1455 Threshold Access: none | readable | settable | fixed
1456 Threshold
1457 Name: <threshold>
1458 Readable: <bool>
1459 Settable: <bool>
1460 Supports: going high assertion | going low assertion
1461 | going high deassertion | going low deassertion
1462 .
1463 .
1464 Hysteresis Support: none | readable | settable | fixed
1465 %Nominal Reading: <float>
1466 %Normal Max: <float>
1467 %Normal Min: <float>
1468 %Sensor Max: <float>
1469 %Sensor Min: <float>
1470 Base Unit: <integer>
1471 Base Unit Name: <string>
1472 %Rate Unit: <integer>
1473 %Rate Unit Name: <string>
1474 %Modifier Use: / | *
1475 %Modifier Unit: <integer>
1476 %Modifier Unit Name: <string>
1477 For discrete sensors, the following exist:
1479 Event
1480 Offset: <integer>
1481 Supports: assertion | deassertion
1482 .
1483 .
1484 **CONTROL INFO**
1487 Type: <control type>
1488 Generates Events: <bool>
1489 Settable: <bool>
1490 Readable: <bool>
1491 Num Values: <integer>
1492 Id: <string>
1493 Controls of type light that are set with settings have the following:
1495 Set with: settings
1496 Local Control: <bool>
1497 Color: <color>
1498 .
1499 .
1500 One color is listed for each supported color
1501 Controls of type light that are set with transitions have the follow‐
1503 ing:
1504 Light
1505 Number: <integer>
1506 Num Values: <integer>
1507 Value
1508 Number: <integer>
1509 Num Transitions: <integer>
1510 Transition
1511 Number: <integer>
1512 Color: <color>
1513 Time: <integer>
1514 .
1515 .
1516 .
1517 .
1518 Controls of type identifier have the following:
1520 Max Length: <integer>
1521 **FRU INFO**
1524 Name: <fru>
1525 record
1526 Name: <name>
1527 Type: binary | ascii | unicode | integer
1528 %Number: <integer>
1529 Data: data depending on type
1530 .
1531 .
1532 Multi-record
1533 Number: <integer>
1534 Type: binary | ascii | unicode
1535 Data: <data in the above format>
1536 .
1537 .
1538 **LANPARM CONFIG**
1541 support_auth_oem: <bool>
1542 support_auth_straight: <bool>
1543 support_auth_md5: <bool>
1544 support_auth_md2: <bool>
1545 support_auth_none: <bool>
1546 ip_addr_source: <integer>
1547 num_alert_destinations: <integer>
1548 %ipv4_ttl: <integer>
1549 %ipv4_flags: <integer>
1550 %ipv4_precedence: <integer>
1551 %ipv4_tos: <integer>
1552 %ip_addr: <ip addr>
1553 %mac_addr: <mac addr>
1554 %subnet_mask: <ip addr>
1555 %primary_rmcp_port <integer>
1556 %secondary_rmcp_port <integer>
1557 %bmc_generated_arps: <bool>
1558 %bmc_generated_garps: <bool>
1559 %garp_interval: <integer>
1560 %default_gateway_ip_addr: <ip addr>
1561 %default_gateway_mac_addr: <mac addr>
1562 %backup_gateway_ip_addr: <ip addr>
1563 %backup_gateway_mac_addr: <mac addr>
1564 community_string: <string>
1565 User
1566 Name: callback
1567 enable_auth_oem: <bool>
1568 enable_auth_straight: <bool>
1569 enable_auth_md5: <bool>
1570 enable_auth_md2: <bool>
1571 enable_auth_none: <bool>
1572 User
1573 Name: user
1574 enable_auth_oem: <bool>
1575 enable_auth_straight: <bool>
1576 enable_auth_md5: <bool>
1577 enable_auth_md2: <bool>
1578 enable_auth_none: <bool>
1579 User
1580 Name: operator
1581 enable_auth_oem: <bool>
1582 enable_auth_straight: <bool>
1583 enable_auth_md5: <bool>
1584 enable_auth_md2: <bool>
1585 enable_auth_none: <bool>
1586 User
1587 Name: admin
1588 enable_auth_oem: <bool>
1589 enable_auth_straight: <bool>
1590 enable_auth_md5: <bool>
1591 enable_auth_md2: <bool>
1592 enable_auth_none: <bool>
1593 User
1594 Name: oem
1595 enable_auth_oem: <bool>
1596 enable_auth_straight: <bool>
1597 enable_auth_md5: <bool>
1598 enable_auth_md2: <bool>
1599 enable_auth_none: <bool>
1600 Alert Destination
1601 Number: <integer>
1602 alert_ack: <bool>
1603 dest_type: <integer>
1604 alert_retry_interval: <integer>
1605 max_alert_retries: <integer>
1606 dest_format: <integer>
1607 gw_to_use: <integer>
1608 dest_ip_addr: <ip addr>
1609 dest_mac_addr: <mac addr>
1610 .
1611 .
1612 **PEF CONFIG**
1615 alert_startup_delay_enabled: <bool>
1616 startup_delay_enabled: <bool>
1617 event_messages_enabled: <bool>
1618 pef_enabled: <bool>
1619 diagnostic_interrupt_enabled: <bool>
1620 oem_action_enabled: <bool>
1621 power_cycle_enabled: <bool>
1622 reset_enabled: <bool>
1623 power_down_enabled: <bool>
1624 alert_enabled: <bool>
1625 %startup_delay: <integer>
1626 %alert_startup_delay: <integer>
1627 guid_enabled: <bool>
1628 guid_val: <guid>
1629 num_event_filters: <integer>
1630 num_alert_policies: <integer>
1631 num_alert_strings: <integer>
1632 Event Filter
1633 Number: <integer>
1634 enable_filter: <bool>
1635 filter_type: <integer>
1636 diagnostic_interrupt: <bool>
1637 oem_action: <bool>
1638 power_cycle: <bool>
1639 reset: <bool>
1640 power_down: <bool>
1641 alert: <bool>
1642 alert_policy_number: <integer>
1643 event_severity: <integer>
1644 generator_id_addr: <integer>
1645 generator_id_channel_lun: <integer>
1646 sensor_type: <integer>
1647 sensor_number: <integer>
1648 event_trigger: <integer>
1649 data1_offset_mask: <integer>
1650 data1_mask: <integer>
1651 data1_compare1: <integer>
1652 data1_compare2: <integer>
1653 data2_mask: <integer>
1654 data2_compare1: <integer>
1655 data2_compare2: <integer>
1656 data3_mask: <integer>
1657 data3_compare1: <integer>
1658 data3_compare2: <integer>
1659 .
1660 .
1661 Alert Policy
1662 Number: <integer>
1663 policy_num: <integer>
1664 enabled: <bool>
1665 policy: <integer>
1666 channel: <integer>
1667 destination_selector: <integer>
1668 alert_string_event_specific: <bool>
1669 alert_string_selector: <integer>
1670 .
1671 .
1672 Alert String
1673 event_filter: <integer>
1674 alert_string_set: <integer>
1675 alert_string: <string>
1676 .
1677 .
1678 **CONNECTION INFO**
1681 Active: <bool>
1682 Up: <bool>
1683 Port
1684 Number: <integer>
1685 Info: <info string>
1686 Up: <bool>
1687 .
1688 .
1689 **PEF INFO**
1692 MC: <mc>
1693 **PET INFO**
1696 MC: <mc>
1697 Channel: <channel>
1698 IP Address: <ip address>
1699 MAC Address: <mac address>
1700 EFT Selector: <eft selector>
1701 Policy Number: <policy number>
1702 APT Selector: <apt selector>
1703 LAN Dest Selector: <lan dest selector>
1704 **LANPARM INFO**
1707 MC: <mc>
1708 Channel: <integer>
1709
1713 ipmish(1)
1714
1717 None
1718
1721 Corey Minyard <cminyard@mvista.org>
1722OpenIPMI 05/13/03 ipmi_cmdlang(7)