"int ~int ~int ∅",
		"int string int string",
		"int ~string int ~string",
		"int myInt int myInt",
		"~int ~string ~int ~string",
		"~int myInt ~int ∅",

		// union is symmetric, but the result order isn't - repeat symmetric cases explicitly
		"𝓤 ∅ 𝓤 ∅",
		"int ∅ int ∅",
		"~int ∅ ~int ∅",
		"myInt ∅ myInt ∅",
		"int 𝓤 𝓤 ∅",
		"~int 𝓤 𝓤 ∅",
		"myInt 𝓤 𝓤 ∅",
		"~int int ~int ∅",

// i.e. [-128, 127]. Assumes asymmetric quantization, meaning the zero point
// value can be a non-zero value.
// If `narrow_range` is set true (ex: for weights), a restricted range of
// integers will be used for symmetric mapping, i.e. [-127, 127].
UniformQuantizedType CreateI8F32UniformQuantizedType(Location loc,
                                                     MLIRContext& context,

    public abstract fun restoreSymbol(analysisSession: KaSession): S?

    /**
     * @return **true** if [other] pointer can be restored to the same symbol. The operation is symmetric and transitive.
     */
    public open fun pointsToTheSameSymbolAs(other: KaSymbolPointer<KaSymbol>): Boolean = this === other

    override fun toString(): String = renderAsDataClassToString()
}

    there's any, and set it to True. The reason behind this decision is that
    generally activations of these ops show better accuracy with asymmetric
    input quantization so we want to deprecate symmetric activation quantization
    for those ops eventually.
    - Unlike to the old quantizer, per-channel quantization is supported for
    weight-only TransposeConvOp.
  }];

  let methods = [
    InterfaceMethod<

		if _, ok := hpke.SupportedAEADs[s.AEADID]; !ok {
			continue
		}
		if _, ok := hpke.SupportedKDFs[s.KDFID]; !ok {
			continue
		}
		return s, nil
	}
	return echCipher{}, errors.New("tls: no supported symmetric ciphersuites for ECH")
}

func encodeInnerClientHello(inner *clientHelloMsg, maxNameLength int) ([]byte, error) {
	h, err := inner.marshalMsg(true)
	if err != nil {
		return nil, err
	}