import java.lang.reflect.InvocationTargetException;
import java.lang.reflect.Method;

/**
 * Provides methods to interact with the Java agent shipped with Gradle. Because of the different class loaders, it is hard to query the Agent class directly.
 * <p>
 * The agent class must follow a special protocol to be recognized properly: the class should have a method:
 * <pre>
 *     public static boolean isApplied()
 * </pre>

// content of the object files being linked but also on things like
// the timestamps/paths of the objects; this makes it
// difficult/impossible to support reproducible builds. Since we try
// hard to maintain build reproducibility for Go, the APIs here
// compute a new UUID (based on the Go build ID) and write it to the
// final executable generated by the external linker.

import (
	"cmd/internal/notsha256"

        variableReference: VariableReference,
        constructor: (KaParameterSymbol) -> T
    ): T = constructor(variableReference.descriptor.toKtSymbol(analysisContext) as KaParameterSymbol)

    // Util function to avoid hard coding names of the classes. Type inference will do a better job figuring out the best type to cast to.
    // This visitor isn't type-safe anyway

	NilPodAffinity PodAffinityKind = iota
	// PodAffinityWithRequiredReq applies a HARD requirement to pod.spec.affinity.PodAffinity.
	PodAffinityWithRequiredReq
	// PodAffinityWithPreferredReq applies a SOFT requirement to pod.spec.affinity.PodAffinity.
	PodAffinityWithPreferredReq
	// PodAffinityWithRequiredPreferredReq applies HARD and SOFT requirements to pod.spec.affinity.PodAffinity.
	PodAffinityWithRequiredPreferredReq

    assert(quantizedType &&
           "Converter accepted a type that it did not convert");

    // TODO: Map to a qbarrier with an attribute like [Forced] to signal that
    // this is a forced/hard-coded constraint.
    auto qbarrier = rewriter.create<QuantizeCastOp>(op.getLoc(), quantizedType,
                                                    op.getInputs());

                withFirEntry("fir", firFunctionSymbol.firSymbol.fir)
            }
        else firFunctionSymbol.valueParameters[valueParameterReference.parameterIndex]
    )

    // Util function to avoid hard coding names of the classes. Type inference will do a better job figuring out the best type to cast to.
    // This visitor isn't type-safe anyway
    private inline fun <reified T> ConeContractDescriptionElement.accept() =

        // TODO(mlopatkin) while calling getProvider is not going to cause StackOverflowError by itself, the returned provider is typically used in some recursive call.
        //  Without the safety net of the EvaluationContext, it can cause hard-to-debug exceptions.
        try (EvaluationContext.ScopeContext context = openScope()) {
            return getSupplier(context);
        }
    }

		" fnID:", fnID, " numCtrs:", nCtrs)
	println("list of hard-coded runtime package IDs needs revising.")
	println("[see the comment on the 'rtPkgs' var in ")
	println(" <goroot>/src/internal/coverage/pkid.go]")
	println("registered list:")
	for k, b := range metaList {
		print("slot: ", k, " path='", b.PkgPath, "' ")
		if b.PkgID != -1 {
			print(" hard-coded id: ", b.PkgID)
		}
		println("")
	}

// been converted to constants, all the assign ops are gone, etc.). However,
// TFLite has these variable tensors semantics. So the variable mapping from TF
// to TFLite is actually broken here, we sort of hard-code the variable tensors
// based on the actual ops using them, such as unidirectional_sequence_lstm.
//
// MLIRConverter also benefits from lots of typical compiler optimization like

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