// to a function.  These need spilling/filling in the safepoint/stackgrowth case.
// At the time of fill/spill, the offset must be adjusted by the architecture-dependent
// adjustment to hardware SP that occurs in a call instruction.  E.g., for AMD64,
// at Offset+8 because the return address was pushed.
type RegSpill struct {
	Addr           Addr
	Reg            int16
	Spill, Unspill As
}

		// also inefficient to call into the scheduler so much because sweeping a
		// single span is in general a very fast operation, taking as little as 30 ns
		// on modern hardware. (See #54767.)
		//
		// As a result, bgsweep sweeps in batches, and only calls into the scheduler
		// at the end of every batch. Furthermore, it only yields its time if there

(Avg64u <t> x y) => (ADDV (SRLVconst <t> (SUBV <t> x y) [1]) y)

(And(64|32|16|8) ...) => (AND ...)
(Or(64|32|16|8) ...) => (OR ...)
(Xor(64|32|16|8) ...) => (XOR ...)

// shifts
// hardware instruction uses only the low 6 bits of the shift
// we compare to 64 to ensure Go semantics for large shifts
(Lsh64x64 <t> x y) => (MASKEQZ (SLLV <t> x                y)  (SGTU (MOVVconst <typ.UInt64> [64])                y))

		return true
	}
	if sb.set.freg&sa.used.freg != 0 {
		return true
	}

	/*
	 * special case.
	 * loads from same address cannot pass.
	 * this is for hardware fifo's and the like
	 */
	if sa.used.cc&sb.used.cc&E_MEM != 0 {
		if sa.p.Reg == sb.p.Reg {
			if c.regoff(&sa.p.From) == c.regoff(&sb.p.From) {
				return true
			}
		}
	}

(Rsh16x64 x (Const64 [c])) && uint32(c) >= 16 => (SRAconst (SLLconst <typ.UInt32> x [16]) [31])
(Rsh8x64  x (Const64 [c])) && uint32(c) >= 8  => (SRAconst (SLLconst <typ.UInt32> x [24]) [31])

// shifts
// hardware instruction uses only the low 5 bits of the shift
// we compare to 32 to ensure Go semantics for large shifts
(Lsh32x32 <t> x y) => (CMOVZ (SLL <t> x y) (MOVWconst [0]) (SGTUconst [32] y))

	GOARM64
		For GOARCH=arm64, the ARM64 architecture for which to compile.
		Valid values are v8.0 (default), v8.{1-9}, v9.{0-5}.
		The value can be followed by an option specifying extensions implemented by target hardware.
		Valid options are ,lse and ,crypto.
		Note that some extensions are enabled by default starting from a certain GOARM64 version;
		for example, lse is enabled by default starting from v8.1.
	GO386

(Avg64u <t> x y) => (ADDV (SRLVconst <t> (SUBV <t> x y) [1]) y)

(And(64|32|16|8) ...) => (AND ...)
(Or(64|32|16|8) ...) => (OR ...)
(Xor(64|32|16|8) ...) => (XOR ...)

// shifts
// hardware instruction uses only the low 6 bits of the shift
// we compare to 64 to ensure Go semantics for large shifts
(Lsh64x64 <t> x y) => (AND (NEGV <t> (SGTU (MOVVconst <typ.UInt64> [64]) y)) (SLLV <t> x y))

	// Disassemblers seem to agree that later prefixes take priority over
	// earlier ones. I have not taken the time to write assembly programs
	// to check to see if the hardware agrees.
	//
	// What happens if prefixes are given that have no meaning for the
	// specific instruction to which they are attached? It depends.
	// If they really have no meaning, they are ignored. However, a future

is API compatible with Amazon S3 cloud storage service. Use MinIO to build high performance infrastructure for machine learning, analytics and application data workloads. This README provides quickstart instructions on running MinIO on bare metal hardware, including container-based installations. For Kubernetes environments, use the [MinIO Kubernetes Operator](https://github.com/minio/operator/blob/master/README.md). ## Container Installation Use the following commands to run a standalone MinIO server...

    deps = [
        ":execution_metadata_exporter",
        ":runtime_metadata_fbs",
        "//tensorflow/compiler/mlir/lite:tensorflow_lite",
        "//tensorflow/compiler/mlir/lite/experimental/tac/hardwares:all-target-hardwares",
        "@com_google_googletest//:gtest_main",
        "@flatbuffers",
        "@llvm-project//mlir:ArithDialect",
        "@llvm-project//mlir:FuncDialect",
        "@llvm-project//mlir:IR",