public final class Benchmarks extends Object
Machine: Processor family: Intel(R) Core(TM) i5 CPU M 430 @ 2.27GHz. -Xmx value : 3g. Max memory used: 1.2g. Java version: 1.7.0_03 HotSpot 64-bit server VM Benchmark results: Minimal second order : 2 s. Minimal fourth order : 2 s. Vector field : 19 s. Gravity ghosts : 19 s. Squared vector field : 313 s. Lambda gauge gravity : 612 s. Spin 3 ghosts : 920 s.
Machine: Processor family: AMD Phenom(tm) II X6 1100T Processor -Xmx value : 3g Max memory used: 1.2g Java version: 1.7.0_04 HotSpot 64-bit server VM Benchmark results: Minimal second order : 1 s. Minimal fourth order : 1 s. Vector field : 14 s. Gravity ghosts : 14 s. Squared vector field : 219 s. Lambda gauge gravity : 521 s. Spin 3 ghosts : 627 s.
| Modifier and Type | Method and Description |
|---|---|
static void |
burnJVM()
Warm up the JVM.
|
static void |
main(String[] args) |
static void |
testGravityGhosts()
This method calculates ghosts contribution to the one-loop counterterms
of the gravitational field in the non-minimal gauge.
|
static void |
testLambdaGaugeGravity()
This method calculates the main contribution to the one-loop counterterms
of the gravitational field in the non-minimal gauge.
|
static void |
testMinimalFourthOrderOperator()
This method calculates one-loop counterterms of the fourth order minimal
operator.
|
static void |
testMinimalSecondOrderOperator()
This method calculates one-loop counterterms of the second order minimal
operator.
|
static void |
testMinimalSecondOrderOperatorBarvinskyVilkovisky()
This method calculates one-loop counterterms of the second order minimal
operator in Barvinsky and Vilkovisky notation (Phys.
|
static void |
testNonMinimalGaugeGravity()
This method calculates the main contribution to the one-loop counterterms
of the gravitational field in general the non-minimal gauge.
|
static void |
testSpin3Ghosts()
This method calculates ghosts contribution to the one-loop counterterms
of the theory with spin = 3.
|
static void |
testSquaredVectorField()
This method calculates one-loop counterterms of the squared vector field
in the non-minimal gauge.
|
static void |
testVectorField()
This method calculates one-loop counterterms of the vector field in the
non-minimal gauge.
|
public static void main(String[] args)
public static void burnJVM()
public static void testVectorField()
public static void testSquaredVectorField()
public static void testGravityGhosts()
S_{gf} = -1/2 \int d^4 x \sqrt{-g} g_{\mu\nu} \chi^\mu \chi^\nu,
where
\chi^\mu = 1/\sqrt{1+\lambda} (g^{\mu\alpha} \nabla^\beta h_{\alpha\beta}-1/2 g^{\alpha\beta} \nabla^\mu h_{\alpha\beta})
public static void testLambdaGaugeGravity()
S_{gf} = -1/2 \int d^4 x \sqrt{-g} g_{\mu\nu} \chi^\mu \chi^\nu,
where
\chi^\mu = 1/\sqrt{1+\lambda} (g^{\mu\alpha} \nabla^\beta h_{\alpha\beta}-1/2 g^{\alpha\beta} \nabla^\mu h_{\alpha\beta})
public static void testMinimalSecondOrderOperator()
public static void testMinimalSecondOrderOperatorBarvinskyVilkovisky()
public static void testMinimalFourthOrderOperator()
public static void testSpin3Ghosts()
public static void testNonMinimalGaugeGravity()
S_{gf} = -1/2 \int d^4 x \sqrt{-g} g_{\mu\nu} \chi^\mu \chi^\nu,
where
\chi^\mu = 1/\sqrt{1+\lambda} (g^{\mu\alpha} \nabla^\beta h_{\alpha\beta}-(1+\beta)/2 g^{\alpha\beta} \nabla^\mu h_{\alpha\beta})
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