.certificateAuthority(0)
        .commonName("compromised intermediate")
        .signedBy(pinnedRoot)
        .build()
    val attackerIntermediate =
      HeldCertificate.Builder()
        .keyPair(attackerCa.keyPair) // Share keys between compromised CA and intermediate!
        .serialNumber(4L)
        .certificateAuthority(0) // More intermediates than permitted by signer!
        .commonName("attacker intermediate")

      this.intermediates = arrayOf(*intermediates) // Defensive copy.
    }

    /**
     * Add a trusted root certificate to use when authenticating a peer. Peers must provide
     * a chain of certificates whose root is one of these.
     */
    fun addTrustedCertificate(certificate: X509Certificate) =
      apply {
        this.trustedCertificates += certificate
      }

    /**

    keyStoreType: String?,
    heldCertificate: HeldCertificate?,
    vararg intermediates: X509Certificate,
  ): X509KeyManager {
    val keyStore = newEmptyKeyStore(keyStoreType)
    if (heldCertificate != null) {
      val chain = arrayOfNulls<Certificate>(1 + intermediates.size)
      chain[0] = heldCertificate.certificate
      intermediates.copyInto(chain, 1)

  }

  private fun buildClient(
    heldCertificate: HeldCertificate?,
    vararg intermediates: X509Certificate,
  ): OkHttpClient {
    val builder =
      HandshakeCertificates.Builder()
        .addTrustedCertificate(serverRootCa.certificate)
    if (heldCertificate != null) {
      builder.heldCertificate(heldCertificate, *intermediates)
    }
    val handshakeCertificates = builder.build()

 *
 * In this example the HTTP client already knows and trusts the last certificate, "Entrust Root
 * Certification Authority - G2". That certificate is used to verify the signature of the
 * intermediate certificate, "Entrust Certification Authority - L1M". The intermediate certificate
 * is used to verify the signature of the "www.squareup.com" certificate.
 *
 * This roles are reversed for client authentication. In that case the client has a private key and

  ): Boolean {
    if (toVerify.issuerDN != signingCert.subjectDN) {
      return false
    }
    if (signingCert.basicConstraints < minIntermediates) {
      return false // The signer can't have this many intermediates beneath it.
    }
    return try {
      toVerify.verify(signingCert.publicKey)
      true
    } catch (verifyFailed: GeneralSecurityException) {
      false
    }
  }

representative of real-world HTTPS deployment. To get closer to that we can use `HeldCertificate`
to generate a trusted root certificate, an intermediate certificate, and a server certificate.
We use `certificateAuthority(int)` to create certificates that can sign other certificates. The
int specifies how many intermediate certificates are allowed beneath it in the chain.

```java
HeldCertificate rootCertificate = new HeldCertificate.Builder()

 *  Fix: Don't crash loading the public suffix database resource in obfuscated builds.
 *  Fix: Don't silently ignore calls to `EventSource.cancel()` made from
    `EventSourceListener.onOpen()`.
 *  Fix: Enforce the max intermediates constraint when using pinned certificates with Conscrypt.
    This impacts Conscrypt when the server's presented certificates form both a trusted-but-unpinned
    chain and an untrusted-but-pinned chain.

## Changelog since v1.2.6

### Other notable changes

* Test x509 intermediates correctly ([#34524](https://github.com/kubernetes/kubernetes/pull/34524), [@liggitt](https://github.com/liggitt))



# v1.2.6

## Changelog since v1.3.8

### Other notable changes

* Test x509 intermediates correctly ([#34524](https://github.com/kubernetes/kubernetes/pull/34524), [@liggitt](https://github.com/liggitt))