}
	} else {
		association.Error = err
	}

	return association
}

func (association *Association) Unscoped() *Association {
	return &Association{
		DB:           association.DB,
		Relationship: association.Relationship,
		Error:        association.Error,
		Unscope:      true,
	}
}

func (association *Association) Find(out interface{}, conds ...interface{}) error {
	if association.Error == nil {

import static java.lang.annotation.ElementType.ANNOTATION_TYPE;
import static java.lang.annotation.RetentionPolicy.RUNTIME;

@Target(ANNOTATION_TYPE)
@Retention(RUNTIME)
@Documented

@app.get("/users/{user_id}")
async def get_user(user_id: str, request: Request):
    route: APIRoute = request.scope["route"]
    return {"user_id": user_id, "path": route.path}


@app.websocket("/items/{item_id}")
async def websocket_item(item_id: str, websocket: WebSocket):
    route: APIWebSocketRoute = websocket.scope["route"]
    await websocket.accept()
    await websocket.send_json({"item_id": item_id, "path": route.path})

        /**
         * A scope containing both non-static and static members. A smart combined scope (as opposed to a naive combination of [KtScope]s
         * with [getCompositeScope]) avoids duplicate inner classes, as they are contained in non-static and static scopes.
         *
         * A proper combined declared member scope kind also makes it easier to cache combined scopes directly (if needed).
         */
        COMBINED,
    }

        seed(clazz, (Provider<T>) () -> value);
    }

    public <T> Provider<T> scope(final Key<T> key, final Provider<T> unscoped) {
        // Lazy evaluating provider
        return () -> {
            if (values.isEmpty()) {
                return createProxy(key, unscoped);
            } else {
                return getScopeState().scope(key, unscoped).get();
            }
        };
    }

    override fun getDeclarationScope(scope: KtTypeScope): KtScope {
        return when (scope) {
            is KtFirDelegatingTypeScope -> KtFirDelegatingNamesAwareScope(scope.firScope, analysisSession.firSymbolBuilder)
            is KtCompositeTypeScope -> KtCompositeScope.create(scope.subScopes.map(::getDeclarationScope), token)
            else -> unexpectedElementError<KtTypeScope>(scope)
        }
    }

import org.jetbrains.kotlin.resolve.scopes.*

internal abstract class KtFe10ScopeResolution : KtScope, KtLifetimeOwner {
    abstract val analysisContext: Fe10AnalysisContext
    abstract val scope: ResolutionScope

    override fun getCallableSymbols(nameFilter: KtScopeNameFilter): Sequence<KtCallableSymbol> = withValidityAssertion {
        return scope
            .getContributedDescriptors(kindFilter = DescriptorKindFilter.ALL, nameFilter)

            if (seeded != null) {
                return (T) seeded.get();
            }

            T provided = (T) state.provided.get(key);
            if (provided == null && unscoped != null) {
                provided = unscoped.get();
                state.provided.put(key, provided);
            }

            return provided;
        };
    }

    @SuppressWarnings({"unchecked"})

        }
    }

    override fun getEmptyScope(): KtScope {
        return KtEmptyScope(token)
    }

    override fun getFileScope(fileSymbol: KtFileSymbol): KtScope {
        require(fileSymbol is KtFe10FileSymbol)
        return KtFe10FileScope(fileSymbol.psi, analysisContext, token)
    }

    override fun getPackageScope(packageSymbol: KtPackageSymbol): KtScope {
        require(packageSymbol is KtFe10PackageSymbol)

        return getSymbolsFromMemberScope(fqName, importingScope)
    }

    private fun KtAnalysisSession.getSymbolsFromMemberScope(fqName: FqName, scope: KtScope): Collection<KtDeclarationSymbol> {
        val finalScope = fqName.pathSegments()
            .dropLast(1)
            .fold(scope) { currentScope, fqNamePart ->
                currentScope
                    .getClassifierSymbols(fqNamePart)