SW	X5, 4(X6)				// 23225300
	SH	X5, (X6)				// 23105300
	SH	X5, 4(X6)				// 23125300
	SB	X5, (X6)				// 23005300
	SB	X5, 4(X6)				// 23025300

	// 2.7: Memory Ordering Instructions
	FENCE						// 0f00f00f

	// 5.2: Integer Computational Instructions (RV64I)
	ADDIW	$1, X5, X6				// 1b831200
	SLLIW	$1, X5, X6				// 1b931200
	SRLIW	$1, X5, X6				// 1bd31200
	SRAIW	$1, X5, X6				// 1bd31240

        // Some examples:
        // ```
        // when {
        //   true, false -> {}
        // }
        // ```
        // `false` does not have a corresponding elements on the FIR side and hence the containing `FirWhenBranch` is returned.
        // ```
        // @Volatile
        // private var
        // ```
        // Volatile does not have corresponding element, so `FirFileImpl` is returned

	// cases. In the case of an ABIInternal target that has too many
	// parameters to fit into registers, the wrapper would need to
	// allocate stack space, but this seems like an unlikely scenario.
	// Hence: mark these wrappers NOSPLIT.
	//
	// ABIInternal-to-ABI0 wrappers on the other hand will be taking
	// things in registers and pushing them onto the stack prior to

  public void testValueSetHashTableExpansion() {
    LinkedHashMultimap<String, Integer> multimap = LinkedHashMultimap.create();
    for (int z = 1; z <= 100; z++) {
      multimap.put("a", z);
      // The Eclipse compiler (and hence GWT) rejects a parameterized cast.
      @SuppressWarnings("unchecked")
      LinkedHashMultimap<String, Integer>.ValueSet valueSet =
          (LinkedHashMultimap.ValueSet) multimap.backingMap().get("a");

		s.PrepareCall(v)
		if call, ok := v.Aux.(*ssa.AuxCall); ok && call.Fn == ir.Syms.Deferreturn {
			// The runtime needs to inject jumps to
			// deferreturn calls using the address in
			// _func.deferreturn. Hence, the call to
			// deferreturn must itself be a resumption
			// point so it gets a target PC.
			s.Prog(wasm.ARESUMEPOINT)
		}
		if v.Op == ssa.OpWasmLoweredClosureCall {
			getValue64(s, v.Args[1])

		{obj.Addr{Type: obj.TYPE_MEM, Name: obj.NAME_NONE, Offset: BIG}, C_LOREG},
		{obj.Addr{Type: obj.TYPE_MEM, Name: obj.NAME_NONE, Offset: -BIG - 33}, C_LOREG},

		// Misc (golang initializes -0.0 to 0.0, hence the obfuscation below)
		{obj.Addr{Type: obj.TYPE_TEXTSIZE}, C_TEXTSIZE},
		{obj.Addr{Type: obj.TYPE_FCONST, Val: 0.0}, C_ZCON},
		{obj.Addr{Type: obj.TYPE_FCONST, Val: math.Float64frombits(0x8000000000000000)}, C_S16CON},

/**
 * A simple memorizing {@link Supplier} of {@link RepositorySystem} instance, that on first call
 * supplies lazily constructed instance, and on each subsequent call same instance. Hence, this instance should be
 * thrown away immediately once repository system was created and there is no need for more instances. If new

/**
 * A simple memorizing {@link Supplier} of {@link RepositorySystem} instance, that on first call
 * supplies lazily constructed instance, and on each subsequent call same instance. Hence, this instance should be
 * thrown away immediately once repository system was created and there is no need for more instances. If new

 * imports, the symbol from "smaller" kind is used. For example, an explicitly imported symbol can overwrite a star-imported symbol.
 */
private enum class ImportKind {
    /** The symbol is available from the local scope and hence cannot be imported or overwritten. */
    LOCAL,

    /** Explicitly imported by user. */
    EXPLICIT,

    /** Implicitly imported from package. */
    PACKAGE,

				min := off
				max := off + size
				if min < 0 {
					min = 0
				}
				if max > 64*ptrSize {
					max = 64 * ptrSize
				}
				// Clear bits for parts that we are writing (and hence
				// will no longer necessarily be zero).
				for i := min; i < max; i += ptrSize {
					bit := i / ptrSize
					z.mask &^= 1 << uint(bit)
				}
				if z.mask == 0 {