// IntArgRegs is the number of registers dedicated
	// to passing integer argument values. Result registers are identical
	// to argument registers, so this number is used for those too.
	IntArgRegs = 0

	// FloatArgRegs is the number of registers dedicated
	// to passing floating-point argument values. Result registers are
	// identical to argument registers, so this number is used for
	// those too.
	FloatArgRegs = 0

	// TODO: This is only used for debug printing. Maybe export config.registers?
	gcRegMapSize := int16(0)
	for _, r := range c.registers {
		if r.gcNum+1 > gcRegMapSize {
			gcRegMapSize = r.gcNum + 1
		}
	}
	c.GCRegMap = make([]*Register, gcRegMapSize)
	for i, r := range c.registers {
		if r.gcNum != -1 {
			c.GCRegMap[r.gcNum] = &c.registers[i]
		}
	}

	return c
}

	} else {
		state.currentState.slots = state.currentState.slots[:numSlots]
	}
	if cap(state.currentState.registers) < len(state.registers) {
		state.currentState.registers = make([][]SlotID, len(state.registers))
	} else {
		state.currentState.registers = state.currentState.registers[:len(state.registers)]
	}

	// A relatively small slice, but used many times as the return from processValue.

        then:
        assertTestPassed("org.example.SomeThingPluginTest", "plugin registers task")
        assertFunctionalTestPassed("org.example.SomeThingPluginFunctionalTest", "can run task")

        when:
        run('check', '--rerun-tasks')

        then:
        assertTestPassed("org.example.SomeThingPluginTest", "plugin registers task")

     *
     * @param dependencies The dependencies of the configuration.
     * @return The configuration.
     */
    Configuration detachedConfiguration(Dependency... dependencies);

    /**
     * Registers a {@link ResolvableConfiguration} with an immutable role. Resolvable configurations
     * are meant to resolve dependency graphs and their artifacts.
     *
     * @param name The name of the configuration to register.

	// from the register set (most constrained first).
	// Inputs which do not need registers are not listed.
	inputs []inputInfo
	// clobbers encodes the set of registers that are overwritten by
	// the instruction (other than the output registers).
	clobbers regMask
	// outputs is the same as inputs, but for the outputs of the instruction.
	outputs []outputInfo
}

	"internal/stringslite"
	"unsafe"
)

// InjectDebugCall injects a debugger call to fn into g. regArgs must
// contain any arguments to fn that are passed in registers, according
// to the internal Go ABI. It may be nil if no arguments are passed in
// registers to fn. args must be a pointer to a valid call frame (including
// arguments and return space) for fn, or nil. tkill must be a function that

		panic("unknown type kind")
	}
	panic("unhandled register assignment path")
}

// assignIntN assigns n values to registers, each "size" bytes large,
// from the data at [offset, offset+n*size) in memory. Each value at
// [offset+i*size, offset+(i+1)*size) for i < n is assigned to the
// next n integer registers.
//
// Bit i in ptrMap indicates whether the i'th value is a pointer.
// n must be <= 8.
//

     */
    enum Disposition { FAILED, FINISHED, RETRY }

    /**
     * Registers a resource lock to be rolled back if the transform associated with this resource lock state
     * fails.
     */
    void registerLocked(ResourceLock resourceLock);

    /**
     * Registers a resource lock that has been unlocked during the transform so that the coordination service can

import (
	"cmd/internal/obj"
)

//go:generate go run ../stringer.go -i $GOFILE -o anames.go -p loong64

const (
	NSNAME = 8
	NSYM   = 50
	NREG   = 32 // number of general registers
	NFREG  = 32 // number of floating point registers
)

const (
	REG_R0 = obj.RBaseLOONG64 + iota // must be a multiple of 32
	REG_R1
	REG_R2
	REG_R3
	REG_R4
	REG_R5
	REG_R6
	REG_R7
	REG_R8
	REG_R9
	REG_R10