public override void OnePointCrossover(MOOSolution rhs)
{
if (mData.Count == 1)
{
return;
}
int cut_point = 1;
if (mData.Count > 2)
{
cut_point = DistributionModel.NextInt(mData.Count);
}
ContinuousVector rhs_vector = (ContinuousVector)rhs;
double temp = 0;
for (int dimension = 0; dimension != cut_point; ++dimension)
{
temp = this[dimension];
this[dimension] = rhs_vector[dimension];
rhs_vector[dimension] = temp;
}
}
public IActionResult Distribution()
{
int DISnum = _dbContext.FinalDistribution.Count();
if (DISnum != 0)
{
return(RedirectToAction("FinalDistribution"));
}
DistributionModel distribution = new DistributionModel();
distribution.StudentNum = _dbContext.InfoTable.Where(i => i.RoleId == 2).Count();
distribution.StudentRegistered = _dbContext.StuSelection.Count();
var Department = _dbContext.Department.Select(s => new { s.Dname }).ToList();
int num = distribution.StudentNum / Department.Count();
for (int i = 0; i < Department.Count(); i++)
{
if (i != Department.Count() - 1)
{
distribution.Department.Add(new DepartmentSuggest {
Name = Department[i].Dname, number = num
});
}
else
{
int fullnum = distribution.StudentNum - (num * (Department.Count() - 1));
distribution.Department.Add(new DepartmentSuggest {
Name = Department[i].Dname, number = fullnum
});
}
}
return(View(distribution));
}
/// <summary>
/// 获取一条配送数据
/// </summary>
/// <returns></returns>
public DistributionModel GetOneDistribution(int pid)
{
if (con.State == System.Data.ConnectionState.Closed)//判断打开
{
con.Open();
}
SqlCommand cmd = new SqlCommand();
cmd.Connection = con;
cmd.CommandText = $"select * from Distribution where DistributionId=" + pid;//语句
var read = cmd.ExecuteReader();
DistributionModel u = new DistributionModel();
while (read.Read())//循环
{
u.ShippingOrder = read["ShippingOrder"].ToString();
u.StaffId = Convert.ToInt32(read["StaffId"]);
u.WareHouseId = Convert.ToInt32(read["WareHouseId"]);
u.PickTime = Convert.ToDateTime(read["PickTime"]);
u.SendTime = Convert.ToDateTime(read["SendTime"]);
u.SendType = read["SendType"].ToString();
}
read.Read();
con.Close();
return(u);
}
public TGPOperator FindRandomOperator(int parameter_count, TGPOperator current_operator = null)
{
TGPOperator selected_op = null;
for (int attempts = 0; attempts < 10; attempts++)
{
double r = mWeightSum * DistributionModel.GetUniform();
double current_sum = 0;
foreach (KeyValuePair <TGPOperator, double> point in mOperators)
{
if (selected_op == null && point.Key.Arity == parameter_count && point.Key != current_operator)
{
selected_op = point.Key;
}
current_sum += point.Value;
if (current_sum >= r)
{
if (point.Key != current_operator && point.Key.Arity == parameter_count)
{
return(point.Key);
}
else
{
break;
}
}
}
}
return(selected_op);
}
public IHttpActionResult AgeDistr()
{
var fetchDate = this.GetEndDate(DataType.AGE);
var manager = this.GetCAmanager();
var data = manager.GetAgeData(fetchDate);
var model = new DistributionListModel();
if (data != null)
{
foreach (var item in data)
{
var media = new DistributionModel {
Name = item.Name
};
var sum = item.Details.Where(i => i.Name != "NULL").Sum(i => i.Value);
foreach (var detail in item.Details)
{
if (detail.Name != "NULL")
{
var result = detail.Value * 100 / (double)sum;
media.Values[detail.Name] = (int)(result + 1);
}
}
model.Distributions.Add(media);
}
}
return(this.Ok(model));
}
public override void Initialize(LGPPop pop)
{
// CSChen says:
// specified here is a variable length initialization that selects initial program
// lengths from a uniform distribution within a specified range of m_iInitialMinProgLength - m_iIinitialMaxProgLength
// the method is recorded in chapter 7 section 7.6 page 164 of Linear Genetic Programming 2004
int iPopulationSize = pop.PopulationSize;
// CSChen says:
// the program generated in this way will have program length as small as
// iMinProgLength and as large as iMaxProgLength
// the program length is distributed uniformly between iMinProgLength and iMaxProgLength
for (int i = 0; i < iPopulationSize; i++)
{
int iProgLength = m_iInitialMinProgLength + DistributionModel.NextInt(m_iInitialMaxProgLength - m_iInitialMinProgLength + 1);
//Console.WriteLine("Prog Length: {0}", iProgLength);
LGPProgram lgp = pop.CreateProgram(iProgLength, pop.Environment);
pop.AddProgram(lgp);
//Console.WriteLine("Min Length: {0}", m_iInitialMinProgLength);
//Console.WriteLine("LGP: {0}", lgp.InstructionCount);
if (lgp.InstructionCount < m_iInitialMinProgLength)
{
throw new ArgumentNullException();
}
if (lgp.InstructionCount > m_iInitialMaxProgLength)
{
throw new ArgumentNullException();
}
}
}
public IHttpActionResult RegionDistr()
{
var fetchDate = this.GetEndDate(DataType.LOCATION);
var manager = this.GetCAmanager();
var events = manager.GetLocationDistr(fetchDate);
var model = new DistributionListModel();
if (events != null)
{
foreach (var item in events)
{
var media = new DistributionModel {
Name = item.Name
};
foreach (var detail in item.Details)
{
media.Values[detail.Name] = detail.VisitCount;
}
model.Distributions.Add(media);
}
}
return(this.Ok(model));
}
public IHttpActionResult SentiDistr()
{
var fetchDate = this.GetEndDate(DataType.SENTIMENTS);
var manager = this.GetCAmanager();
var events = manager.GetSentimentsData(fetchDate);
var model = new DistributionListModel();
if (events != null)
{
foreach (var item in events)
{
var media = new DistributionModel {
Name = item.Name
};
foreach (var detail in item.Details)
{
media.Values[detail.Date] = detail.Value;
}
model.Distributions.Add(media);
}
}
return(this.Ok(model));
}
public HiddenMarkovModel(int state_count, DistributionModel emissions)
{
mStateCount = state_count;
mLogTransitionMatrix = new double[mStateCount, mStateCount];
mLogProbabilityVector = new double[mStateCount];
mLogProbabilityVector[0] = 1.0;
for (int i = 0; i < mStateCount; ++i)
{
mLogProbabilityVector[i] = System.Math.Log(mLogProbabilityVector[i]);
for (int j = 0; j < mStateCount; ++j)
{
mLogTransitionMatrix[i, j] = System.Math.Log(1.0 / mStateCount);
}
}
mEmissionModels = new DistributionModel[mStateCount];
for (int i = 0; i < mStateCount; ++i)
{
mEmissionModels[i] = emissions.Clone();
}
if (emissions is MultivariateDistributionModel)
{
mMultivariate = true;
mDimension = ((MultivariateDistributionModel)mEmissionModels[0]).Dimension;
}
}
public TGPOperator FindRandomOperator(TGPOperator current_operator = null)
{
for (int attempts = 0; attempts < 10; attempts++)
{
double r = mWeightSum * DistributionModel.GetUniform();
double current_sum = 0;
foreach (KeyValuePair <TGPOperator, double> point in mOperators)
{
current_sum += point.Value;
if (current_sum >= r)
{
if (point.Key != current_operator)
{
return(point.Key);
}
else
{
break;
}
}
}
}
return(current_operator);
}
/// <summary>
/// Population Initialization method following the "PTC1" method described in "Sean Luke. Two fast tree-creation algorithms for genetic programming. IEEE Transactions in Evolutionary Computation, 4(3), 2000b."
/// </summary>
/// <param name="parent_node">The node for which the child nodes are generated in this method</param>
/// <param name="p">expected probability</param>
/// <param name="allowableDepth">The maximum tree depth</param>
private void PTC1(TGPNode parent_node, double p, int allowableDepth)
{
int child_count = parent_node.Arity;
for (int i = 0; i != child_count; i++)
{
TGPPrimitive data = null;
if (allowableDepth == 0)
{
data = FindRandomTerminal();
}
else if (DistributionModel.GetUniform() <= p)
{
data = mOperatorSet.FindRandomOperator();
}
else
{
data = FindRandomTerminal();
}
TGPNode child = parent_node.CreateChild(data);
if (!data.IsTerminal)
{
PTC1(child, p, allowableDepth - 1);
}
}
}
/// <summary>
/// Method that creates a GP tree with a maximum tree depth
/// </summary>
/// <param name="allowableDepth">The maximum tree depth</param>
/// <param name="method">The name of the method used to create the GP tree</param>
/// <param name="tag">The additional information used to create the GP tree if any</param>
public void CreateWithDepth(int allowableDepth, string method, object tag = null)
{
// Population Initialization method following the "RandomBranch" method described in "Kumar Chellapilla. Evolving computer programs without subtree crossover. IEEE Transactions on Evolutionary Computation, 1(3):209–216, September 1997."
if (method == INITIALIZATION_METHOD_RANDOMBRANCH)
{
int s = allowableDepth; //tree size
TGPOperator non_terminal = FindRandomOperatorWithArityLessThan(s);
if (non_terminal == null)
{
mRootNode = new TGPNode(FindRandomTerminal());
}
else
{
mRootNode = new TGPNode(non_terminal);
int b_n = non_terminal.Arity;
s = (int)System.Math.Floor((double)s / b_n);
RandomBranch(mRootNode, s);
}
CalcLength();
CalcDepth();
}
// Population Initialization method following the "PTC1" method described in "Sean Luke. Two fast tree-creation algorithms for genetic programming. IEEE Transactions in Evolutionary Computation, 4(3), 2000b."
else if (method == INITIALIZATION_METHOD_PTC1)
{
int expectedTreeSize = Convert.ToInt32(tag);
int b_n_sum = 0;
for (int i = 0; i < mOperatorSet.OperatorCount; ++i)
{
b_n_sum += mOperatorSet.FindOperatorByIndex(i).Arity;
}
double p = (1 - 1.0 / expectedTreeSize) / ((double)b_n_sum / mOperatorSet.OperatorCount);
TGPPrimitive data = null;
if (DistributionModel.GetUniform() <= p)
{
data = mOperatorSet.FindRandomOperator();
}
else
{
data = FindRandomTerminal();
}
mRootNode = new TGPNode(data);
PTC1(mRootNode, p, allowableDepth - 1);
CalcLength();
CalcDepth();
}
else // handle full and grow method
{
mRootNode = new TGPNode(FindRandomPrimitive(allowableDepth, method));
CreateWithDepth(mRootNode, allowableDepth - 1, method);
CalcLength();
CalcDepth();
}
}
public async Task Update_IncorrectDistributionModel_BadRequest(DistributionModel distribution)
{
var result =
await client.PutAsync(DistributionsControllerPath, ConvertToStringContent(distribution));
Assert.Equal(HttpStatusCode.BadRequest, result.StatusCode);
}
public DistributionModelTests()
{
DebitCardAccount = new AccountModel
{
Id = 1,
AccountType = AccountType.DebitCard,
AvailBalance = 15000
};
CashAccount = new AccountModel
{
Id = 2,
AccountType = AccountType.Cash,
AvailBalance = 1200
};
FoodFlow = new ExpenseFlowModel
{
Id = 1,
Balance = 100,
};
TechFlow = new ExpenseFlowModel
{
Id = 2,
Balance = 0
};
Debit = new DistributionAccount
{
Account = DebitCardAccount,
UseInDistribution = true
};
Cash = new DistributionAccount
{
Account = CashAccount,
UseInDistribution = true
};
Food = new DistributionItem
{
Flow = FoodFlow,
Mode = DistributionMode.RegularExpenses,
Amount = 10000
};
Tech = new DistributionItem
{
Flow = TechFlow,
Mode = DistributionMode.Accumulation,
Amount = 1000
};
Model = new DistributionModel
{
Accounts = new List <DistributionAccount> {
Debit, Cash
},
Items = new List <DistributionItem> {
Food, Tech
}
};
}
public async Task <DistributionModel> Load()
{
var ownerId = _currentSession.UserId;
var model = new DistributionModel
{
Accounts = await _repository.GetQuery <Account>()
.Where(x => !x.IsDeleted && x.OwnerId == ownerId &&
x.AccountType != AccountType.CreditCard && x.AvailBalance > 0)
.Select(x => new DistributionAccount
{
Account = x.ToModel(),
UseInDistribution = true,
StartBalance = x.AvailBalance,
Distributed = 0,
})
.ToListAsync(),
Items = await _repository.GetQuery <ExpenseFlow>()
.Where(x => !x.IsDeleted && x.OwnerId == ownerId)
.Select(x => new DistributionItem
{
Flow = x.ToModel(),
Mode = DistributionMode.RegularExpenses,
StartBalance = x.Balance,
Amount = 0,
})
.ToListAsync(),
FundDistributed = 0,
};
var accountIds = model.Accounts.Select(x => x.Account.Id).ToList();
var flowIds = model.Items.Select(x => x.Flow.Id).ToList();
var accountSettings = (await _repository.GetQuery <AccountFlowSettings>()
.Where(x => accountIds.Contains(x.AccountId))
.ToListAsync()).ToDictionary(x => x.AccountId);
var flowSettings = (await _repository.GetQuery <ExpenseFlowSettings>()
.Where(x => flowIds.Contains(x.ExpenseFlowId))
.ToListAsync()).ToDictionary(x => x.ExpenseFlowId);
foreach (var account in model.Accounts)
{
var settings = accountSettings.GetOrDefault(account.Account.Id);
account.UseInDistribution = settings?.CanFlow ?? true;
}
foreach (var item in model.Items)
{
var settings = flowSettings.GetOrDefault(item.Flow.Id);
item.Mode = (settings?.IsRegularExpenses ?? true)
? DistributionMode.RegularExpenses
: DistributionMode.Accumulation;
item.Amount = item.Mode == DistributionMode.RegularExpenses
? settings?.Amount ?? 0
: item.Flow.Balance;
}
return(model);
}
/// <summary>
/// Return the confidence interval of the difference between two classes in terms of the proportion of SUCCESS in the population at a given confidence level
///
/// Note that each class should be a categorical variable with two levels : {SUCCESS, FAILURE}
/// Note that class 1 and class 2 are not paired or dependent
/// </summary>
/// <param name="p_hat1">point estimate of the proportion of SUCCESS in class 1</param>
/// <param name="p_hat2">point estimate of the proportion of SUCCESS in class 2</param>
/// <param name="n1">sample size in class 1</param>
/// <param name="n2">sample size in class 2</param>
/// <param name="confidence_level">The given confidence level</param>
/// <param name="useSimulation">Flag for whether simulation should be used instead of the normal distribution for proportion of SUCCESS</param>
/// <returns>The confidence interval of the difference between two classes in terms of the proportion of SUCCESS</returns>
public static double[] GetConfidenceInterval(double p_hat1, double p_hat2, int n1, int n2, double confidence_level, bool useSimulation = false, int simulationCount = 500)
{
bool shouldUseSimulation = useSimulation;
double p1 = (1 - confidence_level) / 2;
double p2 = 1 - p1;
if (!shouldUseSimulation && (p_hat1 * n1 < 10 || (1 - p_hat1) * n1 < 10 || p_hat2 * n2 < 10 || (1 - p_hat2) * n2 < 10))
{
shouldUseSimulation = true;
}
if (shouldUseSimulation)
{
double[] sim_sample1 = new double[simulationCount]; // this will follow a normal distribution based on CTL for proportion
double[] sim_sample2 = new double[simulationCount]; // this will follow a normal distribution based on CLT for proportion
int simulationSampleSize = System.Math.Max((int)System.Math.Max(10 / p_hat1, 10 / (1 - p_hat1)) * 2, (int)System.Math.Max(10 / p_hat2, 10 / (1 - p_hat2)) * 2);
for (int i = 0; i < simulationCount; ++i)
{
int successCount1 = 0;
int successCount2 = 0;
for (int j = 0; j < simulationSampleSize; ++j)
{
if (DistributionModel.GetUniform() <= p_hat1)
{
successCount1++;
}
if (DistributionModel.GetUniform() <= p_hat2)
{
successCount2++;
}
}
sim_sample1[i] = (double)(successCount1) / simulationSampleSize;
sim_sample2[i] = (double)(successCount2) / simulationSampleSize;
}
double sim_mu1 = Mean.GetMean(sim_sample1);
double sim_sigma1 = StdDev.GetStdDev(sim_sample1, sim_mu1);
double sim_mu2 = Mean.GetMean(sim_sample2);
double sim_sigma2 = StdDev.GetStdDev(sim_sample2, sim_mu2);
double sim_mud = sim_mu1 - sim_mu2;
double sim_SE = System.Math.Sqrt(sim_sigma1 * sim_sigma1 + sim_sigma2 * sim_sigma2);
return(new double[] { sim_mud + Gaussian.GetPercentile(p1) * sim_SE, sim_mud + Gaussian.GetQuantile(p2) * sim_SE });
}
else
{
double SE = System.Math.Sqrt((p_hat1 * (1 - p_hat1) / n1 + (p_hat2 * (1 - p_hat2)) / n2));
double pd_hat = p_hat1 - p_hat2;
return(new double[] { pd_hat + Gaussian.GetQuantile(p1) * SE, pd_hat + Gaussian.GetQuantile(p2) * SE });
}
}
public void TestValidate_InvalidCommonData_ShouldHaveError(DistributionModel distributionModel, string propertyName, string ruleSet)
{
lighthouseServiceMock.Setup(x => x.IsValidUsers(It.IsAny <string[]>())).ReturnsAsync(false);
var result = validator.TestValidate(distributionModel, ruleSet);
result.ShouldHaveValidationErrorFor(propertyName);
}
public SuccessDis()
{
InitializeComponent();
model = new DistributionModel();
model.distdone();
mydisvm = new DisViewModel(this);
listView.ItemsSource = mydisvm.GetAllDistribution().Where(m => m.isDone == true);
}
private DistributionReadModel GetCreatedDistribution(DistributionModel distribution)
{
return(FakeDataBase
.Distributions
.FirstOrDefault(x =>
x.Name == distribution?.Name &&
x.Owners.Select(x => x.Sid).OrderBy(x => x).Equals(distribution.OwnersSids.OrderBy(x => x))));
}
public IActionResult Index()
{
var model = new DistributionModel
{
};
return(View(model));
}
/// <summary>
/// Return the distribution of a*x + b*y for correlated random variables x and y
/// </summary>
/// <param name="x">random variable x</param>
/// <param name="y">random variable y</param>
/// <param name="x_coefficient">a which is the coefficient of x</param>
/// <param name="y_coefficient">b which is the coefficient of y</param>
/// <param name="correlation">correlation between x and y</param>
/// <returns></returns>
public static DistributionModel Sum(DistributionModel x, DistributionModel y, int x_coefficient, double y_coefficient, double correlation)
{
DistributionModel sum = x.Clone();
sum.Mean = x_coefficient * x.Mean + y_coefficient * y.Mean;
sum.StdDev = System.Math.Sqrt(System.Math.Pow(x_coefficient * x.StdDev, 2) + System.Math.Pow(y_coefficient * y.StdDev, 2) + 2 * correlation * x_coefficient * x.StdDev * y_coefficient * y.StdDev);
return(sum);
}
/// <summary>
/// 修改
/// </summary>
/// <param name="model"></param>
/// <returns></returns>
public async Task <bool> UpdateAsync(DistributionModel model)
{
using (var conn = MySqlHelper.GetConnection())
{
var result = await conn.UpdateAsync(model);
return(result > 0);
}
}
public static double NextDouble()
{
//if (mRandom == null)
//{
// mRandom = new Random();
//}
//return mRandom.NextDouble();
return(DistributionModel.GetUniform());
}
/// <summary>
/// Method that traverse the subtree and randomly returns a node from one of the leave or function node
/// </summary>
/// <param name="pRoot">The root node of a subtree</param>
/// <param name="node_depth">The depth at which the selected node is returned</param>
/// <returns>The randomly selected node by traversing</returns>
public TGPNode FindRandomNodeByTraversing(TGPNode pRoot, ref int node_depth)
{
int child_count = pRoot.Arity;
int current_node_depth = node_depth;
if (child_count == 0)
{
return(pRoot);
}
TGPNode pSelectedGene = null;
int selected_child_node_depth = node_depth;
for (int iChild = 0; iChild != child_count; iChild++)
{
TGPNode pChild = pRoot.FindChildByIndex(iChild);
int child_node_depth = node_depth + 1;
TGPNode pChildPickedGene = FindRandomNodeByTraversing(pChild, ref child_node_depth);
if (pChildPickedGene != null)
{
if (pSelectedGene == null)
{
selected_child_node_depth = child_node_depth;
pSelectedGene = pChildPickedGene;
}
else
{
double selection_prob = pChildPickedGene.IsTerminal ? 0.1 : 0.9;
if (DistributionModel.GetUniform() < selection_prob)
{
selected_child_node_depth = child_node_depth;
pSelectedGene = pChildPickedGene;
}
}
}
}
if (pSelectedGene == null)
{
node_depth = current_node_depth;
pSelectedGene = pRoot;
}
else
{
node_depth = selected_child_node_depth;
if (DistributionModel.GetUniform() < 0.5)
{
node_depth = current_node_depth;
pSelectedGene = pRoot;
}
}
return(pSelectedGene);
}
/// <summary>
/// 添加
/// </summary>
/// <param name="model"></param>
/// <returns></returns>
public async Task <bool> AddAsync(DistributionModel model)
{
using (var conn = MySqlHelper.GetConnection())
{
var result = await conn.InsertAsync <string, DistributionModel>(model);
return(!string.IsNullOrWhiteSpace(result));
}
}
internal void CreateRandomly(int iMaximumDepthForCreation)
{
int upper_bound = CodonGeneUpperBound;
for (int i = 0; i < iMaximumDepthForCreation; ++i)
{
mChromosome.Add(DistributionModel.NextInt(upper_bound));
}
}
public override void Build()
{
m_interarrival_time_distribution = new Exponential();
m_interarrival_time_distribution.Mean = mean_interarrival_time;
//Console.WriteLine("k: {0} lambda: {1}", service_time_erlang_k, service_time_erlang_k / mean_service_time);
m_service_time_distribution = new Erlang(service_time_erlang_k, service_time_erlang_k / mean_service_time);
for (int service_index = 0; service_index < simulated_service_count; ++service_index)
{
m_interarrival_times.Add(m_interarrival_time_distribution.Next());
m_service_times.Add(m_service_time_distribution.Next());
//Console.WriteLine("interarrival time: {0} service_time: {1}", m_interarrival_times[service_index], m_service_times[service_index]);
m_waiting_times.Add(0);
}
for (int server_index = 0; server_index < s; ++server_index)
{
m_server_free_times.Add(0);
}
double current_time = 0;
for (int service_index = 0; service_index < simulated_service_count; ++service_index)
{
current_time += m_interarrival_times[service_index];
bool is_waiting_required = true;
for (int server_index = 0; server_index < s; ++server_index)
{
if (m_server_free_times[server_index] <= current_time)
{
m_server_free_times[server_index] = current_time + m_service_times[service_index];
m_waiting_times[service_index] = 0;
is_waiting_required = false;
break;
}
}
if (is_waiting_required)
{
double min_free_time = double.MaxValue;
int earliest_free_server = 0;
for (int server_index = 0; server_index < s; ++server_index)
{
if (min_free_time > m_server_free_times[server_index])
{
min_free_time = m_server_free_times[server_index];
earliest_free_server = server_index;
}
}
m_waiting_times[service_index] = min_free_time - current_time;
current_time = min_free_time;
}
}
}
private void ValidateDistributionsEquality(DistributionModel distributionModel)
{
var createdDistribution = GetCreatedDistribution(distributionModel);
Assert.NotNull(createdDistribution);
Assert.Equal(distributionModel.OwnersSids, createdDistribution.Owners.Select(x => x.Sid));
Assert.Equal(distributionModel.BuildBindings.Length, createdDistribution.BuildBindings.Count);
Assert.Equal(distributionModel.ProjectBindings.Length, createdDistribution.ProjectBindings.Count);
Assert.NotEqual(distributionModel.Id, createdDistribution.Id);
}
public async Task <IActionResult> Update(
[Required][CustomizeValidator(RuleSet = "Update")]
DistributionModel model)
{
UpdateDistribution command = await distributionCommandMapper.MapToUpdateCommand(model);
await mediator.Send(command);
return(Ok());
}
public async Task Create_IncorrectDistributionModel_BadRequest(DistributionModel distribution)
{
var result =
await client.PostAsync(DistributionsControllerPath, ConvertToStringContent(distribution));
Assert.Equal(HttpStatusCode.BadRequest, result.StatusCode);
var createdDistribution = GetCreatedDistribution(distribution);
Assert.Null(createdDistribution);
}
public static IFeature[] CreateDefaults(IEnumerable<string> labels, DistributionModel model = DistributionModel.Unknown)
{
Contract.Assert(labels != null && labels.Any());
int i = 0;
return labels.Select(l => new Feature()
{
Key = ToKey(l),
Index = i++,
DataType = TypeCode.Object,
Label = l,
Model = model
}).ToArray();
}
