Project Grant 2440912
- This $157,688 National Science Foundation Integrative Activities award will support the development of bioactive surfaces through non-covalent protein-polymer conjugation strategies at the University of Southern Mississippi from June 2023 through May 2025. The goal of the project is to create regenerative protein-decorated surfaces with ease of removal and reapplication of active recombinant proteins for applications such as self-cleaning, antibacterial, and therapeutic surfaces. The Principal...
- This Project Grant award from the National Science Foundation's Division of Chemistry under the Mathematical and Physical Sciences (CFDA 47.049) program supports a collaborative research effort led by Emory University and the University of Illinois Chicago to design and develop peptide-based filamentous nanomaterials. The $300,000 award, effective from August 1, 2024 to July 31, 2027, will leverage computational methods to systematically explore the energetics and structural designability of...
- This $902,504 cooperative agreement from the National Science Foundation Division of Industrial Innovation under the Engineering program (CFDA 47.041) supports the development of a scalable downstream purification process for gene therapy vectors by Isolere Bio, Inc. of Durham, North Carolina. The non-chromatographic method seeks to address current inefficiencies that lead to single digit yields by utilizing a polypeptide-based reagent combining affinity capture with phase separation and...
- The University of Delaware received a $369,639 Project Grant award from the National Science Foundation Division of Chemical, Bioengineering, Environmental, and Transport Systems on July 15, 2021 to complete the project by June 30, 2024. The grant funds research to develop rapid purification of recombinant proteins through protein nanoparticle crosslinking and light-responsive nanobodies. This work supports the National Science Foundation Directorate for Engineering's mission to foster...
- This $337,863 Project Grant awarded by the National Science Foundation's (NSF) Division of Chemistry under the Mathematical and Physical Sciences program (CFDA 47.049) supports research by Professor Ken Marcus and his team at Clemson University to develop new methods for isolating and purifying diverse biological nanoparticles, including exosomes, lentiviruses, and adeno-associated viruses. The researchers aim to characterize and implement a unique fiber-based stationary phase,...
- This Cooperative Agreement award, funded by the National Science Foundation (NSF) under the Technology, Innovation, and Partnerships (CFDA 47.084) program, aims to develop a bioprocessing system to isolate and purify therapeutic antibodies directly from cell culture. The $999,998 award to Athem LLC, a minority-owned small business, will enable scaling up a novel nanoparticle-based purification media and an automated prototype system. The goal is to simplify the manufacturing of biologics, reduce...
- This Project Grant award from the National Science Foundation's (NSF) Mathematical and Physical Sciences program (CFDA 47.049) provides $300,000 to New York University (NYU) to enhance the design of fluorinated protein fibers and hydrogels for medical applications. The key objectives are: 1) generating coiled-coil fluorinated fibers for controlled drug delivery, 2) developing fluorinated coiled-coil hydrogels that change with temperature, and 3) assessing the potential of these materials as...
- This National Science Foundation (NSF) Project Grant award under the Mathematical and Physical Sciences program (CFDA 47.049) provides $343,638 to Texas A&M University-Commerce to conduct research on the thermochemistry, reaction dynamics, and conformational changes associated with the collisional activation of peptide ternary complexes and recombinant tagged proteins. The key products and services to be delivered through this 3-year grant include: Developing new zinc- and nickel-binding...
- This National Science Foundation (NSF) Engineering grant award, under the CFD Program 47.041, provides $150,000 to the University of Georgia Research Foundation to develop novel methods for high-throughput, antibody-free cell sorting. The project, titled "EAGER: IMPRESS-U: HIGH-THROUGHPUT AGILE INTERFACES FOR CELL SORTING," aims to create an alternative, scalable approach to efficiently separate therapeutic cells from unwanted or damaged cells for biomedical applications. The...
- This National Science Foundation (NSF) Biological Sciences program (CFDA 47.074) Project Grant award of $730,000 to the University of California, Los Angeles (UCLA) aims to transform the field of protein engineering through the development of an innovative technology called PicnnnShells. PicnnnShells are tiny, hollow particles that can rapidly screen up to one million different protein variations in a single day to identify useful proteins for research, industrial or medical applications. The...
CAREER: DESIGNING MIXED-MODE PURIFICATION MATERIALS FOR BIOMANUFACTURING AND ELUCIDATION OF PROTEIN ADSORPTION BEHAVIORS -PROTEIN-BASED THERAPEUTICS HAVE REVOLUTIONIZED THE TREATMENT OF DISEASES WITH HISTORICALLY POOR PROGNOSES, INCLUDING MANY ONCOLOGICAL, NEUROLOGICAL, AND INFECTIOUS CONDITIONS. THESE ADVANCED THERAPEUTICS ARE PRODUCED IN ENGINEERED CELLS. HOWEVER, THE CELLS ALSO PRODUCE UNWANTED IMPURITIES ALONGSIDE THE THERAPEUTIC, INCLUDING INFECTIOUS VIRUSES, UNWANTED PROTEINS AND DNA, AND MISFORMED PRODUCTS. THESE IMPURITIES MUST BE REMOVED TO ENSURE PATIENT SAFETY AND TREATMENT EFFICACY. MOST CURRENT SEPARATION METHODS ARE NOT DESIGNED TO PURIFY THESE EMERGING THERAPEUTICS, CREATING BOTTLENECKS IN DRUG DISCOVERY AND MANUFACTURING PIPELINES. MORE EFFECTIVE SEPARATION METHODS COULD ACCELERATE DEVELOPMENT AND ACCESSIBILITY OF THESE MEDICINES AND REDUCE COSTS FOR PATIENTS AND PHARMACEUTICAL COMPANIES. THIS PROJECT WILL DESIGN INNOVATIVE, BIOLOGY-INSPIRED ADSORPTIVE SEPARATION MATERIALS USING PEPTIDES, A TYPE OF BIOPOLYMER, TO PURIFY NEW MEDICINES FROM CONTAMINANTS. KNOWLEDGE GAINED ABOUT THE MATERIALS WILL BE USED TO BUILD AN ENGINEERING TOOLBOX TO OPTIMIZE THE DESIGN OF HIGHLY EFFICIENT SEPARATION MATERIALS AND PREDICT THEIR PERFORMANCE IN MANUFACTURING. THE PROJECT WILL ALSO HELP TRAIN A DOMESTIC WORKFORCE EQUIPPED TO TACKLE THE CHALLENGES ASSOCIATED WITH MANUFACTURING THESE NOVEL THERAPEUTICS. AN ANNUAL SUMMER WORKSHOP FOR ENGINEERING STUDENTS WILL BE ESTABLISHED, OFFERING HANDS-ON TRAINING IN BIOMANUFACTURING PROCESSES AND CUTTING-EDGE MODELING TOOLS TO FACILITATE RAPID AND RELIABLE DESIGN OF THESE CRITICAL SYSTEMS. THIS PROJECT WILL LEVERAGE RATIONALLY DESIGNED SHORT PEPTIDES TO ADVANCE THE MOLECULAR UNDERSTANDING OF PROTEIN ADSORPTION ONTO FUNCTIONALIZED SURFACES AND ESTABLISH DESIGN RULES LINKING THE CHEMISTRY AND ARCHITECTURE OF MIXED-MODE PEPTIDE LIGANDS FEATURING SYNERGISTIC INTERACTION MODES TO PROTEIN ADSORPTION BEHAVIORS. USING THESE MATERIALS, THE INVESTIGATOR WILL DETERMINE HOW FACTORS SUCH AS GRAFTING DENSITY, LIGAND FLEXIBILITY, ION TYPE, AND THE SPATIAL ARRANGEMENT OF CHARGE AND HYDROPHOBIC CHEMICAL GROUPS INFLUENCE PROTEIN ADSORPTION IN CHROMATOGRAPHIC SYSTEMS AND OTHER FUNCTIONALIZED SURFACES. FURTHERMORE, THIS PROJECT WILL QUANTITATIVELY EXAMINE HOW THESE LIGAND PROPERTIES DICTATE WHICH PROTEIN SURFACE CHARACTERISTICS GOVERN INTERACTIONS IN NON-SPECIFIC ADSORPTION SYSTEMS. TAKEN TOGETHER, THESE INSIGHTS WILL ENABLE THE IDENTIFICATION AND SYNTHESIS OF A SMALL SET OF ORTHOGONALLY SELECTIVE MIXED-MODE CHROMATOGRAPHIC RESINS CAPABLE OF EFFICIENTLY PURIFYING A WIDE RANGE OF PROTEIN THERAPEUTIC MODALITIES. ADDITIONALLY, THIS PROJECT WILL ESTABLISH A PREDICTIVE PROCESS DESIGN TOOL BY CREATING A NEW MODEL FOR STUDYING AND TRACKING INDIVIDUAL HOST CELL PROTEIN TRANSPORT AND ADSORPTION IN THESE MATERIALS, ENABLING FULL IN SILICO DESIGN AND OPTIMIZATION OF SEPARATION PROCESSES FOR NEW THERAPEUTICS WITHOUT EXTENSIVE MODEL CALIBRATION. BEYOND ITS IMPLICATIONS FOR CHROMATOGRAPHIC SEPARATIONS AND STREAMLINING BIOMANUFACTURING WORKFLOWS, THIS WORK WILL ENHANCE THE UNDERSTANDING OF MIXED-MODE SURFACES IN BROADER APPLICATIONS, INCLUDING DRUG DELIVERY, BIOSENSING, AND BIOMATERIALS ENGINEERING. FURTHER, THIS RESEARCH PROGRAM WILL ESTABLISH A SUMMER WORKSHOP SERIES, CHROMATOGRAPHIC APPROACHES FOR MANUFACTURING PROTEIN BIOLOGICS (CAMPBIO), DESIGNED FOR UNDERGRADUATE ENGINEERING STUDENTS. THIS ANNUAL, WEEK-LONG PROGRAM WILL COMBINE LAB AND CLASSROOM-BASED LEARNING TO TEACH THE THEORY AND HANDS-ON APPLICATION OF MODELING AND PROCESS DEVELOPMENT FOR NON-TRADITIONAL PROTEIN THERAPEUTICS, DEVELOPING A WORKFORCE EQUIPPED TO SOLVE THE MANUFACTURING CHALLENGES ASSOCIATED WITH WIDENING THERAPEUTICS PIPELINES. THE DATA AND MODELS DEVELOPED THROUGH THIS RESEARCH AND CAMPBIO WILL BE LEVERAGED IN INTERACTIVE PROJECTS IN CHEMICAL ENGINEERING COURSES AT THE UNIVERSITY OF VIRGINIA, EXPOSING STUDENTS TO MANUFACTURING PROCESSES FOR NEW THERAPEUTIC MODALITIES. THIS AWARD REFLECTS NSF'S STATUTORY MISSION AND HAS BEEN DEEMED WORTHY OF SUPPORT THROUGH EVALUATION USING THE FOUNDATION'S INTELLECTUAL MERIT AND BROADER IMPACTS REVIEW CRITERIA.- SUBAWARDS ARE NOT PLANNED FOR THIS AWARD.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $600.0k | 6/4/25 |