*
 * Some common use cases that causes these kinds of changes are functional testing and benchmarking, were the test runs a build, modifies some file and then runs the build again.
 *

// but not the "normal" (occasionally grow) path,
// because it is a blend of the other two.
// We use small numbers and small sizes in an attempt
// to avoid benchmarking memory allocation and copying.
// We use scalars instead of pointers in an attempt
// to avoid benchmarking the write barriers.
// We benchmark four common sizes (byte, pointer, string/interface, slice),
// and one larger size.
func BenchmarkAppendInPlace(b *testing.B) {

  }
}

// Runs a BEF function that batches a function that does nothing just to measure
// the runtime overhead. The BEF function signature is adapted from a real model
// and is useful for benchmarking ops with large attributes and many
// input/output.
void BM_BatchFunctionFallbackWithLargeAttributesAndManyInputsOutputs(
    benchmark::State& state) {
  auto corert = CreateTestCoreRuntime();

      safeMax = Character.MIN_VALUE;
      safeMin = Character.MAX_VALUE;
    }
    this.safeMin = safeMin;
    this.safeMax = safeMax;
  }

  /*
   * This is overridden to improve performance. Rough benchmarking shows that this almost doubles
   * the speed when processing strings that do not require any escaping.
   */
  @Override
  public final String escape(String s) {

	memprofilerate    = flag.Int64("memprofilerate", 0, "set runtime.MemProfileRate to `rate`")
	benchmarkFlag     = flag.String("benchmark", "", "set to 'mem' or 'cpu' to enable phase benchmarking")
	benchmarkFileFlag = flag.String("benchmarkprofile", "", "emit phase profiles to `base`_phase.{cpu,mem}prof")

	flagW ternaryFlag
	FlagW = new(bool) // the -w flag, computed in main from flagW
)

      safeMax = Character.MIN_VALUE;
      safeMin = Character.MAX_VALUE;
    }
    this.safeMin = safeMin;
    this.safeMax = safeMax;
  }

  /*
   * This is overridden to improve performance. Rough benchmarking shows that this almost doubles
   * the speed when processing strings that do not require any escaping.
   */
  @Override
  public final String escape(String s) {

      this.safeMinChar = (char) safeMin;
      this.safeMaxChar = (char) Math.min(safeMax, Character.MIN_HIGH_SURROGATE - 1);
    }
  }

  /*
   * This is overridden to improve performance. Rough benchmarking shows that this almost doubles
   * the speed when processing strings that do not require any escaping.
   */
  @Override
  public final String escape(String s) {

	// total number of parts.
	xlMeta.Parts = make([]ObjectPartInfo, totalParts)
	for i := 0; i < totalParts; i++ {
		// hard coding hash and algo value for the checksum, Since we are benchmarking the parsing of xl.meta the magnitude doesn't affect the test,
		// The magnitude doesn't make a difference, only the size does.

		t.Errorf("Expected user1-different")
	}
}

var bKey string

// use a realistic token for benchmarking

      this.safeMinChar = (char) safeMin;
      this.safeMaxChar = (char) Math.min(safeMax, Character.MIN_HIGH_SURROGATE - 1);
    }
  }

  /*
   * This is overridden to improve performance. Rough benchmarking shows that this almost doubles
   * the speed when processing strings that do not require any escaping.
   */
  @Override
  public final String escape(String s) {