public ActionResult Index(IEnumerable <long> matterIds, string transformType)
{
Notation notation = transformType.Equals("toAmino") ? Notation.AminoAcids : Notation.Triplets;
foreach (var matterId in matterIds)
{
var sequenceId = db.CommonSequence.Single(c => c.MatterId == matterId && c.Notation == Notation.Nucleotides).Id;
Chain sourceChain = commonSequenceRepository.GetLibiadaChain(sequenceId);
BaseChain transformedChain = transformType.Equals("toAmino")
? DnaTransformer.EncodeAmino(sourceChain)
: DnaTransformer.EncodeTriplets(sourceChain);
var result = new DnaSequence
{
MatterId = matterId,
Notation = notation
};
long[] alphabet = elementRepository.ToDbElements(transformedChain.Alphabet, notation, false);
dnaSequenceRepository.Insert(result, alphabet, transformedChain.Building);
}
return(RedirectToAction("Index", "CommonSequences"));
}
public void TestIndexer()
{
DnaSequence dnaSequence = new DnaSequence("ACGT");
Assert.AreEqual('C', (char)dnaSequence[1]);
dnaSequence[2] = 'C';
}
public void Setup()
{
dnaSequence1 = new DnaSequence(Mutante1);
dnaSequence2 = new DnaSequence(Mutante2);
dnaSequence3 = new DnaSequence(Mutante3);
dnaSequence4 = new DnaSequence(Human1);
}
public void TestElementAt()
{
DnaSequence dnaSequence = new DnaSequence("ACGT");
DnaBase dnaBase = dnaSequence.ElementAt(1);
Assert.AreEqual('C', (char)dnaBase);
}
public void TestEvolution()
{
DnaSequence dnaSequence = new DnaSequence("AAA");
DnaSequence evolvedSequence = DnaSequenceEvolver.evolver.Evolve(dnaSequence, 1);
Assert.AreEqual(dnaSequence.Size(), evolvedSequence.Size());
}
public void TestImplicitConvertionFromString()
{
string dnaSequenceAsString = "AACCGGTGA";
DnaSequence dnaSequence = dnaSequenceAsString;
Assert.AreEqual(dnaSequenceAsString, dnaSequence.PrintSequence());
}
public void TestImplicitSequenceConvertion()
{
DnaSequence dnaSequence = new DnaSequence("AACCGTCT");
string dnaSequenceAsString = dnaSequence;
Assert.AreEqual("AACCGTCT", dnaSequenceAsString);
}
public IEnumerable <ITestCaseData> GenerateFastaSequence_TestCases()
{
var singleLineNoTags = new DnaSequence(_normalizedNucleotides, AlphabetType.StrictDna, GeneticCode.Standard, new List <string> {
_label
});
var multilineWithLabel = new DnaSequence(_normalizedNucleotides, AlphabetType.StrictDna, GeneticCode.Standard, new List <string> {
_label
});
var multilineWithLabelAndTags = new DnaSequence(_normalizedNucleotides, AlphabetType.StrictDna, GeneticCode.Standard,
new List <string> {
_label, "Hello world", "HODOR", "@MetadataFTW!", "Derp", "No"
});
yield return(new TestCaseData(_singleLineFasta, AlphabetType.StrictDna, singleLineNoTags).SetName("Single line FASTA sequence with label"));
yield return(new TestCaseData(_multilineFastaWithLabel, AlphabetType.StrictDna, multilineWithLabel).SetName("Multiline FASTA with label"));
yield return(new TestCaseData(_multilineFastaWithMetadataAndTrailingPipes, AlphabetType.StrictDna, multilineWithLabelAndTags)
.SetName("Multiline FASTA with label, tags, and empty trailing pipes"));
yield return(new TestCaseData(_crossPlatformMultiLineN, AlphabetType.StrictDna, multilineWithLabelAndTags)
.SetName("Multiline FASTA with label, tags, and empty trailing pipes"));
yield return(new TestCaseData(_crossPlatformMultiLineR, AlphabetType.StrictDna, multilineWithLabelAndTags)
.SetName("Multiline FASTA with label, tags, and empty trailing pipes"));
}
public ActionResult Index(long[] matterIds)
{
return(CreateTask(() =>
{
string[] matterNames;
var results = new string[matterIds.Length];
var statuses = new string[matterIds.Length];
using (var db = new LibiadaWebEntities())
{
matterNames = db.Matter
.Where(m => matterIds.Contains(m.Id))
.OrderBy(m => m.Id)
.Select(m => m.Name)
.ToArray();
var parentSequences = db.DnaSequence
.Where(c => matterIds.Contains(c.MatterId))
.OrderBy(c => c.MatterId)
.ToArray();
for (int i = 0; i < parentSequences.Length; i++)
{
try
{
DnaSequence parentSequence = parentSequences[i];
using (var subsequenceImporter = new SubsequenceImporter(parentSequence))
{
subsequenceImporter.CreateSubsequences();
}
int featuresCount = db.Subsequence.Count(s => s.SequenceId == parentSequence.Id &&
s.Feature != Feature.NonCodingSequence);
int nonCodingCount = db.Subsequence.Count(s => s.SequenceId == parentSequence.Id &&
s.Feature == Feature.NonCodingSequence);
statuses[i] = "Success";
results[i] = $"Successfully imported {featuresCount} features and {nonCodingCount} non coding subsequences";
}
catch (Exception exception)
{
statuses[i] = "Error";
results[i] = exception.Message;
while (exception.InnerException != null)
{
results[i] += $" {exception.InnerException.Message}";
exception = exception.InnerException;
}
}
}
}
return new Dictionary <string, object>
{
{ "matterNames", matterNames },
{ "results", results },
{ "status", statuses }
};
}));
}
public void TestDnaSequenceCreationFromInitializer()
{
DnaSequence dnaSequence = new DnaSequence()
{
"A", "C", "C", "T"
};
Assert.AreEqual("ACCT", dnaSequence.PrintSequence());
}
/// <summary>
/// The to sequence.
/// </summary>
/// <param name="source">
/// The source.
/// </param>
/// <returns>
/// The <see cref="CommonSequence"/>.
/// </returns>
private CommonSequence ToCommonSequence(DnaSequence source)
{
return(new CommonSequence
{
Id = source.Id,
Notation = source.Notation,
MatterId = source.MatterId
});
}
public void TestIteratingOverDnaSequence()
{
string dnaSequenceAsString = "AGCTAAGG";
int iterator = 0;
DnaSequence dnaSequence = new DnaSequence(dnaSequenceAsString);
foreach (DnaBase dnaBase in dnaSequence)
{
Assert.AreEqual(dnaSequenceAsString.ElementAt(iterator), (char)dnaBase);
iterator++;
}
}
public IEnumerable <ITestCaseData> ComplementAndReverseComplement_TestCases()
{
var strictDnaComplement = new DnaSequence(_strictDnaComplement, AlphabetType.StrictDna);
var strictDnaReverseComplement = new DnaSequence(_strictDnaReverseComplement, AlphabetType.StrictDna);
yield return(new TestCaseData(_strictDnaSequence, strictDnaComplement, strictDnaReverseComplement).SetName("DNA sequence complement and reverse complement"));
var strictRna = new RnaSequence(_strictRna, AlphabetType.StrictRna);
var strictRnaComplement = new RnaSequence(_strictRnaComplement, AlphabetType.StrictRna);
var strictRnaReverseComplement = new RnaSequence(_strictRnaReverseComplement, AlphabetType.StrictRna);
yield return(new TestCaseData(strictRna, strictRnaComplement, strictRnaReverseComplement).SetName("RNA sequence complement and reverse complement"));
}
public IEnumerable <ITestCaseData> NucleotideCount_TestCases()
{
const string returnString = "{0} {1} in {2}";
const string strictDna = "ACCTTTGGGG";
var strictDnaSeq = new DnaSequence(strictDna, AlphabetType.StrictDna);
yield return(new TestCaseData(strictDnaSeq, Nucleotide.Adenine).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.Adenine, strictDna)));
yield return(new TestCaseData(strictDnaSeq, Nucleotide.Cytosine).Returns(2).SetName(String.Format(returnString, 2, Nucleotide.Cytosine, strictDna)));
yield return(new TestCaseData(strictDnaSeq, Nucleotide.Thymine).Returns(3).SetName(String.Format(returnString, 3, Nucleotide.Thymine, strictDna)));
yield return(new TestCaseData(strictDnaSeq, Nucleotide.Guanine).Returns(4).SetName(String.Format(returnString, 4, Nucleotide.Guanine, strictDna)));
var strictDnaSeqComplement = strictDnaSeq.Complement();
yield return(new TestCaseData(strictDnaSeqComplement, Nucleotide.Thymine).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.Thymine, strictDnaSeqComplement.Sequence)));
yield return(new TestCaseData(strictDnaSeqComplement, Nucleotide.Guanine).Returns(2).SetName(String.Format(returnString, 2, Nucleotide.Guanine, strictDnaSeqComplement.Sequence)));
yield return(new TestCaseData(strictDnaSeqComplement, Nucleotide.Adenine).Returns(3).SetName(String.Format(returnString, 3, Nucleotide.Adenine, strictDnaSeqComplement.Sequence)));
yield return(new TestCaseData(strictDnaSeqComplement, Nucleotide.Cytosine).Returns(4).SetName(String.Format(returnString, 4, Nucleotide.Cytosine, strictDnaSeqComplement.Sequence)));
const string ambiguousDna = "GATCRYYWWWSSSSMMMMMKHBVDN";
var ambiguousDnaSeq = new DnaSequence(ambiguousDna, AlphabetType.AmbiguousDna);
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.NotAdenine).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.NotAdenine, ambiguousDna)));
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.Purine).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.Purine, ambiguousDna)));
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.Weak).Returns(3).SetName(String.Format(returnString, 3, Nucleotide.Weak, ambiguousDna)));
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.Strong).Returns(4).SetName(String.Format(returnString, 4, Nucleotide.Strong, ambiguousDna)));
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.Amino).Returns(5).SetName(String.Format(returnString, 5, Nucleotide.Amino, ambiguousDna)));
yield return(new TestCaseData(ambiguousDnaSeq, Nucleotide.Keto).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.Keto, ambiguousDna)));
const string strictRna = "ACCUUUGGGG";
var strictRnaSeq = new RnaSequence(strictRna, AlphabetType.StrictRna);
yield return(new TestCaseData(strictRnaSeq, Nucleotide.Adenine).Returns(1).SetName(String.Format(returnString, 1, Nucleotide.Adenine, strictRna)));
yield return(new TestCaseData(strictRnaSeq, Nucleotide.Cytosine).Returns(2).SetName(String.Format(returnString, 2, Nucleotide.Cytosine, strictRna)));
yield return(new TestCaseData(strictRnaSeq, Nucleotide.Uracil).Returns(3).SetName(String.Format(returnString, 3, Nucleotide.Uracil, strictRna)));
yield return(new TestCaseData(strictRnaSeq, Nucleotide.Guanine).Returns(4).SetName(String.Format(returnString, 4, Nucleotide.Guanine, strictRna)));
}
public IEnumerable <ITestCaseData> Tag_TestCases()
{
var tags = new HashSet <string> {
"Foo", "Bar", "Baz"
};
var dna = new DnaSequence("ACTCTTCAGC", AlphabetType.StrictDna, GeneticCode.Standard, tags);
yield return(new TestCaseData(dna, tags));
var rna = new RnaSequence("AUCUAGCGCGUA", AlphabetType.StrictRna, GeneticCode.Standard, tags);
yield return(new TestCaseData(rna, tags));
var nullRna = new RnaSequence("AUCUAGCGCGUA", AlphabetType.StrictRna);
yield return(new TestCaseData(nullRna, new List <string>()));
}
public IEnumerable <ITestCaseData> ComputeHammingDistance_TestCases()
{
var compDnaA = new DnaSequence(_strictDnaComplement, AlphabetType.StrictDna);
yield return(new TestCaseData(_strictDnaSequence, _strictDnaSequence).Returns(0).SetName("Same DNA sequences return 0"));
yield return(new TestCaseData(_strictDnaSequence, compDnaA).Returns(20).SetName("DNA sequences off by 20 characters return 20"));
yield return(new TestCaseData(_strictDnaSequence, _strictDnaWithAmbiguousAlphabet).SetName("DNA sequences with different alphabets fails").Throws(typeof(ArgumentException)));
var compRnaA = new RnaSequence(_strictRnaComplement, AlphabetType.StrictRna);
yield return(new TestCaseData(_strictRnaSequence, _strictRnaSequence).Returns(0).SetName("Same RNA sequences return 0"));
yield return(new TestCaseData(_strictRnaSequence, compRnaA).Returns(20).SetName("RNA sequences off by 20 characters return 20"));
yield return(new TestCaseData(_strictRnaSequence, _strictRnaWithAmbiguousAlphabet).SetName("RNA sequences with different alphabets fails").Throws(typeof(ArgumentException)));
yield return(new TestCaseData(_strictDnaSequence, _strictRnaSequence).SetName("Comparing an RNA sequence to a DNA sequence fails").Throws(typeof(ArgumentException)));
}
public ActionResult Index(long matterId)
{
return(CreateTask(() =>
{
Dictionary <string, object> result;
using (var db = new LibiadaWebEntities())
{
DnaSequence parentSequence = db.DnaSequence.Single(d => d.MatterId == matterId);
using (var subsequenceImporter = new SubsequenceImporter(parentSequence))
{
subsequenceImporter.CreateSubsequences();
}
var features = EnumExtensions.ToArray <Feature>().ToDictionary(f => (byte)f, f => f.GetDisplayValue());
string matterName = db.Matter.Single(m => m.Id == matterId).Name;
SubsequenceData[] sequenceSubsequences = db.Subsequence
.Where(s => s.SequenceId == parentSequence.Id)
.Include(s => s.Position)
.ToArray()
.Select(s => new SubsequenceData(s))
.ToArray();
result = new Dictionary <string, object>
{
{ "matterName", matterName },
{ "genes", sequenceSubsequences },
{ "features", features }
};
}
return new Dictionary <string, object>
{
{ "data", JsonConvert.SerializeObject(result) }
};
}));
}
/// <summary>
/// The insert.
/// </summary>
/// <param name="sequence">
/// The sequence.
/// </param>
/// <param name="alphabet">
/// The alphabet.
/// </param>
/// <param name="building">
/// The building.
/// </param>
public void Insert(DnaSequence sequence, long[] alphabet, int[] building)
{
Create(ToCommonSequence(sequence), false, alphabet, building);
}
public void TestSizeGetting()
{
DnaSequence dnaSequence = new DnaSequence("AAGC");
Assert.AreEqual(4, dnaSequence.Size());
}
public void TestSequencePrinting()
{
DnaSequence dnaSequence = new DnaSequence("AACCGTCT");
Assert.AreEqual("AACCGTCT", dnaSequence.PrintSequence());
}
public ActionResult Index(long[] matterIds)
{
return(CreateTask(() =>
{
string[] matterNames;
var importResults = new List <MatterImportResult>(matterIds.Length);
using (var db = new LibiadaWebEntities())
{
matterNames = Cache.GetInstance().Matters
.Where(m => matterIds.Contains(m.Id))
.OrderBy(m => m.Id)
.Select(m => m.Name)
.ToArray();
var parentSequences = db.DnaSequence
.Where(c => matterIds.Contains(c.MatterId))
.OrderBy(c => c.MatterId)
.ToArray();
for (int i = 0; i < parentSequences.Length; i++)
{
var importResult = new MatterImportResult()
{
MatterName = matterNames[i]
};
try
{
DnaSequence parentSequence = parentSequences[i];
using (var subsequenceImporter = new SubsequenceImporter(parentSequence))
{
subsequenceImporter.CreateSubsequences();
}
int featuresCount = db.Subsequence.Count(s => s.SequenceId == parentSequence.Id &&
s.Feature != Feature.NonCodingSequence);
int nonCodingCount = db.Subsequence.Count(s => s.SequenceId == parentSequence.Id &&
s.Feature == Feature.NonCodingSequence);
importResult.Status = "Success";
importResult.Result = $"Successfully imported {featuresCount} features and {nonCodingCount} non coding subsequences";
importResults.Add(importResult);
}
catch (Exception exception)
{
importResult.Status = "Error";
importResult.Result = exception.Message;
while (exception.InnerException != null)
{
importResult.Result += $" {exception.InnerException.Message}";
exception = exception.InnerException;
}
importResults.Add(importResult);
}
}
}
var result = new Dictionary <string, object> {
{ "result", importResults }
};
return new Dictionary <string, string> {
{ "data", JsonConvert.SerializeObject(result) }
};
}));
}
public ActionResult Index(long matterId,
Notation notation,
Language?language,
Translator?translator,
PauseTreatment?pauseTreatment,
bool?sequentialTransfer,
int scrambling)
{
Matter matter = Cache.GetInstance().Matters.Single(m => m.Id == matterId);
long sequenceId;
switch (matter.Nature)
{
case Nature.Literature:
sequenceId = db.LiteratureSequence.Single(l => l.MatterId == matterId &&
l.Notation == notation &&
l.Language == language &&
l.Translator == translator).Id;
break;
case Nature.Music:
sequenceId = db.MusicSequence.Single(m => m.MatterId == matterId &&
m.Notation == notation &&
m.PauseTreatment == pauseTreatment &&
m.SequentialTransfer == sequentialTransfer).Id;
break;
default:
sequenceId = db.CommonSequence.Single(c => c.MatterId == matterId && c.Notation == notation).Id;
break;
}
BaseChain chain = sequenceRepository.GetLibiadaBaseChain(sequenceId);
for (int i = 0; i < scrambling; i++)
{
int firstIndex = randomGenerator.Next(chain.Length);
int secondIndex = randomGenerator.Next(chain.Length);
IBaseObject firstElement = chain[firstIndex];
IBaseObject secondElement = chain[secondIndex];
chain[firstIndex] = secondElement;
chain[secondIndex] = firstElement;
}
var resultMatter = new Matter
{
Nature = matter.Nature,
Name = $"{matter.Name} {scrambling} mixes"
};
MatterRepository matterRepository = new MatterRepository(db);
matterRepository.SaveToDatabase(resultMatter);
var result = new CommonSequence
{
Notation = notation,
MatterId = resultMatter.Id
};
long[] alphabet = elementRepository.ToDbElements(chain.Alphabet, notation, false);
switch (matter.Nature)
{
case Nature.Genetic:
DnaSequence dnaSequence = db.DnaSequence.Single(c => c.Id == sequenceId);
dnaSequenceRepository.Create(result, dnaSequence.Partial, alphabet, chain.Building);
break;
case Nature.Music:
musicSequenceRepository.Create(result, alphabet, chain.Building);
break;
case Nature.Literature:
LiteratureSequence sequence = db.LiteratureSequence.Single(c => c.Id == sequenceId);
literatureSequenceRepository.Create(result, sequence.Original, sequence.Language, sequence.Translator, alphabet, chain.Building);
break;
case Nature.MeasurementData:
dataSequenceRepository.Create(result, alphabet, chain.Building);
break;
default:
throw new InvalidEnumArgumentException(nameof(matter.Nature), (int)matter.Nature, typeof(Nature));
}
return(RedirectToAction("Index", "Matters"));
}
public ActionResult Index(IEnumerable<long> matterIds, string transformType)
{
int notationId = transformType.Equals("toAmino") ? Aliases.Notation.AminoAcid : Aliases.Notation.Triplet;
foreach (var matterId in matterIds)
{
var sequenceId = db.CommonSequence.Single(c => c.MatterId == matterId && c.NotationId == Aliases.Notation.Nucleotide).Id;
Chain sourceChain = commonSequenceRepository.ToLibiadaChain(sequenceId);
BaseChain transformedChain = transformType.Equals("toAmino")
? DnaTransformer.EncodeAmino(sourceChain)
: DnaTransformer.EncodeTriplets(sourceChain);
var result = new DnaSequence
{
MatterId = matterId,
NotationId = notationId
};
long[] alphabet = elementRepository.ToDbElements(transformedChain.Alphabet, notationId, false);
dnaSequenceRepository.Insert(result, alphabet, transformedChain.Building);
}
return RedirectToAction("Index", "CommonSequences");
}
/// <summary>
/// Initializes a new instance of the <see cref="SubsequenceImporter"/> class.
/// </summary>
/// <param name="sequence">
/// Dna sequence for which subsequences will be imported.
/// </param>
public SubsequenceImporter(DnaSequence sequence) : this(NcbiHelper.GetFeatures(sequence.RemoteId), sequence.Id)
{
}
/// <summary>
/// The to sequence.
/// </summary>
/// <param name="source">
/// The source.
/// </param>
/// <returns>
/// The <see cref="CommonSequence"/>.
/// </returns>
private CommonSequence ToCommonSequence(DnaSequence source)
{
return new CommonSequence
{
Id = source.Id,
NotationId = source.NotationId,
MatterId = source.MatterId
};
}
public void DnaSequenceConstructor_Tests(string nucleotides, AlphabetType alphabet)
{
var dna = new DnaSequence(nucleotides, alphabet);
Assert.IsInstanceOf <DnaSequence>(dna);
}
/// <summary>
/// The insert.
/// </summary>
/// <param name="sequence">
/// The sequence.
/// </param>
/// <param name="alphabet">
/// The alphabet.
/// </param>
/// <param name="building">
/// The building.
/// </param>
public void Insert(DnaSequence sequence, long[] alphabet, int[] building)
{
Create(ToCommonSequence(sequence), false, alphabet, building);
}
