// crypto/internal/edwards25519/field.feMulGeneric.
func Add64MultipleChains(a, b, c, d [2]uint64) {
	var cx, d1, d2 uint64
	a1, a2 := a[0], a[1]
	b1, b2 := b[0], b[1]
	c1, c2 := c[0], c[1]

	// ppc64x: "ADDC\tR\\d+,", -"ADDE", -"MOVD\tXER"
	d1, cx = bits.Add64(a1, b1, 0)
	// ppc64x: "ADDE", -"ADDC", -"MOVD\t.*, XER"
	d2, _ = bits.Add64(a2, b2, cx)

	// ppc64x: "ADDC\tR\\d+,", -"ADDE", -"MOVD\tXER"

   * Returns the {@code int} value whose byte representation is the given 4 bytes, in big-endian
   * order; equivalent to {@code Ints.fromByteArray(new byte[] {b1, b2, b3, b4})}.
   *
   * @since 7.0
   */
  public static int fromBytes(byte b1, byte b2, byte b3, byte b4) {
    return b1 << 24 | (b2 & 0xFF) << 16 | (b3 & 0xFF) << 8 | (b4 & 0xFF);
  }

  private static final class IntConverter extends Converter<String, Integer>

	var h nttElement
	// We use i += 2 for bounds check elimination. See https://go.dev/issue/66826.
	for i := 0; i < 256; i += 2 {
		a0, a1 := f[i], f[i+1]
		b0, b1 := g[i], g[i+1]
		h[i] = fieldAddMul(a0, b0, fieldMul(a1, b1), gammas[i/2])
		h[i+1] = fieldAddMul(a0, b1, a1, b0)
	}
	return h
}

// zetas are the values ζ^BitRev7(k) mod q for each index k.

import java.util.regex.Pattern

class CompositeBuildBuildSrcBuildOperationsIntegrationTest extends AbstractCompositeBuildIntegrationTest {
    BuildTestFile buildB

    def setup() {
        buildB = multiProjectBuild("buildB", ['b1', 'b2']) {
            file("buildSrc/src/main/java/Thing.java") << "class Thing { }"
            buildFile << """
                allprojects {
                    apply plugin: 'java'
                }
"""
        }

	           82:6f:f6:06:a6:43:19:e2:7c:52:66:36:13:6f:0f:73:16:3d:
	           79:5f:f9:a6:c8:4c:18:f9:ff:20:2b:de:7f:15:e0:ab:ae:44:
	           fa:65:7a:86:8a:df:d0:63:82:b1:5c:f3:f8:5c:05:97:4e:1f:
	           09:d6:d9:55:e7:36:fc:08:3e:3f:66:99:68:b6:31:44:0f:63:
	           20:6a:b2:81:50:39:19:d0:47:de:20:94:f0:a2:2c:eb:69:93:
	           93:a3
	   -----BEGIN CERTIFICATE-----

//
// The intended use case for this helper is in describing object or
// variable lifetime ranges within a linearized program representation
// where each IR instruction has a slot or index. Example:
//
//          b1:
//  0        VarDef abc
//  1        memset(abc,0)
//  2        VarDef xyz
//  3        memset(xyz,0)
//  4        abc.f1 = 2
//  5        xyz.f3 = 9
//  6        if q goto B4
//  7 B3:    z = xyz.x

        // TODO use newest conflict resolver
        ArtifactSpec a = createArtifactSpec("a", "1.0");
        ArtifactSpec b1 = a.addDependency("b", "1.0");
        ArtifactSpec c = a.addDependency("c", "1.0");
        ArtifactSpec d2 = b1.addDependency("d", "2.0");
        d2.addDependency("h", "1.0");
        ArtifactSpec d1 = c.addDependency("d", "1.0");

class CompositeBuildOperationsIntegrationTest extends AbstractCompositeBuildIntegrationTest {
    BuildTestFile buildB

    def setup() {
        buildB = multiProjectBuild("buildB", ['b1', 'b2']) {
            buildFile << """
                allprojects {
                    apply plugin: 'java'
                }
"""
        }
        includedBuilds << buildB
    }

        executed ":pluginDependencyA:jar"
    }

    def "can use an included build that provides both a buildscript dependency and a compile dependency"() {
        given:
        def buildB = multiProjectBuild("buildB", ['b1', 'b2']) {
            buildFile << """
                allprojects {
                    apply plugin: 'java'
                }
            """
        }
        includedBuilds << buildB

  lhs_shape.reserve(dnums.lhs_rhs_out.size() + dnums.lhs_out.size() + 1);
  rhs_shape.reserve(dnums.lhs_rhs_out.size() + 2);
  for (auto i : dnums.lhs_rhs_out) {
    const int64_t b1 = lhs_type.getShape()[std::get<0>(i)];
    lhs_shape.push_back(b1);
    const int64_t b2 = rhs_type.getShape()[std::get<1>(i)];
    rhs_shape.push_back(b2);

    lhs_reshape_segids.at(std::get<0>(i)) = num_lhs_reshape_segids++;