Currently (outside of this PR) when you `spack develop` a path, this path is treated as the staging
directory (this means that for example all build artifacts are placed in the develop path).
This PR creates a separate staging directory for all `spack develop`ed builds. It looks like
```
# the stage root
/the-stage-root-for-all-spack-builds/
spack-stage-<hash>
# Spack packages inheriting CMakePackage put their build artifacts here
spack-build-<hash>/
```
Unlike non-develop builds, there is no `spack-src` directory, `source_path` is the provided `dev_path`.
Instead, separately, in the `dev_path`, we have:
```
/dev/path/for/foo/
build-{arch}-<hash> -> /the-stage-root-for-all-spack-builds/spack-stage-<hash>/
```
The main benefit of this is that build artifacts for out-of-source builds that are relative to
`Stage.path` are easily identified (and you can delete them with `spack clean`).
Other behavior added here:
- [x] A symlink is made from the `dev_path` to the stage directory. This symlink name incorporates
spec details, so that multiple Spack environments that develop the same path will not conflict
with one another
- [x] `spack cd` and `spack location` have added a `-c` shorthand for `--source-dir`
Spack builds can still change the develop path (in particular to keep track of applied patches),
and for in-source builds, this doesn't change much (although logs would not be written into
the develop path). Packages inheriting from `CMakePackage` should get this benefit
automatically though.
* e4s: new packages: glvis, laghos
* gl: require: osmesa
* be explicit: glvis ^llvm so that llvm-amdgpu not chosen
* glvis fails on oneapi stack due to issue 42839
* gitlab: remove requests for unreferenced packages
The packages removed in this commit are not built by any of
our current GitLab CI stacks.
* gitlab: update memory requests for "huge" packages
* gitlab: reduce memory requests for overprovisioned packages
* gitlab: more memory for py-torch (again)
* gitlab: update memory but keep CPU the same
It is useful to enable/disable stacks in order to handle turning
specific stacks on/off based on runner availability, stack stability,
testing requirements, etc.
The disabled stack list takes precedence over the enable stack list. The
assumption is that stacks that are disabled are so due to some
functionality missing or broken for that stack.
The enable stack list implicitly disables all stacks not listed in the
enable list.
The main script body is over-written for power. Putting thet timing
aggregation in the after script allows it to be called on all of the
current pipelines.
This "breaks" the deprecated schema by allowing unknown attributes
to the attributes section of the job types. The breaking change here is
that deprecated stacks will no longer ignore attributes that are unknown
but rather assume the new CI schema behavior of injecting them into the
generated CI configuration. This change is required to secure
authentication in Spack CI.
* gitlab: remove commented-out duplicate entries
* gitlab: reclassify some packages from "huge" to "large"
Our observed max memory usage for these packages is as follows:
hipblas: 7.7G
qt: 6.6G
visit: 9.7G
All of these should fit within a "large" request (currently 12G).
* gitlab: remove pango from list of huge packages
This package is not currently built by any of our CI stacks.
* gitlab: update requests for high memory packages
Refine resource requests for memory-intensive packages based on
max memory usage data.
Currently requirements allow to express "strong preferences" and "conflicts" from
configuration using a convoluted syntax:
```yaml
packages:
zlib-ng:
require:
# conflict on %clang
- one_of: ["%clang", "@:"]
# Strong preference for +shared
- any_of: ["+shared", "@:"]
```
This PR adds syntactic sugar so that the same can be written as:
```yaml
packages:
zlib-ng:
conflict:
- "%clang"
prefer:
- "+shared"
```
Preferences written in this way are "stronger" that the ones documented at:
- https://spack.readthedocs.io/en/latest/packages_yaml.html#package-preferences
* e4s ci: use latest intel/hpckit 2024 based image
* use latest container image: ecpe4s/ubuntu22.04-runner-amd64-oneapi-2024.0.0:2023.12.01
* comment out failing specs
* update to use patched container
* remove generalized package preference for intel-oneapi-mkl@2023
* change packages commented out
Like `spack change` for specs in environments, this can e.g. replace `examplespec+debug` with `examplespec~debug` in a `require:` section.
Example behavior for a config like:
```
packages:
foo:
require:
- spec: +debug
```
* `spack config change packages:foo:require:~debug` replaces `+debug` with `~debug`
* `spack config change packages:foo:require:@1.1` adds a requirement to the list
* `spack config change packages:bar:require:~debug` adds a requirement
The current `mkdir {{ paths.environment }}` will generate an error if:
* `{{ paths.environment }}` already exists, or
* `{{ paths.environment }}` is nested in non-existing dirs.
Adding `-p` to the command will make this robust to both possibilities.
Set noclobber bash option when writing manifest.
Add `--create` option to `env activate` to allow users to create and activate in one command.
---------
Co-authored-by: Wouter Deconinck <wdconinc@gmail.com>
Co-authored-by: Tamara Dahlgren <35777542+tldahlgren@users.noreply.github.com>
Co-authored-by: psakievich <psakievich@users.noreply.github.com>
* setup-env: Fix back and forth between two instances
* setup-env.csh: Fix SPACK_ROOT when switch to a different instance
i.e. Always look for the current SPACK_ROOT
* setup-env: Update comments
This adds options to `spack list` that allow you to list only packages from specific
repositories/namespaces, e.g.:
```console
spack list -r builtin
```
only lists packages from the `builtin` repo, while:
```console
spack list -r myrepo -r myrepo2
```
would list packages from `myrepo` and `myrepo2`, but not from `builtin`. Note that you
can use the same argument multiple times.
You can use either `-r` / `--repo` or `-N` / `--namespace`. `-N` is there to match the
corresponding option on `spack find`.
- [x] add `-r` / `--repo` / `-N` / `--namespace` argument
- [x] add test
* Add rust-analyzer as variant to rust build
* Expose cargo module only when +cargo
* rust: add v1.74.0 and v1.75.0 and remove variants in favor of +dev
* [@spackbot] updating style on behalf of alecbcs
* Fix variant typo
---------
Co-authored-by: alecbcs <alecbcs@users.noreply.github.com>
This adds a few options to `spack gc`.
One to give you a little more control over dependencies:
* `-b` / `--keep-build-dependencies`: By default, `spack gc` considers build dependencies to be "no longer needed" once their dependents are installed. With this option, we'll keep build dependencies of needed installations as well.
And two more to make working with environments easier:
* `-E` / `--except-any-environment`: Garbage collect anything NOT needed by an environment. `spack gc -E` and `spack gc -bE` are now easy ways to get rid of everytihng not used by some environment.
* `-e` / `--except-environment` `ENV`: Instead of considering all environments, garbage collect everything not needed by a *specific* environment. Note that you can use this with `-E` to add directory environments to the list of considered envs, e.g.:
spack gc -E -e /path/to/direnv1 -e /path/to/direnv2 #...
- [x] rework `unused_specs()` method on DB to add options for roots and deptypes
- [x] add `all_hashes()` method on DB
- [x] rework `spack gc` command to add 3 more options
- [x] tests
The gcc-runtime package adds a separate node for gcc's dynamic runtime
libraries.
This should help with:
1. binary caches where rpaths for compiler support libs cannot be
relocated because the compiler is missing on the target system
2. creating "minimal" container images
The package is versioned like `gcc` (in principle it could be
unversioned, but Spack doesn't always guarantee not mixing compilers)
This PR adds a flag `--tag/-t` to `buildcache push`, which you can use like
```
$ spack mirror add my-oci-registry oci://example.com/hello/world
$ spack -e my_env buildcache push --base-image ubuntu:22.04 --tag my_custom_tag my-oci-registry
```
and lets users ship a full, installed environment as a minimal container image where each image layer is one Spack package, on top of a base image of choice. The image can then be used as
```
$ docker run -it --rm example.com/hello/world:my_custom_tag
```
Apart from environments, users can also pick arbitrary installed spec from their database, for instance:
```
$ spack buildcache push --base-image ubuntu:22.04 --tag some_specs my-oci-registry gcc@12 cmake
$ docker run -it --rm example.com/hello/world:some_specs
```
It has many advantages over `spack containerize`:
1. No external tools required (`docker`, `buildah`, ...)
2. Creates images from locally installed Spack packages (No need to rebuild inside `docker build`, where troubleshooting build failures is notoriously hard)
3. No need for multistage builds (Spack just tarballs existing installations of runtime deps)
4. Reduced storage size / composability: when pushing multiple environments with common specs, container image layers are shared.
5. Automatic build cache: later `spack install` of the env elsewhere speeds up since the containerized environment is a build cache
