T0b1/wasmtime
1
0
Fork 0
Code Issues Pull Requests Packages Projects Releases Wiki Activity

Tidy up whitespace.

Browse Source
This commit is contained in:
Dan Gohman
2018-03-04 22:37:34 -08:00
parent 0ea0146e58
commit c59e9180de
12 changed files with 33 additions and 33 deletions
Download Patch File Download Diff File Expand all files Collapse all files

18
lib/cretonne/src/preopt.rs
View File

@@ -20,7 +20,7 @@ use timing;
// Simple math helpers
// if `x` is a power of two, or the negation thereof, return the power along
// with a boolean that indicates whether `x` is negative. Else return None.
// with a boolean that indicates whether `x` is negative. Else return None.
#[inline]
fn isPowerOf2_S32(x: i32) -> Option<(bool, u32)> {
// We have to special-case this because abs(x) isn't representable.
@@ -128,10 +128,10 @@ fn get_div_info(inst: Inst, dfg: &DataFlowGraph) -> Option<DivRemByConstInfo> {
}
// TODO: should we actually bother to do this (that is, manually match
// the case that the second argument is an iconst)? Or should we assume
// the case that the second argument is an iconst)? Or should we assume
// that some previous constant propagation pass has pushed all such
// immediates to their use points, creating BinaryImm instructions
// instead? For now we take the conservative approach.
// instead? For now we take the conservative approach.
if let &InstructionData::Binary { opcode, args } = idata {
let (isSigned, isRem) = match opcode {
Opcode::Udiv => (false, false),
@@ -153,10 +153,10 @@ fn get_div_info(inst: Inst, dfg: &DataFlowGraph) -> Option<DivRemByConstInfo> {
}
// Actually do the transformation given a bundle containing the relevant
// information. `divrem_info` describes a div or rem by a constant, that
// information. `divrem_info` describes a div or rem by a constant, that
// `pos` currently points at, and `inst` is the associated instruction.
// `inst` is replaced by a sequence of other operations that calculate the
// same result. Note that there are various `divrem_info` cases where we
// same result. Note that there are various `divrem_info` cases where we
// cannot do any transformation, in which case `inst` is left unchanged.
fn do_divrem_transformation(divrem_info: &DivRemByConstInfo, pos: &mut FuncCursor, inst: Inst) {
let isRem = match *divrem_info {
@@ -234,7 +234,7 @@ fn do_divrem_transformation(divrem_info: &DivRemByConstInfo, pos: &mut FuncCurso
qf = q1;
}
}
// Now qf holds the final quotient. If necessary calculate the
// Now qf holds the final quotient. If necessary calculate the
// remainder instead.
if isRem {
let tt = pos.ins().imul_imm(qf, d as i64);
@@ -306,7 +306,7 @@ fn do_divrem_transformation(divrem_info: &DivRemByConstInfo, pos: &mut FuncCurso
qf = q1;
}
}
// Now qf holds the final quotient. If necessary calculate the
// Now qf holds the final quotient. If necessary calculate the
// remainder instead.
if isRem {
let tt = pos.ins().imul_imm(qf, d as i64);
@@ -382,7 +382,7 @@ fn do_divrem_transformation(divrem_info: &DivRemByConstInfo, pos: &mut FuncCurso
};
let t1 = pos.ins().ushr_imm(q3, 31);
let qf = pos.ins().iadd(q3, t1);
// Now qf holds the final quotient. If necessary calculate
// Now qf holds the final quotient. If necessary calculate
// the remainder instead.
if isRem {
let tt = pos.ins().imul_imm(qf, d as i64);
@@ -459,7 +459,7 @@ fn do_divrem_transformation(divrem_info: &DivRemByConstInfo, pos: &mut FuncCurso
};
let t1 = pos.ins().ushr_imm(q3, 63);
let qf = pos.ins().iadd(q3, t1);
// Now qf holds the final quotient. If necessary calculate
// Now qf holds the final quotient. If necessary calculate
// the remainder instead.
if isRem {
let tt = pos.ins().imul_imm(qf, d);