# buildLisp provides Nix functions to build Common Lisp packages,
# targeting SBCL.
#
# buildLisp is designed to enforce conventions and do away with the
# free-for-all of existing Lisp build systems.
{ pkgs ? import <nixpkgs> { }, ... }:
let
inherit (builtins) map elemAt match filter;
inherit (pkgs) lib runCommandNoCC makeWrapper writeText writeShellScriptBin sbcl ecl-static ccl;
inherit (pkgs.stdenv) targetPlatform;
#
# Internal helper definitions
#
defaultImplementation = impls.sbcl;
# Many Common Lisp implementations (like ECL and CCL) will occasionally drop
# you into an interactive debugger even when executing something as a script.
# In nix builds we don't want such a situation: Any error should make the
# script exit non-zero. Luckily the ANSI standard specifies *debugger-hook*
# which is invoked before the debugger letting us just do that.
disableDebugger = writeText "disable-debugger.lisp" ''
(setf *debugger-hook*
(lambda (error hook)
(declare (ignore hook))
(format *error-output* "~%Unhandled error: ~a~%" error)
#+ccl (quit 1)
#+ecl (ext:quit 1)))
'';
# Process a list of arbitrary values which also contains “implementation
# filter sets” which describe conditonal inclusion of elements depending
# on the CL implementation used. Elements are processed in the following
# manner:
#
# * Paths, strings, derivations are left as is
# * A non-derivation attribute set is processed like this:
# 1. If it has an attribute equal to impl.name, replace with its value.
# 2. Alternatively use the value of the "default" attribute.
# 3. In all other cases delete the element from the list.
#
# This can be used to express dependencies or source files which are specific
# to certain implementations:
#
# srcs = [
# # mixable with unconditional entries
# ./package.lisp
#
# # implementation specific source files
# {
# ccl = ./impl-ccl.lisp;
# sbcl = ./impl-sbcl.lisp;
# ecl = ./impl-ecl.lisp;
# }
# ];
#
# deps = [
# # this dependency is ignored if impl.name != "sbcl"
# { sbcl = buildLisp.bundled "sb-posix"; }
#
# # only special casing for a single implementation
# {
# sbcl = buildLisp.bundled "uiop";
# default = buildLisp.bundled "asdf";
# }
# ];
implFilter = impl: xs:
let
isFilterSet = x: builtins.isAttrs x && !(lib.isDerivation x);
in
builtins.map
(
x: if isFilterSet x then x.${impl.name} or x.default else x
)
(builtins.filter
(
x: !(isFilterSet x) || x ? ${impl.name} || x ? default
)
xs);
# Generates lisp code which instructs the given lisp implementation to load
# all the given dependencies.
genLoadLispGeneric = impl: deps:
lib.concatStringsSep "\n"
(map (lib: "(load \"${lib}/${lib.lispName}.${impl.faslExt}\")")
(allDeps impl deps));
# 'genTestLispGeneric' generates a Lisp file that loads all sources and deps
# and executes expression for a given implementation description.
genTestLispGeneric = impl: { name, srcs, deps, expression }: writeText "${name}.lisp" ''
;; Dependencies
${impl.genLoadLisp deps}
;; Sources
${lib.concatStringsSep "\n" (map (src: "(load \"${src}\")") srcs)}
;; Test expression
(unless ${expression}
(exit :code 1))
'';
# 'dependsOn' determines whether Lisp library 'b' depends on 'a'.
dependsOn = a: b: builtins.elem a b.lispDeps;
# 'allDeps' flattens the list of dependencies (and their
# dependencies) into one ordered list of unique deps which
# all use the given implementation.
allDeps = impl: deps:
let
# The override _should_ propagate itself recursively, as every derivation
# would only expose its actually used dependencies. Use implementation
# attribute created by withExtras if present, override in all other cases
# (mainly bundled).
deps' = builtins.map
(dep: dep."${impl.name}" or (dep.overrideLisp (_: {
implementation = impl;
})))
deps;
in
(lib.toposort dependsOn (lib.unique (
lib.flatten (deps' ++ (map (d: d.lispDeps) deps'))
))).result;
# 'allNative' extracts all native dependencies of a dependency list
# to ensure that library load paths are set correctly during all
# compilations and program assembly.
allNative = native: deps: lib.unique (
lib.flatten (native ++ (map (d: d.lispNativeDeps) deps))
);
# Add an `overrideLisp` attribute to a function result that works
# similar to `overrideAttrs`, but is used specifically for the
# arguments passed to Lisp builders.
makeOverridable = f: orig: (f orig) // {
overrideLisp = new: makeOverridable f (orig // (new orig));
};
# This is a wrapper arround 'makeOverridable' which performs its
# function, but also adds a the following additional attributes to the
# resulting derivation, namely a repl attribute which builds a `lispWith`
# derivation for the current implementation and additional attributes for
# every all implementations. So `drv.sbcl` would build the derivation
# with SBCL regardless of what was specified in the initial arguments.
withExtras = f: args:
let
drv = (makeOverridable f) args;
in
lib.fix (self:
drv.overrideLisp
(old:
let
implementation = old.implementation or defaultImplementation;
brokenOn = old.brokenOn or [ ];
# TODO(sterni): https://github.com/Clozure/ccl/issues/405
targets = lib.subtractLists (brokenOn ++ [ "ccl" implementation.name ])
(builtins.attrNames impls);
in
{
passthru = (old.passthru or { }) // {
repl = implementation.lispWith [ self ];
# meta is done via passthru to minimize rebuilds caused by overriding
meta = (old.passthru.meta or { }) // {
ci = (old.passthru.meta.ci or { }) // {
inherit targets;
};
};
} // builtins.listToAttrs (builtins.map
(impl: {
inherit (impl) name;
value = self.overrideLisp (_: {
implementation = impl;
});
})
(builtins.attrValues impls));
}) // {
overrideLisp = new: withExtras f (args // new args);
});
# 'testSuite' builds a Common Lisp test suite that loads all of srcs and deps,
# and then executes expression to check its result
testSuite = { name, expression, srcs, deps ? [ ], native ? [ ], implementation }:
let
lispDeps = allDeps implementation (implFilter implementation deps);
lispNativeDeps = allNative native lispDeps;
filteredSrcs = implFilter implementation srcs;
in
runCommandNoCC name
{
LD_LIBRARY_PATH = lib.makeLibraryPath lispNativeDeps;
LANG = "C.UTF-8";
} ''
echo "Running test suite ${name}"
${implementation.runScript} ${
implementation.genTestLisp {
inherit name expression;
srcs = filteredSrcs;
deps = lispDeps;
}
} | tee $out
echo "Test suite ${name} succeeded"
'';
# 'impls' is an attribute set of attribute sets which describe how to do common
# tasks when building for different Common Lisp implementations. Each
# implementation set has the following members:
#
# Required members:
#
# - runScript :: string
# Describes how to invoke the implementation from the shell, so it runs a
# lisp file as a script and exits.
# - faslExt :: string
# File extension of the implementations loadable (FASL) files.
# Implementations are free to generate native object files, but with the way
# buildLisp works it is required that we can also 'load' libraries, so
# (additionally) building a FASL or equivalent is required.
# - genLoadLisp :: [ dependency ] -> string
# Returns lisp code to 'load' the given dependencies. 'genLoadLispGeneric'
# should work for most dependencies.
# - genCompileLisp :: { name, srcs, deps } -> file
# Builds a lisp file which instructs the implementation to build a library
# from the given source files when executed. After running at least
# the file "$out/${name}.${impls.${implementation}.faslExt}" should have
# been created.
# - genDumpLisp :: { name, main, deps } -> file
# Builds a lisp file which instructs the implementation to build an
# executable which runs 'main' (and exits) where 'main' is available from
# 'deps'. The executable should be created as "$out/bin/${name}", usually
# by dumping the lisp image with the replaced toplevel function replaced.
# - wrapProgram :: boolean
# Whether to wrap the resulting binary / image with a wrapper script setting
# `LD_LIBRARY_PATH`.
# - genTestLisp :: { name, srcs, deps, expression } -> file
# Builds a lisp file which loads the given 'deps' and 'srcs' files and
# then evaluates 'expression'. Depending on whether 'expression' returns
# true or false, the script must exit with a zero or non-zero exit code.
# 'genTestLispGeneric' will work for most implementations.
# - lispWith :: [ dependency ] -> drv
# Builds a script (or dumped image) which when executed loads (or has
# loaded) all given dependencies. When built this should create an executable
# at "$out/bin/${implementation}".
#
# Optional members:
#
# - bundled :: string -> library
# Allows giving an implementation specific builder for a bundled library.
# This function is used as a replacement for the internal defaultBundled
# function and only needs to support one implementation. The returned derivation
# must behave like one built by 'library' (in particular have the same files
# available in "$out" and the same 'passthru' attributes), but may be built
# completely differently.
impls = lib.mapAttrs (name: v: { inherit name; } // v) {
sbcl = {
runScript = "${sbcl}/bin/sbcl --script";
faslExt = "fasl";
# 'genLoadLisp' generates Lisp code that instructs SBCL to load all
# the provided Lisp libraries.
genLoadLisp = genLoadLispGeneric impls.sbcl;
# 'genCompileLisp' generates a Lisp file that instructs SBCL to
# compile the provided list of Lisp source files to "$out/${name}.fasl".
genCompileLisp = { name, srcs, deps }: writeText "sbcl-compile.lisp" ''
;; This file compiles the specified sources into the Nix build
;; directory, creating one FASL file for each source.
(require 'sb-posix)
${impls.sbcl.genLoadLisp deps}
(defun nix-compile-lisp (srcfile)
(let ((outfile (make-pathname :type "fasl"
:directory (or (sb-posix:getenv "NIX_BUILD_TOP")
(error "not running in a Nix build"))
:name (substitute #\- #\/ srcfile))))
(multiple-value-bind (out-truename _warnings-p failure-p)
(compile-file srcfile :output-file outfile)
(if failure-p (sb-posix:exit 1)
(progn
;; For the case of multiple files belonging to the same
;; library being compiled, load them in order:
(load out-truename)
;; Return pathname as a string for cat-ting it later
(namestring out-truename))))))
(let ((*compile-verbose* t)
(catted-fasl (make-pathname :type "fasl"
:directory (or (sb-posix:getenv "out")
(error "not running in a Nix build"))
:name "${name}")))
(with-open-file (file catted-fasl
:direction :output
:if-does-not-exist :create)
;; SBCL's FASL files can just be bundled together using cat
(sb-ext:run-program "cat"
(mapcar #'nix-compile-lisp
;; These forms were inserted by the Nix build:
'(${
lib.concatMapStringsSep "\n" (src: "\"${src}\"") srcs
}))
:output file :search t)))
'';
# 'genDumpLisp' generates a Lisp file that instructs SBCL to dump
# the currently loaded image as an executable to $out/bin/$name.
#
# TODO(tazjin): Compression is currently unsupported because the
# SBCL in nixpkgs is, by default, not compiled with zlib support.
genDumpLisp = { name, main, deps }: writeText "sbcl-dump.lisp" ''
(require 'sb-posix)
${impls.sbcl.genLoadLisp deps}
(let* ((bindir (concatenate 'string (sb-posix:getenv "out") "/bin"))
(outpath (make-pathname :name "${name}"
:directory bindir)))
;; Tell UIOP that argv[0] will refer to running image, not the lisp impl
(when (find-package :uiop)
(eval `(setq ,(find-symbol "*IMAGE-DUMPED-P*" :uiop) :executable)))
(save-lisp-and-die outpath
:executable t
:toplevel
(lambda ()
;; Filter out everything prior to the `--` we
;; insert in the wrapper to prevent SBCL from
;; parsing arguments at startup
(setf sb-ext:*posix-argv*
(delete "--" sb-ext:*posix-argv*
:test #'string= :count 1))
(${main}))
:purify t))
'';
wrapProgram = true;
genTestLisp = genTestLispGeneric impls.sbcl;
lispWith = deps:
let lispDeps = filter (d: !d.lispBinary) (allDeps impls.sbcl deps);
in writeShellScriptBin "sbcl" ''
export LD_LIBRARY_PATH="${lib.makeLibraryPath (allNative [] lispDeps)}"
export LANG="C.UTF-8"
exec ${sbcl}/bin/sbcl ${
lib.optionalString (deps != [])
"--load ${writeText "load.lisp" (impls.sbcl.genLoadLisp lispDeps)}"
} $@
'';
};
ecl = {
runScript = "${ecl-static}/bin/ecl --load ${disableDebugger} --shell";
faslExt = "fasc";
genLoadLisp = genLoadLispGeneric impls.ecl;
genCompileLisp = { name, srcs, deps }: writeText "ecl-compile.lisp" ''
;; This seems to be required to bring make the 'c' package available
;; early, otherwise ECL tends to fail with a read failure…
(ext:install-c-compiler)
;; Load dependencies
${impls.ecl.genLoadLisp deps}
(defun getenv-or-fail (var)
(or (ext:getenv var)
(error (format nil "Missing expected environment variable ~A" var))))
(defun nix-compile-file (srcfile &key native)
"Compile the given srcfile into a compilation unit in :out-dir using
a unique name based on srcfile as the filename which is returned after
compilation. If :native is true, create an native object file,
otherwise a byte-compile fasc file is built and immediately loaded."
(let* ((unique-name (substitute #\_ #\/ srcfile))
(out-file (make-pathname :type (if native "o" "fasc")
:directory (getenv-or-fail "NIX_BUILD_TOP")
:name unique-name)))
(multiple-value-bind (out-truename _warnings-p failure-p)
(compile-file srcfile :system-p native
:load (not native)
:output-file out-file
:verbose t :print t)
(if failure-p (ext:quit 1) out-truename))))
(let* ((out-dir (getenv-or-fail "out"))
(nix-build-dir (getenv-or-fail "NIX_BUILD_TOP"))
(srcs
;; These forms are inserted by the Nix build
'(${lib.concatMapStringsSep "\n" (src: "\"${src}\"") srcs})))
;; First, we'll byte compile loadable FASL files and load them
;; immediately. Since we are using a statically linked ECL, there's
;; no way to load native objects, so we rely on byte compilation
;; for all our loading — which is crucial in compilation of course.
(ext:install-bytecodes-compiler)
;; ECL's bytecode FASLs can just be concatenated to create a bundle
;; at least since a recent bugfix which we apply as a patch.
;; See also: https://gitlab.com/embeddable-common-lisp/ecl/-/issues/649
(let ((bundle-out (make-pathname :type "fasc" :name "${name}"
:directory out-dir)))
(with-open-file (fasc-stream bundle-out :direction :output)
(ext:run-program "cat"
(mapcar (lambda (f)
(namestring
(nix-compile-file f :native nil)))
srcs)
:output fasc-stream)))
(ext:install-c-compiler)
;; Build a (natively compiled) static archive (.a) file. We want to
;; use this for (statically) linking an executable later. The bytecode
;; dance is only required because we can't load such archives.
(c:build-static-library
(make-pathname :type "a" :name "${name}" :directory out-dir)
:lisp-files (mapcar (lambda (x)
(nix-compile-file x :native t))
srcs)))
'';
genDumpLisp = { name, main, deps }: writeText "ecl-dump.lisp" ''
(defun getenv-or-fail (var)
(or (ext:getenv var)
(error (format nil "Missing expected environment variable ~A" var))))
${impls.ecl.genLoadLisp deps}
;; makes a 'c' package available that can link executables
(ext:install-c-compiler)
(c:build-program
(merge-pathnames (make-pathname :directory '(:relative "bin")
:name "${name}")
(truename (getenv-or-fail "out")))
:epilogue-code `(progn
;; UIOP doesn't understand ECL, so we need to make it
;; aware that we are a proper executable, causing it
;; to handle argument parsing and such properly. Since
;; this needs to work even when we're not using UIOP,
;; we need to do some compile-time acrobatics.
,(when (find-package :uiop)
`(setf ,(find-symbol "*IMAGE-DUMPED-P*" :uiop) :executable))
;; Run the actual application…
(${main})
;; … and exit.
(ext:quit))
;; ECL can't remember these from its own build…
:ld-flags '("-static")
:lisp-files
;; The following forms are inserted by the Nix build
'(${
lib.concatMapStrings (dep: ''
"${dep}/${dep.lispName}.a"
'') (allDeps impls.ecl deps)
}))
'';
wrapProgram = false;
genTestLisp = genTestLispGeneric impls.ecl;
lispWith = deps:
let lispDeps = filter (d: !d.lispBinary) (allDeps impls.ecl deps);
in writeShellScriptBin "ecl" ''
exec ${ecl-static}/bin/ecl ${
lib.optionalString (deps != [])
"--load ${writeText "load.lisp" (impls.ecl.genLoadLisp lispDeps)}"
} $@
'';
bundled = name: runCommandNoCC "${name}-cllib"
{
passthru = {
lispName = name;
lispNativeDeps = [ ];
lispDeps = [ ];
lispBinary = false;
repl = impls.ecl.lispWith [ (impls.ecl.bundled name) ];
};
} ''
mkdir -p "$out"
ln -s "${ecl-static}/lib/ecl-${ecl-static.version}/${name}.${impls.ecl.faslExt}" -t "$out"
ln -s "${ecl-static}/lib/ecl-${ecl-static.version}/lib${name}.a" "$out/${name}.a"
'';
};
ccl = {
# Relatively bespoke wrapper script necessary to make CCL just™ execute
# a lisp file as a script.
runScript = pkgs.writers.writeBash "ccl" ''
# don't print intro message etc.
args=("--quiet")
# makes CCL crash on error instead of entering the debugger
args+=("--load" "${disableDebugger}")
# load files from command line in order
for f in "$@"; do
args+=("--load" "$f")
done
# Exit if everything was processed successfully
args+=("--eval" "(quit)")
exec ${ccl}/bin/ccl ''${args[@]}
'';
# See https://ccl.clozure.com/docs/ccl.html#building-definitions
faslExt =
/**/
if targetPlatform.isPower && targetPlatform.is32bit then "pfsl"
else if targetPlatform.isPower && targetPlatform.is64bit then "p64fsl"
else if targetPlatform.isx86_64 && targetPlatform.isLinux then "lx64fsl"
else if targetPlatform.isx86_32 && targetPlatform.isLinux then "lx32fsl"
else if targetPlatform.isAarch32 && targetPlatform.isLinux then "lafsl"
else if targetPlatform.isx86_32 && targetPlatform.isDarwin then "dx32fsl"
else if targetPlatform.isx86_64 && targetPlatform.isDarwin then "dx64fsl"
else if targetPlatform.isx86_64 && targetPlatform.isDarwin then "dx64fsl"
else if targetPlatform.isx86_32 && targetPlatform.isFreeBSD then "fx32fsl"
else if targetPlatform.isx86_64 && targetPlatform.isFreeBSD then "fx64fsl"
else if targetPlatform.isx86_32 && targetPlatform.isWindows then "wx32fsl"
else if targetPlatform.isx86_64 && targetPlatform.isWindows then "wx64fsl"
else builtins.throw "Don't know what FASLs are called for this platform: "
+ pkgs.stdenv.targetPlatform.system;
genLoadLisp = genLoadLispGeneric impls.ccl;
genCompileLisp = { name, srcs, deps }: writeText "ccl-compile.lisp" ''
${impls.ccl.genLoadLisp deps}
(defun getenv-or-fail (var)
(or (getenv var)
(error (format nil "Missing expected environment variable ~A" var))))
(defun nix-compile-file (srcfile)
"Trivial wrapper around COMPILE-FILE which causes CCL to exit if
compilation fails and LOADs the compiled file on success."
(let ((output (make-pathname :name (substitute #\_ #\/ srcfile)
:type "${impls.ccl.faslExt}"
:directory (getenv-or-fail "NIX_BUILD_TOP"))))
(multiple-value-bind (out-truename _warnings-p failure-p)
(compile-file srcfile :output-file output :print t :verbose t)
(declare (ignore _warnings-p))
(if failure-p (quit 1)
(progn (load out-truename) out-truename)))))
(fasl-concatenate (make-pathname :name "${name}" :type "${impls.ccl.faslExt}"
:directory (getenv-or-fail "out"))
(mapcar #'nix-compile-file
;; These forms where inserted by the Nix build
'(${
lib.concatMapStrings (src: ''
"${src}"
'') srcs
})))
'';
genDumpLisp = { name, main, deps }: writeText "ccl-dump.lisp" ''
${impls.ccl.genLoadLisp deps}
(let* ((out (or (getenv "out") (error "Not running in a Nix build")))
(bindir (concatenate 'string out "/bin/"))
(executable (make-pathname :directory bindir :name "${name}")))
;; Tell UIOP that argv[0] will refer to running image, not the lisp impl
(when (find-package :uiop)
(eval `(setf ,(find-symbol "*IMAGE-DUMPED-P*" :uiop) :executable)))
(save-application executable
:purify t
:error-handler :quit
:toplevel-function
(lambda ()
;; Filter out everything prior to the `--` we
;; insert in the wrapper to prevent SBCL from
;; parsing arguments at startup
(setf ccl:*command-line-argument-list*
(delete "--" ccl:*command-line-argument-list*
:test #'string= :count 1))
(${main}))
:mode #o755
;; TODO(sterni): use :native t on macOS
:prepend-kernel t))
'';
wrapProgram = true;
genTestLisp = genTestLispGeneric impls.ccl;
lispWith = deps:
let lispDeps = filter (d: !d.lispBinary) (allDeps impls.ccl deps);
in writeShellScriptBin "ccl" ''
export LD_LIBRARY_PATH="${lib.makeLibraryPath (allNative [] lispDeps)}"
exec ${ccl}/bin/ccl ${
lib.optionalString (deps != [])
"--load ${writeText "load.lisp" (impls.ccl.genLoadLisp lispDeps)}"
} "$@"
'';
};
};
#
# Public API functions
#
# 'library' builds a list of Common Lisp files into an implementation
# specific library format, usually a single FASL file, which can then be
# loaded and built into an executable via 'program'.
library =
{ name
, implementation ? defaultImplementation
, brokenOn ? [ ] # TODO(sterni): make this a warning
, srcs
, deps ? [ ]
, native ? [ ]
, tests ? null
, passthru ? { }
}:
let
filteredDeps = implFilter implementation deps;
filteredSrcs = implFilter implementation srcs;
lispNativeDeps = (allNative native filteredDeps);
lispDeps = allDeps implementation filteredDeps;
testDrv =
if ! isNull tests
then
testSuite
{
name = tests.name or "${name}-test";
srcs = filteredSrcs ++ (tests.srcs or [ ]);
deps = filteredDeps ++ (tests.deps or [ ]);
expression = tests.expression;
inherit implementation;
}
else null;
in
lib.fix (self: runCommandNoCC "${name}-cllib"
{
LD_LIBRARY_PATH = lib.makeLibraryPath lispNativeDeps;
LANG = "C.UTF-8";
passthru = passthru // {
inherit lispNativeDeps lispDeps;
lispName = name;
lispBinary = false;
tests = testDrv;
};
} ''
${if ! isNull testDrv
then "echo 'Test ${testDrv} succeeded'"
else "echo 'No tests run'"}
mkdir $out
${implementation.runScript} ${
implementation.genCompileLisp {
srcs = filteredSrcs;
inherit name;
deps = lispDeps;
}
}
'');
# 'program' creates an executable, usually containing a dumped image of the
# specified sources and dependencies.
program =
{ name
, implementation ? defaultImplementation
, brokenOn ? [ ] # TODO(sterni): make this a warning
, main ? "${name}:main"
, srcs
, deps ? [ ]
, native ? [ ]
, tests ? null
, passthru ? { }
}:
let
filteredSrcs = implFilter implementation srcs;
filteredDeps = implFilter implementation deps;
lispDeps = allDeps implementation filteredDeps;
libPath = lib.makeLibraryPath (allNative native lispDeps);
# overriding is used internally to propagate the implementation to use
selfLib = (makeOverridable library) {
inherit name native brokenOn;
deps = lispDeps;
srcs = filteredSrcs;
};
testDrv =
if ! isNull tests
then
testSuite
{
name = tests.name or "${name}-test";
srcs =
(
# testSuite does run implFilter as well
filteredSrcs ++ (tests.srcs or [ ])
);
deps = filteredDeps ++ (tests.deps or [ ]);
expression = tests.expression;
inherit implementation;
}
else null;
in
lib.fix (self: runCommandNoCC "${name}"
{
nativeBuildInputs = [ makeWrapper ];
LD_LIBRARY_PATH = libPath;
LANG = "C.UTF-8";
passthru = passthru // {
lispName = name;
lispDeps = [ selfLib ];
lispNativeDeps = native;
lispBinary = true;
tests = testDrv;
};
}
(''
${if ! isNull testDrv
then "echo 'Test ${testDrv} succeeded'"
else ""}
mkdir -p $out/bin
${implementation.runScript} ${
implementation.genDumpLisp {
inherit name main;
deps = ([ selfLib ] ++ lispDeps);
}
}
'' + lib.optionalString implementation.wrapProgram ''
wrapProgram $out/bin/${name} \
--prefix LD_LIBRARY_PATH : "${libPath}" \
--add-flags "\$NIX_BUILDLISP_LISP_ARGS --"
''));
# 'bundled' creates a "library" which makes a built-in package available,
# such as any of SBCL's sb-* packages or ASDF. By default this is done
# by calling 'require', but implementations are free to provide their
# own specific bundled function.
bundled = name:
let
# TODO(sterni): allow overriding args to underlying 'library' (e. g. srcs)
defaultBundled = implementation: name: library {
inherit name implementation;
srcs = lib.singleton (builtins.toFile "${name}.lisp" "(require '${name})");
};
bundled' =
{ implementation ? defaultImplementation
, name
}:
implementation.bundled or (defaultBundled implementation) name;
in
(makeOverridable bundled') {
inherit name;
};
in
{
library = withExtras library;
program = withExtras program;
inherit bundled;
# 'sbclWith' creates an image with the specified libraries /
# programs loaded in SBCL.
sbclWith = impls.sbcl.lispWith;
inherit (impls)
sbcl
ecl
ccl
;
}
