}
	return NewCompositedCompilerFromTemplate(compositionContext), nil
}

func NewCompositedCompilerFromTemplate(context *CompositionEnv) *CompositedCompiler {
	context = &CompositionEnv{
		MapType:           context.MapType,
		EnvSet:            context.EnvSet,
		CompiledVariables: map[string]CompilationResult{},
	}
	compiler := NewCompiler(context.EnvSet)
	filterCompiler := NewFilterCompiler(context.EnvSet)

            }
    }

    override val typeContext = KaFe10TypeSystemCommonBackendContextForTypeMapping(resolveSession)

    fun mapType(type: KotlinType, mode: TypeMappingMode = TypeMappingMode.DEFAULT, sw: JvmSignatureWriter? = null): Type {
        return AbstractTypeMapper.mapType(this, type, mode, sw)
    }

    fun isPrimitiveBacked(type: KotlinType): Boolean =
        AbstractTypeMapper.isPrimitiveBacked(this, type)

    override val token: KaLifetimeToken,
) : KaJvmTypeMapper(), KaFirSessionComponent {

    override fun mapTypeToJvmType(type: KaType, mode: TypeMappingMode): Type {
        return analysisSession.useSiteSession.jvmTypeMapper.mapType(type.coneType, mode, sw = null, unresolvedQualifierRemapper = null)
    }

    override fun isPrimitiveBacked(type: KaType): Boolean {
        return analysisSession.useSiteSession.jvmTypeMapper.isPrimitiveBacked(type.coneType)

    override fun mapTypeToJvmType(type: KaType, mode: TypeMappingMode): Type {
        val kotlinType = (type as KaFe10Type).fe10Type
        return typeMapper.mapType(kotlinType, mode)
    }

    override fun isPrimitiveBacked(type: KaType): Boolean {
        val kotlinType = (type as KaFe10Type).fe10Type
        return typeMapper.isPrimitiveBacked(kotlinType)
    }

			}
			return n.Pos()
		// types
		// case *ArrayType:
		// case *SliceType:
		// case *DotsType:
		// case *StructType:
		// case *Field:
		// case *InterfaceType:
		// case *FuncType:
		// case *MapType:
		// case *ChanType:

		// statements
		// case *EmptyStmt:
		// case *LabeledStmt:
		// case *BlockStmt:
		// case *ExprStmt:
		case *SendStmt:
			m = n.Chan
		// case *DeclStmt:
		case *AssignStmt:

	return toType(bucketOf(x.common(), y.common()))
}

func CachedBucketOf(m Type) Type {
	t := m.(*rtype)
	if Kind(t.t.Kind_&abi.KindMask) != Map {
		panic("not map")
	}
	tt := (*mapType)(unsafe.Pointer(t))
	return toType(tt.Bucket)
}

type EmbedWithUnexpMeth struct{}

func (EmbedWithUnexpMeth) f() {}

type pinUnexpMeth interface {
	f()
}

  // node matched by this selector. The RuntimeClass nodeSelector is merged
  // with a pod's existing nodeSelector. Any conflicts will cause the pod to
  // be rejected in admission.
  // +optional
  // +mapType=atomic
  map<string, string> nodeSelector = 1;

  // tolerations are appended (excluding duplicates) to pods running with this
  // RuntimeClass during admission, effectively unioning the set of nodes

  // node matched by this selector. The RuntimeClass nodeSelector is merged
  // with a pod's existing nodeSelector. Any conflicts will cause the pod to
  // be rejected in admission.
  // +optional
  // +mapType=atomic
  map<string, string> nodeSelector = 1;

  // tolerations are appended (excluding duplicates) to pods running with this
  // RuntimeClass during admission, effectively unioning the set of nodes

        if (type !is SimpleTypeMarker) return null

        val signatureWriter = BothSignatureWriter(BothSignatureWriter.Mode.SKIP_CHECKS)
        typeMapper.mapType(type, mode, signatureWriter)

        val canonicalSignature = signatureWriter.toString()
        require(!canonicalSignature.contains(SpecialNames.ANONYMOUS_STRING))

  // node matched by this selector. The RuntimeClass nodeSelector is merged
  // with a pod's existing nodeSelector. Any conflicts will cause the pod to
  // be rejected in admission.
  // +optional
  // +mapType=atomic
  map<string, string> nodeSelector = 1;

  // tolerations are appended (excluding duplicates) to pods running with this
  // RuntimeClass during admission, effectively unioning the set of nodes