private void RunLoggerPerfTest(string testName, int n, int logCode, TimeSpan target, Logger logger)
{
var stopwatch = new Stopwatch();
stopwatch.Start();
for (int i = 0; i < n; i++)
{
logger.Warn(logCode, "msg " + i);
}
var elapsed = stopwatch.Elapsed;
string msg = testName + " : Elapsed time = " + elapsed;
// Wait until the BulkMessageInterval time interval expires before wring the final log message - should cause bulk message flush
while (stopwatch.Elapsed <= LogManager.BulkMessageInterval)
{
Thread.Sleep(10);
}
output.WriteLine(msg);
logger.Info(logCode, msg);
Assert.IsTrue(elapsed < target.Multiply(timingFactor), "{0}: Elapsed time {1} exceeds target time {2}", testName, elapsed, target);
}
public void PermutationOrder()
{
Random rng = new Random(37498327);
for (int i = 0; i < 16; i++)
{
int n = rng.Next(1, 16);
Permutation p = Permutation.GetRandomPermutation(n, rng);
int order = (int)p.Order;
Assert.IsTrue(order > 0);
Permutation q = p;
for (int j = 1; j < order; j++)
{
q *= p;
}
Assert.IsTrue(q.IsIdentity);
Console.WriteLine("{0} {1} {2}", p.ToString("M"), p.ToString("C"), order);
}
}
public void DistributionMomentTranslations()
{
int n = 4;
foreach (ContinuousDistribution distribution in distributions)
{
if (Double.IsNaN(distribution.Mean))
{
continue;
}
Console.Write(distribution.GetType().Name);
// Convert central moments to raw moments
double[] centralInputs = new double[n];
for (int k = 0; k < n; k++)
{
centralInputs[k] = distribution.CentralMoment(k);
}
double[] rawOutputs = MomentMath.CentralToRaw(distribution.Mean, centralInputs);
Assert.IsTrue(rawOutputs.Length == n);
for (int k = 0; k < n; k++)
{
Assert.IsTrue(TestUtilities.IsNearlyEqual(rawOutputs[k], distribution.RawMoment(k)));
}
// Convert cumulants to central moments
double[] cumulantInputs = new double[n];
for (int k = 0; k < n; k++)
{
cumulantInputs[k] = distribution.Cumulant(k);
}
double[] centralOutputs = MomentMath.CumulantToCentral(cumulantInputs);
Assert.IsTrue(centralOutputs.Length == n);
for (int k = 0; k < n; k++)
{
Assert.IsTrue(TestUtilities.IsNearlyEqual(centralOutputs[k], distribution.CentralMoment(k)));
}
}
}
public void SerializationOrder_VerifyThatExternalIsHigherPriorityThanAttributeDefined()
{
FakeSerializer1.SupportedTypes = FakeSerializer2.SupportedTypes = new[] { typeof(FakeTypeToSerialize) };
var serializationItem = new FakeTypeToSerialize {
SomeValue = 1
};
SerializationManager.RoundTripSerializationForTesting(serializationItem);
Assert.IsTrue(
FakeSerializer1.SerializeCalled,
"IExternalSerializer.Serialize should have been called on FakeSerializer1");
Assert.IsTrue(
FakeSerializer1.DeserializeCalled,
"IExternalSerializer.Deserialize should have been called on FakeSerializer1");
Assert.IsFalse(
FakeTypeToSerialize.SerializeWasCalled,
"Serialize on the type should NOT have been called");
Assert.IsFalse(
FakeTypeToSerialize.DeserializeWasCalled,
"Deserialize on the type should NOT have been called");
}
public void StudentFromNormal()
{
// make sure Student t is consistent with its definition
// we are going to take a sample that we expect to be t-distributed
Sample tSample = new Sample();
// begin with an underlying normal distribution
ContinuousDistribution xDistribution = new NormalDistribution();
// compute a bunch of t statistics from the distribution
Random rng = new Random(314159);
for (int i = 0; i < 10000; i++)
{
double p = xDistribution.GetRandomValue(rng);
double q = 0.0;
for (int j = 0; j < 5; j++)
{
double x = xDistribution.GetRandomValue(rng);
q += x * x;
}
q = q / 5;
double t = p / Math.Sqrt(q);
tSample.Add(t);
}
ContinuousDistribution tDistribution = new StudentDistribution(5);
TestResult tResult = tSample.KolmogorovSmirnovTest(tDistribution);
Assert.IsTrue(tResult.Probability > 0.05);
// Distribution should be demonstrably non-normal
ContinuousDistribution zDistribution = new NormalDistribution(tDistribution.Mean, tDistribution.StandardDeviation);
TestResult zResult = tSample.KolmogorovSmirnovTest(zDistribution);
Assert.IsTrue(zResult.Probability < 0.05);
}
private void ValidateBalance(List <int> buckets, List <int> resources, Dictionary <int, List <int> > balancerResults, int idealBalance)
{
var resultBuckets = new List <int>();
var resultResources = new List <int>();
foreach (KeyValuePair <int, List <int> > kvp in balancerResults)
{
Assert.IsFalse(resultBuckets.Contains(kvp.Key), "Duplicate bucket found.");
Assert.IsTrue(buckets.Contains(kvp.Key), "Unknown bucket found.");
resultBuckets.Add(kvp.Key);
kvp.Value.ForEach(resource =>
{
Assert.IsFalse(resultResources.Contains(resource), "Duplicate resource found.");
Assert.IsTrue(resources.Contains(resource), "Unknown resource found.");
resultResources.Add(resource);
});
Assert.IsTrue(idealBalance <= kvp.Value.Count, "Balance not ideal");
Assert.IsTrue(idealBalance + 1 >= kvp.Value.Count, "Balance not ideal");
}
Assert.AreEqual(buckets.Count, resultBuckets.Count, "bucket counts do not match");
Assert.AreEqual(resources.Count, resultResources.Count, "resource counts do not match");
}
public void MultivariateManipulations()
{
MultivariateSample S = new MultivariateSample(3);
Assert.IsTrue(S.Dimension == 3);
Assert.IsTrue(S.Count == 0);
S.Add(1.1, 1.2, 1.3);
S.Add(2.1, 2.2, 2.3);
Assert.IsTrue(S.Count == 2);
// check that an entry is there, remove it, check that it is not there
Assert.IsTrue(S.Contains(1.1, 1.2, 1.3));
Assert.IsTrue(S.Remove(1.1, 1.2, 1.3));
Assert.IsFalse(S.Contains(1.1, 1.2, 1.3));
// clear it and check that the count went to zero
S.Clear();
Assert.IsTrue(S.Count == 0);
}
public void TransformedBetaMoments()
{
// For x ~ B(a,b), kth cumulant of \ln\left(\frac{x}{1-x}\right) = \psi^{(k-1)}(a) \pm \psi^{(k-1)}(b)
BetaDistribution D = new BetaDistribution(2.0, 3.0);
double m = D.ExpectationValue(x => Math.Log(x / (1.0 - x)));
Assert.IsTrue(TestUtilities.IsNearlyEqual(m, AdvancedMath.Psi(D.Alpha) - AdvancedMath.Psi(D.Beta)));
double c2 = D.ExpectationValue(x => MoreMath.Pow(Math.Log(x / (1.0 - x)) - m, 2));
Assert.IsTrue(TestUtilities.IsNearlyEqual(c2, AdvancedMath.Psi(1, D.Alpha) + AdvancedMath.Psi(1, D.Beta)));
double c3 = D.ExpectationValue(x => MoreMath.Pow(Math.Log(x / (1.0 - x)) - m, 3));
Assert.IsTrue(TestUtilities.IsNearlyEqual(c3, AdvancedMath.Psi(2, D.Alpha) - AdvancedMath.Psi(2, D.Beta)));
double c4 = D.ExpectationValue(x => MoreMath.Pow(Math.Log(x / (1.0 - x)) - m, 4));
Assert.IsTrue(TestUtilities.IsNearlyEqual(c4 - 3.0 * c2 * c2, AdvancedMath.Psi(3, D.Alpha) + AdvancedMath.Psi(3, D.Beta)));
}
public void StopOrleans_OrleansNotRunning_NotRunningMessage()
{
// Shut down any instances of OrleansHost.
string processName = "OrleansHost";
StopProcesses(processName);
// Test script when Orleans Host is not running.
Collection <PSObject> results = RunPowerShellCommand(".\\StopOrleans.ps1");
// Check to see if Orleans Host is running.
Process[] orleansHostTestProcess = Process.GetProcessesByName("OrleansHost");
CheckResultsForErrors(results);
Assert.IsTrue(orleansHostTestProcess.Count() < 1, "OrleansHost is still running.");
// Check to see if the expected message or an error was returned.
KeyValuePair <string, string> notStartedSearchPair = new KeyValuePair <string, string>("\tOrleansHost is not running on deployment machine(s)", "The script did not report that the OrleansHost was not started.");
CheckResultsForStrings(results, true, notStartedSearchPair);
}
public void AddDossier_WithSavingMedecinAppelantFirst_ReturnTrue_Test()
{
var usersBll = new UsersBLL();
var firstUserId = usersBll.GetUsersList().FirstOrDefault();
var medecinAppelantDto = MedecinAppelantTestHelper.GetFakeMedecinAppelantDto();
var medecinAppelantBll = new MedecinAppelantBLL();
var addOrUpdateMedecinAppelantResult = medecinAppelantBll.AddOrUpdateMedecinAppelant(medecinAppelantDto);
Assert.IsTrue(addOrUpdateMedecinAppelantResult.Success);
var medecinAppelantDtoSaved = addOrUpdateMedecinAppelantResult.Result;
var newDossierDto = new DossierDto
{
IdUser = firstUserId.Id,
IdMedecinAppelant = medecinAppelantDtoSaved.Id,
MedecinAppelantDto = medecinAppelantDto
};
var dossierBll = new DossiersBLL();
var addOrUpdateDossierResult = dossierBll.AddOrUpdateDossier(newDossierDto);
Assert.IsTrue(addOrUpdateDossierResult.Success);
}
public async Task BadActivate_GetValue()
{
try
{
int id = random.Next();
IBadActivateDeactivateTestGrain grain = GrainClient.GrainFactory.GetGrain <IBadActivateDeactivateTestGrain>(id);
long key = await grain.GetKey();
Assert.Fail("Expected ThrowSomething call to fail as unable to Activate grain, but returned " + key);
}
catch (Exception exc)
{
Console.WriteLine("Received exception: " + exc);
Exception e = exc.GetBaseException();
Console.WriteLine("Nested exception type: " + e.GetType().FullName);
Console.WriteLine("Nested exception message: " + e.Message);
Assert.IsInstanceOfType(e, typeof(Exception), "Did not get expected exception type returned: " + e);
Assert.IsNotInstanceOfType(e, typeof(InvalidOperationException), "Did not get expected exception type returned: " + e);
Assert.IsTrue(e.Message.Contains("Application-OnActivateAsync"), "Did not get expected exception message returned: " + e.Message);
}
}
public void DiscreteDistributionProbabilityAxioms()
{
foreach (DiscreteDistribution distribution in distributions)
{
// some of these values will be outside the support, but that's fine, our results should still be consistent with probability axioms
foreach (int k in TestUtilities.GenerateUniformIntegerValues(-10, +100, 8))
{
Console.WriteLine("{0} {1}", distribution.GetType().Name, k);
double DP = distribution.ProbabilityMass(k);
Assert.IsTrue(DP >= 0.0); Assert.IsTrue(DP <= 1.0);
double P = distribution.LeftInclusiveProbability(k);
double Q = distribution.RightExclusiveProbability(k);
Console.WriteLine("{0} {1} {2}", P, Q, P + Q);
Assert.IsTrue(P >= 0.0); Assert.IsTrue(P <= 1.0);
Assert.IsTrue(Q >= 0.0); Assert.IsTrue(Q <= 1.0);
Assert.IsTrue(TestUtilities.IsNearlyEqual(P + Q, 1.0));
}
}
}
public void LogOn_Post_ReturnsRedirectOnSuccess_WithoutReturnUrl()
{
// Arrange
AccountController controller = GetAccountController();
LogOnModel model = new LogOnModel()
{
Email = "goodEmail",
Password = "******",
RememberMe = false
};
// Act
ActionResult result = controller.LogOn(model, null);
// Assert
Assert.IsInstanceOfType(result, typeof(RedirectToRouteResult));
RedirectToRouteResult redirectResult = (RedirectToRouteResult)result;
Assert.AreEqual("Home", redirectResult.RouteValues["controller"]);
Assert.AreEqual("Index", redirectResult.RouteValues["action"]);
Assert.IsTrue(((MockFormsAuthenticationService)controller.FormsService).SignIn_WasCalled);
}
public async Task GeneratorDerivedGrain2ControlFlow()
{
var grainName = typeof(GeneratorTestDerivedGrain2).FullName;
IGeneratorTestDerivedGrain2 grain = GrainClient.GrainFactory.GetGrain <IGeneratorTestDerivedGrain2>(GetRandomGrainId(), grainName);
bool boolPromise = await grain.StringIsNullOrEmpty();
Assert.IsTrue(boolPromise);
await grain.StringSet("Begin");
boolPromise = await grain.StringIsNullOrEmpty();
Assert.IsFalse(boolPromise);
MemberVariables members = await grain.GetMemberVariables();
Assert.AreEqual("Begin", members.stringVar);
ASCIIEncoding encoding = new ASCIIEncoding();
byte[] bytes = encoding.GetBytes("ByteBegin");
string str = "StringBegin";
MemberVariables memberVariables = new MemberVariables(bytes, str, ReturnCode.Fail);
await grain.SetMemberVariables(memberVariables);
members = await grain.GetMemberVariables();
ASCIIEncoding enc = new ASCIIEncoding();
Assert.AreEqual("ByteBegin", enc.GetString(members.byteArray));
Assert.AreEqual("StringBegin", members.stringVar);
Assert.AreEqual(ReturnCode.Fail, members.code);
string strPromise = await grain.StringConcat("Begin", "Cont", "End");
Assert.AreEqual("BeginContEnd", strPromise);
}
public void Sched_AC_RequestContext_StartNew_ContinueWith()
{
UnitTestSchedulingContext rootContext = new UnitTestSchedulingContext();
OrleansTaskScheduler scheduler = TestInternalHelper.InitializeSchedulerForTesting(rootContext);
const string key = "A";
int val = TestConstants.random.Next();
RequestContext.Set(key, val);
output.WriteLine("Initial - SynchronizationContext.Current={0} TaskScheduler.Current={1}",
SynchronizationContext.Current, TaskScheduler.Current);
Assert.AreEqual(val, RequestContext.Get(key), "RequestContext.Get Initial");
Task t0 = Task.Factory.StartNew(() =>
{
output.WriteLine("#0 - new Task - SynchronizationContext.Current={0} TaskScheduler.Current={1}",
SynchronizationContext.Current, TaskScheduler.Current);
Assert.AreEqual(val, RequestContext.Get(key), "RequestContext.Get #0");
Task t1 = Task.Factory.StartNew(() =>
{
output.WriteLine("#1 - new Task - SynchronizationContext.Current={0} TaskScheduler.Current={1}",
SynchronizationContext.Current, TaskScheduler.Current);
Assert.AreEqual(val, RequestContext.Get(key), "RequestContext.Get #1");
});
Task t2 = t1.ContinueWith((_) =>
{
output.WriteLine("#2 - new Task - SynchronizationContext.Current={0} TaskScheduler.Current={1}",
SynchronizationContext.Current, TaskScheduler.Current);
Assert.AreEqual(val, RequestContext.Get(key), "RequestContext.Get #2");
});
t2.Wait(TimeSpan.FromSeconds(5));
});
t0.Wait(TimeSpan.FromSeconds(10));
Assert.IsTrue(t0.IsCompleted, "Task #0 FAULTED=" + t0.Exception);
}
public void TwoSampleKolmogorovNullDistributionTest()
{
Random rng = new Random(4);
ContinuousDistribution population = new ExponentialDistribution();
int[] sizes = new int[] { 23, 30, 175 };
foreach (int na in sizes)
{
foreach (int nb in sizes)
{
Sample d = new Sample();
ContinuousDistribution nullDistribution = null;
for (int i = 0; i < 128; i++)
{
List <double> a = TestUtilities.CreateDataSample(rng, population, na).ToList();
List <double> b = TestUtilities.CreateDataSample(rng, population, nb).ToList();
TestResult r = Univariate.KolmogorovSmirnovTest(a, b);
d.Add(r.Statistic.Value);
nullDistribution = r.Statistic.Distribution;
}
// Only do full KS test if the number of bins is larger than the sample size, otherwise we are going to fail
// because the KS test detects the granularity of the distribution.
TestResult mr = d.KolmogorovSmirnovTest(nullDistribution);
if (AdvancedIntegerMath.LCM(na, nb) > d.Count)
{
Assert.IsTrue(mr.Probability > 0.01);
}
// But always test that mean and standard deviation are as expected
Assert.IsTrue(d.PopulationMean.ConfidenceInterval(0.99).ClosedContains(nullDistribution.Mean));
Assert.IsTrue(d.PopulationStandardDeviation.ConfidenceInterval(0.99).ClosedContains(nullDistribution.StandardDeviation));
// This test is actually a bit sensitive, probably because the discrete-ness of the underlying distribution
// and the inaccuracy of the asymptotic approximation for intermediate sample size make strict comparisons iffy.
}
}
}
public void KuiperNullDistributionTest()
{
// The distribution is irrelevent; pick one at random
ContinuousDistribution sampleDistribution = new NormalDistribution();
// Loop over various sample sizes
foreach (int n in TestUtilities.GenerateIntegerValues(2, 128, 8))
{
// Create a sample to hold the KS statistics
Sample testStatistics = new Sample();
// and a variable to hold the claimed null distribution, which should be the same for each test
ContinuousDistribution nullDistribution = null;
// Create a bunch of samples, each with n+1 data points
// We pick n+1 instead of n just to have different sample size values than in the KS test case
for (int i = 0; i < 256; i++)
{
// Just use n+i as a seed in order to get different points each time
Sample sample = TestUtilities.CreateSample(sampleDistribution, n + 1, 512 * n + i + 2);
// Do a Kuiper test of the sample against the distribution each time
TestResult r1 = sample.KuiperTest(sampleDistribution);
// Record the test statistic value and the claimed null distribution
testStatistics.Add(r1.Statistic.Value);
nullDistribution = r1.Statistic.Distribution;
}
// Do a KS test of our sample of Kuiper statistics against the claimed null distribution
// We could use a Kuiper test here instead, which would be way cool and meta, but we picked KS instead for variety
TestResult r2 = testStatistics.KolmogorovSmirnovTest(nullDistribution);
Assert.IsTrue(r2.Probability > 0.01);
// Test moment matches, too
Assert.IsTrue(testStatistics.PopulationMean.ConfidenceInterval(0.99).ClosedContains(nullDistribution.Mean));
Assert.IsTrue(testStatistics.PopulationVariance.ConfidenceInterval(0.99).ClosedContains(nullDistribution.Variance));
}
}
public void OrleansHostParseDeploymentGroupArgFormats()
{
var expectedDeploymentId = Guid.NewGuid().ToString("N");
WindowsServerHost prog = new WindowsServerHost();
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString("D");
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString("B");
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString("P");
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString("X");
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString("");
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
prog = new WindowsServerHost();
expectedDeploymentId = Guid.NewGuid().ToString();
Assert.IsTrue(prog.ParseArguments(new string[] { "DeploymentId=" + expectedDeploymentId }));
Assert.AreEqual(expectedDeploymentId, prog.SiloHost.DeploymentId);
}
public void OdeOrbitFigureEight()
{
Func <double, IReadOnlyList <double>, IReadOnlyList <double> > rhs = (double t, IReadOnlyList <double> q) => {
double x01 = q[0] - q[2];
double y01 = q[1] - q[3];
double x02 = q[0] - q[4];
double y02 = q[1] - q[5];
double x12 = q[2] - q[4];
double y12 = q[3] - q[5];
double r01 = MoreMath.Pow(MoreMath.Hypot(x01, y01), 3);
double r02 = MoreMath.Pow(MoreMath.Hypot(x02, y02), 3);
double r12 = MoreMath.Pow(MoreMath.Hypot(x12, y12), 3);
return(new double[] {
-x01 / r01 - x02 / r02,
-y01 / r01 - y02 / r02,
+x01 / r01 - x12 / r12,
+y01 / r01 - y12 / r12,
+x02 / r02 + x12 / r12,
+y02 / r02 + y12 / r12
});
};
double[] q1 = new double[] { 0.97000435669734, -0.24308753153583 };
double[] p3 = new double[] { -0.93240737144104, -0.86473146092102 };
ColumnVector q0 = new ColumnVector(q1[0], q1[1], -q1[0], -q1[1], 0.0, 0.0);
ColumnVector p0 = new ColumnVector(-p3[0] / 2.0, -p3[1] / 2.0, -p3[0] / 2.0, -p3[1] / 2.0, p3[0], p3[1]);
double T = 6.32591398292621;
MultiOdeResult result = MultiFunctionMath.IntegrateConservativeOde(rhs, 0.0, q0, p0, T);
Assert.IsTrue(TestUtilities.IsNearlyEqual(q0, result.Y, 1.0E-10));
}
public async Task ActivationSched_ContinueWith_1_Test()
{
TaskScheduler scheduler = masterScheduler.GetWorkItemGroup(context).TaskRunner;
var result = new TaskCompletionSource <bool>();
int n = 0;
Task wrapper = new Task(() =>
{
// ReSharper disable AccessToModifiedClosure
Task task1 = Task.Factory.StartNew(() => { output.WriteLine("===> 1a"); Thread.Sleep(1000); n = n + 3; output.WriteLine("===> 1b"); });
Task task2 = task1.ContinueWith(task => { n = n * 5; output.WriteLine("===> 2"); });
Task task3 = task2.ContinueWith(task => { n = n / 5; output.WriteLine("===> 3"); });
Task task4 = task3.ContinueWith(task => { n = n - 2; output.WriteLine("===> 4"); result.SetResult(true); });
// ReSharper restore AccessToModifiedClosure
task4.ContinueWith(task =>
{
output.WriteLine("Done Faulted={0}", task.IsFaulted);
Assert.IsFalse(task.IsFaulted, "Faulted with Exception=" + task.Exception);
});
});
wrapper.Start(scheduler);
var timeoutLimit = TimeSpan.FromSeconds(2);
try
{
await result.Task.WithTimeout(timeoutLimit);
}
catch (TimeoutException)
{
Assert.Fail("Result did not arrive before timeout " + timeoutLimit);
}
Assert.IsTrue(n != 0, "Work items did not get executed");
Assert.AreEqual(1, n, "Work items executed out of order");
}
public void GoThroughAllPagesAsAdmin()
{
try
{
this.GoToAdminHomePage();
WebDriverWait wait = new WebDriverWait(this.Driver, ConfigHelper.GetTimeout());
this.Driver.TryFind(By.Id(Strings.Id.ToolkitManagementLink)).ClickWrapper(this.Driver);
wait.Until(ExpectedConditions.ElementIsVisible(By.Id(@Strings.Id.ToolkitManagementForm)));
this.Driver.TryFind(By.Id(Strings.Id.PortalAdminDashboardLink)).ClickWrapper(this.Driver);
wait.Until(ExpectedConditions.ElementIsVisible(By.Id(@Strings.Id.PortalSummary)));
this.Driver.TryFind(By.Id(Strings.Id.PortalUsersLink)).ClickWrapper(this.Driver);
wait.Until(ExpectedConditions.ElementIsVisible(By.Id(@Strings.Id.PortalUsersTable)));
this.Driver.TryFind(By.Id(Strings.Id.DeveloperDashboardLink)).ClickWrapper(this.Driver);
wait.Until(ExpectedConditions.ElementIsVisible(By.Id(@Strings.Id.DeveloperDashboard)));
//this.Driver.TryFind(By.Id(Strings.Id.TeamManagementLink)).ClickWrapper(this.Driver);
//wait.Until(ExpectedConditions.ElementIsVisible(By.Id(Strings.Id.TeamMembersList)));
this.Driver.TryFind(By.Id(Strings.Id.RegisterApplicationLink)).ClickWrapper(this.Driver);
wait.Until(ExpectedConditions.ElementIsVisible(By.Id(@Strings.Id.RegisterApplicationForm)));
this.ValidateAppPages(Apps.Names.AutomaticTestsClient, wait);
//api should be last
this.Driver.TryFind(By.Id(Strings.Id.ApiDocsLink)).ClickWrapper(this.Driver);
var apiInfo = wait.Until(ExpectedConditions.ElementIsVisible(By.Id("api_info")));
Assert.IsTrue(apiInfo.Text.Contains("Telimena API"), "apiInfo.Text.Contains('Telimena API')");
}
catch (Exception ex)
{
this.HandleError(ex, MethodBase.GetCurrentMethod().Name);
}
}
public void VerifySubjectIsPassedToEmailServiceSend()
{
//Arrange
var customer = new Customer();
var customerList = new List <Customer> {
customer
}.AsQueryable();
customerServiceMock.Setup(m => m.FindAll()).Returns(customerList);
string subject = string.Empty;
emailServiceMock.Setup(
m => m.Send(It.IsAny <string>(), It.IsAny <string>(), It.IsAny <string>()))
.Callback <string, string, string>((s1, s2, s3) => subject = s2);
//Act
sendJobOffersService.SendJobOffers();
//Assert
Assert.IsTrue(subject.Equals("Ofertas de Trabajo"));
}
public void EchoGrain_EchoError()
{
grain = GrainClient.GrainFactory.GetGrain <IEchoTaskGrain>(Guid.NewGuid());
Task <string> promise = grain.EchoErrorAsync(expectedEchoError);
bool ok = promise.ContinueWith(t =>
{
if (!t.IsFaulted)
{
Assert.Fail("EchoError should not have completed successfully");
}
Exception exc = t.Exception;
while (exc is AggregateException)
{
exc = exc.InnerException;
}
string received = exc.Message;
Assert.AreEqual(expectedEchoError, received);
}).Wait(timeout);
Assert.IsTrue(ok, "Finished OK");
}
public async Task LocallyPlacedGrainShouldCreateActivationsOnLocalSilo()
{
await this.HostedCluster.WaitForLivenessToStabilizeAsync();
logger.Info("********************** Starting the test LocallyPlacedGrainShouldCreateActivationsOnLocalSilo ******************************");
TestSilosStarted(2);
const int sampleSize = 5;
var placement = new StatelessWorkerPlacement(sampleSize);
var proxy = GrainClient.GrainFactory.GetGrain <IRandomPlacementTestGrain>(Guid.NewGuid());
await proxy.StartLocalGrains(new List <Guid> {
Guid.Empty
});
var expected = await proxy.GetEndpoint();
// locally placed grains are multi-activation and stateless. this means that we have to sample the value of
// the result, rather than simply ask for it once in order to get a consensus of the result.
var actual = await proxy.SampleLocalGrainEndpoint(Guid.Empty, sampleSize);
Assert.IsTrue(actual.All(expected.Equals),
"A grain instantiated with the local placement strategy should create activations on the local silo.");
}
public async Task RandomlyPlacedGrainShouldPlaceActivationsRandomly()
{
await this.HostedCluster.WaitForLivenessToStabilizeAsync();
logger.Info("********************** Starting the test RandomlyPlacedGrainShouldPlaceActivationsRandomly ******************************");
TestSilosStarted(2);
logger.Info("********************** TestSilosStarted passed OK. ******************************");
var placement = RandomPlacement.Singleton;
var grains =
Enumerable.Range(0, 20).
Select(
n =>
GrainClient.GrainFactory.GetGrain <IRandomPlacementTestGrain>(Guid.NewGuid()));
var places = grains.Select(g => g.GetRuntimeInstanceId().Result);
var placesAsArray = places as string[] ?? places.ToArray();
// consider: it seems like we should check that we get close to a 50/50 split for placement.
var groups = placesAsArray.GroupBy(s => s);
Assert.IsTrue(groups.Count() > 1,
"Grains should be on different silos, but they are on " + Utils.EnumerableToString(placesAsArray.ToArray())); // will randomly fail one in a million times if RNG is good :-)
}
public void ActivationSched_SimpleFifoTest()
{
// This is not a great test because there's a 50/50 shot that it will work even if the scheduling
// is completely and thoroughly broken and both closures are executed "simultaneously"
TaskScheduler scheduler = masterScheduler.GetWorkItemGroup(context).TaskRunner;
int n = 0;
// ReSharper disable AccessToModifiedClosure
Task task1 = new Task(() => { Thread.Sleep(1000); n = n + 5; });
Task task2 = new Task(() => { n = n * 3; });
// ReSharper restore AccessToModifiedClosure
task1.Start(scheduler);
task2.Start(scheduler);
// Pause to let things run
Thread.Sleep(1500);
// N should be 15, because the two tasks should execute in order
Assert.IsTrue(n != 0, "Work items did not get executed");
Assert.AreEqual(15, n, "Work items executed out of order");
}
public async Task ObserverTest_SubscribeUnsubscribe()
{
TestInitialize();
var result = new AsyncResultHandle();
ISimpleObserverableGrain grain = GetGrain();
observer1 = new SimpleGrainObserver(ObserverTest_SubscribeUnsubscribe_Callback, result);
ISimpleGrainObserver reference = await GrainFactory.CreateObjectReference <ISimpleGrainObserver>(observer1);
await grain.Subscribe(reference);
await grain.SetA(5);
Assert.IsTrue(await result.WaitForContinue(timeout), "Should not timeout waiting {0} for {1}", timeout, "SetA");
await grain.Unsubscribe(reference);
await grain.SetB(3);
Assert.IsFalse(await result.WaitForFinished(timeout), "Should timeout waiting {0} for {1}", timeout, "SetB");
await GrainFactory.DeleteObjectReference <ISimpleGrainObserver>(reference);
}
public async Task Test_AppUsageTable()
{
string viewName = nameof(this.Test_AppUsageTable);
FileInfo app = this.LaunchTestsAppNewInstanceAndGetResult(out _, out TelemetryItem first, Actions.ReportViewUsage, Apps.Keys.AutomaticTestsClient, Apps.PackageNames.AutomaticTestsClientAppV1, nameof(this.Test_AppUsageTable)
, viewName: viewName);
Task.Delay(1000).GetAwaiter().GetResult();
DateTime previous = await this.GetLatestUsageFromTable().ConfigureAwait(false);
Task.Delay(1500).GetAwaiter().GetResult();
var second = this.LaunchTestsAppAndGetResult <TelemetryItem>(app, Actions.ReportViewUsage, Apps.Keys.AutomaticTestsClient, viewName: viewName);
DateTime current = await this.GetLatestUsageFromTable().ConfigureAwait(false);
if (current == previous)
{
await Task.Delay(2000);
}
current = await this.GetLatestUsageFromTable().ConfigureAwait(false);
Assert.IsTrue(current > previous, $"current {current} is not larger than previous {previous}");
}
public void CollectionEditItemTest()
{
var col = new EmployeeCollection();
for (var i = 1; i <= 5; i++)
{
var emp = CreateEmployee();
emp.StartTrackingChanges();
col.Attach(emp);
}
col.StartTrackingChanges();
var p = col.Items.First();
p.FirstName = "ChangedName";
Debug.WriteLine($"Emp No. => {p.EmployeeNumber}");
Assert.IsTrue(col.IsDirty, "Collection Must Be Dirty");
Assert.IsTrue(p.IsDirty, "Item Must be dirty");
Assert.AreEqual(EntityObjectState.Modified, p.StateStatus, "StateStatus NOT Same");
}
public void IsNoneTest()
{
Assert.IsTrue(TextUtils.IsNone(null));
Assert.IsTrue(TextUtils.IsNone(""));
Assert.IsTrue(TextUtils.IsNone(" "));
Assert.IsTrue(TextUtils.IsNone("none"));
Assert.IsTrue(TextUtils.IsNone("nOnE"));
Assert.IsTrue(TextUtils.IsNone(" n O n E "));
Assert.IsTrue(TextUtils.IsNone("None"));
Assert.IsTrue(TextUtils.IsNone("NONE"));
Assert.IsTrue(TextUtils.IsNone(" N ONE "));
Assert.IsTrue(TextUtils.IsNone(TextUtils.None));
Assert.IsFalse(TextUtils.IsNone(" N e SSu nO "));
Assert.IsFalse(TextUtils.IsNone("Nessuno"));
Assert.IsFalse(TextUtils.IsNone("nessuno"));
Assert.IsFalse(TextUtils.IsNone("NotNone"));
TextUtils.None = "Nessuno";
Assert.IsTrue(TextUtils.IsNone(" N e SSu nO "));
Assert.IsTrue(TextUtils.IsNone(TextUtils.None));
Assert.IsFalse(TextUtils.IsNone("NotNone"));
}
