return &istio.TCPRoute{
			Route: []*istio.RouteDestination{{
				Destination: &istio.Destination{
					Host:   "internal.cluster.local",
					Subset: "zero-weight",
					Port:   &istio.PortSelector{Number: 65535},
				},
				Weight: 0,
			}},
		}, nil
	}

// `max_func`. In usual usage, max_func should be set to the result of
// TF_GraphNumFunctions(g). In this case, all the functions registered in
// `g` will be returned. Else, an unspecified subset.
//
// If successful, returns the number of TF_Function* successfully set in
// `funcs` and sets status to OK. The caller takes ownership of
// all the returned TF_Functions. They must be deleted with TF_DeleteFunction.

(FNEG (F(ABS|NABS) x)) => (F(NABS|ABS) x)

// floating-point fused multiply-add/sub
(F(ADD|SUB) (FMUL x y) z) && x.Block.Func.useFMA(v) => (FM(ADD|SUB) x y z)
(F(ADDS|SUBS) (FMULS x y) z) && x.Block.Func.useFMA(v) => (FM(ADDS|SUBS) x y z)

// Arch-specific inlining for small or disjoint runtime.memmove
(SelectN [0] call:(CALLstatic {sym} s1:(MOVDstore _ (MOVDconst [sz]) s2:(MOVDstore  _ src s3:(MOVDstore {t} _ dst mem)))))

  if (!func_name.starts_with(kCompositeFuncPrefix)) return "";

  auto base_function_name =
      llvm::Twine(kQuantizedFuncPrefix)
          .concat(llvm::Twine(func_name.substr(kCompositeFuncPrefix.size())
                                  .rsplit("_fn")
                                  .first));

  if (merged_with_dequantize) {
    return base_function_name.concat("_float_output_fn").str();

and its test source files to identify significant problems. If go vet
finds any problems, go test reports those and does not run the test
binary. Only a high-confidence subset of the default go vet checks are
used. That subset is: atomic, bool, buildtags, directive, errorsas,
ifaceassert, nilfunc, printf, and stringintconv. You can see
the documentation for these and other vet tests via "go doc cmd/vet".

  }

  private TypeToken<?> resolveSupertype(Type type) {
    TypeToken<?> supertype = of(getCovariantTypeResolver().resolveType(type));
    // super types' type mapping is a subset of type mapping of this type.
    supertype.covariantTypeResolver = covariantTypeResolver;
    supertype.invariantTypeResolver = invariantTypeResolver;
    return supertype;
  }

  /**

  }

  private TypeToken<?> resolveSupertype(Type type) {
    TypeToken<?> supertype = of(getCovariantTypeResolver().resolveType(type));
    // super types' type mapping is a subset of type mapping of this type.
    supertype.covariantTypeResolver = covariantTypeResolver;
    supertype.invariantTypeResolver = invariantTypeResolver;
    return supertype;
  }

  /**

		return emptyCPUSet, fmt.Errorf("unable to parse reserved-cpus list: %s", err)
	}
	allCPUSet := topo.CPUDetails.CPUs()
	if !reservedCPUSet.IsSubsetOf(allCPUSet) {
		return emptyCPUSet, fmt.Errorf("reserved-cpus: %s is not a subset of online-cpus: %s", cpus, allCPUSet.String())
	}
	return reservedCPUSet, nil
}

func run(ctx context.Context, s *options.KubeletServer, kubeDeps *kubelet.Dependencies, featureGate featuregate.FeatureGate) (err error) {

// for the given parameters, then constructs a scenario with several matching/non-matching params
// of varying names, namespaces, labels.
//
// Test then selects subset of params that should match provided configuration
// and ensuers those params are the only ones used.
//
// Also ensures NotFound action is enforced correctly by deleting all found

                                       int* num_options, TF_Status* status);

  /// Updates filesystem configuration with options passed in `options`. It can
  /// contain full set of options supported by the filesystem or just a subset
  /// of them. Ownership of options and buffers therein belongs to the caller
  /// and any buffers need to be allocated through filesystem allocation API.