The module-to-domain table in build-support duplicated what each domain's build.zig already states with its addModule exports. userBinary now resolves each named import by searching the packages the binary declared in its own build.zig.zon (b.available_deps), which also makes the zon the literal include path: an import can only be satisfied by a domain the binary claims, and naming a module whose domain is missing fails the build graph with the domain to declare. build-support is down to the recipe alone. All build variants green; manifest unchanged.
23 lines
892 B
Zig
23 lines
892 B
Zig
//! The acpi service as a binary package (docs/build-packages-plan.md):
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//! this file names the binary and EXACTLY the modules its source imports —
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//! build-support resolves each name from the domains this zon declares.
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//!
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//! The artifact is named "discovery": one swappable process per firmware
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//! fills the ramdisk's neutral `discovery` slot (docs/discovery.md); the
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//! root's -Ddiscovery picks this package or `fdt`.
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const std = @import("std");
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const build_support = @import("build-support");
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pub fn build(b: *std.Build) void {
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const exe = build_support.userBinary(b, .{
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.name = "discovery",
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.root_source_file = b.path("acpi.zig"),
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.imports = &.{
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"acpi-ids", "aml", "device-manager-protocol", "driver", "ipc", "logging", "memory",
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"power-protocol", "process", "service", "time",
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},
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});
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b.installArtifact(exe);
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}
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