Patent classifications
C40B40/02
Analyzing and using motility kinematics of microorganisms
Among other things, motility of at least one individual microorganism or a change in motility of at least one individual microorganism or both is or are characterized. The characterized motility or change in motility is used to detect the presence or count of the at least one individual microorganism, or determine the identity of a species or strain of the at least one individual microorganism, or determine a susceptibility of the at least one individual microorganism to one or more antibiotics or other antimicrobials.
Analyzing and using motility kinematics of microorganisms
Among other things, motility of at least one individual microorganism or a change in motility of at least one individual microorganism or both is or are characterized. The characterized motility or change in motility is used to detect the presence or count of the at least one individual microorganism, or determine the identity of a species or strain of the at least one individual microorganism, or determine a susceptibility of the at least one individual microorganism to one or more antibiotics or other antimicrobials.
Method of generating a synthetic antibody library, said library and application(s) thereof
- Sohang Chatterjee ,
- Kavitha Iyer Rodrigues ,
- Maloy Ghosh ,
- Sunit Maity ,
- Divya Unnikrishnan ,
- Yogendra Manjunath Bangalore Muniraju ,
- Sathyabalan Murugesan ,
- Pavithra Mukunda ,
- Bhargav Prasad ,
- Veeresha Kamanagowda ,
- Sanghamitra Bhattacharjee ,
- Pravin Kumar Dakshinamurthy ,
- Vivek Halan ,
- Sankaranarayanan Srinivasan ,
- Anuradha Hora ,
- Bairavabalakumar Natarajan ,
- Karthika Nair ,
- Aswini Thanigaivel ,
- Maliwalave Amol ,
- Bharath Ravindra Shenoy ,
- Sahana Bhima Rao ,
- Subhra Prakash Chakrabarty ,
- Ashvini Kumar Dubey ,
- Amir Khan ,
- Ankurina Sharma ,
- Rashmi Sharma ,
- Anurag Tiwari ,
- Santosh Kumar ,
- Shivani Patel ,
- Nikitha Markanda
The present disclosure relates to a method of generating an antibody library, not limiting to a synthetic antibody gene expression library built on pool of consensus nucleic acid sequences by using codon replacement technology. The present disclosure also relates to a synthetic antibody library generated by employing the method of the present disclosure and application(s) of said antibody library.
Method of generating a synthetic antibody library, said library and application(s) thereof
- Sohang Chatterjee ,
- Kavitha Iyer Rodrigues ,
- Maloy Ghosh ,
- Sunit Maity ,
- Divya Unnikrishnan ,
- Yogendra Manjunath Bangalore Muniraju ,
- Sathyabalan Murugesan ,
- Pavithra Mukunda ,
- Bhargav Prasad ,
- Veeresha Kamanagowda ,
- Sanghamitra Bhattacharjee ,
- Pravin Kumar Dakshinamurthy ,
- Vivek Halan ,
- Sankaranarayanan Srinivasan ,
- Anuradha Hora ,
- Bairavabalakumar Natarajan ,
- Karthika Nair ,
- Aswini Thanigaivel ,
- Maliwalave Amol ,
- Bharath Ravindra Shenoy ,
- Sahana Bhima Rao ,
- Subhra Prakash Chakrabarty ,
- Ashvini Kumar Dubey ,
- Amir Khan ,
- Ankurina Sharma ,
- Rashmi Sharma ,
- Anurag Tiwari ,
- Santosh Kumar ,
- Shivani Patel ,
- Nikitha Markanda
The present disclosure relates to a method of generating an antibody library, not limiting to a synthetic antibody gene expression library built on pool of consensus nucleic acid sequences by using codon replacement technology. The present disclosure also relates to a synthetic antibody library generated by employing the method of the present disclosure and application(s) of said antibody library.
CELL-STORED BARCODED DEEP MUTATIONAL SCANNING LIBRARIES AND USES OF THE SAME
Cell-stored barcoded viral protein deep mutational scanning libraries are described. The libraries can be used to map resistance mutations to therapeutic treatments. The libraries can be used to predict viruses that become resistant to therapeutic compounds and/or may more easily evolve to infect new species. The libraries can also be used to more safely study dangerous viruses that normally require high safety biocontainment facilities. The libraries include features that allow efficient collection and assessment of informative data, obviating many bottlenecks of previous approaches.
METHODS OF SCREENING
The invention provides a method of identifying a peptide interaction site on a target protein wherein the target protein modulates the phenotype of a mammalian cell, using mammalian encoded peptides (SEPs) such as short open reading frame (sORF) encoded peptides. The invention further provides a method for the identification of new therapeutic targets and protein interaction sites for use in drug discovery.
METHODS FOR MEASURING AND IMPROVING CRISPR REAGENT FUNCTION
The invention describes a novel system for identifying optimized gRNAs for use in CRISPR/Cas9 genome editing platforms. The invention allows for the determination of specific gene alterations rendered by a particular gRNA, thereby permitting the generation of optimized gRNA libraries.
Mapping protein binding sites and conformational epitopes using cysteine labelling and surface display library
The present disclosure provides a rapid, scalable, and high-throughput method of identifying the precise regions in a receptor protein which are involved in binding of a molecule of interest. The method of the instant disclosure is useful where the crystal structure of a protein of interest is not available. Also provided are surface display libraries, and methods of making the same.
Mapping protein binding sites and conformational epitopes using cysteine labelling and surface display library
The present disclosure provides a rapid, scalable, and high-throughput method of identifying the precise regions in a receptor protein which are involved in binding of a molecule of interest. The method of the instant disclosure is useful where the crystal structure of a protein of interest is not available. Also provided are surface display libraries, and methods of making the same.
GENETICALLY-ENCODED MACROCYCLIC PEPTIDE LIBRARIES BEARING A PHARMACOPHORE
The present invention relates to a method of forming a macrocyclic peptide bearing a pharmacophore and said produced macrocyclic peptide, wherein the method comprises the steps of: reacting a peptide with two thiol groups of cysteine side chains with the reactive compound 1,5-dichloropentanedion-2,4. The reaction between the reactive compound and the peptide produces an 1,3-diketone-containing macrocyclic polypeptide. The macrocycle with a 1,3-diketone group is then modified by reaction of said macrocycle with an alkyl or aryl hydrazine group bearing a pharmacophore in benign aqueous conditions. The macrocycles may be displayed in a library, such as a phage display library, and used to biopan for affinity against a selected target.