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Activation of a Unique Flavin-Dependent tRNA-Methylating Agent, Biochemistry, vol.52, issue.49, pp.8949-56, 2013. ,
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Virtual Screening and X-ray Crystallography Identify Non-Substrate Analog Inhibitors of Flavin-Dependent Thymidylate Synthase, Journal of Medicinal Chemistry, vol.59, issue.19, pp.9269-9275, 2016. ,
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Genome sequencing of 161, 2013. ,
onmouseover="self.status='Parses the feature table of an EMBL file and returns the protein translations.'; return true;" onmouseout="self.status=' '; return true onmouseover="self.status='Removes non-DNA characters from text.'; return true;" onmouseout="self.status=' '; return true>-Filter DNA</a><br /> <a href="filter_protein.html" onmouseover="self.status='Removes non-protein characters from text.'; return true;" onmouseout="self.status=' '; return true>-Filter Protein</a><br /> <a href="genbank_fasta.html" onmouseover="self.status='Returns the entire sequence contained in a GenBank file in FASTA format.'; return true;" onmouseout="self.status=' '; return true>-GenBank to FASTA</a><br /> <a href="genbank_feat.html" onmouseover="self.status='Parses the feature table of a GenBank file and returns the feature sequences.'; return true;" onmouseout="self.status=' '; return true>-GenBank Feature Extractor</a><br /> <a href="genbank_trans.html" onmouseover="self.status='Parses the feature table of a GenBank file and returns the protein translations.'; return true;" onmouseout="self.status=' '; return true>-GenBank Trans Extractor</a><br /> <a href="one_to_three.html" onmouseover="self.status='Converts single letter amino acid codes to three letter codes.'; return true;" onmouseout="self.status=' '; return true>-One to Three</a><br /> <a href="range_extract_dna.html" onmouseover="self.status='Reads a list of positions and ranges and returns those parts of a DNA sequence.'; return true;" onmouseout="self.status=' '; return true>-Range Extractor DNA</a><br /> <a href="range_extract_protein.html" onmouseover="self.status='Reads a list of positions and ranges and returns those parts of a protein sequence.'; return true;" onmouseout="self.status=' '; return true>-Range Extractor Protein</a><br /> <a href="rev_comp.html" onmouseover="self.status='Determines the reverse-complement, reverse, or complement of the sequence you enter.'; return true;" onmouseout="self.status=' '; return true>-Reverse Complement</a><br /> <a href="split_codons.html" onmouseover="self.status='Separates bases according to codon position.'; return true;" onmouseout="self.status=' '; return true>-Split Codons</a><br /> <a href="split_fasta.html" onmouseover="self.status='Converts a FASTA sequence into multiple sequences.'; return true;" onmouseout="self.status=' '; return true>-Split FASTA</a><br /> <a href="three_to_one.html" onmouseover="self.status='Converts three letter amino acid codes to one letter codes.'; return true;" onmouseout="self.status=' '; return true onmouseover="self.status='Returns DNA sequence segments specified by a position and window size.'; return true;" onmouseout="self.status=' '; return trueReturns protein sequence segments specified by a position and window size.'; return true;" onmouseout="self.status=' '; return true, self.status='Parses the feature table of an EMBL file and returns the feature sequencesWindow Extractor DNA</a><br /> <a href="window_extract_protein.html" onmouseover="self.status=Window Extractor Protein</a> </div> <div class="category"> Sequence Analysis, 2014. ,
onmouseover="self.status='Calculates the molecular weight of DNA sequences.'; return true;" onmouseout="self.status=' '; return true>-DNA Molecular Weight</a><br /> <a href="dna_pattern.html" onmouseover="self.status='Returns positions of the patterns you enter.'; return true;" onmouseout="self.status=' '; return true>-DNA Pattern Find</a><br /> <a href="dna_stats.html" onmouseover="self.status='Returns basic sequence statistics.'; return true;" onmouseout="self.status=' '; return true>-DNA Stats</a><br /> <a href="fuzzy_search_dna.html" onmouseover="self.status='Returns sequences that are identical or similar to a query sequence.'; return true;" onmouseout="self.status=' '; return true>-Fuzzy Search DNA</a><br /> <a href="fuzzy_search_protein.html" onmouseover="self.status='Returns sequences that are identical or similar to a query sequence.'; return true;" onmouseout="self.status=' '; return true>-Fuzzy Search Protein</a><br /> <a href="ident_sim.html" onmouseover="self.status='Accepts aligned sequences in FASTA format and calculates the identity and similarity of each sequence pair.'; return true;" onmouseout="self.status=' '; return true>-Ident and Sim</a><br /> <a href="multi_rev_trans.html" onmouseover="self.status='Can be used to predict a DNA sequence in another species using a protein sequence alignment.'; return true;" onmouseout="self.status=' '; return true>-Multi Rev Trans</a><br /> <a href="mutate_for_digest.html" onmouseover="self.status='Finds DNA sequences that can easily be converted to a restriction site.'; return true;" onmouseout="self.status=' '; return true>-Mutate for Digest</a><br /> <a href="orf_find.html" onmouseover="self.status='Determines the positions of open reading frames.'; return true;" onmouseout="self.status=' '; return true>-ORF Finder</a><br /> <a href="pairwise_align_codons.html" onmouseover="self.status='Returns the optimal global alignment for two coding DNA sequences.'; return true;" onmouseout="self.status=' '; return true>-Pairwise Align Codons</a><br /> <a href="pairwise_align_dna.html" onmouseover="self.status='Returns the optimal global alignment for two DNA sequences.'; return true;" onmouseout="self.status=' '; return true>- Pairwise Align DNA</a><br /> <a href="pairwise_align_protein.html" onmouseover="self.status='Returns the optimal global alignment for two protein sequences.'; return true;" onmouseout="self.status=' '; return true>-Pairwise Align Protein</a><br /> <a href="pcr_primer_stats.html" onmouseover="self.status='Returns a report describing PCR primer properties'; return true;" onmouseout="self.status=' '; return true>-PCR Primer Stats</a><br /> <a href="pcr_products.html" onmouseover="self.status='Generates PCR products from a template and two primer sequences.'; return true;" onmouseout="self.status=' '; return true>-PCR Products</a><br /> <a href="protein_gravy.html" onmouseover="self.status='Returns the grand average of hydropathy value of protein sequences.'; return true;" onmouseout="self.status=' '; return true>-Protein GRAVY</a><br /> <a href="protein_iep.html" onmouseover="self.status='Returns the predicted isoelectric point of protein sequences.'; return true;" onmouseout="self.status=' '; return true>- Protein Isoelectric Point</a><br /> <a href="protein_mw.html" onmouseover="self.status='Calculates the molecular weight of protein sequences.'; return true;" onmouseout="self.status=' '; return true>-Protein Molecular Weight</a><br /> <a href="mutate_dna.html" onmouseover="self.status='Introduces random mutations into DNA sequences.'; return true;" onmouseout="self.status=' '; return true>-Mutate DNA</a><br /> <a href="mutate_protein.html" onmouseover="self.status='Introduces random mutations into protein sequences.'; return true;" onmouseout="self.status=' '; return true>-Mutate Protein</a><br /> <a href="random_coding_dna.html" onmouseover="self.status='Generates a random coding sequence of the length you specify.'; return true;" onmouseout="self.status=' '; return true>-Random Coding DNA</a><br /> <a href="random_dna.html" onmouseover="self.status='Generates a random DNA sequence of the length you specify.'; return true;" onmouseout="self.status=' '; return true>-Random DNA Sequence</a><br /> <a href="random_dna_regions.html" onmouseover="self.status='Replaces regions of the DNA sequences you enter with random bases.'; return true;" onmouseout="self.status=' '; return true>-Random DNA Regions</a><br /> <a href="random_protein.html" onmouseover="self.status='Generates a random protein sequence of the length you specify.'; return true;" onmouseout="self.status=' '; return true>-Random Protein Sequence</a><br /> <a href="random_protein_regions.html" onmouseover="self.status='Replaces regions of the protein sequences you enter with random residues.'; return true;" onmouseout="self.status=' '; return true>-Random Protein Regions</a><br /> <a href="sample_dna.html" onmouseover="self.status='Samples bases from a DNA sequence with replacement.'; return true;" onmouseout="self.status=' '; return true>-Sample DNA</a><br /> <a href="sample_protein.html" onmouseover="self.status='Samples residues from a protein sequence with replacement.'; return true;" onmouseout="self.status=' '; return true>-Sample Protein</a><br /> <a href="shuffle_dna.html" onmouseover="self.status='Randomly shuffles the DNA sequences you enter.'; return true;" onmouseout="self.status=' '; return true>-Shuffle DNA</a><br /> <a href="shuffle_protein.html" onmouseover="self.status='Randomly shuffles the protein sequences you enter.'; return true;" onmouseout="self.status=' '; return true'; return true;" onmouseout="self.status=' '; return trueself.status='The genetic codes used in the Sequence Manipulation Suite.'; return true;" onmouseout="self.status=' '; return true'; return true;" onmouseout="self.status=' '; return true onmouseout="self.status=' '; return true onmouseout="self.status=' '; return true>-About this site<, self.status='Plots codon frequency (according to the codon table you enter) for each codon in a DNA sequenceBrowser compatibility</a><br /> <a href="mirror.html" onmouseover="self.status='Mirror the Sequence Manipulation Suite.'; return true;" onmouseout="self.status=' '; return true;">-Mirror this site</a><br /> <a href="mirror.html" onmouseover="self.status='Use the Sequence Manipulation Suite offline .'; return trueUse this site offline</a><br /> <a href="about.html" onmouseover="self.status='About the Sequence Manipulation Suite.'; return true ,