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Merge pull request #13081 from r00ster91/docs

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fix(text): hyphenation and other fixes
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Andrew Kelley 2022-10-12 05:26:11 -04:00 • committed by GitHub
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39 changed files with 187 additions and 186 deletions
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4
doc/langref.html.in
View file

@ -8171,7 +8171,7 @@ fn func(y: *i32) void {
{#header_open|@mulAdd#}
<pre>{#syntax#}@mulAdd(comptime T: type, a: T, b: T, c: T) T{#endsyntax#}</pre>
<p>
Fused multiply add, similar to {#syntax#}(a * b) + c{#endsyntax#}, except
Fused multiply-add, similar to {#syntax#}(a * b) + c{#endsyntax#}, except
only rounds once, and is thus more accurate.
</p>
<p>
@ -9306,7 +9306,7 @@ pub const FloatMode = enum {
<li>Assume the arguments and result are not +/-Inf. Optimizations are required to retain defined behavior over +/-Inf, but the value of the result is undefined.</li>
<li>Treat the sign of a zero argument or result as insignificant.</li>
<li>Use the reciprocal of an argument rather than perform division.</li>
<li>Perform floating-point contraction (e.g. fusing a multiply followed by an addition into a fused multiply-and-add).</li>
<li>Perform floating-point contraction (e.g. fusing a multiply followed by an addition into a fused multiply-add).</li>
<li>Perform algebraically equivalent transformations that may change results in floating point (e.g. reassociate).</li>
</ul>
This is equivalent to <code>-ffast-math</code> in GCC.

6
lib/std/bit_set.zig
View file

@ -23,7 +23,7 @@
//! size. The interfaces of these two types match exactly, except for fields.
//!
//! DynamicBitSet:
//! A bit set with runtime known size, backed by an allocated slice
//! A bit set with runtime-known size, backed by an allocated slice
//! of usize.
//!
//! DynamicBitSetUnmanaged:
@ -515,7 +515,7 @@ pub fn ArrayBitSet(comptime MaskIntType: type, comptime size: usize) type {
};
}
/// A bit set with runtime known size, backed by an allocated slice
/// A bit set with runtime-known size, backed by an allocated slice
/// of usize. The allocator must be tracked externally by the user.
pub const DynamicBitSetUnmanaged = struct {
const Self = @This();
@ -843,7 +843,7 @@ pub const DynamicBitSetUnmanaged = struct {
}
};
/// A bit set with runtime known size, backed by an allocated slice
/// A bit set with runtime-known size, backed by an allocated slice
/// of usize. Thin wrapper around DynamicBitSetUnmanaged which keeps
/// track of the allocator instance.
pub const DynamicBitSet = struct {

2
lib/std/enums.zig
View file

@ -696,7 +696,7 @@ pub fn IndexedArray(comptime I: type, comptime V: type, comptime Ext: fn (type)
}
/// Verifies that a type is a valid Indexer, providing a helpful
/// compile error if not. An Indexer maps a comptime known set
/// compile error if not. An Indexer maps a comptime-known set
/// of keys to a dense set of zero-based indices.
/// The indexer interface must look like this:
/// ```

2
lib/std/fmt.zig
View file

@ -29,7 +29,7 @@ pub const FormatOptions = struct {
/// If `writer` returns an error, the error is returned from `format` and
/// `writer` is not called again.
///
/// The format string must be comptime known and may contain placeholders following
/// The format string must be comptime-known and may contain placeholders following
/// this format:
/// `{[argument][specifier]:[fill][alignment][width].[precision]}`
///

7
lib/std/math.zig
View file

@ -786,14 +786,14 @@ fn testOverflow() !void {
try testing.expect((shlExact(i32, 0b11, 4) catch unreachable) == 0b110000);
}
/// Returns the absolute value of x, where x is a value of an integer
/// type.
/// Returns the absolute value of x, where x is a value of a signed integer type.
/// See also: `absCast`
pub fn absInt(x: anytype) !@TypeOf(x) {
const T = @TypeOf(x);
comptime assert(@typeInfo(T) == .Int); // must pass an integer to absInt
comptime assert(@typeInfo(T).Int.signedness == .signed); // must pass a signed integer to absInt
if (x == minInt(@TypeOf(x))) {
if (x == minInt(T)) {
return error.Overflow;
} else {
@setRuntimeSafety(false);
@ -1001,6 +1001,7 @@ pub inline fn fabs(value: anytype) @TypeOf(value) {
/// Returns the absolute value of the integer parameter.
/// Result is an unsigned integer.
/// See also: `absInt`
pub fn absCast(x: anytype) switch (@typeInfo(@TypeOf(x))) {
.ComptimeInt => comptime_int,
.Int => |int_info| std.meta.Int(.unsigned, int_info.bits),

8
lib/std/testing.zig
View file

@ -213,8 +213,8 @@ pub fn expectFmt(expected: []const u8, comptime template: []const u8, args: anyt
/// This function is intended to be used only in tests. When the actual value is
/// not approximately equal to the expected value, prints diagnostics to stderr
/// to show exactly how they are not equal, then returns a test failure error.
/// See `math.approxEqAbs` for more informations on the tolerance parameter.
/// The types must be floating point.
/// See `math.approxEqAbs` for more information on the tolerance parameter.
/// The types must be floating-point.
pub fn expectApproxEqAbs(expected: anytype, actual: @TypeOf(expected), tolerance: @TypeOf(expected)) !void {
const T = @TypeOf(expected);
@ -245,8 +245,8 @@ test "expectApproxEqAbs" {
/// This function is intended to be used only in tests. When the actual value is
/// not approximately equal to the expected value, prints diagnostics to stderr
/// to show exactly how they are not equal, then returns a test failure error.
/// See `math.approxEqRel` for more informations on the tolerance parameter.
/// The types must be floating point.
/// See `math.approxEqRel` for more information on the tolerance parameter.
/// The types must be floating-point.
pub fn expectApproxEqRel(expected: anytype, actual: @TypeOf(expected), tolerance: @TypeOf(expected)) !void {
const T = @TypeOf(expected);

4
src/Module.zig
View file

@ -3494,7 +3494,7 @@ fn freeExportList(gpa: Allocator, export_list: []*Export) void {
const data_has_safety_tag = @sizeOf(Zir.Inst.Data) != 8;
// TODO This is taking advantage of matching stage1 debug union layout.
// We need a better language feature for initializing a union with
// a runtime known tag.
// a runtime-known tag.
const Stage1DataLayout = extern struct {
data: [8]u8 align(@alignOf(Zir.Inst.Data)),
safety_tag: u8,
@ -4594,7 +4594,7 @@ fn semaDecl(mod: *Module, decl_index: Decl.Index) !bool {
const decl_linksection: ?[*:0]const u8 = blk: {
const linksection_ref = decl.zirLinksectionRef();
if (linksection_ref == .none) break :blk null;
const bytes = try sema.resolveConstString(&block_scope, section_src, linksection_ref, "linksection must be comptime known");
const bytes = try sema.resolveConstString(&block_scope, section_src, linksection_ref, "linksection must be comptime-known");
if (mem.indexOfScalar(u8, bytes, 0) != null) {
return sema.fail(&block_scope, section_src, "linksection cannot contain null bytes", .{});
} else if (bytes.len == 0) {

232
src/Sema.zig
View file

@ -50,7 +50,7 @@ comptime_break_inst: Zir.Inst.Index = undefined,
src: LazySrcLoc = .{ .token_offset = 0 },
decl_val_table: std.AutoHashMapUnmanaged(Decl.Index, Air.Inst.Ref) = .{},
/// When doing a generic function instantiation, this array collects a
/// `Value` object for each parameter that is comptime known and thus elided
/// `Value` object for each parameter that is comptime-known and thus elided
/// from the generated function. This memory is allocated by a parent `Sema` and
/// owned by the values arena of the Sema owner_decl.
comptime_args: []TypedValue = &.{},
@ -1381,7 +1381,7 @@ fn analyzeBodyInner(
const extra = sema.code.extraData(Zir.Inst.CondBr, inst_data.payload_index);
const then_body = sema.code.extra[extra.end..][0..extra.data.then_body_len];
const else_body = sema.code.extra[extra.end + then_body.len ..][0..extra.data.else_body_len];
const cond = try sema.resolveInstConst(block, cond_src, extra.data.condition, "condition in comptime branch must be comptime known");
const cond = try sema.resolveInstConst(block, cond_src, extra.data.condition, "condition in comptime branch must be comptime-known");
const inline_body = if (cond.val.toBool()) then_body else else_body;
try sema.maybeErrorUnwrapCondbr(block, inline_body, extra.data.condition, cond_src);
@ -1399,7 +1399,7 @@ fn analyzeBodyInner(
const extra = sema.code.extraData(Zir.Inst.CondBr, inst_data.payload_index);
const then_body = sema.code.extra[extra.end..][0..extra.data.then_body_len];
const else_body = sema.code.extra[extra.end + then_body.len ..][0..extra.data.else_body_len];
const cond = try sema.resolveInstConst(block, cond_src, extra.data.condition, "condition in comptime branch must be comptime known");
const cond = try sema.resolveInstConst(block, cond_src, extra.data.condition, "condition in comptime branch must be comptime-known");
const inline_body = if (cond.val.toBool()) then_body else else_body;
const old_runtime_index = block.runtime_index;
defer block.runtime_index = old_runtime_index;
@ -1421,7 +1421,7 @@ fn analyzeBodyInner(
const err_union = try sema.resolveInst(extra.data.operand);
const is_non_err = try sema.analyzeIsNonErrComptimeOnly(block, operand_src, err_union);
assert(is_non_err != .none);
const is_non_err_tv = try sema.resolveInstConst(block, operand_src, is_non_err, "try operand inside comptime block must be comptime known");
const is_non_err_tv = try sema.resolveInstConst(block, operand_src, is_non_err, "try operand inside comptime block must be comptime-known");
if (is_non_err_tv.val.toBool()) {
const err_union_ty = sema.typeOf(err_union);
break :blk try sema.analyzeErrUnionPayload(block, src, err_union_ty, err_union, operand_src, false);
@ -1477,7 +1477,7 @@ fn analyzeBodyInner(
const err_union = try sema.analyzeLoad(block, src, operand, operand_src);
const is_non_err = try sema.analyzeIsNonErrComptimeOnly(block, operand_src, err_union);
assert(is_non_err != .none);
const is_non_err_tv = try sema.resolveInstConst(block, operand_src, is_non_err, "try operand inside comptime block must be comptime known");
const is_non_err_tv = try sema.resolveInstConst(block, operand_src, is_non_err, "try operand inside comptime block must be comptime-known");
if (is_non_err_tv.val.toBool()) {
break :blk try sema.analyzeErrUnionPayloadPtr(block, src, operand, false, false);
}
@ -1622,7 +1622,7 @@ fn analyzeAsType(
) !Type {
const wanted_type = Type.initTag(.@"type");
const coerced_inst = try sema.coerce(block, wanted_type, air_inst, src);
const val = try sema.resolveConstValue(block, src, coerced_inst, "types must be comptime known");
const val = try sema.resolveConstValue(block, src, coerced_inst, "types must be comptime-known");
var buffer: Value.ToTypeBuffer = undefined;
const ty = val.toType(&buffer);
return ty.copy(sema.arena);
@ -2067,7 +2067,7 @@ fn analyzeAsAlign(
src: LazySrcLoc,
air_ref: Air.Inst.Ref,
) !u32 {
const alignment_big = try sema.analyzeAsInt(block, src, air_ref, align_ty, "alignment must be comptime known");
const alignment_big = try sema.analyzeAsInt(block, src, air_ref, align_ty, "alignment must be comptime-known");
const alignment = @intCast(u32, alignment_big); // We coerce to u16 in the prev line.
try sema.validateAlign(block, src, alignment);
return alignment;
@ -2741,7 +2741,7 @@ fn zirEnumDecl(
// TODO: if we need to report an error here, use a source location
// that points to this default value expression rather than the struct.
// But only resolve the source location if we need to emit a compile error.
const tag_val = (try sema.resolveInstConst(block, src, tag_val_ref, "enum tag value must be comptime known")).val;
const tag_val = (try sema.resolveInstConst(block, src, tag_val_ref, "enum tag value must be comptime-known")).val;
last_tag_val = tag_val;
const copied_tag_val = try tag_val.copy(decl_arena_allocator);
const gop_val = enum_obj.values.getOrPutAssumeCapacityContext(copied_tag_val, .{
@ -3259,7 +3259,7 @@ fn zirMakePtrConst(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErro
var ptr_info = alloc_ty.ptrInfo().data;
const elem_ty = ptr_info.pointee_type;
// Detect if all stores to an `.alloc` were comptime known.
// Detect if all stores to an `.alloc` were comptime-known.
ct: {
var search_index: usize = block.instructions.items.len;
const air_tags = sema.air_instructions.items(.tag);
@ -3476,7 +3476,7 @@ fn zirResolveInferredAlloc(sema: *Sema, block: *Block, inst: Zir.Inst.Index) Com
if (var_is_mut) {
try sema.validateVarType(block, ty_src, final_elem_ty, false);
} else ct: {
// Detect if the value is comptime known. In such case, the
// Detect if the value is comptime-known. In such case, the
// last 3 AIR instructions of the block will look like this:
//
// %a = constant
@ -4383,7 +4383,7 @@ fn zirValidateDeref(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErr
const msg = try sema.errMsg(
block,
src,
"values of type '{}' must be comptime known, but operand value is runtime known",
"values of type '{}' must be comptime-known, but operand value is runtime-known",
.{elem_ty.fmt(sema.mod)},
);
errdefer msg.destroy(sema.gpa);
@ -4597,13 +4597,13 @@ fn storeToInferredAllocComptime(
return;
}
return sema.failWithNeededComptime(block, src, "value being stored to a comptime variable must be comptime known");
return sema.failWithNeededComptime(block, src, "value being stored to a comptime variable must be comptime-known");
}
fn zirSetEvalBranchQuota(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!void {
const inst_data = sema.code.instructions.items(.data)[inst].un_node;
const src = inst_data.src();
const quota = @intCast(u32, try sema.resolveInt(block, src, inst_data.operand, Type.u32, "eval branch quota must be comptime known"));
const quota = @intCast(u32, try sema.resolveInt(block, src, inst_data.operand, Type.u32, "eval branch quota must be comptime-known"));
sema.branch_quota = @maximum(sema.branch_quota, quota);
}
@ -4756,7 +4756,7 @@ fn zirCompileError(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErro
const inst_data = sema.code.instructions.items(.data)[inst].un_node;
const src = inst_data.src();
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const msg = try sema.resolveConstString(block, operand_src, inst_data.operand, "compile error string must be comptime known");
const msg = try sema.resolveConstString(block, operand_src, inst_data.operand, "compile error string must be comptime-known");
return sema.fail(block, src, "{s}", .{msg});
}
@ -5096,7 +5096,7 @@ fn analyzeBlockBody(
const valid_rt = try sema.validateRunTimeType(child_block, type_src, resolved_ty, false);
if (!valid_rt) {
const msg = msg: {
const msg = try sema.errMsg(child_block, type_src, "value with comptime only type '{}' depends on runtime control flow", .{resolved_ty.fmt(mod)});
const msg = try sema.errMsg(child_block, type_src, "value with comptime-only type '{}' depends on runtime control flow", .{resolved_ty.fmt(mod)});
errdefer msg.destroy(sema.gpa);
const runtime_src = child_block.runtime_cond orelse child_block.runtime_loop.?;
@ -5206,7 +5206,7 @@ fn zirExportValue(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError
const src = inst_data.src();
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const options_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const operand = try sema.resolveInstConst(block, operand_src, extra.operand, "export target must be comptime known");
const operand = try sema.resolveInstConst(block, operand_src, extra.operand, "export target must be comptime-known");
const options = sema.resolveExportOptions(block, .unneeded, extra.options) catch |err| switch (err) {
error.NeededSourceLocation => {
_ = try sema.resolveExportOptions(block, options_src, extra.options);
@ -5347,7 +5347,7 @@ fn zirSetAlignStack(sema: *Sema, block: *Block, extended: Zir.Inst.Extended.Inst
fn zirSetCold(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!void {
const inst_data = sema.code.instructions.items(.data)[inst].un_node;
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const is_cold = try sema.resolveConstBool(block, operand_src, inst_data.operand, "operand to @setCold must be comptime known");
const is_cold = try sema.resolveConstBool(block, operand_src, inst_data.operand, "operand to @setCold must be comptime-known");
const func = sema.func orelse return; // does nothing outside a function
func.is_cold = is_cold;
}
@ -5355,13 +5355,13 @@ fn zirSetCold(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!voi
fn zirSetFloatMode(sema: *Sema, block: *Block, extended: Zir.Inst.Extended.InstData) CompileError!void {
const extra = sema.code.extraData(Zir.Inst.UnNode, extended.operand).data;
const src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
block.float_mode = try sema.resolveBuiltinEnum(block, src, extra.operand, "FloatMode", "operand to @setFloatMode must be comptime known");
block.float_mode = try sema.resolveBuiltinEnum(block, src, extra.operand, "FloatMode", "operand to @setFloatMode must be comptime-known");
}
fn zirSetRuntimeSafety(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!void {
const inst_data = sema.code.instructions.items(.data)[inst].un_node;
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
block.want_safety = try sema.resolveConstBool(block, operand_src, inst_data.operand, "operand to @setRuntimeSafety must be comptime known");
block.want_safety = try sema.resolveConstBool(block, operand_src, inst_data.operand, "operand to @setRuntimeSafety must be comptime-known");
}
fn zirFence(sema: *Sema, block: *Block, extended: Zir.Inst.Extended.InstData) CompileError!void {
@ -5369,7 +5369,7 @@ fn zirFence(sema: *Sema, block: *Block, extended: Zir.Inst.Extended.InstData) Co
const extra = sema.code.extraData(Zir.Inst.UnNode, extended.operand).data;
const order_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
const order = try sema.resolveAtomicOrder(block, order_src, extra.operand, "atomic order of @fence must be comptime known");
const order = try sema.resolveAtomicOrder(block, order_src, extra.operand, "atomic order of @fence must be comptime-known");
if (@enumToInt(order) < @enumToInt(std.builtin.AtomicOrder.Acquire)) {
return sema.fail(block, order_src, "atomic ordering must be Acquire or stricter", .{});
@ -5861,12 +5861,12 @@ fn addComptimeReturnTypeNote(
break :blk func_src.toSrcLoc(src_decl);
};
if (return_ty.tag() == .generic_poison) {
return sema.mod.errNoteNonLazy(src_loc, parent, "generic function is instantiated with a comptime only return type", .{});
return sema.mod.errNoteNonLazy(src_loc, parent, "generic function is instantiated with a comptime-only return type", .{});
}
try sema.mod.errNoteNonLazy(
src_loc,
parent,
"function is being called at comptime because it returns a comptime only type '{}'",
"function is being called at comptime because it returns a comptime-only type '{}'",
.{return_ty.fmt(sema.mod)},
);
try sema.explainWhyTypeIsComptime(block, func_src, parent, src_loc, return_ty);
@ -6006,7 +6006,7 @@ fn analyzeCall(
}
const result: Air.Inst.Ref = if (is_inline_call) res: {
const func_val = sema.resolveConstValue(block, func_src, func, "function being called at comptime must be comptime known") catch |err| {
const func_val = sema.resolveConstValue(block, func_src, func, "function being called at comptime must be comptime-known") catch |err| {
if (err == error.AnalysisFail and sema.err != null) {
try sema.addComptimeReturnTypeNote(block, func, func_src, func_ty_info.return_type, sema.err.?, comptime_only_ret_ty);
}
@ -6404,7 +6404,7 @@ fn analyzeInlineCallArg(
new_fn_info.param_types[arg_i.*] = param_ty;
const uncasted_arg = uncasted_args[arg_i.*];
if (try sema.typeRequiresComptime(param_ty)) {
_ = sema.resolveConstMaybeUndefVal(arg_block, arg_src, uncasted_arg, "argument to parameter with comptime only type must be comptime known") catch |err| {
_ = sema.resolveConstMaybeUndefVal(arg_block, arg_src, uncasted_arg, "argument to parameter with comptime-only type must be comptime-known") catch |err| {
if (err == error.AnalysisFail and sema.err != null) {
try sema.addComptimeReturnTypeNote(arg_block, func, func_src, ret_ty, sema.err.?, comptime_only_ret_ty);
}
@ -6415,7 +6415,7 @@ fn analyzeInlineCallArg(
try sema.inst_map.putNoClobber(sema.gpa, inst, casted_arg);
if (is_comptime_call) {
const arg_val = sema.resolveConstMaybeUndefVal(arg_block, arg_src, casted_arg, "argument to function being called at comptime must be comptime known") catch |err| {
const arg_val = sema.resolveConstMaybeUndefVal(arg_block, arg_src, casted_arg, "argument to function being called at comptime must be comptime-known") catch |err| {
if (err == error.AnalysisFail and sema.err != null) {
try sema.addComptimeReturnTypeNote(arg_block, func, func_src, ret_ty, sema.err.?, comptime_only_ret_ty);
}
@ -6450,7 +6450,7 @@ fn analyzeInlineCallArg(
try sema.inst_map.putNoClobber(sema.gpa, inst, uncasted_arg);
if (is_comptime_call) {
const arg_val = sema.resolveConstMaybeUndefVal(arg_block, arg_src, uncasted_arg, "argument to function being called at comptime must be comptime known") catch |err| {
const arg_val = sema.resolveConstMaybeUndefVal(arg_block, arg_src, uncasted_arg, "argument to function being called at comptime must be comptime-known") catch |err| {
if (err == error.AnalysisFail and sema.err != null) {
try sema.addComptimeReturnTypeNote(arg_block, func, func_src, ret_ty, sema.err.?, comptime_only_ret_ty);
}
@ -6536,7 +6536,7 @@ fn instantiateGenericCall(
const mod = sema.mod;
const gpa = sema.gpa;
const func_val = try sema.resolveConstValue(block, func_src, func, "generic function being called must be comptime known");
const func_val = try sema.resolveConstValue(block, func_src, func, "generic function being called must be comptime-known");
const module_fn = switch (func_val.tag()) {
.function => func_val.castTag(.function).?.data,
.decl_ref => mod.declPtr(func_val.castTag(.decl_ref).?.data).val.castTag(.function).?.data,
@ -7030,7 +7030,7 @@ fn zirVectorType(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!
const elem_type_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const len_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const extra = sema.code.extraData(Zir.Inst.Bin, inst_data.payload_index).data;
const len = try sema.resolveInt(block, len_src, extra.lhs, Type.u32, "vector length must be comptime known");
const len = try sema.resolveInt(block, len_src, extra.lhs, Type.u32, "vector length must be comptime-known");
const elem_type = try sema.resolveType(block, elem_type_src, extra.rhs);
try sema.checkVectorElemType(block, elem_type_src, elem_type);
const vector_type = try Type.Tag.vector.create(sema.arena, .{
@ -7048,7 +7048,7 @@ fn zirArrayType(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const extra = sema.code.extraData(Zir.Inst.Bin, inst_data.payload_index).data;
const len_src: LazySrcLoc = .{ .node_offset_array_type_len = inst_data.src_node };
const elem_src: LazySrcLoc = .{ .node_offset_array_type_elem = inst_data.src_node };
const len = try sema.resolveInt(block, len_src, extra.lhs, Type.usize, "array length must be comptime known");
const len = try sema.resolveInt(block, len_src, extra.lhs, Type.usize, "array length must be comptime-known");
const elem_type = try sema.resolveType(block, elem_src, extra.rhs);
const array_ty = try Type.array(sema.arena, len, null, elem_type, sema.mod);
@ -7064,11 +7064,11 @@ fn zirArrayTypeSentinel(sema: *Sema, block: *Block, inst: Zir.Inst.Index) Compil
const len_src: LazySrcLoc = .{ .node_offset_array_type_len = inst_data.src_node };
const sentinel_src: LazySrcLoc = .{ .node_offset_array_type_sentinel = inst_data.src_node };
const elem_src: LazySrcLoc = .{ .node_offset_array_type_elem = inst_data.src_node };
const len = try sema.resolveInt(block, len_src, extra.len, Type.usize, "array length must be comptime known");
const len = try sema.resolveInt(block, len_src, extra.len, Type.usize, "array length must be comptime-known");
const elem_type = try sema.resolveType(block, elem_src, extra.elem_type);
const uncasted_sentinel = try sema.resolveInst(extra.sentinel);
const sentinel = try sema.coerce(block, elem_type, uncasted_sentinel, sentinel_src);
const sentinel_val = try sema.resolveConstValue(block, sentinel_src, sentinel, "array sentinel value must be comptime known");
const sentinel_val = try sema.resolveConstValue(block, sentinel_src, sentinel, "array sentinel value must be comptime-known");
const array_ty = try Type.array(sema.arena, len, sentinel_val, elem_type, sema.mod);
return sema.addType(array_ty);
@ -7752,7 +7752,7 @@ fn zirFunc(
const ret_ty_body = sema.code.extra[extra_index..][0..extra.data.ret_body_len];
extra_index += ret_ty_body.len;
const ret_ty_val = try sema.resolveGenericBody(block, ret_ty_src, ret_ty_body, inst, Type.type, "return type must be comptime known");
const ret_ty_val = try sema.resolveGenericBody(block, ret_ty_src, ret_ty_body, inst, Type.type, "return type must be comptime-known");
var buffer: Value.ToTypeBuffer = undefined;
break :blk try ret_ty_val.toType(&buffer).copy(sema.arena);
},
@ -8075,7 +8075,7 @@ fn funcCommon(
return sema.failWithOwnedErrorMsg(msg);
}
// If the return type is comptime only but not dependent on parameters then all parameter types also need to be comptime
// If the return type is comptime-only but not dependent on parameters then all parameter types also need to be comptime
if (!sema.is_generic_instantiation and has_body and ret_ty_requires_comptime) comptime_check: {
for (block.params.items) |param| {
if (!param.is_comptime) break;
@ -8084,7 +8084,7 @@ fn funcCommon(
const msg = try sema.errMsg(
block,
ret_ty_src,
"function with comptime only return type '{}' requires all parameters to be comptime",
"function with comptime-only return type '{}' requires all parameters to be comptime",
.{return_type.fmt(sema.mod)},
);
try sema.explainWhyTypeIsComptime(block, ret_ty_src, msg, ret_ty_src.toSrcLoc(sema.owner_decl), return_type);
@ -8586,7 +8586,7 @@ fn zirFieldValNamed(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErr
const field_name_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const extra = sema.code.extraData(Zir.Inst.FieldNamed, inst_data.payload_index).data;
const object = try sema.resolveInst(extra.lhs);
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime-known");
return sema.fieldVal(block, src, object, field_name, field_name_src);
}
@ -8599,7 +8599,7 @@ fn zirFieldPtrNamed(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErr
const field_name_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const extra = sema.code.extraData(Zir.Inst.FieldNamed, inst_data.payload_index).data;
const object_ptr = try sema.resolveInst(extra.lhs);
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime-known");
return sema.fieldPtr(block, src, object_ptr, field_name, field_name_src, false);
}
@ -8611,7 +8611,7 @@ fn zirFieldCallBindNamed(sema: *Sema, block: *Block, extended: Zir.Inst.Extended
const src = LazySrcLoc.nodeOffset(extra.node);
const field_name_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = extra.node };
const object_ptr = try sema.resolveInst(extra.lhs);
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, field_name_src, extra.field_name, "field name must be comptime-known");
return sema.fieldCallBind(block, src, object_ptr, field_name, field_name_src);
}
@ -10647,7 +10647,7 @@ fn resolveSwitchItemVal(
const src = switch_prong_src.resolve(sema.gpa, sema.mod.declPtr(block.src_decl), switch_node_offset, range_expand);
return TypedValue{
.ty = item_ty,
.val = try sema.resolveConstValue(block, src, item, "switch prong values must be comptime known"),
.val = try sema.resolveConstValue(block, src, item, "switch prong values must be comptime-known"),
};
},
else => |e| return e,
@ -10936,7 +10936,7 @@ fn zirHasField(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Ai
const ty_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const name_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const unresolved_ty = try sema.resolveType(block, ty_src, extra.lhs);
const field_name = try sema.resolveConstString(block, name_src, extra.rhs, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, name_src, extra.rhs, "field name must be comptime-known");
const ty = try sema.resolveTypeFields(block, ty_src, unresolved_ty);
const has_field = hf: {
@ -10978,7 +10978,7 @@ fn zirHasDecl(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air
const lhs_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const rhs_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const container_type = try sema.resolveType(block, lhs_src, extra.lhs);
const decl_name = try sema.resolveConstString(block, rhs_src, extra.rhs, "decl name must be comptime known");
const decl_name = try sema.resolveConstString(block, rhs_src, extra.rhs, "decl name must be comptime-known");
try checkNamespaceType(sema, block, lhs_src, container_type);
@ -11042,7 +11042,7 @@ fn zirEmbedFile(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const mod = sema.mod;
const inst_data = sema.code.instructions.items(.data)[inst].un_node;
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const name = try sema.resolveConstString(block, operand_src, inst_data.operand, "file path name must be comptime known");
const name = try sema.resolveConstString(block, operand_src, inst_data.operand, "file path name must be comptime-known");
const embed_file = mod.embedFile(block.getFileScope(), name) catch |err| switch (err) {
error.ImportOutsidePkgPath => {
@ -11157,7 +11157,7 @@ fn zirShl(
if (lhs_val.isUndef()) return sema.addConstUndef(lhs_ty);
const rhs_val = maybe_rhs_val orelse {
if (scalar_ty.zigTypeTag() == .ComptimeInt) {
return sema.fail(block, src, "LHS of shift must be a fixed-width integer type, or RHS must be a comptime known", .{});
return sema.fail(block, src, "LHS of shift must be a fixed-width integer type, or RHS must be comptime-known", .{});
}
break :rs rhs_src;
};
@ -11339,7 +11339,7 @@ fn zirShr(
} else rhs_src;
if (maybe_rhs_val == null and scalar_ty.zigTypeTag() == .ComptimeInt) {
return sema.fail(block, src, "LHS of shift must be a fixed-width integer type, or RHS must be a comptime known", .{});
return sema.fail(block, src, "LHS of shift must be a fixed-width integer type, or RHS must be comptime-known", .{});
}
try sema.requireRuntimeBlock(block, src, runtime_src);
@ -11609,8 +11609,8 @@ fn zirArrayCat(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Ai
const rhs_sent = try sema.addConstant(rhs_info.elem_type, rhs_sent_val);
const lhs_sent_casted = try sema.coerce(block, resolved_elem_ty, lhs_sent, lhs_src);
const rhs_sent_casted = try sema.coerce(block, resolved_elem_ty, rhs_sent, rhs_src);
const lhs_sent_casted_val = try sema.resolveConstValue(block, lhs_src, lhs_sent_casted, "array sentinel value must be comptime known");
const rhs_sent_casted_val = try sema.resolveConstValue(block, rhs_src, rhs_sent_casted, "array sentinel value must be comptime known");
const lhs_sent_casted_val = try sema.resolveConstValue(block, lhs_src, lhs_sent_casted, "array sentinel value must be comptime-known");
const rhs_sent_casted_val = try sema.resolveConstValue(block, rhs_src, rhs_sent_casted, "array sentinel value must be comptime-known");
if (try sema.valuesEqual(block, src, lhs_sent_casted_val, rhs_sent_casted_val, resolved_elem_ty)) {
break :s lhs_sent_casted_val;
} else {
@ -11618,14 +11618,14 @@ fn zirArrayCat(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Ai
}
} else {
const lhs_sent_casted = try sema.coerce(block, resolved_elem_ty, lhs_sent, lhs_src);
const lhs_sent_casted_val = try sema.resolveConstValue(block, lhs_src, lhs_sent_casted, "array sentinel value must be comptime known");
const lhs_sent_casted_val = try sema.resolveConstValue(block, lhs_src, lhs_sent_casted, "array sentinel value must be comptime-known");
break :s lhs_sent_casted_val;
}
} else {
if (rhs_info.sentinel) |rhs_sent_val| {
const rhs_sent = try sema.addConstant(rhs_info.elem_type, rhs_sent_val);
const rhs_sent_casted = try sema.coerce(block, resolved_elem_ty, rhs_sent, rhs_src);
const rhs_sent_casted_val = try sema.resolveConstValue(block, rhs_src, rhs_sent_casted, "array sentinel value must be comptime known");
const rhs_sent_casted_val = try sema.resolveConstValue(block, rhs_src, rhs_sent_casted, "array sentinel value must be comptime-known");
break :s rhs_sent_casted_val;
} else {
break :s null;
@ -11746,7 +11746,7 @@ fn getArrayCatInfo(sema: *Sema, block: *Block, src: LazySrcLoc, operand: Air.Ins
// has a sentinel, and this code should compute the length based
// on the sentinel value.
.Slice, .Many => {
const val = try sema.resolveConstValue(block, src, operand, "slice value being concatenated must be comptime known");
const val = try sema.resolveConstValue(block, src, operand, "slice value being concatenated must be comptime-known");
return Type.ArrayInfo{
.elem_type = ptr_info.pointee_type,
.sentinel = ptr_info.sentinel,
@ -11847,7 +11847,7 @@ fn zirArrayMul(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Ai
const rhs_src: LazySrcLoc = .{ .node_offset_bin_rhs = inst_data.src_node };
// In `**` rhs must be comptime-known, but lhs can be runtime-known
const factor = try sema.resolveInt(block, rhs_src, extra.rhs, Type.usize, "array multiplication factor must be comptime known");
const factor = try sema.resolveInt(block, rhs_src, extra.rhs, Type.usize, "array multiplication factor must be comptime-known");
if (lhs_ty.isTuple()) {
return sema.analyzeTupleMul(block, inst_data.src_node, lhs, factor);
@ -16223,14 +16223,14 @@ fn zirPtrType(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air
const sentinel = if (inst_data.flags.has_sentinel) blk: {
const ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_i]);
extra_i += 1;
break :blk (try sema.resolveInstConst(block, sentinel_src, ref, "pointer sentinel value must be comptime known")).val;
break :blk (try sema.resolveInstConst(block, sentinel_src, ref, "pointer sentinel value must be comptime-known")).val;
} else null;
const abi_align: u32 = if (inst_data.flags.has_align) blk: {
const ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_i]);
extra_i += 1;
const coerced = try sema.coerce(block, Type.u32, try sema.resolveInst(ref), align_src);
const val = try sema.resolveConstValue(block, align_src, coerced, "pointer alignment must be comptime known");
const val = try sema.resolveConstValue(block, align_src, coerced, "pointer alignment must be comptime-known");
// Check if this happens to be the lazy alignment of our element type, in
// which case we can make this 0 without resolving it.
if (val.castTag(.lazy_align)) |payload| {
@ -16252,14 +16252,14 @@ fn zirPtrType(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air
const bit_offset = if (inst_data.flags.has_bit_range) blk: {
const ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_i]);
extra_i += 1;
const bit_offset = try sema.resolveInt(block, bitoffset_src, ref, Type.u16, "pointer bit-offset must be comptime known");
const bit_offset = try sema.resolveInt(block, bitoffset_src, ref, Type.u16, "pointer bit-offset must be comptime-known");
break :blk @intCast(u16, bit_offset);
} else 0;
const host_size: u16 = if (inst_data.flags.has_bit_range) blk: {
const ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_i]);
extra_i += 1;
const host_size = try sema.resolveInt(block, hostsize_src, ref, Type.u16, "pointer host size must be comptime known");
const host_size = try sema.resolveInt(block, hostsize_src, ref, Type.u16, "pointer host size must be comptime-known");
break :blk @intCast(u16, host_size);
} else 0;
@ -16383,7 +16383,7 @@ fn zirUnionInit(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const init_src: LazySrcLoc = .{ .node_offset_builtin_call_arg2 = inst_data.src_node };
const extra = sema.code.extraData(Zir.Inst.UnionInit, inst_data.payload_index).data;
const union_ty = try sema.resolveType(block, ty_src, extra.union_type);
const field_name = try sema.resolveConstString(block, field_src, extra.field_name, "name of field being initialized must be comptime known");
const field_name = try sema.resolveConstString(block, field_src, extra.field_name, "name of field being initialized must be comptime-known");
const init = try sema.resolveInst(extra.init);
return sema.unionInit(block, init, init_src, union_ty, ty_src, field_name, field_src);
}
@ -16481,7 +16481,7 @@ fn zirStructInit(
field_inits[field_index] = try sema.resolveInst(item.data.init);
if (!is_packed) if (resolved_ty.structFieldValueComptime(field_index)) |default_value| {
const init_val = (try sema.resolveMaybeUndefVal(block, field_src, field_inits[field_index])) orelse {
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime known");
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime-known");
};
if (!init_val.eql(default_value, resolved_ty.structFieldType(field_index), sema.mod)) {
@ -16992,7 +16992,7 @@ fn zirFieldTypeRef(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileErro
const ty_src = inst_data.src();
const field_src = inst_data.src();
const aggregate_ty = try sema.resolveType(block, ty_src, extra.container_type);
const field_name = try sema.resolveConstString(block, field_src, extra.field_name, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, field_src, extra.field_name, "field name must be comptime-known");
return sema.fieldType(block, aggregate_ty, field_name, field_src, ty_src);
}
@ -17273,7 +17273,7 @@ fn zirReify(sema: *Sema, block: *Block, extended: Zir.Inst.Extended.InstData, in
const uncasted_operand = try sema.resolveInst(extra.operand);
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
const type_info = try sema.coerce(block, type_info_ty, uncasted_operand, operand_src);
const val = try sema.resolveConstValue(block, operand_src, type_info, "operand to @Type must be comptime known");
const val = try sema.resolveConstValue(block, operand_src, type_info, "operand to @Type must be comptime-known");
const union_val = val.cast(Value.Payload.Union).?.data;
const target = mod.getTarget();
const tag_index = type_info_ty.unionTagFieldIndex(union_val.tag, mod).?;
@ -18213,7 +18213,7 @@ fn zirFloatToInt(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!
const result_val = try sema.floatToInt(block, operand_src, val, operand_ty, dest_ty);
return sema.addConstant(dest_ty, result_val);
} else if (dest_ty.zigTypeTag() == .ComptimeInt) {
return sema.failWithNeededComptime(block, operand_src, "value being casted to 'comptime_int' must be comptime known");
return sema.failWithNeededComptime(block, operand_src, "value being casted to 'comptime_int' must be comptime-known");
}
try sema.requireRuntimeBlock(block, inst_data.src(), operand_src);
@ -18246,7 +18246,7 @@ fn zirIntToFloat(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!
const result_val = try val.intToFloatAdvanced(sema.arena, operand_ty, dest_ty, target, sema.kit(block, operand_src));
return sema.addConstant(dest_ty, result_val);
} else if (dest_ty.zigTypeTag() == .ComptimeFloat) {
return sema.failWithNeededComptime(block, operand_src, "value being casted to 'comptime_float' must be comptime known");
return sema.failWithNeededComptime(block, operand_src, "value being casted to 'comptime_float' must be comptime-known");
}
try sema.requireRuntimeBlock(block, inst_data.src(), operand_src);
@ -18826,7 +18826,7 @@ fn bitOffsetOf(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!u6
const extra = sema.code.extraData(Zir.Inst.Bin, inst_data.payload_index).data;
const ty = try sema.resolveType(block, lhs_src, extra.lhs);
const field_name = try sema.resolveConstString(block, rhs_src, extra.rhs, "name of field must be comptime known");
const field_name = try sema.resolveConstString(block, rhs_src, extra.rhs, "name of field must be comptime-known");
const target = sema.mod.getTarget();
try sema.resolveTypeLayout(block, lhs_src, ty);
@ -19301,19 +19301,19 @@ fn resolveExportOptions(
const visibility_src = sema.maybeOptionsSrc(block, src, "visibility");
const name_operand = try sema.fieldVal(block, src, options, "name", name_src);
const name_val = try sema.resolveConstValue(block, name_src, name_operand, "name of exported value must be comptime known");
const name_val = try sema.resolveConstValue(block, name_src, name_operand, "name of exported value must be comptime-known");
const name_ty = Type.initTag(.const_slice_u8);
const name = try name_val.toAllocatedBytes(name_ty, sema.arena, sema.mod);
const linkage_operand = try sema.fieldVal(block, src, options, "linkage", linkage_src);
const linkage_val = try sema.resolveConstValue(block, linkage_src, linkage_operand, "linkage of exported value must be comptime known");
const linkage_val = try sema.resolveConstValue(block, linkage_src, linkage_operand, "linkage of exported value must be comptime-known");
const linkage = linkage_val.toEnum(std.builtin.GlobalLinkage);
const section = try sema.fieldVal(block, src, options, "section", section_src);
const section_val = try sema.resolveConstValue(block, section_src, section, "linksection of exported value must be comptime known");
const section_val = try sema.resolveConstValue(block, section_src, section, "linksection of exported value must be comptime-known");
const visibility_operand = try sema.fieldVal(block, src, options, "visibility", visibility_src);
const visibility_val = try sema.resolveConstValue(block, visibility_src, visibility_operand, "visibility of exported value must be comptime known");
const visibility_val = try sema.resolveConstValue(block, visibility_src, visibility_operand, "visibility of exported value must be comptime-known");
const visibility = visibility_val.toEnum(std.builtin.SymbolVisibility);
if (name.len < 1) {
@ -19369,7 +19369,7 @@ fn resolveAtomicRmwOp(
src: LazySrcLoc,
zir_ref: Zir.Inst.Ref,
) CompileError!std.builtin.AtomicRmwOp {
return resolveBuiltinEnum(sema, block, src, zir_ref, "AtomicRmwOp", "@atomicRmW operation must be comptime known");
return resolveBuiltinEnum(sema, block, src, zir_ref, "AtomicRmwOp", "@atomicRmW operation must be comptime-known");
}
fn zirCmpxchg(
@ -19405,8 +19405,8 @@ fn zirCmpxchg(
const uncasted_ptr = try sema.resolveInst(extra.ptr);
const ptr = try sema.checkAtomicPtrOperand(block, elem_ty, elem_ty_src, uncasted_ptr, ptr_src, false);
const new_value = try sema.coerce(block, elem_ty, try sema.resolveInst(extra.new_value), new_value_src);
const success_order = try sema.resolveAtomicOrder(block, success_order_src, extra.success_order, "atomic order of cmpxchg success must be comptime known");
const failure_order = try sema.resolveAtomicOrder(block, failure_order_src, extra.failure_order, "atomic order of cmpxchg failure must be comptime known");
const success_order = try sema.resolveAtomicOrder(block, success_order_src, extra.success_order, "atomic order of cmpxchg success must be comptime-known");
const failure_order = try sema.resolveAtomicOrder(block, failure_order_src, extra.failure_order, "atomic order of cmpxchg failure must be comptime-known");
if (@enumToInt(success_order) < @enumToInt(std.builtin.AtomicOrder.Monotonic)) {
return sema.fail(block, success_order_src, "success atomic ordering must be Monotonic or stricter", .{});
@ -19471,7 +19471,7 @@ fn zirSplat(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air.I
const extra = sema.code.extraData(Zir.Inst.Bin, inst_data.payload_index).data;
const len_src: LazySrcLoc = .{ .node_offset_bin_lhs = inst_data.src_node };
const scalar_src: LazySrcLoc = .{ .node_offset_bin_rhs = inst_data.src_node };
const len = @intCast(u32, try sema.resolveInt(block, len_src, extra.lhs, Type.u32, "vector splat destination length must be comptime known"));
const len = @intCast(u32, try sema.resolveInt(block, len_src, extra.lhs, Type.u32, "vector splat destination length must be comptime-known"));
const scalar = try sema.resolveInst(extra.rhs);
const scalar_ty = sema.typeOf(scalar);
try sema.checkVectorElemType(block, scalar_src, scalar_ty);
@ -19497,7 +19497,7 @@ fn zirReduce(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air.
const extra = sema.code.extraData(Zir.Inst.Bin, inst_data.payload_index).data;
const op_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = inst_data.src_node };
const operand_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = inst_data.src_node };
const operation = try sema.resolveBuiltinEnum(block, op_src, extra.lhs, "ReduceOp", "@reduce operation must be comptime known");
const operation = try sema.resolveBuiltinEnum(block, op_src, extra.lhs, "ReduceOp", "@reduce operation must be comptime-known");
const operand = try sema.resolveInst(extra.rhs);
const operand_ty = sema.typeOf(operand);
const target = sema.mod.getTarget();
@ -19584,7 +19584,7 @@ fn zirShuffle(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!Air
.elem_type = Type.@"i32",
});
mask = try sema.coerce(block, mask_ty, mask, mask_src);
const mask_val = try sema.resolveConstMaybeUndefVal(block, mask_src, mask, "shuffle mask must be comptime known");
const mask_val = try sema.resolveConstMaybeUndefVal(block, mask_src, mask, "shuffle mask must be comptime-known");
return sema.analyzeShuffle(block, inst_data.src_node, elem_ty, a, b, mask_val, @intCast(u32, mask_len));
}
@ -19852,7 +19852,7 @@ fn zirAtomicLoad(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!
const elem_ty = try sema.resolveType(block, elem_ty_src, extra.elem_type);
const uncasted_ptr = try sema.resolveInst(extra.ptr);
const ptr = try sema.checkAtomicPtrOperand(block, elem_ty, elem_ty_src, uncasted_ptr, ptr_src, true);
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicLoad must be comptime known");
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicLoad must be comptime-known");
switch (order) {
.Release, .AcqRel => {
@ -19916,7 +19916,7 @@ fn zirAtomicRmw(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
},
else => {},
}
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicRmW must be comptime known");
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicRmW must be comptime-known");
if (order == .Unordered) {
return sema.fail(block, order_src, "@atomicRmw atomic ordering must not be Unordered", .{});
@ -19984,7 +19984,7 @@ fn zirAtomicStore(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError
const elem_ty = sema.typeOf(operand);
const uncasted_ptr = try sema.resolveInst(extra.ptr);
const ptr = try sema.checkAtomicPtrOperand(block, elem_ty, elem_ty_src, uncasted_ptr, ptr_src, false);
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicStore must be comptime known");
const order = try sema.resolveAtomicOrder(block, order_src, extra.ordering, "atomic order of @atomicStore must be comptime-known");
const air_tag: Air.Inst.Tag = switch (order) {
.Acquire, .AcqRel => {
@ -20087,11 +20087,11 @@ fn resolveCallOptions(
const stack_src = sema.maybeOptionsSrc(block, src, "stack");
const modifier = try sema.fieldVal(block, src, options, "modifier", modifier_src);
const modifier_val = try sema.resolveConstValue(block, modifier_src, modifier, "call modifier must be comptime known");
const modifier_val = try sema.resolveConstValue(block, modifier_src, modifier, "call modifier must be comptime-known");
const wanted_modifier = modifier_val.toEnum(std.builtin.CallOptions.Modifier);
const stack = try sema.fieldVal(block, src, options, "stack", stack_src);
const stack_val = try sema.resolveConstValue(block, stack_src, stack, "call stack value must be comptime known");
const stack_val = try sema.resolveConstValue(block, stack_src, stack, "call stack value must be comptime-known");
if (!stack_val.isNull()) {
return sema.fail(block, stack_src, "TODO: implement @call with stack", .{});
@ -20221,7 +20221,7 @@ fn zirFieldParentPtr(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileEr
const ptr_src: LazySrcLoc = .{ .node_offset_builtin_call_arg2 = inst_data.src_node };
const struct_ty = try sema.resolveType(block, ty_src, extra.parent_type);
const field_name = try sema.resolveConstString(block, name_src, extra.field_name, "field name must be comptime known");
const field_name = try sema.resolveConstString(block, name_src, extra.field_name, "field name must be comptime-known");
const field_ptr = try sema.resolveInst(extra.field_ptr);
const field_ptr_ty = sema.typeOf(field_ptr);
@ -20538,7 +20538,7 @@ fn zirVarExtended(
uncasted_init;
break :blk (try sema.resolveMaybeUndefVal(block, init_src, init)) orelse
return sema.failWithNeededComptime(block, init_src, "container level variable initializers must be comptime known");
return sema.failWithNeededComptime(block, init_src, "container level variable initializers must be comptime-known");
} else Value.initTag(.unreachable_value);
try sema.validateVarType(block, ty_src, var_ty, small.is_extern);
@ -20607,7 +20607,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const body = sema.code.extra[extra_index..][0..body_len];
extra_index += body.len;
const val = try sema.resolveGenericBody(block, align_src, body, inst, Type.u29, "alignment must be comptime known");
const val = try sema.resolveGenericBody(block, align_src, body, inst, Type.u29, "alignment must be comptime-known");
if (val.tag() == .generic_poison) {
break :blk null;
}
@ -20621,7 +20621,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
} else if (extra.data.bits.has_align_ref) blk: {
const align_ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_index]);
extra_index += 1;
const align_tv = sema.resolveInstConst(block, align_src, align_ref, "alignment must be comptime known") catch |err| switch (err) {
const align_tv = sema.resolveInstConst(block, align_src, align_ref, "alignment must be comptime-known") catch |err| switch (err) {
error.GenericPoison => {
break :blk null;
},
@ -20643,7 +20643,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
extra_index += body.len;
const addrspace_ty = try sema.getBuiltinType(block, addrspace_src, "AddressSpace");
const val = try sema.resolveGenericBody(block, addrspace_src, body, inst, addrspace_ty, "addrespace must be comptime known");
const val = try sema.resolveGenericBody(block, addrspace_src, body, inst, addrspace_ty, "addrespace must be comptime-known");
if (val.tag() == .generic_poison) {
break :blk null;
}
@ -20651,7 +20651,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
} else if (extra.data.bits.has_addrspace_ref) blk: {
const addrspace_ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_index]);
extra_index += 1;
const addrspace_tv = sema.resolveInstConst(block, addrspace_src, addrspace_ref, "addrespace must be comptime known") catch |err| switch (err) {
const addrspace_tv = sema.resolveInstConst(block, addrspace_src, addrspace_ref, "addrespace must be comptime-known") catch |err| switch (err) {
error.GenericPoison => {
break :blk null;
},
@ -20666,7 +20666,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const body = sema.code.extra[extra_index..][0..body_len];
extra_index += body.len;
const val = try sema.resolveGenericBody(block, section_src, body, inst, Type.initTag(.const_slice_u8), "linksection must be comptime known");
const val = try sema.resolveGenericBody(block, section_src, body, inst, Type.initTag(.const_slice_u8), "linksection must be comptime-known");
if (val.tag() == .generic_poison) {
break :blk FuncLinkSection{ .generic = {} };
}
@ -20674,7 +20674,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
} else if (extra.data.bits.has_section_ref) blk: {
const section_ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_index]);
extra_index += 1;
const section_tv = sema.resolveInstConst(block, section_src, section_ref, "linksection must be comptime known") catch |err| switch (err) {
const section_tv = sema.resolveInstConst(block, section_src, section_ref, "linksection must be comptime-known") catch |err| switch (err) {
error.GenericPoison => {
break :blk FuncLinkSection{ .generic = {} };
},
@ -20691,7 +20691,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
extra_index += body.len;
const cc_ty = try sema.getBuiltinType(block, addrspace_src, "CallingConvention");
const val = try sema.resolveGenericBody(block, cc_src, body, inst, cc_ty, "calling convention must be comptime known");
const val = try sema.resolveGenericBody(block, cc_src, body, inst, cc_ty, "calling convention must be comptime-known");
if (val.tag() == .generic_poison) {
break :blk null;
}
@ -20699,7 +20699,7 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
} else if (extra.data.bits.has_cc_ref) blk: {
const cc_ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_index]);
extra_index += 1;
const cc_tv = sema.resolveInstConst(block, cc_src, cc_ref, "calling convention must be comptime known") catch |err| switch (err) {
const cc_tv = sema.resolveInstConst(block, cc_src, cc_ref, "calling convention must be comptime-known") catch |err| switch (err) {
error.GenericPoison => {
break :blk null;
},
@ -20714,14 +20714,14 @@ fn zirFuncFancy(sema: *Sema, block: *Block, inst: Zir.Inst.Index) CompileError!A
const body = sema.code.extra[extra_index..][0..body_len];
extra_index += body.len;
const val = try sema.resolveGenericBody(block, ret_src, body, inst, Type.type, "return type must be comptime known");
const val = try sema.resolveGenericBody(block, ret_src, body, inst, Type.type, "return type must be comptime-known");
var buffer: Value.ToTypeBuffer = undefined;
const ty = try val.toType(&buffer).copy(sema.arena);
break :blk ty;
} else if (extra.data.bits.has_ret_ty_ref) blk: {
const ret_ty_ref = @intToEnum(Zir.Inst.Ref, sema.code.extra[extra_index]);
extra_index += 1;
const ret_ty_tv = sema.resolveInstConst(block, ret_src, ret_ty_ref, "return type must be comptime known") catch |err| switch (err) {
const ret_ty_tv = sema.resolveInstConst(block, ret_src, ret_ty_ref, "return type must be comptime-known") catch |err| switch (err) {
error.GenericPoison => {
break :blk Type.initTag(.generic_poison);
},
@ -20777,7 +20777,7 @@ fn zirCUndef(
const extra = sema.code.extraData(Zir.Inst.UnNode, extended.operand).data;
const src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
const name = try sema.resolveConstString(block, src, extra.operand, "name of macro being undefined must be comptime known");
const name = try sema.resolveConstString(block, src, extra.operand, "name of macro being undefined must be comptime-known");
try block.c_import_buf.?.writer().print("#undefine {s}\n", .{name});
return Air.Inst.Ref.void_value;
}
@ -20790,7 +20790,7 @@ fn zirCInclude(
const extra = sema.code.extraData(Zir.Inst.UnNode, extended.operand).data;
const src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
const name = try sema.resolveConstString(block, src, extra.operand, "path being included must be comptime known");
const name = try sema.resolveConstString(block, src, extra.operand, "path being included must be comptime-known");
try block.c_import_buf.?.writer().print("#include <{s}>\n", .{name});
return Air.Inst.Ref.void_value;
}
@ -20804,10 +20804,10 @@ fn zirCDefine(
const name_src: LazySrcLoc = .{ .node_offset_builtin_call_arg0 = extra.node };
const val_src: LazySrcLoc = .{ .node_offset_builtin_call_arg1 = extra.node };
const name = try sema.resolveConstString(block, name_src, extra.lhs, "name of macro being undefined must be comptime known");
const name = try sema.resolveConstString(block, name_src, extra.lhs, "name of macro being undefined must be comptime-known");
const rhs = try sema.resolveInst(extra.rhs);
if (sema.typeOf(rhs).zigTypeTag() != .Void) {
const value = try sema.resolveConstString(block, val_src, extra.rhs, "value of macro being undefined must be comptime known");
const value = try sema.resolveConstString(block, val_src, extra.rhs, "value of macro being undefined must be comptime-known");
try block.c_import_buf.?.writer().print("#define {s} {s}\n", .{ name, value });
} else {
try block.c_import_buf.?.writer().print("#define {s}\n", .{name});
@ -20828,7 +20828,7 @@ fn zirWasmMemorySize(
return sema.fail(block, builtin_src, "builtin @wasmMemorySize is available when targeting WebAssembly; targeted CPU architecture is {s}", .{@tagName(target.cpu.arch)});
}
const index = @intCast(u32, try sema.resolveInt(block, index_src, extra.operand, Type.u32, "wasm memory size index must be comptime known"));
const index = @intCast(u32, try sema.resolveInt(block, index_src, extra.operand, Type.u32, "wasm memory size index must be comptime-known"));
try sema.requireRuntimeBlock(block, builtin_src, null);
return block.addInst(.{
.tag = .wasm_memory_size,
@ -20853,7 +20853,7 @@ fn zirWasmMemoryGrow(
return sema.fail(block, builtin_src, "builtin @wasmMemoryGrow is available when targeting WebAssembly; targeted CPU architecture is {s}", .{@tagName(target.cpu.arch)});
}
const index = @intCast(u32, try sema.resolveInt(block, index_src, extra.lhs, Type.u32, "wasm memory size index must be comptime known"));
const index = @intCast(u32, try sema.resolveInt(block, index_src, extra.lhs, Type.u32, "wasm memory size index must be comptime-known"));
const delta = try sema.coerce(block, Type.u32, try sema.resolveInst(extra.rhs), delta_src);
try sema.requireRuntimeBlock(block, builtin_src, null);
@ -20881,13 +20881,13 @@ fn resolvePrefetchOptions(
const cache_src = sema.maybeOptionsSrc(block, src, "cache");
const rw = try sema.fieldVal(block, src, options, "rw", rw_src);
const rw_val = try sema.resolveConstValue(block, rw_src, rw, "prefetch read/write must be comptime known");
const rw_val = try sema.resolveConstValue(block, rw_src, rw, "prefetch read/write must be comptime-known");
const locality = try sema.fieldVal(block, src, options, "locality", locality_src);
const locality_val = try sema.resolveConstValue(block, locality_src, locality, "prefetch locality must be comptime known");
const locality_val = try sema.resolveConstValue(block, locality_src, locality, "prefetch locality must be comptime-known");
const cache = try sema.fieldVal(block, src, options, "cache", cache_src);
const cache_val = try sema.resolveConstValue(block, cache_src, cache, "prefetch cache must be comptime known");
const cache_val = try sema.resolveConstValue(block, cache_src, cache, "prefetch cache must be comptime-known");
return std.builtin.PrefetchOptions{
.rw = rw_val.toEnum(std.builtin.PrefetchOptions.Rw),
@ -20947,18 +20947,18 @@ fn resolveExternOptions(
const thread_local_src = sema.maybeOptionsSrc(block, src, "thread_local");
const name_ref = try sema.fieldVal(block, src, options, "name", name_src);
const name_val = try sema.resolveConstValue(block, name_src, name_ref, "name of the extern symbol must be comptime known");
const name_val = try sema.resolveConstValue(block, name_src, name_ref, "name of the extern symbol must be comptime-known");
const name = try name_val.toAllocatedBytes(Type.initTag(.const_slice_u8), sema.arena, mod);
const library_name_inst = try sema.fieldVal(block, src, options, "library_name", library_src);
const library_name_val = try sema.resolveConstValue(block, library_src, library_name_inst, "library in which extern symbol is must be comptime known");
const library_name_val = try sema.resolveConstValue(block, library_src, library_name_inst, "library in which extern symbol is must be comptime-known");
const linkage_ref = try sema.fieldVal(block, src, options, "linkage", linkage_src);
const linkage_val = try sema.resolveConstValue(block, linkage_src, linkage_ref, "linkage of the extern symbol must be comptime known");
const linkage_val = try sema.resolveConstValue(block, linkage_src, linkage_ref, "linkage of the extern symbol must be comptime-known");
const linkage = linkage_val.toEnum(std.builtin.GlobalLinkage);
const is_thread_local = try sema.fieldVal(block, src, options, "is_thread_local", thread_local_src);
const is_thread_local_val = try sema.resolveConstValue(block, thread_local_src, is_thread_local, "threadlocality of the extern symbol must be comptime known");
const is_thread_local_val = try sema.resolveConstValue(block, thread_local_src, is_thread_local, "threadlocality of the extern symbol must be comptime-known");
const library_name = if (!library_name_val.isNull()) blk: {
const payload = library_name_val.castTag(.opt_payload).?.data;
@ -22953,7 +22953,7 @@ fn elemPtr(
.Array, .Vector => return sema.elemPtrArray(block, src, indexable_ptr_src, indexable_ptr, elem_index_src, elem_index, init),
.Struct => {
// Tuple field access.
const index_val = try sema.resolveConstValue(block, elem_index_src, elem_index, "tuple field access index must be comptime known");
const index_val = try sema.resolveConstValue(block, elem_index_src, elem_index, "tuple field access index must be comptime-known");
const index = @intCast(u32, index_val.toUnsignedInt(target));
return sema.tupleFieldPtr(block, src, indexable_ptr, elem_index_src, index, init);
},
@ -23015,7 +23015,7 @@ fn elemVal(
},
.Struct => {
// Tuple field access.
const index_val = try sema.resolveConstValue(block, elem_index_src, elem_index, "tuple field access index must be comptime known");
const index_val = try sema.resolveConstValue(block, elem_index_src, elem_index, "tuple field access index must be comptime-known");
const index = @intCast(u32, index_val.toUnsignedInt(target));
return tupleField(sema, block, indexable_src, indexable, elem_index_src, index);
},
@ -23037,7 +23037,7 @@ fn validateRuntimeElemAccess(
const msg = try sema.errMsg(
block,
elem_index_src,
"values of type '{}' must be comptime known, but index value is runtime known",
"values of type '{}' must be comptime-known, but index value is runtime-known",
.{parent_ty.fmt(sema.mod)},
);
errdefer msg.destroy(sema.gpa);
@ -23742,7 +23742,7 @@ fn coerceExtra(
const val = (try sema.resolveDefinedValue(block, inst_src, inst)) orelse {
if (dest_ty.zigTypeTag() == .ComptimeInt) {
if (!opts.report_err) return error.NotCoercible;
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_int' must be comptime known");
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_int' must be comptime-known");
}
break :float;
};
@ -23760,7 +23760,7 @@ fn coerceExtra(
},
.Int, .ComptimeInt => {
if (try sema.resolveDefinedValue(block, inst_src, inst)) |val| {
// comptime known integer to other number
// comptime-known integer to other number
if (!(try sema.intFitsInType(block, inst_src, val, dest_ty, null))) {
if (!opts.report_err) return error.NotCoercible;
return sema.fail(block, inst_src, "type '{}' cannot represent integer value '{}'", .{ dest_ty.fmt(sema.mod), val.fmtValue(inst_ty, sema.mod) });
@ -23770,7 +23770,7 @@ fn coerceExtra(
if (dest_ty.zigTypeTag() == .ComptimeInt) {
if (!opts.report_err) return error.NotCoercible;
if (opts.no_cast_to_comptime_int) return inst;
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_int' must be comptime known");
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_int' must be comptime-known");
}
// integer widening
@ -23809,7 +23809,7 @@ fn coerceExtra(
return try sema.addConstant(dest_ty, result_val);
} else if (dest_ty.zigTypeTag() == .ComptimeFloat) {
if (!opts.report_err) return error.NotCoercible;
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_float' must be comptime known");
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_float' must be comptime-known");
}
// float widening
@ -23824,7 +23824,7 @@ fn coerceExtra(
const val = (try sema.resolveDefinedValue(block, inst_src, inst)) orelse {
if (dest_ty.zigTypeTag() == .ComptimeFloat) {
if (!opts.report_err) return error.NotCoercible;
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_float' must be comptime known");
return sema.failWithNeededComptime(block, inst_src, "value being casted to 'comptime_float' must be comptime-known");
}
break :int;
};
@ -26620,7 +26620,7 @@ fn coerceTupleToStruct(
field_refs[field_index] = coerced;
if (field.is_comptime) {
const init_val = (try sema.resolveMaybeUndefVal(block, field_src, coerced)) orelse {
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime known");
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime-known");
};
if (!init_val.eql(field.default_val, field.ty, sema.mod)) {
@ -26716,7 +26716,7 @@ fn coerceTupleToTuple(
field_refs[field_index] = coerced;
if (default_val.tag() != .unreachable_value) {
const init_val = (try sema.resolveMaybeUndefVal(block, field_src, coerced)) orelse {
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime known");
return sema.failWithNeededComptime(block, field_src, "value stored in comptime field must be comptime-known");
};
if (!init_val.eql(default_val, field_ty, sema.mod)) {
@ -27086,7 +27086,7 @@ fn analyzeIsNonErrComptimeOnly(
const maybe_operand_val = try sema.resolveMaybeUndefVal(block, src, operand);
// exception if the error union error set is known to be empty,
// we allow the comparison but always make it comptime known.
// we allow the comparison but always make it comptime-known.
const set_ty = operand_ty.errorUnionSet();
switch (set_ty.tag()) {
.anyerror => {},
@ -27353,7 +27353,7 @@ fn analyzeSlice(
const sentinel = s: {
if (sentinel_opt != .none) {
const casted = try sema.coerce(block, elem_ty, sentinel_opt, sentinel_src);
break :s try sema.resolveConstValue(block, sentinel_src, casted, "slice sentinel must be comptime known");
break :s try sema.resolveConstValue(block, sentinel_src, casted, "slice sentinel must be comptime-known");
}
// If we are slicing to the end of something that is sentinel-terminated
// then the resulting slice type is also sentinel-terminated.
@ -27616,7 +27616,7 @@ fn cmpNumeric(
};
// TODO handle comparisons against lazy zero values
// Some values can be compared against zero without being runtime known or without forcing
// Some values can be compared against zero without being runtime-known or without forcing
// a full resolution of their value, for example `@sizeOf(@Frame(function))` is known to
// always be nonzero, and we benefit from not forcing the full evaluation and stack frame layout
// of this function if we don't need to.
@ -29275,7 +29275,7 @@ fn semaStructFields(mod: *Module, struct_obj: *Module.Struct) CompileError!void
const field = &struct_obj.fields.values()[i];
const coerced = try sema.coerce(&block_scope, field.ty, init, src);
const default_val = (try sema.resolveMaybeUndefVal(&block_scope, src, coerced)) orelse
return sema.failWithNeededComptime(&block_scope, src, "struct field default value must be comptime known");
return sema.failWithNeededComptime(&block_scope, src, "struct field default value must be comptime-known");
field.default_val = try default_val.copy(decl_arena_allocator);
}
}
@ -29471,7 +29471,7 @@ fn semaUnionFields(mod: *Module, union_obj: *Module.Union) CompileError!void {
if (tag_ref != .none) {
const tag_src = src; // TODO better source location
const coerced = try sema.coerce(&block_scope, int_tag_ty, tag_ref, tag_src);
const val = try sema.resolveConstValue(&block_scope, tag_src, coerced, "enum tag value must be comptime known");
const val = try sema.resolveConstValue(&block_scope, tag_src, coerced, "enum tag value must be comptime-known");
last_tag_val = val;
// This puts the memory into the union arena, not the enum arena, but
@ -30295,7 +30295,7 @@ pub fn analyzeAddrspace(
zir_ref: Zir.Inst.Ref,
ctx: AddressSpaceContext,
) !std.builtin.AddressSpace {
const addrspace_tv = try sema.resolveInstConst(block, src, zir_ref, "addresspace must be comptime known");
const addrspace_tv = try sema.resolveInstConst(block, src, zir_ref, "addresspace must be comptime-known");
const address_space = addrspace_tv.val.toEnum(std.builtin.AddressSpace);
const target = sema.mod.getTarget();
const arch = target.cpu.arch;

2
src/arch/aarch64/CodeGen.zig
View file

@ -5425,7 +5425,7 @@ fn parseRegName(name: []const u8) ?Register {
fn registerAlias(reg: Register, size_bytes: u64) Register {
if (size_bytes == 0) {
unreachable; // should be comptime known
unreachable; // should be comptime-known
} else if (size_bytes <= 4) {
return reg.to32();
} else if (size_bytes <= 8) {

2
src/arch/riscv64/CodeGen.zig
View file

@ -1769,7 +1769,7 @@ fn airCall(self: *Self, inst: Air.Inst.Index, modifier: std.builtin.CallOptions.
return self.fail("TODO implement calling bitcasted functions", .{});
}
} else {
return self.fail("TODO implement calling runtime known function pointer", .{});
return self.fail("TODO implement calling runtime-known function pointer", .{});
}
} else if (self.bin_file.cast(link.File.Coff)) |_| {
return self.fail("TODO implement calling in COFF for {}", .{self.target.cpu.arch});

2
src/arch/x86_64/CodeGen.zig
View file

@ -7272,7 +7272,7 @@ fn parseRegName(name: []const u8) ?Register {
/// Returns register wide enough to hold at least `size_bytes`.
fn registerAlias(reg: Register, size_bytes: u32) Register {
if (size_bytes == 0) {
unreachable; // should be comptime known
unreachable; // should be comptime-known
} else if (size_bytes <= 1) {
return reg.to8();
} else if (size_bytes <= 2) {

2
src/link.zig
View file

@ -305,7 +305,7 @@ pub const File = struct {
};
}
const emit = options.emit.?;
const use_lld = build_options.have_llvm and options.use_lld; // comptime known false when !have_llvm
const use_lld = build_options.have_llvm and options.use_lld; // comptime-known false when !have_llvm
const sub_path = if (use_lld) blk: {
if (options.module == null) {
// No point in opening a file, we would not write anything to it.

4
src/tracy.zig
View file

@ -173,13 +173,13 @@ pub fn TracyAllocator(comptime name: ?[:0]const u8) type {
};
}
// This function only accepts comptime known strings, see `messageCopy` for runtime strings
// This function only accepts comptime-known strings, see `messageCopy` for runtime strings
pub inline fn message(comptime msg: [:0]const u8) void {
if (!enable) return;
___tracy_emit_messageL(msg.ptr, if (enable_callstack) callstack_depth else 0);
}
// This function only accepts comptime known strings, see `messageColorCopy` for runtime strings
// This function only accepts comptime-known strings, see `messageColorCopy` for runtime strings
pub inline fn messageColor(comptime msg: [:0]const u8, color: u32) void {
if (!enable) return;
___tracy_emit_messageLC(msg.ptr, color, if (enable_callstack) callstack_depth else 0);

2
src/type.zig
View file

@ -2318,7 +2318,7 @@ pub const Type = extern union {
/// * the type has only one possible value, making its ABI size 0.
/// - an enum with an explicit tag type has the ABI size of the integer tag type,
/// making it one-possible-value only if the integer tag type has 0 bits.
/// When `ignore_comptime_only` is true, then types that are comptime only
/// When `ignore_comptime_only` is true, then types that are comptime-only
/// may return false positives.
pub fn hasRuntimeBitsAdvanced(
ty: Type,

2
test/behavior/align.zig
View file

@ -400,7 +400,7 @@ test "function callconv expression depends on generic parameter" {
comptime try S.doTheTest();
}
test "runtime known array index has best alignment possible" {
test "runtime-known array index has best alignment possible" {
if (builtin.zig_backend == .stage2_c) return error.SkipZigTest; // TODO
// take full advantage of over-alignment

2
test/behavior/array.zig
View file

@ -564,7 +564,7 @@ test "type coercion of pointer to anon struct literal to pointer to array" {
comptime try S.doTheTest();
}
test "array with comptime only element type" {
test "array with comptime-only element type" {
const a = [_]type{ u32, i32 };
try testing.expect(a[0] == u32);
try testing.expect(a[1] == i32);

2
test/behavior/basic.zig
View file

@ -999,7 +999,7 @@ test "generic function uses return type of other generic function" {
try std.testing.expect(S.call(S.func, .{@as(u8, 1)}) == 1);
}
test "const alloc with comptime known initializer is made comptime known" {
test "const alloc with comptime-known initializer is made comptime-known" {
const S = struct {
a: bool,
b: [2]u8,

4
test/behavior/enum.zig
View file

@ -846,12 +846,12 @@ fn doALoopThing(id: EnumWithOneMember) void {
}
}
test "comparison operator on enum with one member is comptime known" {
test "comparison operator on enum with one member is comptime-known" {
doALoopThing(EnumWithOneMember.Eof);
}
const State = enum { Start };
test "switch on enum with one member is comptime known" {
test "switch on enum with one member is comptime-known" {
var state = State.Start;
switch (state) {
State.Start => return,

10
test/behavior/eval.zig
View file

@ -582,16 +582,16 @@ test "comparisons 0 <= uint and 0 > uint should be comptime" {
}
fn testCompTimeUIntComparisons(x: u32) void {
if (!(0 <= x)) {
@compileError("this condition should be comptime known");
@compileError("this condition should be comptime-known");
}
if (0 > x) {
@compileError("this condition should be comptime known");
@compileError("this condition should be comptime-known");
}
if (!(x >= 0)) {
@compileError("this condition should be comptime known");
@compileError("this condition should be comptime-known");
}
if (x < 0) {
@compileError("this condition should be comptime known");
@compileError("this condition should be comptime-known");
}
}
@ -1302,7 +1302,7 @@ test "repeated value is correctly expanded" {
}
}
test "value in if block is comptime known" {
test "value in if block is comptime-known" {
if (builtin.zig_backend == .stage1) return error.SkipZigTest;
const first = blk: {

2
test/behavior/math.zig
View file

@ -990,7 +990,7 @@ test "overflow arithmetic with u0 values" {
try expect(result == 0);
}
test "allow signed integer division/remainder when values are comptime known and positive or exact" {
test "allow signed integer division/remainder when values are comptime-known and positive or exact" {
if (builtin.zig_backend == .stage1) return error.SkipZigTest;
try expect(5 / 3 == 1);

2
test/behavior/struct.zig
View file

@ -653,7 +653,7 @@ test "default struct initialization fields" {
.b = five,
};
if (x.a + x.b != 1239) {
@compileError("it should be comptime known");
@compileError("it should be comptime-known");
}
try expect(y.a == x.a);
try expect(y.b == x.b);

4
test/behavior/truncate.zig
View file

@ -2,7 +2,7 @@ const std = @import("std");
const builtin = @import("builtin");
const expect = std.testing.expect;
test "truncate u0 to larger integer allowed and has comptime known result" {
test "truncate u0 to larger integer allowed and has comptime-known result" {
var x: u0 = 0;
const y = @truncate(u8, x);
comptime try expect(y == 0);
@ -25,7 +25,7 @@ test "truncate.u0.var" {
try expect(z == 0);
}
test "truncate i0 to larger integer allowed and has comptime known result" {
test "truncate i0 to larger integer allowed and has comptime-known result" {
var x: i0 = 0;
const y = @truncate(i8, x);
comptime try expect(y == 0);

8
test/cases/compile_errors/dereference_anyopaque.zig
View file

@ -45,11 +45,11 @@ pub export fn entry() void {
// backend=llvm
//
// :11:22: error: comparison of 'void' with null
// :25:51: error: values of type 'anyopaque' must be comptime known, but operand value is runtime known
// :25:51: error: values of type 'anyopaque' must be comptime-known, but operand value is runtime-known
// :25:51: note: opaque type 'anyopaque' has undefined size
// :25:51: error: values of type 'fn(*anyopaque, usize, u29, u29, usize) error{OutOfMemory}![]u8' must be comptime known, but operand value is runtime known
// :25:51: error: values of type 'fn(*anyopaque, usize, u29, u29, usize) error{OutOfMemory}![]u8' must be comptime-known, but operand value is runtime-known
// :25:51: note: use '*const fn(*anyopaque, usize, u29, u29, usize) error{OutOfMemory}![]u8' for a function pointer type
// :25:51: error: values of type 'fn(*anyopaque, []u8, u29, usize, u29, usize) ?usize' must be comptime known, but operand value is runtime known
// :25:51: error: values of type 'fn(*anyopaque, []u8, u29, usize, u29, usize) ?usize' must be comptime-known, but operand value is runtime-known
// :25:51: note: use '*const fn(*anyopaque, []u8, u29, usize, u29, usize) ?usize' for a function pointer type
// :25:51: error: values of type 'fn(*anyopaque, []u8, u29, usize) void' must be comptime known, but operand value is runtime known
// :25:51: error: values of type 'fn(*anyopaque, []u8, u29, usize) void' must be comptime-known, but operand value is runtime-known
// :25:51: note: use '*const fn(*anyopaque, []u8, u29, usize) void' for a function pointer type

2
test/cases/compile_errors/error_in_typeof_param.zig
View file

@ -11,4 +11,4 @@ pub export fn entry() void {
// target=native
//
// :6:31: error: unable to resolve comptime value
// :6:31: note: argument to parameter with comptime only type must be comptime known
// :6:31: note: argument to parameter with comptime-only type must be comptime-known

4
test/cases/compile_errors/explain_why_fn_is_called_at_comptime.zig
View file

@ -17,7 +17,7 @@ pub export fn entry() void {
// target=native
//
// :12:13: error: unable to resolve comptime value
// :12:13: note: argument to function being called at comptime must be comptime known
// :7:25: note: function is being called at comptime because it returns a comptime only type 'tmp.S'
// :12:13: note: argument to function being called at comptime must be comptime-known
// :7:25: note: function is being called at comptime because it returns a comptime-only type 'tmp.S'
// :2:12: note: struct requires comptime because of this field
// :2:12: note: use '*const fn() void' for a function pointer type

4
test/cases/compile_errors/explain_why_generic_fn_is_called_at_comptime.zig
View file

@ -18,5 +18,5 @@ pub export fn entry() void {
// target=native
//
// :14:13: error: unable to resolve comptime value
// :14:13: note: argument to function being called at comptime must be comptime known
// :9:38: note: generic function is instantiated with a comptime only return type
// :14:13: note: argument to function being called at comptime must be comptime-known
// :9:38: note: generic function is instantiated with a comptime-only return type

4
test/cases/compile_errors/int-float_conversion_to_comptime_int-float.zig
View file

@ -12,6 +12,6 @@ export fn bar() void {
// target=native
//
// :3:35: error: unable to resolve comptime value
// :3:35: note: value being casted to 'comptime_int' must be comptime known
// :3:35: note: value being casted to 'comptime_int' must be comptime-known
// :7:37: error: unable to resolve comptime value
// :7:37: note: value being casted to 'comptime_float' must be comptime known
// :7:37: note: value being casted to 'comptime_float' must be comptime-known

2
test/cases/compile_errors/non-comptime-parameter-used-as-array-size.zig
View file

@ -12,4 +12,4 @@ fn makeLlamas(count: usize) [count]u8 {
// target=native
//
// :8:30: error: unable to resolve comptime value
// :8:30: note: array length must be comptime known
// :8:30: note: array length must be comptime-known

2
test/cases/compile_errors/non-const_switch_number_literal.zig
View file

@ -14,5 +14,5 @@ fn bar() i32 {
// backend=stage2
// target=native
//
// :2:15: error: value with comptime only type 'comptime_int' depends on runtime control flow
// :2:15: error: value with comptime-only type 'comptime_int' depends on runtime control flow
// :2:26: note: runtime control flow here

2
test/cases/compile_errors/non-const_variables_of_things_that_require_const_variables.zig
View file

@ -39,7 +39,7 @@ const Opaque = opaque {};
// :14:8: error: variable of type 'comptime_float' must be const or comptime
// :14:8: note: to modify this variable at runtime, it must be given an explicit fixed-size number type
// :18:8: error: variable of type '@TypeOf(null)' must be const or comptime
// :22:19: error: values of type 'tmp.Opaque' must be comptime known, but operand value is runtime known
// :22:19: error: values of type 'tmp.Opaque' must be comptime-known, but operand value is runtime-known
// :22:19: note: opaque type 'tmp.Opaque' has undefined size
// :26:8: error: variable of type 'type' must be const or comptime
// :26:8: note: types are not available at runtime

2
test/cases/compile_errors/non-inline_for_loop_on_a_type_that_requires_comptime.zig
View file

@ -11,6 +11,6 @@ export fn entry() void {
// backend=stage2
// target=native
//
// :7:10: error: values of type '[2]tmp.Foo' must be comptime known, but index value is runtime known
// :7:10: error: values of type '[2]tmp.Foo' must be comptime-known, but index value is runtime-known
// :3:8: note: struct requires comptime because of this field
// :3:8: note: types are not available at runtime

4
test/cases/compile_errors/non_comptime_param_in_comptime_function.zig
View file

@ -26,10 +26,10 @@ export fn entry2() void {
// backend=stage2
// target=native
//
// :1:20: error: function with comptime only return type 'type' requires all parameters to be comptime
// :1:20: error: function with comptime-only return type 'type' requires all parameters to be comptime
// :1:20: note: types are not available at runtime
// :1:6: note: param 'val' is required to be comptime
// :11:16: error: function with comptime only return type 'tmp.S' requires all parameters to be comptime
// :11:16: error: function with comptime-only return type 'tmp.S' requires all parameters to be comptime
// :9:10: note: struct requires comptime because of this field
// :9:10: note: use '*const fn() void' for a function pointer type
// :11:8: note: param is required to be comptime

2
test/cases/compile_errors/runtime_index_into_comptime_type_slice.zig
View file

@ -14,6 +14,6 @@ export fn entry() void {
// backend=stage2
// target=native
//
// :9:51: error: values of type '[]const builtin.Type.StructField' must be comptime known, but index value is runtime known
// :9:51: error: values of type '[]const builtin.Type.StructField' must be comptime-known, but index value is runtime-known
// :?:21: note: struct requires comptime because of this field
// :?:21: note: types are not available at runtime

6
test/cases/compile_errors/runtime_indexing_comptime_array.zig
View file

@ -24,9 +24,9 @@ pub export fn entry3() void {
// target=native
// backend=stage2
//
// :7:10: error: values of type '[2]fn() void' must be comptime known, but index value is runtime known
// :7:10: error: values of type '[2]fn() void' must be comptime-known, but index value is runtime-known
// :7:10: note: use '*const fn() void' for a function pointer type
// :15:18: error: values of type '[2]fn() void' must be comptime known, but index value is runtime known
// :15:18: error: values of type '[2]fn() void' must be comptime-known, but index value is runtime-known
// :15:17: note: use '*const fn() void' for a function pointer type
// :21:19: error: values of type '[2]fn() void' must be comptime known, but index value is runtime known
// :21:19: error: values of type '[2]fn() void' must be comptime-known, but index value is runtime-known
// :21:18: note: use '*const fn() void' for a function pointer type

8
test/cases/compile_errors/runtime_to_comptime_num.zig
View file

@ -22,10 +22,10 @@ pub export fn entry4() void{
// target=native
//
// :3:27: error: unable to resolve comptime value
// :3:27: note: value being casted to 'comptime_int' must be comptime known
// :3:27: note: value being casted to 'comptime_int' must be comptime-known
// :7:29: error: unable to resolve comptime value
// :7:29: note: value being casted to 'comptime_float' must be comptime known
// :7:29: note: value being casted to 'comptime_float' must be comptime-known
// :12:10: error: unable to resolve comptime value
// :12:10: note: value being casted to 'comptime_float' must be comptime known
// :12:10: note: value being casted to 'comptime_float' must be comptime-known
// :17:10: error: unable to resolve comptime value
// :17:10: note: value being casted to 'comptime_int' must be comptime known
// :17:10: note: value being casted to 'comptime_int' must be comptime-known

8
test/cases/compile_errors/shifting_without_int_type_or_comptime_known.zig
View file

@ -17,7 +17,7 @@ export fn entry3() void {
// backend=stage2
// target=native
//
// :2:17: error: LHS of shift must be a fixed-width integer type, or RHS must be a comptime known
// :5:17: error: LHS of shift must be a fixed-width integer type, or RHS must be a comptime known
// :9:9: error: LHS of shift must be a fixed-width integer type, or RHS must be a comptime known
// :13:9: error: LHS of shift must be a fixed-width integer type, or RHS must be a comptime known
// :2:17: error: LHS of shift must be a fixed-width integer type, or RHS must be comptime-known
// :5:17: error: LHS of shift must be a fixed-width integer type, or RHS must be comptime-known
// :9:9: error: LHS of shift must be a fixed-width integer type, or RHS must be comptime-known
// :13:9: error: LHS of shift must be a fixed-width integer type, or RHS must be comptime-known

2
test/cases/x86_64-linux/assert_function.8.zig
View file

@ -22,4 +22,4 @@ pub fn assert(ok: bool) void {
// error
//
// :3:21: error: unable to resolve comptime value
// :3:21: note: condition in comptime branch must be comptime known
// :3:21: note: condition in comptime branch must be comptime-known

2
test/cases/x86_64-macos/assert_function.8.zig
View file

@ -17,4 +17,4 @@ pub fn assert(ok: bool) void {
// error
//
// :5:21: error: unable to resolve comptime value
// :5:21: note: condition in comptime branch must be comptime known
// :5:21: note: condition in comptime branch must be comptime-known

4
test/compile_errors.zig
View file

@ -203,8 +203,8 @@ pub fn addCases(ctx: *TestContext) !void {
\\}
, &[_][]const u8{
":3:12: error: unable to resolve comptime value",
":3:12: note: argument to function being called at comptime must be comptime known",
":2:55: note: generic function is instantiated with a comptime only return type",
":3:12: note: argument to function being called at comptime must be comptime-known",
":2:55: note: generic function is instantiated with a comptime-only return type",
});
}