# Entry point for all travis builds, this will set up the Travis environment by # downloading any dependencies. It will then execute the `run.sh` script to # build and execute all tests. # # For a full description of how all tests are run, see `ci/README.md` set -ex if [ "$TRAVIS_OS_NAME" = "linux" ]; then OS=unknown-linux-gnu else OS=apple-darwin fi export HOST=$ARCH-$OS if [ "$TARGET" = "" ]; then TARGET=$HOST fi MAIN_TARGETS=https://static.rust-lang.org/dist DATE=$(echo $TRAVIS_RUST_VERSION | sed s/nightly-//) EXTRA_TARGETS=https://people.mozilla.org/~acrichton/libc-test/$DATE if [ "$DATE" != "nightly" ]; then MAIN_TARGETS=$MAIN_TARGETS/$DATE TRAVIS_RUST_VERSION=nightly fi install() { if [ "$TRAVIS" = "true" ]; then sudo apt-get update sudo apt-get install -y $@ fi } # If we're going to run tests inside of a qemu image, then we don't need any of # the scripts below. Instead, download the image, prepare a filesystem which has # the current state of this repository, and then run the image. # # It's assume that all images, when run with two disks, will run the `run.sh` # script from the second which we place inside. if [ "$QEMU" != "" ]; then # Acquire QEMU and the base OS image install qemu-kvm tmpdir=/tmp/qemu-img-creation mkdir -p $tmpdir if [ ! -f $tmpdir/$QEMU ]; then curl https://people.mozilla.org/~acrichton/libc-test/qemu/$QEMU.gz | \ gunzip -d > $tmpdir/$QEMU fi # Generate all.{c,rs} on the host which will be compiled inside QEMU. Do this # here because compiling syntex_syntax in QEMU would time out basically # everywhere. rm -rf $tmpdir/generated mkdir -p $tmpdir/generated CARGO_TARGET_DIR=$tmpdir/generated-build \ cargo build --manifest-path libc-test/generate-files/Cargo.toml (cd libc-test && TARGET=$TARGET OUT_DIR=$tmpdir/generated SKIP_COMPILE=1 \ $tmpdir/generated-build/debug/generate-files) # Create a mount a fresh new filesystem image that we'll later pass to QEMU, # this contains the checkout of libc and will be able to run all tests rm -f $tmpdir/libc-test.img dd if=/dev/null of=$tmpdir/libc-test.img bs=1M seek=5 mkfs.ext2 -F $tmpdir/libc-test.img rm -rf $tmpdir/mount mkdir $tmpdir/mount sudo mount -t ext2 -o loop $tmpdir/libc-test.img $tmpdir/mount # Copy this folder into the mounted image, the `run.sh` entry point, and # overwrite the standard libc-test Cargo.toml with the overlay one which will # assume the all.{c,rs} test files have already been generated sudo mkdir $tmpdir/mount/libc sudo cp -r * $tmpdir/mount/libc/ sudo cp ci/run-qemu.sh $tmpdir/mount/run.sh echo $TARGET | sudo tee -a $tmpdir/mount/TARGET sudo cp $tmpdir/generated/* $tmpdir/mount/libc/libc-test sudo cp libc-test/run-generated-Cargo.toml $tmpdir/mount/libc/libc-test/Cargo.toml sudo umount $tmpdir/mount # If we can use kvm, prefer that, otherwise just fall back to user-space # emulation. if kvm-ok; then program="sudo kvm" else program=qemu-system-x86_64 fi # Pass -snapshot to prevent tampering with the disk images, this helps when # running this script in development. The two drives are then passed next, # first is the OS and second is the one we just made. Next the network is # configured to work (I'm not entirely sure how), and then finally we turn off # graphics and redirect the serial console output to out.log. $program \ -m 1024 \ -snapshot \ -drive if=virtio,file=$tmpdir/$QEMU \ -drive if=virtio,file=$tmpdir/libc-test.img \ -net nic,model=virtio \ -net user \ -nographic \ -vga none 2>&1 | tee out.log exec grep "^PASSED .* tests" out.log fi mkdir -p .cargo cp ci/cargo-config .cargo/config # Next up we need to install the standard library for the version of Rust that # we're testing. Get fancy targets from the EXTRA_TARGETS URL and otherwise get # all others from the official distribution. if [ "$TRAVIS" = "true" ]; then case "$TARGET" in *-rumprun-*) curl -s $EXTRA_TARGETS/$TARGET.tar.gz | \ tar xzf - -C `rustc --print sysroot`/lib/rustlib ;; *) # Download the rustlib folder from the relevant portion of main # distribution's tarballs. dir=rust-std-$TARGET pkg=rust-std if [ "$TRAVIS_RUST_VERSION" = "1.0.0" ]; then pkg=rust dir=rustc fi curl -s $MAIN_TARGETS/$pkg-$TRAVIS_RUST_VERSION-$TARGET.tar.gz | \ tar xzf - -C $HOME/rust/lib/rustlib --strip-components=4 \ $pkg-$TRAVIS_RUST_VERSION-$TARGET/$dir/lib/rustlib/$TARGET ;; esac fi # If we're testing with a docker image, then run tests entirely within that # image. Note that this is using the same rustc installation that travis has # (sharing it via `-v`) and otherwise the tests run entirely within the # container. # # For the docker build we mount the entire current directory at /checkout, set # up some environment variables to let it run, and then run the standard run.sh # script. if [ "$DOCKER" != "" ]; then args="" case "$TARGET" in mips-unknown-linux-gnu) args="$args -e CC=mips-linux-gnu-gcc-5" ;; *) ;; esac exec docker run \ --entrypoint bash \ -v `rustc --print sysroot`:/usr/local:ro \ -v `pwd`:/checkout \ -e LD_LIBRARY_PATH=/usr/local/lib \ -e CARGO_TARGET_DIR=/tmp \ $args \ -w /checkout \ -it $DOCKER \ ci/run.sh $TARGET fi # If we're not running docker or qemu, then we may still need some packages # and/or tools with various configurations here and there. case "$TARGET" in x86_64-unknown-linux-musl) install musl-tools export CC=musl-gcc ;; arm-unknown-linux-gnueabihf) install gcc-4.7-arm-linux-gnueabihf qemu-user export CC=arm-linux-gnueabihf-gcc-4.7 ;; aarch64-unknown-linux-gnu) install gcc-aarch64-linux-gnu qemu-user export CC=aarch64-linux-gnu-gcc ;; *-apple-ios) ;; *) # clang has better error messages and implements alignof more broadly export CC=clang if [ "$TARGET" = "i686-unknown-linux-gnu" ]; then install gcc-multilib fi ;; esac # Finally, if we've gotten this far, actually run the tests. sh ci/run.sh $TARGET if [ "$TARGET" = "x86_64-unknown-linux-gnu" ] && \ [ "$TRAVIS_RUST_VERSION" = "nightly" ] && \ [ "$TRAVIS_OS_NAME" = "linux" ]; then sh ci/dox.sh fi