Bump timeout for code update file

This 10 second timeout is for the write, untar, inotify fire, and
creation of a software D-Bus object.
IBM has large images for its p10bmc, 125M and growing. We have seen this
take longer than 10 seconds on a AST2600. Bump this timeout to 25
seconds.

Most of the 10 seconds seems to be the untar.

This default 10 seconds is only used for the http upload path. TFTP
already bumps this timeout to 600 seconds.

[1] https://github.com/openbmc/bmcweb/blob/master/redfish-core/lib/update_service.hpp#L488

Could have instead added the 25 seconds to the
monitorForSoftwareAvailable call but figured having the default be 25
is reasonable.

[1] https://github.com/openbmc/bmcweb/blob/master/redfish-core/lib/update_service.hpp#L530

On a fail:

```
Sep 07 12:15:01 p10bmc phosphor-version-software-manager[752]: Untaring /tmp/images/69fe6e22-2bd0-42c4-be69-7f388debc6d1 to /tmp/images/imageHaTO5K
Sep 07 12:15:08 p10bmc bmcweb[2299]: (2022-09-07 12:15:08) [ERROR "update_service.hpp":392] Timed out waiting for firmware object being created
Sep 07 12:15:08 p10bmc bmcweb[2299]: (2022-09-07 12:15:08) [ERROR "update_service.hpp":394] FW image may has already been uploaded to server
Sep 07 12:15:08 p10bmc bmcweb[2299]: (2022-09-07 12:15:08) [CRITICAL "error_messages.cpp":233] Internal Error ../git/redfish-core/include/../lib/update_service.hpp(403:49) `redfish::monitorForSoftwareAvailable(const std::shared_ptr<bmcweb::AsyncResp>&, const crow::Request&, const string&, int)::<lambda(const boost::system::error_code&)>`:
```

Tested: On a BMC hitting this, saw the Internal Error on upload without
        this change. With this change, the update now works.

Change-Id: I47940f074ac42ceb59011411b79679ff4c8360d6
Signed-off-by: Gunnar Mills <gmills@us.ibm.com>
1 file changed
tree: 87a5039a96224097196b483fabcf4cb213a1862f
  1. .github/
  2. http/
  3. include/
  4. redfish-core/
  5. scripts/
  6. src/
  7. static/
  8. subprojects/
  9. test/
  10. .clang-format
  11. .clang-ignore
  12. .clang-tidy
  13. .dockerignore
  14. .gitignore
  15. .openbmc-enforce-gitlint
  16. .shellcheck
  17. bmcweb.service.in
  18. bmcweb.socket.in
  19. bmcweb_config.h.in
  20. build_x86.sh
  21. build_x86_docker.sh
  22. CLIENTS.md
  23. COMMON_ERRORS.md
  24. DEVELOPING.md
  25. Dockerfile
  26. Dockerfile.base
  27. HEADERS.md
  28. LICENSE
  29. meson.build
  30. meson_options.txt
  31. OEM_SCHEMAS.md
  32. OWNERS
  33. pam-webserver
  34. README.md
  35. Redfish.md
  36. run-ci
  37. setup.cfg
  38. TESTING.md
README.md

OpenBMC webserver

This component attempts to be a "do everything" embedded webserver for OpenBMC.

Features

The webserver implements a few distinct interfaces:

  • DBus event websocket. Allows registering on changes to specific dbus paths, properties, and will send an event from the websocket if those filters match.
  • OpenBMC DBus REST api. Allows direct, low interference, high fidelity access to dbus and the objects it represents.
  • Serial: A serial websocket for interacting with the host serial console through websockets.
  • Redfish: A protocol compliant, (Redfish.md)[DBus to Redfish translator].
  • KVM: A websocket based implementation of the RFB (VNC) frame buffer protocol intended to mate to webui-vue to provide a complete KVM implementation.

Protocols

bmcweb at a protocol level supports http and https. TLS is supported through OpenSSL.

AuthX

Authentication

Bmcweb supports multiple authentication protocols:

  • Basic authentication per RFC7617
  • Cookie based authentication for authenticating against webui-vue
  • Mutual TLS authentication based on OpenSSL
  • Session authentication through webui-vue
  • XToken based authentication conformant to Redfish DSP0266

Each of these types of authentication is able to be enabled or disabled both via runtime policy changes (through the relevant Redfish APIs) or via configure time options. All authentication mechanisms supporting username/password are routed to libpam, to allow for customization in authentication implementations.

Authorization

All authorization in bmcweb is determined at routing time, and per route, and conform to the Redfish PrivilegeRegistry.

*Note: Non-Redfish functions are mapped to the closest equivalent Redfish privilege level.

Configuration

bmcweb is configured per the meson build files. Available options are documented in meson_options.txt

Compile bmcweb with default options:

meson builddir
ninja -C builddir

If any of the dependencies are not found on the host system during configuration, meson will automatically download them via its wrap dependencies mentioned in bmcweb/subprojects.

Debug logging

bmcweb by default is compiled with runtime logging disabled, as a performance consideration. To enable it in a standalone build, add the

-Dlogging='enabled'

option to your configure flags. If building within Yocto, add the following to your local.conf.

EXTRA_OEMESON:pn-bmcweb:append = "-Dbmcweb-logging='enabled'"

Use of persistent data

bmcweb relies on some on-system data for storage of persistent data that is internal to the process. Details on the exact data stored and when it is read/written can seen from the persistent_data namespace.

TLS certificate generation

When SSL support is enabled and a usable certificate is not found, bmcweb will generate a self-signed a certificate before launching the server. Please see the bmcweb source code for details on the parameters this certificate is built with.