commit | 0d4889e4413f0a70aaf0d8125bf2462bfa496dc3 | [log] [tgz] |
---|---|---|
author | Ali Ahmed <ama213000@gmail.com> | Wed Jun 22 04:36:30 2022 +0000 |
committer | Gunnar Mills <gmills@us.ibm.com> | Mon Aug 15 12:42:17 2022 -0600 |
tree | 4f91de706bb3a384b629b55026a5378ab76eae6e | |
parent | b6b9ec4ddd3889f4dd7a089bc3e5ddcefa3f3f55 [diff] |
meta-ibm: Add telemetry bbappend Adding telemetry bbappend to customize telemetry meson options for IBM. IBM has different needs than upstream for telemetry capacity in terms of numbers of sensors readings and rate of requests. bbappend file allows IBM to stay up to date with upstream Telemetry while maintain custom build options more suited to IBM's usecases. Increase meson option for total maximum Metrics/MetricProperties limit from 200 to 300. For IBM management agent use cases (HMC), the max number of Metrics needs to greater than 200. Also for IBM management agent use cases, telemetry reports need a higher append limit for metric readings. 32768 was determined as 1) a power of 2, 2) higher than HMC's current usage, 3) Ability to collect one hour of data for 250 sensors reading once every 30 seconds ==> a general guess as to maximum readings needed in one report. Testing for maximum metrics increase: - Monitored CPU usage of bmcweb for both rainier and everest systems. bmcweb usage spiked for around 2 seconds with 300 MetricProperty MRD. - MRD was periodic on 15 interval with 300 MetricProperties averaged over 30 seconds on everest system with 360 sensors. Max bmcweb usage was 9% for brief instant when MRD post call is made. Testing for appendLimit increase: - Set AppendLimit up to 11000 with 150 sensors on 400+ sensor system. - Monitored 'top' CPU usage for telemetry binary and bmcweb binary which never ran above 5%. AppendLimit generated new metric entries for the report. - Retrieve report did seem to take a little longer as report grew but not significantly. - Tested various other lower limits and sensors Signed-off-by: Ali Ahmed <ama213000@gmail.com> Signed-off-by: Gunnar Mills <gmills@us.ibm.com> Change-Id: I418c3e90c565770cd59b02c294754ff98df29a55
OpenBMC is a Linux distribution for management controllers used in devices such as servers, top of rack switches or RAID appliances. It uses Yocto, OpenEmbedded, systemd, and D-Bus to allow easy customization for your platform.
See the Yocto documentation for the latest requirements
$ sudo apt install git python3-distutils gcc g++ make file wget \ gawk diffstat bzip2 cpio chrpath zstd lz4 bzip2
$ sudo dnf install git python3 gcc g++ gawk which bzip2 chrpath cpio hostname file diffutils diffstat lz4 wget zstd rpcgen patch
git clone https://github.com/openbmc/openbmc cd openbmc
Any build requires an environment set up according to your hardware target. There is a special script in the root of this repository that can be used to configure the environment as needed. The script is called setup
and takes the name of your hardware target as an argument.
The script needs to be sourced while in the top directory of the OpenBMC repository clone, and, if run without arguments, will display the list of supported hardware targets, see the following example:
$ . setup <machine> [build_dir] Target machine must be specified. Use one of: bletchley mihawk swift dl360poc mori tatlin-archive-x86 e3c246d4i mtjade tiogapass ethanolx nicole transformers evb-ast2500 olympus-nuvoton vegman-n110 evb-ast2600 on5263m5 vegman-rx20 evb-npcm750 p10bmc vegman-sx20 f0b palmetto witherspoon fp5280g2 quanta-q71l witherspoon-tacoma g220a romulus x11spi gbs s2600wf yosemitev2 gsj s6q zaius kudo s7106 lannister s8036
Once you know the target (e.g. romulus), source the setup
script as follows:
. setup romulus
bitbake obmc-phosphor-image
Additional details can be found in the docs repository.
The OpenBMC community maintains a set of tutorials new users can go through to get up to speed on OpenBMC development out here
Commits submitted by members of the OpenBMC GitHub community are compiled and tested via our Jenkins server. Commits are run through two levels of testing. At the repository level the makefile make check
directive is run. At the system level, the commit is built into a firmware image and run with an arm-softmmu QEMU model against a barrage of CI tests.
Commits submitted by non-members do not automatically proceed through CI testing. After visual inspection of the commit, a CI run can be manually performed by the reviewer.
Automated testing against the QEMU model along with supported systems are performed. The OpenBMC project uses the Robot Framework for all automation. Our complete test repository can be found here.
Support of additional hardware and software packages is always welcome. Please follow the contributing guidelines when making a submission. It is expected that contributions contain test cases.
Issues are managed on GitHub. It is recommended you search through the issues before opening a new one.
First, please do a search on the internet. There's a good chance your question has already been asked.
For general questions, please use the openbmc tag on Stack Overflow. Please review the discussion on Stack Overflow licensing before posting any code.
For technical discussions, please see contact info below for Discord and mailing list information. Please don't file an issue to ask a question. You'll get faster results by using the mailing list or Discord.
Feature List
Features In Progress
Features Requested but need help
Dive deeper into OpenBMC by opening the docs repository.
The Technical Steering Committee (TSC) guides the project. Members are: