exit 1
fi
+export LC_ALL=C
+
# On reasonable systems, we can use realpath here, but OSX is a diva with 20-year-old software.
ORIG_PWD="$(pwd)"
cd "$1"
LIGHTNING_PATH="$(pwd)"
-LIGHTNING_GIT="$(git describe --tag --dirty)"
+LIGHTNING_GIT="$(git describe --tag --dirty --abbrev=16)"
cd "$ORIG_PWD"
# Generate (and reasonably test) C bindings
git checkout lightning-c-bindings/src
git checkout lightning-c-bindings/include
-BINDINGS_GIT="$(git describe --tag --dirty)"
+BINDINGS_GIT="$(git describe --tag --dirty --abbrev=16)"
echo -e "#ifndef _LDK_HEADER_VER" > lightning-c-bindings/include/ldk_ver.h
echo -e "static inline int _ldk_strncmp(const char *s1, const char *s2, uint64_t n) {" >> lightning-c-bindings/include/ldk_ver.h
echo -e "\tif (n && *s1 != *s2) return 1;" >> lightning-c-bindings/include/ldk_ver.h
if [ "$2" = "true" ]; then
add_crate lightning lightning --features=allow_wallclock_use ', features = ["allow_wallclock_use"]'
add_crate "lightning-persister" "lightning_persister"
+ add_crate "lightning-background-processor" "lightning_background_processor"
else
add_crate lightning lightning
drop_crate "lightning-persister"
+ drop_crate "lightning-background-processor"
fi
add_crate "lightning-invoice" "lightning_invoice"
cd lightning-c-bindings
# Remap paths so that our builds are deterministic
-export RUSTFLAGS="--remap-path-prefix $LIGHTNING_PATH=rust-lightning --remap-path-prefix $(pwd)=ldk-c-bindings --remap-path-prefix $HOME/.cargo= -C target-cpu=generic"
+export RUSTFLAGS="--remap-path-prefix $LIGHTNING_PATH=rust-lightning --remap-path-prefix $(pwd)=ldk-c-bindings --remap-path-prefix $HOME/.cargo= -C target-cpu=sandybridge"
# If the C compiler supports it, also set -ffile-prefix-map
echo "int main() {}" > genbindings_path_map_test_file.c
clang -o /dev/null -ffile-prefix-map=$HOME/.cargo= genbindings_path_map_test_file.c > /dev/null 2>&1 &&
# Now that we've done our last non-LTO build, turn on LTO in CFLAGS as well
-export CFLAGS="-ffile-prefix-map=$HOME/.cargo="
+export BASE_CFLAGS="-ffile-prefix-map=$HOME/.cargo= -frandom-seed=42"
+ENV_TARGET=$(rustc --version --verbose | grep host | awk '{ print $2 }' | sed 's/-/_/g')
+case "$ENV_TARGET" in
+ "x86_64"*)
+ export RUSTFLAGS="$RUSTFLAGS -C target-cpu=sandybridge"
+ export CFLAGS_$ENV_TARGET="$BASE_CFLAGS -march=sandybridge -mcpu=sandybridge -mtune=sandybridge"
+ ;;
+ *)
+ # Assume this isn't targeted at another host and build for the host's CPU.
+ export RUSTFLAGS="$RUSTFLAGS -C target-cpu=native"
+ export CFLAGS_$ENV_TARGET="$BASE_CFLAGS -mcpu=native"
+ ;;
+esac
rm genbindings_path_map_test_file.c
cargo build
CARGO_PROFILE_RELEASE_LTO=true cargo rustc -v --release -- -C lto
clang++ $LOCAL_CFLAGS -std=c++11 -flto -O2 demo.cpp target/release/libldk.a -ldl
+strip ./a.out
+echo "C++ Bin size and runtime with only RL (LTO) optimized:"
+ls -lha a.out
+time ./a.out > /dev/null
+
if [ "$HOST_PLATFORM" != "host: x86_64-apple-darwin" -a "$CLANGPP" != "" ]; then
# If we can use cross-language LTO, use it for building C dependencies (i.e. libsecp256k1) as well
export CC="$CLANG"
- export CFLAGS_wasm32_wasi="-target wasm32 -flto"
+ # The cc-rs crate tries to force -fdata-sections and -ffunction-sections on, which
+ # breaks -fembed-bitcode, so we turn off cc-rs' default flags and specify exactly
+ # what we want here.
+ export CFLAGS_$ENV_TARGET="$BASE_CFLAGS -fPIC -fembed-bitcode -march=sandybridge"
+ export CRATE_CC_NO_DEFAULTS=true
fi
if [ "$2" = "false" -a "$(rustc --print target-list | grep wasm32-wasi)" != "" ]; then
# Test to see if clang supports wasm32 as a target (which is needed to build rust-secp256k1)
echo "int main() {}" > genbindings_wasm_test_file.c
- clang -nostdlib -o /dev/null --target=wasm32-wasi -Wl,--no-entry genbindings_wasm_test_file.c > /dev/null 2>&1 &&
- # And if it does, build a WASM binary without capturing errors
- cargo rustc -v --target=wasm32-wasi -- -C embed-bitcode=yes &&
- CARGO_PROFILE_RELEASE_LTO=true cargo rustc -v --release --target=wasm32-wasi -- -C opt-level=s -C linker-plugin-lto -C lto ||
- echo "Cannot build WASM lib as clang does not seem to support the wasm32-wasi target"
+ if clang -nostdlib -o /dev/null --target=wasm32-wasi -Wl,--no-entry genbindings_wasm_test_file.c > /dev/null 2>&1; then
+ # And if it does, build a WASM binary without capturing errors
+ export CFLAGS_wasm32_wasi="$BASE_CFLAGS -target wasm32"
+ cargo rustc -v --target=wasm32-wasi
+ export CFLAGS_wasm32_wasi="$BASE_CFLAGS -target wasm32 -Os"
+ CARGO_PROFILE_RELEASE_LTO=true cargo rustc -v --release --target=wasm32-wasi -- -C embed-bitcode=yes -C opt-level=s -C linker-plugin-lto -C lto
+ else
+ echo "Cannot build WASM lib as clang does not seem to support the wasm32-wasi target"
+ fi
rm genbindings_wasm_test_file.c
fi
-strip ./a.out
-echo "C++ Bin size and runtime with only RL (LTO) optimized:"
-ls -lha a.out
-time ./a.out > /dev/null
-
if [ "$HOST_PLATFORM" != "host: x86_64-apple-darwin" -a "$CLANGPP" != "" ]; then
# Finally, test cross-language LTO. Note that this will fail if rustc and clang++
# build against different versions of LLVM (eg when rustc is installed via rustup
# or Ubuntu packages). This should work fine on Distros which do more involved
# packaging than simply shipping the rustup binaries (eg Debian should Just Work
# here).
- # The cc-rs crate tries to force -fdata-sections and -ffunction-sections on, which
- # breaks -fembed-bitcode, so we turn off cc-rs' default flags and specify exactly
- # what we want here.
- export CFLAGS="$CFLAGS -O3 -fPIC -fembed-bitcode"
- export CRATE_CC_NO_DEFAULTS=true
+ export CFLAGS_$ENV_TARGET="$BASE_CFLAGS -O3 -fPIC -fembed-bitcode -march=sandybridge"
# Rust doesn't recognize CFLAGS changes, so we need to clean build artifacts
cargo clean --release
CARGO_PROFILE_RELEASE_LTO=true cargo rustc -v --release -- -C linker-plugin-lto -C lto -C link-arg=-fuse-ld=lld
projects / ldk-c-bindings / blobdiff