n += 7
		case SI7:
			n += 8
		}
	}
	sink = n
}

// A simple random number generator used to make switches conditionally predictable.
type rng uint64

func newRNG() rng {
	return 1
}
func (r rng) next(predictable bool) rng {
	if predictable {
		return r + 1
	}
	return rng(bits.RotateLeft64(uint64(r), 13) * 0x3c374d)
}
func (r rng) value() uint64 {
	return uint64(r)

# Treat all files in the repo as binary, with no git magic updating
# line endings. This produces predictable results in different environments.
#
# Windows users contributing to Go will need to use a modern version
# of git and editors capable of LF line endings.
#
# Windows .bat files are known to have multiple bugs when run with LF
# endings. So if they are checked in with CRLF endings, there should
# be a test like the one in test/winbatch.go in the go repository.

 */

package com.google.common.collect;

import com.google.common.annotations.GwtCompatible;
import org.checkerframework.checker.nullness.qual.Nullable;

/**
 * A {@code Multiset} implementation with predictable iteration order. Its iterator orders elements
 * according to when the first occurrence of the element was added. When the multiset contains

        // the duration passed on call sited is often a result of some math, what is not guarantees positive-values-only.
        // So let's make an output more predictable in accidental negative-values scenarios.
        if (duration < 0) {
            result.append("-");
            result.append(formatDurationVeryTerse(-duration));
            return result.toString();
        }

import java.io.ObjectInputStream;
import java.io.ObjectOutputStream;
import java.util.LinkedHashMap;
import org.checkerframework.checker.nullness.qual.Nullable;

/**
 * A {@code Multiset} implementation with predictable iteration order. Its iterator orders elements
 * according to when the first occurrence of the element was added. When the multiset contains

    this.numElements = numElements;
  }

  CollectionSize(Feature<? super Collection>... implied) {
    // Keep the order here, so that PerCollectionSizeTestSuiteBuilder
    // gives a predictable order of test suites.
    this.implied = Helpers.copyToSet(implied);
    this.numElements = null;
  }

  @Override
  public Set<Feature<? super Collection>> getImpliedFeatures() {
    return implied;
  }

    this.numElements = numElements;
  }

  CollectionSize(Feature<? super Collection>... implied) {
    // Keep the order here, so that PerCollectionSizeTestSuiteBuilder
    // gives a predictable order of test suites.
    this.implied = Helpers.copyToSet(implied);
    this.numElements = null;
  }

  @Override
  public Set<Feature<? super Collection>> getImpliedFeatures() {
    return implied;
  }

        ManyConstructors(int p0) {}
    }

    def "order of constructors is based on number of parameters"() {
        // We rely on processing the constructors in a predictable order (fewest parameters -> most)
        def constructors = generator.generate(ManyConstructors).getConstructors()
        expect:
        int count = 0
        constructors.each { constructor ->

//	Here is the complete description...
//
// This notation allows a single doc comment to provide documentation
// for multiple analyzers, each in its own section.
// The HTML anchors generated for each heading are predictable.
//
// It returns an error if the content was not a valid Go source file
// containing a package doc comment with a heading of the required
// form.
//
// This machinery enables the package documentation (typically

            return Cast.uncheckedCast(constructors.get(0));
        }

        ClassGenerator.GeneratedConstructor<?> match = null;
        // NOTE: this relies on the constructors being in a predictable order
        // sorted by the number of parameters the constructor requires
        for (ClassGenerator.GeneratedConstructor<?> constructor : constructors) {
            Class<?>[] parameterTypes = constructor.getParameterTypes();