internal class DefaultArgumentsInExpectWithActualTypealiasImpl(
    override val expectClassSymbol: KaClassLikeSymbol,
    override val members: List<KaCallableSymbol>,
    firDiagnostic: KtPsiDiagnostic,
    token: KaLifetimeToken,
) : KaAbstractFirDiagnostic<KtTypeAlias>(firDiagnostic, token), KaFirDiagnostic.DefaultArgumentsInExpectWithActualTypealias

		if e != nil {
			return "", e
		}
		if l <= n {
			return UTF16ToString(b[:l]), nil
		}
		n = l
	}
}

// IsMember reports whether the access token t is a member of the provided SID.
func (t Token) IsMember(sid *SID) (bool, error) {
	var b int32
	if e := checkTokenMembership(t, sid, &b); e != nil {
		return false, e
	}
	return b != 0, nil
}

func doublePercent(str string) string {
	return strings.ReplaceAll(str, "%", "%%")
}

// TODO: It would be nice if ExecError was more broken down, but
// the way ErrorContext embeds the template name makes the
// processing too clumsy.

// ExecError is the custom error type returned when Execute has an
// error evaluating its template. (If a write error occurs, the actual

			tparams[index+i].bound = bound
		}
		index += len(f.Names)
	}
}

func (check *Checker) bound(x ast.Expr) Type {
	// A type set literal of the form ~T and A|B may only appear as constraint;
	// embed it in an implicit interface so that only interface type-checking
	// needs to take care of such type expressions.
	wrap := false
	switch op := x.(type) {
	case *ast.UnaryExpr:
		wrap = op.Op == token.TILDE

            isImplicitInvoke = true

            // For implicit invoke, the explicit receiver is always set in FIR and this receiver is the variable or property that has
            // the `invoke` member function. In this case, we use the `calleeExpression` in the `KtCallExpression` as the PSI
            // representation of this receiver. Caller can then use this PSI for further call resolution, which is implemented by the

    private fun List<OverloadCandidate>.findScopeForSymbol(symbol: FirBasedSymbol<*>): FirScope? = firstOrNull {
        it.candidate.symbol == symbol
    }?.candidate?.originScope

    /**
     * Returns whether a member of companion is used to initialize the enum entry or not. For example,
     *     enum class C(val i: Int) {
     *         ONE(<expr>C.K</expr>)  // C.ONE uses C.K for initialization
     *         ;

	// when sampling g0.
	//
	// Initialization and teardown of these fields is protected by traceAdvanceSema.
	cpuLogRead  [2]*profBuf
	signalLock  atomic.Uint32              // protects use of the following member, only usable in signal handlers
	cpuLogWrite [2]atomic.Pointer[profBuf] // copy of cpuLogRead for use in signal handlers, set without signalLock
	cpuSleep    *wakeableSleep
	cpuLogDone  <-chan struct{}
	cpuBuf      [2]*traceBuf

    PROTO="https://"
  fi
  [[ -n "${EXISTING_MASTER_NAME}" ]] || return
  run-gcloud-command "${EXISTING_MASTER_NAME}" "${EXISTING_MASTER_ZONE}" "curl -s ${TLSARG} ${PROTO}127.0.0.1:${port}/v2/members/\$(curl -s ${TLSARG} ${PROTO}127.0.0.1:${port}/v2/members -XGET | sed 's/{\\\"id/\n/g' | grep ${REPLICA_NAME}\\\" | cut -f 3 -d \\\") -XDELETE -L 2>/dev/null"
  local -r res=$?
  echo "Removing etcd replica, name: ${REPLICA_NAME}, port: ${port}, result: ${res}"

	}

	// Start with value known to be too large and repeat "z = ⌊(z + ⌊x/z⌋)/2⌋" until it stops getting smaller.
	// See Brent and Zimmermann, Modern Computer Arithmetic, Algorithm 1.13 (SqrtInt).
	// https://members.loria.fr/PZimmermann/mca/pub226.html
	// If x is one less than a perfect square, the sequence oscillates between the correct z and z+1;
	// otherwise it converges to the correct z and stays there.
	var z1, z2 nat
	z1 = z

	if opts.SendInitialEvents != nil && *opts.SendInitialEvents {
		// Here be dragons:
		// Since the etcd feature checker needs to check all members
		// to determine whether a given feature is supported,
		// we may receive a positive response even if the feature is not supported.
		//
		// In this very rare scenario, the worst case will be that this