import okio.Buffer
import okio.BufferedSource
import okio.ByteString.Companion.encodeUtf8
import okio.Options
import okio.Source
import okio.Timeout
import okio.buffer

/**
 * Reads a stream of [RFC 2046][rfc_2046] multipart body parts. Callers read parts one-at-a-time
 * until [nextPart] returns null. After calling [nextPart] any preceding parts should not be read.
 *
 * Typical use loops over the parts in sequence:
 *

     */
    @JvmField
    val PARALLEL = "multipart/parallel".toMediaType()

    /**
     * The media-type multipart/form-data follows the rules of all multipart MIME data streams as
     * outlined in RFC 2046. In forms, there are a series of fields to be supplied by the user who
     * fills out the form. Each field has a name. Within a given form, the names are unique.
     */
    @JvmField

 * parameter attributes or parameter values must be valid according to RFCs <a
 * href="https://tools.ietf.org/html/rfc2045">2045</a> and <a
 * href="https://tools.ietf.org/html/rfc2046">2046</a>.
 *
 * <p>All portions of the media type that are case-insensitive (type, subtype, parameter attributes)
 * are normalized to lowercase. The value of the {@code charset} parameter is normalized to

 * parameter attributes or parameter values must be valid according to RFCs <a
 * href="https://tools.ietf.org/html/rfc2045">2045</a> and <a
 * href="https://tools.ietf.org/html/rfc2046">2046</a>.
 *
 * <p>All portions of the media type that are case-insensitive (type, subtype, parameter attributes)
 * are normalized to lowercase. The value of the {@code charset} parameter is normalized to

	ADDI	$2047, X5				// 9382f27f
	ADDI	$-2048, X5				// 93820280
	ADDI	$2048, X5				// 9382024093820240
	ADDI	$-2049, X5				// 938202c09382f2bf
	ADDI	$4094, X5				// 9382f27f9382f27f
	ADDI	$-4096, X5				// 9382028093820280
	ADDI	$4095, X5				// b71f00009b8fffffb382f201
	ADDI	$-4097, X5				// b7ffffff9b8fffffb382f201
	ADDI	$2047, X5, X6				// 1383f27f
	ADDI	$-2048, X5, X6				// 13830280

        keySize = 256
      }

    /**
     * Configure the certificate to generate a 2048-bit RSA key, which provides about 112 bits of
     * security. RSA keys are interoperable with very old clients that don't support ECDSA.
     */
    fun rsa2048() =
      apply {
        keyAlgorithm = "RSA"
        keySize = 2048
      }

    fun build(): HeldCertificate {
      // Subject keys & identity.

	}{
		{
			key: Key{
				Name:      "01894394-d046-4783-ba0d-f1c6885790dc",
				Extension: ".event",
			},
			expectedString: "01894394-d046-4783-ba0d-f1c6885790dc.event",
		},
		{
			key: Key{
				Name:      "01894394-d046-4783-ba0d-f1c6885790dc",
				Compress:  true,
				Extension: ".event",
				ItemCount: 100,
			},
			expectedString: "100:01894394-d046-4783-ba0d-f1c6885790dc.event.snappy",
		},
		{

	VMOVQ		V2, (R4)        // 8200402c
	VMOVQ		V2, 3(R4)       // 820c402c
	VMOVQ		V2, 2040(R4)    // 82e05f2c
	VMOVQ		V2, -2040(R4)   // 8220602c
	VMOVQ		V2, y+16(FP)    // 0260402c
	VMOVQ		V2, x+2030(FP)  // 02d85f2c
	VMOVQ		(R4), V2        // 8200002c
	VMOVQ		3(R4), V2       // 820c002c
	VMOVQ		2044(R4), V2    // 82f01f2c
	VMOVQ		-2044(R4), V2   // 8210202c
	VMOVQ		y+16(FP), V2    // 0260002c
	VMOVQ		x+2030(FP), V2  // 02d81f2c

        then:
        selected == ["1.9.10", "1.9.25", "2.0.20", "2.0.30-RC1"]
    }

    def "beta and rc of two latest patch versions"() {
        given:
        def allVersions = [
            "2.0.40-Beta2", "2.0.40-Beta1",
            "2.0.30-RC1", "2.0.30-Beta1",
            "2.0.20", "2.0.20-RC1",
            "2.0.10", "2.0.10-RC1",
            "2.0.0", "2.0.0-RC1", "2.0.0-Beta1",
        ] + previousVersions

	// EVEX: compressed displacement that does not fit into 8bits.
	VADDPD 2048(DX), X29, X0        // 62f19500588200080000
	VADDPD 2048(DX), X1, X29        // 6261f50858aa00080000
	VADDPD 2048(DX), X29, X28       // 6261950058a200080000
	VADDPD 2048(DX)(AX*2), X29, X0  // 62f1950058844200080000
	VADDPD 2048(DX)(AX*2), X1, X29  // 6261f50858ac4200080000
	VADDPD 2048(DX)(AX*2), X29, X28 // 6261950058a44200080000