build: phase 3 — split image assembly and QEMU runners out of the root
build/images.zig owns everything between built binaries and a bootable volume: the FHS zig-out install tree, boot manifest + capsule, both FAT32 images, the release ISO, and their check steps. build/qemu.zig owns run-x86-64 / run-x86-64-gpu and the OVMF probing. The root build.zig (461 lines, from 1,242 pre-split) now only decides what ships: kernel + loader, the package list, the bundled boot tree, and the aggregate test step. The stale commented-out run scaffold is gone. Boot-image file list unchanged; check-fat-image and check-iso-image both green.
This commit is contained in:
Daniel Samson
@@ -1,8 +1,12 @@
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const std = @import("std");
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const builtin = @import("builtin");
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// The danos build API (docs/build-packages-plan.md): the shared user-binary
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// recipe lives in the build-support package; this root build orchestrates.
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// recipe lives in the build-support package; this root build orchestrates —
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// what ships (the bundled list), the kernel + loader, and the test aggregate.
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// Image assembly and the QEMU run steps live beside it in build/.
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const build_support = @import("build-support");
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const images = @import("build/images.zig");
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const qemu = @import("build/qemu.zig");
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/// danos is developed against Zig 0.16.x. Pre-1.0 Zig makes breaking API changes
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/// between minor releases, and the .zon's `minimum_zig_version` only enforces a
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@@ -19,38 +23,6 @@ fn ensureZigVersion() void {
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}
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}
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/// Return the first path in `candidates` that exists on the build host, else the
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/// first candidate as a fallback so a missing-firmware error still names a
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/// concrete (and, by convention, the primary) path. Used to locate OVMF firmware
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/// across distro/OS layouts without configuration.
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fn firstExisting(io: std.Io, candidates: []const []const u8) []const u8 {
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for (candidates) |path| {
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std.Io.Dir.accessAbsolute(io, path, .{}) catch continue;
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return path;
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}
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return candidates[0];
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}
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/// A UTC timestamp like "20260708-153045", for naming a per-run artifact so
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/// repeated runs don't clobber each other's logs. Resolved when `build.zig` runs
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/// (i.e. at `zig build` invocation), which is moments before QEMU launches.
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fn timestamp(b: *std.Build) []const u8 {
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const ns = std.Io.Clock.now(.real, b.graph.io).nanoseconds;
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const secs: u64 = @intCast(@divFloor(ns, std.time.ns_per_s));
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const es = std.time.epoch.EpochSeconds{ .secs = secs };
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const yd = es.getEpochDay().calculateYearDay();
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const md = yd.calculateMonthDay();
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const ds = es.getDaySeconds();
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return b.fmt("{d:0>4}{d:0>2}{d:0>2}-{d:0>2}{d:0>2}{d:0>2}", .{
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yd.year,
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md.month.numeric(),
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@as(u32, md.day_index) + 1,
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ds.getHoursIntoDay(),
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ds.getMinutesIntoHour(),
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ds.getSecondsIntoMinute(),
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});
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}
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/// The modules the kernel imports, gathered once so both kernel variants (the
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/// installed one and the serial-enabled one `run-x86-64` boots) are built from
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/// the same set. `build_options` is *not* here — it carries `serial`/`test_case`,
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@@ -124,43 +96,6 @@ fn addKernel(
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return exe;
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}
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/// One user binary and its FHS home on the boot volume (and in zig-out).
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const BundledBinary = struct { path: []const u8, binary: std.Build.LazyPath };
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/// Assemble the bootable FAT32 image (the in-repo Python builder) holding the
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/// EFI stub, the kernel, and every user binary at its FHS path — the volume's
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/// /system tree IS the system image; the EFI loader walks it at boot and builds
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/// the in-RAM initial_ramdisk from it. Factored so the serial-enabled
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/// `run-x86-64` variant can bundle its own serial kernel while sharing the
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/// loader and user tree (the loader's boot breadcrumbs and init's heartbeat both
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/// follow the top-level -Dserial). Returns the image's LazyPath.
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fn addBootImage(
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b: *std.Build,
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kernel_bin: std.Build.LazyPath,
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efi_bin: std.Build.LazyPath,
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manifest: std.Build.LazyPath,
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capsule: std.Build.LazyPath,
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bundled: []const BundledBinary,
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) std.Build.LazyPath {
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const mk_fat = b.addSystemCommand(&.{"python3"});
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mk_fat.addFileArg(b.path("tools/make-fat-image.py"));
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const fat_image = mk_fat.addOutputFileArg("danos-usb.img");
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mk_fat.addArg("64"); // MiB
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mk_fat.addArg("EFI/BOOT/BOOTX64.efi");
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mk_fat.addFileArg(efi_bin);
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mk_fat.addArg("system/kernel");
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mk_fat.addFileArg(kernel_bin);
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mk_fat.addArg("system/manifest");
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mk_fat.addFileArg(manifest);
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mk_fat.addArg("boot/system.img");
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mk_fat.addFileArg(capsule);
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for (bundled) |item| {
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mk_fat.addArg(item.path);
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mk_fat.addFileArg(item.binary);
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}
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return fat_image;
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}
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pub fn build(b: *std.Build) void {
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ensureZigVersion();
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@@ -271,15 +206,10 @@ pub fn build(b: *std.Build) void {
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.initial_ramdisk = initial_ramdisk_module,
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};
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// The installed/flashable kernel: serial follows -Dserial (off by default).
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// The serial-enabled twin is what `run-x86-64` boots — built lazily (only
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// when its image is requested), never installed.
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const exe = addKernel(b, kernel_target, optimize, kernel_modules, test_case, serial);
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// Everything installs into a FHS-shaped zig-out: it IS the danos filesystem *and*
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// the boot volume. Each binary lands at its addressed, leaf-collapsed path — the
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// kernel at zig-out/system/kernel (from system/kernel/kernel.zig), init at
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// zig-out/system/services/init, and so on (see docs/README.md). The bootloader
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// then loads these FHS paths off the volume.
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const kernel_install = b.addInstallArtifact(exe, .{ .dest_dir = .{ .override = .{ .custom = "system" } } });
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b.getInstallStep().dependOn(&kernel_install.step);
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const exe_serial = addKernel(b, kernel_target, optimize, kernel_modules, test_case, true);
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// --- the user-space binaries, every one of them a package ---
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// Binary packages (docs/build-packages-plan.md, phase 2): each binary
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@@ -371,7 +301,7 @@ pub fn build(b: *std.Build) void {
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// variant that omits the display stack (so the kernel's boot transcript stays
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// on screen); both are bundled at the same /etc/init.csv path.
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const init_csv_source = if (diagnose) "etc/init-diagnose.csv" else "etc/init.csv";
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const production_bundled = [_]BundledBinary{
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const production_bundled = [_]images.BundledBinary{
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.{ .path = "system/services/init", .binary = init_exe.getEmittedBin() },
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.{ .path = "system/services/fat", .binary = fat_exe.getEmittedBin() },
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.{ .path = "system/services/display", .binary = display_exe.getEmittedBin() },
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@@ -402,7 +332,7 @@ pub fn build(b: *std.Build) void {
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// harness signals by passing -Dtest-case=<name> for every scenario, exactly when
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// these fixtures must be on the boot volume. Merely building this array never
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// forces a compile: the fixture exes build only if `bundled` (below) includes them.
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const test_bundled = [_]BundledBinary{
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const test_bundled = [_]images.BundledBinary{
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.{ .path = "test/system/services/vfs-test", .binary = vfstest_exe.getEmittedBin() },
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.{ .path = "test/system/services/fat-test", .binary = fat_test_exe.getEmittedBin() },
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.{ .path = "test/system/services/shared-memory-server", .binary = shared_memory_server_exe.getEmittedBin() },
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@@ -420,52 +350,11 @@ pub fn build(b: *std.Build) void {
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// A no-option build assumes neither -Dtest-case nor -Ddiagnose: it ships the
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// production set only. Test fixtures join in only under -Dtest-case; the
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// diagnose display-omission is already handled by init_csv_source above.
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var bundled_list: std.ArrayListUnmanaged(BundledBinary) = .empty;
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var bundled_list: std.ArrayListUnmanaged(images.BundledBinary) = .empty;
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bundled_list.appendSlice(b.allocator, &production_bundled) catch @panic("OOM");
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if (test_case != null) bundled_list.appendSlice(b.allocator, &test_bundled) catch @panic("OOM");
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const bundled = bundled_list.items;
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// The boot manifest: the FHS path of every bundled binary, one per line. The
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// EFI loader reads THIS by name and opens each listed path by name — FAT
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// name lookup is case-insensitive and firmware-portable, unlike directory
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// ENUMERATION, whose returned names vary by firmware (bare 8.3 entries come
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// back uppercase on some FAT drivers). The tree walk remains only as the
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// loader's fallback for hand-assembled sticks without a manifest.
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var manifest_text: std.ArrayListUnmanaged(u8) = .empty;
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for (bundled) |item| {
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manifest_text.append(b.allocator, '/') catch @panic("OOM");
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manifest_text.appendSlice(b.allocator, item.path) catch @panic("OOM");
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manifest_text.append(b.allocator, '\n') catch @panic("OOM");
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}
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const manifest_files = b.addWriteFiles();
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const manifest_file = manifest_files.add("manifest", manifest_text.items);
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const manifest_install = b.addInstallFileWithDir(manifest_file, .prefix, "system/manifest");
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b.getInstallStep().dependOn(&manifest_install.step);
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// The boot capsule: the same bundled list packed into ONE file (v2
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// initial_ramdisk format), because a single open + sequential read is the
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// only firmware file I/O shape that is fast everywhere — a per-file tree
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// walk measured MINUTES on real firmware. The loader tries this first,
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// then the manifest, then the walk; the running system cannot tell the
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// difference (it always receives the same in-RAM table). Derived from the
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// tree in the same build graph, so the two cannot drift.
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const mk_capsule = b.addSystemCommand(&.{"python3"});
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mk_capsule.addFileArg(b.path("tools/pack-system-image.py"));
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const capsule_img = mk_capsule.addOutputFileArg("system.img");
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for (bundled) |item| {
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mk_capsule.addArg(item.path);
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mk_capsule.addFileArg(item.binary);
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}
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const capsule_install = b.addInstallFile(capsule_img, "boot/system.img");
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b.getInstallStep().dependOn(&capsule_install.step);
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// Install every bundled binary to its FHS home, so zig-out is a true image of
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// the filesystem — the same tree make-fat-image.py lays out on the boot volume.
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for (bundled) |item| {
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const install = b.addInstallFileWithDir(item.binary, .prefix, item.path);
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b.getInstallStep().dependOn(&install.step);
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}
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// Boot methods live in boot/, one per way of getting the kernel running.
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// Each is its own binary/entry (a loader is built for its own target); today
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// that's UEFI for x86-64, with room for e.g. a device-tree path for the Pis.
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@@ -495,212 +384,16 @@ pub fn build(b: *std.Build) void {
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}),
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});
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// UEFI firmware requires the removable-media loader at exactly \EFI\BOOT\BOOTX64.efi,
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// so that path is fixed by the firmware (it is /boot's EFI stub, conceptually).
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const efi_install = b.addInstallArtifact(efiexe, .{ .dest_dir = .{ .override = .{ .custom = "EFI/BOOT" } } });
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b.getInstallStep().dependOn(&efi_install.step);
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// --- danos-usb.img: the bootable FAT32 USB image ---
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// Format a real FAT32 image (the in-repo Python builder, no external tools)
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// holding the EFI stub, the kernel, and the whole /system tree of user
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// binaries at their FHS paths. QEMU presents this image as a USB mass-storage
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// device the guest boots from (see run-x86-64 and the test harness), and the
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// danos fat driver mounts the same image at /mnt/usb.
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const fat_image = addBootImage(b, exe.getEmittedBin(), efiexe.getEmittedBin(), manifest_file, capsule_img, bundled);
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const fat_image_install = b.addInstallFile(fat_image, "danos-usb.img");
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b.getInstallStep().dependOn(&fat_image_install.step);
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// The image `run-x86-64` boots: identical to the flashable one but with the
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// serial log sink compiled in, so a developer always gets the machine-readable
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// log captured to serial0 — without baking serial into the image users flash.
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// Built lazily (only when `run-x86-64` is requested), and never installed.
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const exe_serial = addKernel(b, kernel_target, optimize, kernel_modules, test_case, true);
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const fat_image_serial = addBootImage(b, exe_serial.getEmittedBin(), efiexe.getEmittedBin(), manifest_file, capsule_img, bundled);
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// `zig build check-fat-image` — validate the produced image is a real FAT32
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// with the EFI stub present (the builder's own --verify, no external tools).
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const check_fat = b.addSystemCommand(&.{"python3"});
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check_fat.addFileArg(b.path("tools/make-fat-image.py"));
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check_fat.addArg("--verify");
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check_fat.addFileArg(fat_image);
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const check_fat_step = b.step("check-fat-image", "Verify the FAT32 USB image is valid and bootable");
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check_fat_step.dependOn(&check_fat.step);
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// --- release-x86-64: danos-x86-64.iso, the flashable release image ---
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// Wrap the FAT32 boot volume in a hybrid ISO (the in-repo Python builder
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// again, no xorriso/isohybrid): an ISO9660 whose El Torito EFI boot entry
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// and MBR ESP partition entry both point at the embedded FAT image. One
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// file then boots every way release media is consumed — flashed raw to a
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// USB stick with Etcher or dd, or burned to optical media — while
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// danos-usb.img stays the raw superfloppy QEMU and the test harness boot.
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const mk_iso = b.addSystemCommand(&.{"python3"});
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mk_iso.addFileArg(b.path("tools/make-iso-image.py"));
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const iso_image = mk_iso.addOutputFileArg("danos-x86-64.iso");
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mk_iso.addFileArg(fat_image);
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const iso_install = b.addInstallFile(iso_image, "danos-x86-64.iso");
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const release_step = b.step("release-x86-64", "Build the flashable x86-64 release ISO (zig-out/danos-x86-64.iso; flash with Etcher or dd)");
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release_step.dependOn(&iso_install.step);
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// `zig build check-iso-image` — the ISO builder's own --verify (mirroring
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// check-fat-image): the MBR partition, the El Torito catalog, and the
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// embedded FAT32 image must all agree.
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const check_iso = b.addSystemCommand(&.{"python3"});
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check_iso.addFileArg(b.path("tools/make-iso-image.py"));
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check_iso.addArg("--verify");
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check_iso.addFileArg(iso_image);
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const check_iso_step = b.step("check-iso-image", "Verify the release ISO is a valid hybrid (MBR ESP partition + El Torito EFI entry)");
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check_iso_step.dependOn(&check_iso.step);
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// --- run-x86-64: boot the x86-64 kernel in QEMU via UEFI/OVMF ---
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// Firmware lives in different places per OS/distro, so probe the known
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// layouts (Architecture, Debian/Ubuntu, Fedora, macOS Homebrew) and use the first
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// that exists. Override with -Dovmf-code / -Dovmf-vars if yours is elsewhere.
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const ovmf_code = b.option(
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[]const u8,
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"ovmf-code",
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"Path to the OVMF_CODE firmware image",
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) orelse firstExisting(b.graph.io, &.{
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"/usr/share/edk2/x64/OVMF_CODE.4m.fd", // Architecture
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"/usr/share/OVMF/OVMF_CODE_4M.fd", // Debian/Ubuntu
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"/usr/share/OVMF/OVMF_CODE.fd", // older Debian/Ubuntu
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"/usr/share/edk2-ovmf/x64/OVMF_CODE.fd", // Fedora
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"/opt/homebrew/share/qemu/edk2-x86_64-code.fd", // macOS Homebrew (Apple Silicon)
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"/usr/local/share/qemu/edk2-x86_64-code.fd", // macOS Homebrew (Intel)
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// Image assembly (the FHS install tree, boot manifest + capsule, both FAT32
|
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// images, the release ISO, the check steps) and the QEMU run steps live in
|
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// build/ — the root decides what ships, those files own how it runs.
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const fat_image_serial = images.addImageSteps(b, .{
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.kernel = exe,
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.kernel_serial = exe_serial,
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.efi = efiexe,
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.bundled = bundled,
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});
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const ovmf_vars = b.option(
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[]const u8,
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"ovmf-vars",
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"Path to the OVMF_VARS firmware image (a writable copy is made)",
|
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) orelse firstExisting(b.graph.io, &.{
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"/usr/share/edk2/x64/OVMF_VARS.4m.fd", // Architecture
|
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"/usr/share/OVMF/OVMF_VARS_4M.fd", // Debian/Ubuntu
|
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"/usr/share/OVMF/OVMF_VARS.fd", // older Debian/Ubuntu
|
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"/usr/share/edk2-ovmf/x64/OVMF_VARS.fd", // Fedora
|
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"/opt/homebrew/share/qemu/edk2-i386-vars.fd", // macOS Homebrew (Apple Silicon)
|
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"/usr/local/share/qemu/edk2-i386-vars.fd", // macOS Homebrew (Intel)
|
||||
});
|
||||
|
||||
// The guest boots the self-contained FAT image (attached as USB storage below),
|
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// not the installed FHS zig-out — see the run step's drive/device flags.
|
||||
|
||||
// The firmware needs to write NVRAM, so give it a writable copy of the vars.
|
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const vars_copy = b.addSystemCommand(&.{ "cp", "-f", ovmf_vars });
|
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const vars_out = vars_copy.addOutputFileArg("OVMF_VARS.4m.fd");
|
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|
||||
const run_efi = b.addSystemCommand(&.{
|
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"qemu-system-x86_64",
|
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"-device",
|
||||
"qemu-xhci,id=xhci",
|
||||
"-device",
|
||||
"usb-mouse,bus=xhci.0",
|
||||
"-device",
|
||||
"usb-kbd,bus=xhci.0",
|
||||
// "-usb",
|
||||
// "-device",
|
||||
// "usb-ehci,id=ehci",
|
||||
// "-device",
|
||||
// "usb-tablet,bus=usb-bus.0",
|
||||
// "-device",
|
||||
// "usb-mouse,bus=ehci.0",
|
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"-machine",
|
||||
"q35",
|
||||
"-m",
|
||||
"128M",
|
||||
"-drive",
|
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b.fmt("if=pflash,format=raw,readonly=on,file={s}", .{ovmf_code}),
|
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});
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run_efi.addArg("-drive");
|
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run_efi.addPrefixedFileArg("if=pflash,format=raw,file=", vars_out);
|
||||
// Boot off the FAT32 USB image: a mass-storage device on the same xHCI bus as
|
||||
// the keyboard and mouse. OVMF finds \EFI\BOOT\BOOTX64.efi on it and boots.
|
||||
// The serial-enabled variant, so serial0 carries the log for this dev boot.
|
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run_efi.addArg("-drive");
|
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run_efi.addPrefixedFileArg("if=none,id=bootusb,format=raw,file=", fat_image_serial);
|
||||
run_efi.addArgs(&.{
|
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"-device",
|
||||
"usb-storage,bus=xhci.0,drive=bootusb,removable=on,bootindex=0",
|
||||
"-net",
|
||||
"none",
|
||||
// Emulated display advertising 1280x720 as its native (EDID preferred)
|
||||
// resolution, so the kernel's native-resolution switch has something to
|
||||
// find. `-vga none` avoids a second, default adapter.
|
||||
"-vga",
|
||||
"none",
|
||||
"-device",
|
||||
"VGA,edid=on,xres=1280,yres=720",
|
||||
});
|
||||
// Capture the guest's serial0 (danos's machine-readable log) to the qemu-test
|
||||
// scratch area — a dev/host artifact, kept out of the FHS boot volume we mount.
|
||||
// (/var/log/system is reserved for the kernel's own logging system later.) One
|
||||
// timestamped file per run.
|
||||
const log_dir = b.fmt("{s}/qemu-test", .{b.install_path});
|
||||
const make_log_dir = b.addSystemCommand(&.{ "mkdir", "-p", log_dir });
|
||||
const serial_log = b.fmt("{s}/run-x86-64-serial0-{s}.log", .{ log_dir, timestamp(b) });
|
||||
run_efi.addArgs(&.{ "-serial", b.fmt("file:{s}", .{serial_log}) });
|
||||
// We boot the self-contained `fat_image_serial` (added as a file arg above, so
|
||||
// it's already a dependency) — not the installed FHS zig-out — so `run-x86-64`
|
||||
// builds only the serial kernel, never the flashable one. Just make the serial
|
||||
// scratch dir first.
|
||||
run_efi.step.dependOn(&make_log_dir.step);
|
||||
|
||||
const run_efi_step = b.step("run-x86-64", "Boot the x86-64 kernel in QEMU (UEFI/OVMF); serial0 is logged to zig-out/qemu-test/run-x86-64-serial0-<timestamp>.log");
|
||||
run_efi_step.dependOn(&run_efi.step);
|
||||
|
||||
// --- run-x86-64-gpu: the same boot plus a virtio-gpu adapter ---
|
||||
// The VGA device still supplies the boot (GOP) framebuffer the compositor starts
|
||||
// on; the virtio-gpu function is discovered by the device-manager stack, its
|
||||
// driver announces a shared scanout, and the compositor upgrades off the GOP
|
||||
// floor to fenced, tear-free native presents (docs/display-v2.md).
|
||||
// This is the interactive twin of the `display-native` test case, and 512M
|
||||
// matches it (the whole driver stack + the compositor's surfaces at once).
|
||||
// QEMU shows one head per adapter: pick the virtio-gpu head in the View menu
|
||||
// to watch the native output.
|
||||
const run_gpu = b.addSystemCommand(&.{
|
||||
"qemu-system-x86_64",
|
||||
"-device",
|
||||
"qemu-xhci,id=xhci",
|
||||
"-device",
|
||||
"usb-mouse,bus=xhci.0",
|
||||
"-device",
|
||||
"usb-kbd,bus=xhci.0",
|
||||
"-machine",
|
||||
"q35",
|
||||
"-m",
|
||||
"512M",
|
||||
"-drive",
|
||||
b.fmt("if=pflash,format=raw,readonly=on,file={s}", .{ovmf_code}),
|
||||
});
|
||||
run_gpu.addArg("-drive");
|
||||
run_gpu.addPrefixedFileArg("if=pflash,format=raw,file=", vars_out);
|
||||
run_gpu.addArg("-drive");
|
||||
run_gpu.addPrefixedFileArg("if=none,id=bootusb,format=raw,file=", fat_image_serial);
|
||||
run_gpu.addArgs(&.{
|
||||
"-device",
|
||||
"usb-storage,bus=xhci.0,drive=bootusb,removable=on,bootindex=0",
|
||||
"-net",
|
||||
"none",
|
||||
"-vga",
|
||||
"none",
|
||||
"-device",
|
||||
"VGA,edid=on,xres=1280,yres=720",
|
||||
"-device",
|
||||
"virtio-gpu-pci",
|
||||
});
|
||||
const gpu_serial_log = b.fmt("{s}/run-x86-64-gpu-serial0-{s}.log", .{ log_dir, timestamp(b) });
|
||||
run_gpu.addArgs(&.{ "-serial", b.fmt("file:{s}", .{gpu_serial_log}) });
|
||||
run_gpu.step.dependOn(&make_log_dir.step);
|
||||
|
||||
const run_gpu_step = b.step("run-x86-64-gpu", "Boot in QEMU with a virtio-gpu adapter: the compositor upgrades to fenced (tear-free) native presents; watch the virtio-gpu head in QEMU's View menu");
|
||||
run_gpu_step.dependOn(&run_gpu.step);
|
||||
|
||||
// const run_cmd = b.addRunArtifact(exe);
|
||||
// const run_step = b.step("run", "Run the app");
|
||||
// run_step.dependOn(&run_cmd.step);
|
||||
// run_cmd.step.dependOn(b.getInstallStep());
|
||||
//
|
||||
// if (b.args) |args| {
|
||||
// run_cmd.addArgs(args);
|
||||
// }
|
||||
qemu.addRunSteps(b, fat_image_serial);
|
||||
|
||||
// Tests run on the host. The kernel and bootloader target freestanding/UEFI
|
||||
// and can't be executed natively, so only the shared contracts are unit-tested
|
||||
|
||||
Reference in New Issue
Block a user