Add support for PGO and LTO for gcc, clang and apple-clang, and add a
patch to allow mimalloc as an allocator in operator new/delete, give
reduces clingo runtime by about 30%.
* amdblis recipe: adding variant for a performance flag
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
* typo fix
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
* style fix
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
* another typo fix
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
* one more style fix
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
---------
Signed-off-by: Dr Marco De La Pierre <marco.delapierre@gmail.com>
Previous changes to this file stopped directly processing CL args to
stop batch `for` from interpolating batch reserved characters needed in
arguments like URLS. In doing so, we relied on `for` for an easy
"split" operation, however this incorrectly splits paths with spaces in
certain cases. Processing everything ourselves with manual looping via
`goto` statements allows for full control over CL parsing and handling
of both paths with spaces and reserved characters.
* WarpX 23.08
Update WarpX and related Python packages to the lastest releases.
* fix style
---------
Co-authored-by: eugeneswalker <eugenesunsetwalker@gmail.com>
In the HPC package manager, we want the fastest `zlib` implementation by default. `zlib-ng` is up to 4x faster than stock `zlib`, and it can do things like take advantage of AVX-512 instructions. This PR makes `zlib-ng` the default `zlib-api` provider (`zlib-api` was introduced earlier, in #37372).
As far as I can see, the only issues you can encounter are:
1. Build issues with packages that heavily rely on `zlib` internals. In Gitlab CI only one out of hundreds of packages had that issue (it extended zlib with deflate stuff, and used its own copy of zlib sources).
2. Packages that like to detect `zlib-ng` separately and rely on `zlib-ng` internals. The only issue I've found with this among the hundreds of packages built in CI is `perl` trying to report more specific zlib-ng version details, and relied on some internals that got refactored. But yeah... that warrants a patch / conflict and is nothing special.
At runtime, you cannot really have any issues, given that zlib and zlib-ng export the exact same symbols (and zlib-ng tests this in their CI).
You can't really have issues with externals when using zlib-ng either. The only type of issue is when system zlib is rather new, and not marked as external; if another external uses new symbols, and Spack builds an older zlib/zlib-ng, then the external might not find the new symbols. But this is a configuration issue, and it's not an issue caused by zlib-ng, as the same would happen with older Spack zlib.
* zlib-api: use zlib-ng +compat by default
* make a trivial change to zlib-ng to trigger a rebuild
* add `haampie` as maintainer
Computing str(spec) is faster than computing hash(spec), and
since all the abstract specs we deal with come from user configuration
they cannot cover DAG structures that are not captured by str() but
are captured by hash()
Delay lookup for abstract hashes until concretization time, instead of
until Spec comparison. This has a few advantages:
1. `satisfies` / `intersects` etc don't always know where to resolve the
abstract hash (in some cases it's wrong to look in the current env,
db, buildcache, ...). Better to let the call site dictate it.
2. Allows search by abstract hash without triggering a database lookup,
causing quadratic complexity issues (accidental nested loop during
search)
3. Simplifies queries against the buildcache, they can now use Spec
instances instead of strings.
The rules are straightforward:
1. a satisfies b when b's hash is prefix of a's hash
2. a intersects b when either a's or b's hash is a prefix of b's or a's
hash respectively
