private string SolveExpressionPrevValues()
{
string exp = _expression;
foreach (Function func in _functions)
{
switch (func.Type)
{
case Function.FunctionType.SequentialIntFunction:
SequentialIntFunction sif = (SequentialIntFunction)func;
exp = exp.Replace(sif.Name, sif.PrevVal().ToString().PadLeft(sif.Padding, '0'));
break;
case Function.FunctionType.SequentialCharFunction:
SequentialCharFunction scf = (SequentialCharFunction)func;
exp = exp.Replace(scf.Name, scf.PrevVal().ToString());
break;
case Function.FunctionType.ConstantTextFunction:
ConstantTextFunction ctf = (ConstantTextFunction)func;
exp = exp.Replace(ctf.Name, ctf.Constant);
break;
}
}
return(exp);
}
public string SolveExpressionFromBeginning(int iteration)
{
string exp = _expression;
foreach (Function func in _functions)
{
switch (func.Type)
{
case Function.FunctionType.SequentialIntFunction:
SequentialIntFunction sif = (SequentialIntFunction)func;
exp = exp.Replace(sif.Name, sif.AllVals(iteration).Last <int>().ToString().PadLeft(sif.Padding, '0'));
break;
case Function.FunctionType.SequentialCharFunction:
SequentialCharFunction scf = (SequentialCharFunction)func;
exp = exp.Replace(scf.Name, scf.AllVals(iteration).Last <char>().ToString());
break;
case Function.FunctionType.ConstantTextFunction:
ConstantTextFunction ctf = (ConstantTextFunction)func;
exp = exp.Replace(ctf.Name, ctf.Constant);
break;
}
}
return(exp);
}
public static Generalization[] Generate(string str1, string str2, TimeSpan time)
{
List <Generalization> gens = new List <Generalization>();
List <SequentialIntFunction> sifs = new List <SequentialIntFunction>();
List <SequentialCharFunction> scfs = new List <SequentialCharFunction>();
List <ConstantTextFunction> ctfs = new List <ConstantTextFunction>();
string expression = string.Empty;
// SequentialIntFunction
if (SequentialIntFunction.Generate(str1, str2, out expression, out sifs))
{
//foreach (SequentialIntFunction func in sifs)
// gens.Add(new TextGeneralization(expression, func, str2));
gens.Add(new TextGeneralization(expression, sifs.ToArray(), str2, time, 2));
}
// SequentialCharFunction
if (SequentialCharFunction.Generate(str1, str2, out expression, out scfs))
{
//foreach (SequentialCharFunction func in scfs)
// gens.Add(new TextGeneralization(expression, func, str2));
gens.Add(new TextGeneralization(expression, scfs.ToArray(), str2, time, 2));
}
// ConstantTextFunction
if (ConstantTextFunction.Generate(str1, str2, out expression, out ctfs))
{
//foreach (ConstantTextFunction func in ctfs)
// gens.Add(new TextGeneralization(expression, func, str2));
gens.Add(new TextGeneralization(expression, ctfs.ToArray(), str2, time, 2));
}
return(gens.ToArray());
}
public static Generalization[] Generate(string str1, string str2, TimeSpan time)
{
List <Generalization> gens = new List <Generalization>();
bool is_file;
string folder1, folder2;
if (Directory.Exists(str2))
{
is_file = false;
folder1 = Directory.GetParent(str1).FullName;
folder2 = Directory.GetParent(str2).FullName;
}
else
{
is_file = true;
folder1 = Path.GetDirectoryName(str1);
folder2 = Path.GetDirectoryName(str2);
}
// if both files have the same directory, then there might be a generalization
if (folder1 == folder2)
{
List <SequentialIntFunction> sifs = new List <SequentialIntFunction>();
List <SequentialCharFunction> scfs = new List <SequentialCharFunction>();
List <ConstantTextFunction> ctfs = new List <ConstantTextFunction>();
string expression = string.Empty;
string file1 = Path.GetFileName(str1);
string file2 = Path.GetFileName(str2);
// SequentialIntFunction
if (SequentialIntFunction.Generate(file1, file2, out expression, out sifs))
{
//foreach (SequentialIntFunction func in sifs)
// gens.Add(new FileCreateGeneralization(expression, func, str2));
gens.Add(new FileCreateGeneralization(expression, sifs.ToArray(), file2, time, 2));
}
// SequentialCharFunction
if (SequentialCharFunction.Generate(file1, file2, out expression, out scfs))
{
//foreach (SequentialCharFunction func in scfs)
// gens.Add(new FileCreateGeneralization(expression, func, str2));
gens.Add(new FileCreateGeneralization(expression, scfs.ToArray(), file2, time, 2));
}
// ConstantTextFunction
if (ConstantTextFunction.Generate(file1, file2, out expression, out ctfs))
{
//foreach (ConstantTextFunction func in ctfs)
// gens.Add(new FileCreateGeneralization(expression, func, str2));
gens.Add(new FileCreateGeneralization(expression, ctfs.ToArray(), file2, time, 2));
}
}
return(gens.ToArray());
}
public static Generalization[] Merge(Generalization[] prev_gens, Generalization[] new_gens)
{
List <Generalization> gens = new List <Generalization>();
if (prev_gens.Length > 0 && new_gens.Length > 0 && prev_gens[0].Type == new_gens[0].Type)
{
FileCreateGeneralization prev_gen;
FileCreateGeneralization new_gen;
Function.FunctionType prev_func_type;
Function.FunctionType new_func_type;
string new_expression;
string prev_expression;
for (int i = 0; i < prev_gens.Length; i++) // for all old generalizations
{
prev_gen = (FileCreateGeneralization)prev_gens[i]; // mark the actual old generalization
prev_func_type = prev_gen.Functions[0].Type; // mark the actual old generalization's function type
new_expression = prev_gen.SolveExpressionNextValues(); // get the value that the new generalzation should have to meet the old generalization's requirements
for (int j = 0; j < new_gens.Length; j++) // and all new generalizations
{
new_gen = (FileCreateGeneralization)new_gens[j]; // mark the actual new generalization
new_func_type = new_gen.Functions[0].Type; // mark the actual new generalization's function type
prev_expression = new_gen.SolveExpressionPrevValues(); // get the value that the old generalzation should have to meet the new generalization's requirements
switch (prev_func_type)
{
case Function.FunctionType.SequentialIntFunction: // if old generalization has a sequential integer function type
switch (new_func_type)
{
case Function.FunctionType.SequentialIntFunction: // if new generalization has a sequential integer function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
SequentialIntFunction old_func;
SequentialIntFunction new_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
old_func = (SequentialIntFunction)prev_gen.Functions[n];
new_func = (SequentialIntFunction)new_gen.Functions[n];
if (new_func.LastValue != old_func.NextVal() ||
new_func.Increment != old_func.Increment)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Skip = old_func.Skip;
}
}
if (add_functions)
{
gens.Add(new FileCreateGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
else
{
return(new Generalization[0]);
}
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (new_gen.LastValue == new_expression)
{
SequentialIntFunction prev_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
prev_func = (SequentialIntFunction)prev_gen.Functions[n];
prev_func.NumberOfOccurrences++;
}
gens.Add(new FileCreateGeneralization(prev_gen.Expression, prev_gen.Functions, prev_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
case Function.FunctionType.SequentialCharFunction: // if old generalization has a sequential char function type
switch (new_func_type)
{
case Function.FunctionType.SequentialCharFunction: // if new generalization has a sequential char function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
SequentialCharFunction old_func;
SequentialCharFunction new_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
old_func = (SequentialCharFunction)prev_gen.Functions[n];
new_func = (SequentialCharFunction)new_gen.Functions[n];
if (new_func.LastValue != old_func.NextVal() ||
new_func.Increment != old_func.Increment)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Skip = old_func.Skip;
}
}
if (add_functions)
{
gens.Add(new FileCreateGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
else
{
return(new Generalization[0]);
}
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (new_gen.LastValue == new_expression)
{
SequentialCharFunction prev_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
prev_func = (SequentialCharFunction)prev_gen.Functions[n];
prev_func.NumberOfOccurrences++;
}
gens.Add(new FileCreateGeneralization(prev_gen.Expression, prev_gen.Functions, prev_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
case Function.FunctionType.ConstantTextFunction: // if old generalization has a constant text function type
switch (new_func_type)
{
case Function.FunctionType.SequentialIntFunction: // if new generalization has a sequential integer function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
SequentialIntFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (SequentialIntFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences = prev_func.NumberOfOccurrences + 1;
new_func.Skip = prev_func.NumberOfOccurrences - 1;
}
gens.Add(new FileCreateGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
case Function.FunctionType.SequentialCharFunction: // if new generalization has a sequential char function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
SequentialCharFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (SequentialCharFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences = prev_func.NumberOfOccurrences + 1;
new_func.Skip = prev_func.NumberOfOccurrences - 1;
}
gens.Add(new FileCreateGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
ConstantTextFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (ConstantTextFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences += prev_func.NumberOfOccurrences;
}
gens.Add(new FileCreateGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
}
}
}
}
return(gens.ToArray());
}
public static Generalization[] Generate(string str1, string str2, TimeSpan time)
{
List <Generalization> gens = new List <Generalization>();
bool is_file;
string folder1, folder2;
if (Directory.Exists(str2))
{
is_file = false;
folder1 = Directory.GetParent(str1).FullName;
folder2 = Directory.GetParent(str2).FullName;
}
else
{
is_file = true;
folder1 = Path.GetDirectoryName(str1);
folder2 = Path.GetDirectoryName(str2);
}
// if both files have the same directory, then there might be a generalization
if (folder1 == folder2)
{
List <ConstantFileFunction> cff = new List <ConstantFileFunction>();
List <ConstantFileFunctionEx> cffe = new List <ConstantFileFunctionEx>();
List <SequentialIntFunction> sifs = new List <SequentialIntFunction>();
List <SequentialCharFunction> scfs = new List <SequentialCharFunction>();
List <ConstantFileExtFunction> cfef = new List <ConstantFileExtFunction>();
List <ConstantTextFunction> ctfs = new List <ConstantTextFunction>();
string expression = string.Empty;
string file1 = Path.GetFileNameWithoutExtension(str1);
string file2 = Path.GetFileNameWithoutExtension(str2);
List <string> extensions = new List <string>();
// detect which file extensions show the operations be applied to
if (is_file)
{
if (Path.GetExtension(str1) == Path.GetExtension(str2) && Path.GetExtension(str1) != string.Empty)
{
extensions.Add(Path.GetExtension(str2));
}
extensions.Add(".*");
}
// SequentialIntFunction
if (SequentialIntFunction.Generate(file1, file2, out expression, out sifs))
{
gens.Add(new FileDeleteGeneralization(expression, sifs.ToArray(), str2, time, 2));
}
// SequentialCharFunction
if (SequentialCharFunction.Generate(file1, file2, out expression, out scfs))
{
gens.Add(new FileDeleteGeneralization(expression, scfs.ToArray(), str2, time, 2));
}
// ConstantFileFunction
if (ConstantFileFunction.Generate(file1, file2, folder2, extensions.ToArray(), out expression, out cff))
{
gens.Add(new FileDeleteGeneralization(expression, cff.ToArray(), str2, time, 2));
}
// ConstantFileFunctionEx
if (ConstantFileFunctionEx.Generate(file1, file2, folder2, extensions.ToArray(), out expression, out cffe))
{
gens.Add(new FileDeleteGeneralization(expression, cffe.ToArray(), str2, time, 2));
}
// ConstantFileExtFunction
if (ConstantFileExtFunction.Generate(folder2, extensions.ToArray(), out expression, out cfef))
{
gens.Add(new FileDeleteGeneralization(expression, cfef.ToArray(), str2, time, 2));
}
// ConstantTextFunction
if (ConstantTextFunction.Generate(file1, file2, out expression, out ctfs))
{
gens.Add(new FileDeleteGeneralization(expression, ctfs.ToArray(), str2, time, 2));
}
}
return(gens.ToArray());
}
public static Generalization[] Merge(Generalization[] prev_gens, Generalization[] new_gens)
{
List <Generalization> gens = new List <Generalization>();
if (prev_gens.Length > 0 && new_gens.Length > 0 && prev_gens[0].Type == new_gens[0].Type)
{
FileDeleteGeneralization prev_gen;
FileDeleteGeneralization new_gen;
Function.FunctionType prev_func_type;
Function.FunctionType new_func_type;
string new_expression;
string prev_expression;
for (int i = 0; i < prev_gens.Length; i++) // for all old generalizations
{
prev_gen = (FileDeleteGeneralization)prev_gens[i]; // mark the actual old generalization
prev_func_type = prev_gen.Functions[0].Type; // mark the actual old generalization's function type
new_expression = prev_gen.SolveExpressionNextValues(); // get the value that the new generalzation should have to meet the old generalization's requirements
for (int j = 0; j < new_gens.Length; j++) // and all new generalizations
{
new_gen = (FileDeleteGeneralization)new_gens[j]; // mark the actual new generalization
new_func_type = new_gen.Functions[0].Type; // mark the actual new generalization's function type
prev_expression = new_gen.SolveExpressionPrevValues(); // get the value that the old generalzation should have to meet the new generalization's requirements
switch (prev_func_type)
{
case Function.FunctionType.ConstantFileFunction: // if old generalization has a constant file function type
switch (new_func_type)
{
case Function.FunctionType.ConstantFileFunction: // if new generalization has a constant file function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
ConstantFileFunction old_func;
ConstantFileFunction new_func;
HashSet <string> common_exts = new HashSet <string>();
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
common_exts.Clear();
old_func = (ConstantFileFunction)prev_gen.Functions[n];
new_func = (ConstantFileFunction)new_gen.Functions[n];
// find common extensions
foreach (string ext1 in old_func.Extensions)
{
foreach (string ext2 in new_func.Extensions)
{
if (ext1 == ext2)
{
common_exts.Add(ext1);
break;
}
}
}
// find common file name beginning and ending
if ((new_func.Biginning != old_func.Biginning && new_func.Ending != old_func.Ending) ||
((new_func.Biginning == old_func.Biginning ? new_func.Biginning == string.Empty : false) ||
(new_func.Ending == old_func.Ending ? new_func.Ending == string.Empty : false)))
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Extensions = common_exts.ToArray <string>();
if (new_func.Biginning != old_func.Biginning)
{
new_func.Biginning = string.Empty;
}
else if (new_func.Ending != old_func.Ending)
{
new_func.Ending = string.Empty;
}
}
}
if (add_functions)
{
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
//else
// return new Generalization[0];
}
}
break;
}
break;
case Function.FunctionType.ConstantFileFunctionEx: // if old generalization has a constant file function ex type
switch (new_func_type)
{
case Function.FunctionType.ConstantFileFunctionEx: // if new generalization has a constant file function ex type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
ConstantFileFunctionEx old_func;
ConstantFileFunctionEx new_func;
HashSet <string> common_exts = new HashSet <string>();
HashSet <string> common_tokens = new HashSet <string>();
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
common_exts.Clear();
common_tokens.Clear();
old_func = (ConstantFileFunctionEx)prev_gen.Functions[n];
new_func = (ConstantFileFunctionEx)new_gen.Functions[n];
// find common extensions
foreach (string ext1 in old_func.Extensions)
{
foreach (string ext2 in new_func.Extensions)
{
if (ext1 == ext2)
{
common_exts.Add(ext1);
break;
}
}
}
// find common file name tokens
foreach (string token1 in old_func.Contents)
{
foreach (string token2 in new_func.Contents)
{
if (token1 == token2)
{
common_tokens.Add(token1);
break;
}
}
}
if (common_tokens.Count == 0)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Extensions = common_exts.ToArray <string>();
new_func.Contents = common_tokens.ToArray <string>();
}
}
if (add_functions)
{
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
//else
// return new Generalization[0];
}
}
break;
}
break;
case Function.FunctionType.ConstantFileExtFunction: // if old generalization has a constant file extension function type
switch (new_func_type)
{
case Function.FunctionType.ConstantFileExtFunction: // if new generalization has a constant file extension function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
ConstantFileExtFunction old_func;
ConstantFileExtFunction new_func;
HashSet <string> common_exts = new HashSet <string>();
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
common_exts.Clear();
old_func = (ConstantFileExtFunction)prev_gen.Functions[n];
new_func = (ConstantFileExtFunction)new_gen.Functions[n];
// find common extensions
foreach (string ext1 in old_func.Extensions)
{
foreach (string ext2 in new_func.Extensions)
{
if (ext1 == ext2)
{
common_exts.Add(ext1);
break;
}
}
}
if (common_exts.Count == 0 && old_func.Extensions.Length > 0 && old_func.Extensions.Length > 0)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Extensions = common_exts.ToArray <string>();
}
}
if (add_functions)
{
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
else
{
return(new Generalization[0]);
}
}
}
break;
}
break;
case Function.FunctionType.SequentialIntFunction: // if old generalization has a sequential integer function type
switch (new_func_type)
{
case Function.FunctionType.SequentialIntFunction: // if new generalization has a sequential integer function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
SequentialIntFunction old_func;
SequentialIntFunction new_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
old_func = (SequentialIntFunction)prev_gen.Functions[n];
new_func = (SequentialIntFunction)new_gen.Functions[n];
if (new_func.LastValue != old_func.NextVal() ||
new_func.Increment != old_func.Increment)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Skip = old_func.Skip;
}
}
if (add_functions)
{
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
else
{
return(new Generalization[0]);
}
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (new_gen.LastValue == new_expression)
{
SequentialIntFunction prev_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
prev_func = (SequentialIntFunction)prev_gen.Functions[n];
prev_func.NumberOfOccurrences++;
}
gens.Add(new FileDeleteGeneralization(prev_gen.Expression, prev_gen.Functions, prev_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
case Function.FunctionType.SequentialCharFunction: // if old generalization has a sequential char function type
switch (new_func_type)
{
case Function.FunctionType.SequentialCharFunction: // if new generalization has a sequential char function type
{
if (prev_gen.Functions.Length == new_gen.Functions.Length)
{
bool add_functions = true;
SequentialCharFunction old_func;
SequentialCharFunction new_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
old_func = (SequentialCharFunction)prev_gen.Functions[n];
new_func = (SequentialCharFunction)new_gen.Functions[n];
if (new_func.LastValue != old_func.NextVal() ||
new_func.Increment != old_func.Increment)
{
add_functions = false;
break;
}
else
{
new_func.NumberOfOccurrences = old_func.NumberOfOccurrences + 1;
new_func.Skip = old_func.Skip;
}
}
if (add_functions)
{
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
else
{
return(new Generalization[0]);
}
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (new_gen.LastValue == new_expression)
{
SequentialCharFunction prev_func;
for (int n = 0; n < prev_gen.Functions.Length; n++)
{
prev_func = (SequentialCharFunction)prev_gen.Functions[n];
prev_func.NumberOfOccurrences++;
}
gens.Add(new FileDeleteGeneralization(prev_gen.Expression, prev_gen.Functions, prev_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
case Function.FunctionType.ConstantTextFunction: // if old generalization has a constant text function type
switch (new_func_type)
{
case Function.FunctionType.SequentialIntFunction: // if new generalization has a sequential integer function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
SequentialIntFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (SequentialIntFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences = prev_func.NumberOfOccurrences + 1;
new_func.Skip = prev_func.NumberOfOccurrences - 1;
}
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
case Function.FunctionType.SequentialCharFunction: // if new generalization has a sequential char function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
SequentialCharFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (SequentialCharFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences = prev_func.NumberOfOccurrences + 1;
new_func.Skip = prev_func.NumberOfOccurrences - 1;
}
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
case Function.FunctionType.ConstantTextFunction: // if new generalization has a constant text function type
{
if (prev_gen.LastValue == prev_expression)
{
ConstantTextFunction prev_func = (ConstantTextFunction)prev_gen.Functions[0];
ConstantTextFunction new_func;
for (int n = 0; n < new_gen.Functions.Length; n++)
{
new_func = (ConstantTextFunction)new_gen.Functions[n];
new_func.NumberOfOccurrences += prev_func.NumberOfOccurrences;
}
gens.Add(new FileDeleteGeneralization(new_gen.Expression, new_gen.Functions, new_gen.LastValue, new_gen.Time, prev_gen.Occurrences + 1));
}
}
break;
}
break;
}
}
}
}
return(gens.ToArray());
}
