Project Grant 2309886
- This National Science Foundation (NSF) Division of Chemistry award provides $760,000 over 4 years to support an interdisciplinary research project led by Professors Colin Nuckolls and Xavier Roy of Columbia University. The project aims to explore the development of a new class of macromolecular materials that combine electronic and chiral properties, with the goal of understanding how chirality can be used to control spin-selective electron transport. This research will integrate advanced design...
- This three-year, $544,758 project grant from the National Science Foundation Division of Chemistry supports the development of new optical sensing methodologies to accelerate and broaden chiral compound analysis at Georgetown University. The university's Chemistry Department will introduce widely applicable small-molecule probes, novel molecular recognition strategies, artificial intelligence tools, and automated high-throughput experimentation technology. This will help overcome current...
- The National Science Foundation Division of Chemistry awarded a $374,888 Project Grant to Texas A&M University-Corpus Christi to support research examining the effect of templating agents on the size, shape, and chiral recognition of bifurcated amino acid-based amphiphilic molecular assemblies. The goal is to understand factors controlling self-assembly and interactions with biologically relevant molecules of these novel branched surfactant systems. A collaboration between Texas A&M...
- This $358,040 Project Grant, awarded by the National Science Foundation (NSF) Division of Chemistry under the Mathematical and Physical Sciences program (CFDA 47.049), supports fundamental computational research conducted by Professor Mesfin Tsige at the University of Akron from September 1, 2025, through August 31, 2028. The primary deliverable is advanced theoretical and computational understanding of macroion self-assembly and solvation behavior through a multi-scale modeling approach. The...
- This Project Grant award from the National Science Foundation (NSF) under the Mathematical and Physical Sciences program (CFDA 47.049) will investigate the torsional piezoelectric properties of chiral (asymmetric) biological molecules. The $299,963 award will fund a two-year study to explore how chiral solids can generate voltage when twisted and twist in response to an applied voltage, with potential applications in power generation and microscopic motors. The project will study both left-...
- The National Science Foundation (NSF) Division of Chemistry awarded a $678,642 Project Grant to Professor Donghui Zhang of Louisiana State University (LSU) to study the structures of micellar assemblies of ionic polypeptoid block copolymers (BCPs). The research aims to understand how the charge pattern and chemical identity of ionic monomers in these polymers modulate their aqueous micellar assemblies across dilute to semi-dilute concentration regimes. The project has three key objectives: (1)...
- This $495,000 Project Grant from the National Science Foundation Division of Chemistry will fund research into cryogenic ion spectroscopy studies of ion-receptor interactions in water-soluble molecular recognition complexes and their hydrated clusters. The grant supports work by Professor J. Mathias Weber and team at the University of Colorado Boulder from August 1, 2022 to July 31, 2025. The research focuses on characterizing the structures and intermolecular forces governing molecular...
- This $530,000 federal Project Grant was awarded by the National Science Foundation (NSF) Division of Materials Research under the Mathematical and Physical Sciences (CFDA 47.049) program. The award will fund a research project at the University of North Carolina at Chapel Hill (UNC-CH) to develop new chiral two-dimensional organic-inorganic hybrid perovskite materials with tunable circular dichroism properties. The project aims to (1) synthesize and characterize new chiral hybrid perovskites...
- This Project Grant award from the National Science Foundation's (NSF) Mathematical and Physical Sciences Program (CFDA 47.049) supports research by Professor Shumaker-Parry's group at the University of Utah to develop plasmon-enhanced vibrational circular dichroism (PE-VCD) spectroscopy for improved analysis of chiral molecules. The $495,000 award will fund studies to: 1) enhance the VCD instrument for solid substrate measurements, 2) investigate the coupling of chiral molecules with...
- The Regents of the University of California at Riverside received a $501,641 National Science Foundation Project Grant under the Mathematical and Physical Sciences (47.049) program to develop novel plasmonic chiral superstructures using magnetic assembly of hybrid magnetic/plasmonic nanoparticles. Professor Yin and his team will explore how to create inherent chirality, or handedness, in nanostructures by assembling hybrid nanoparticles containing magnetic oxides and noble metals in magnetic...
AMPLIFICATION OF CHIRAL RECOGNITION AND DISCRIMINATION AMONG AMINO-ACID-BASED NANOSCALE IONS DURING ASSEMBLY INDUCED BY ELECTROSTATIC INTERACTION -THIS AWARD SUPPORTS EXPERIMENTAL RESEARCH AND EDUCATION AIMED AT UNDERSTANDING HOW CHIRALITY IS MAINTAINED AND AMPLIFIED DURING THE FORMATION OF SUPERSTRUCTURES BY CHARGED MACROMOLECULES. MOST BIOMACROMOLECULES LIKE PROTEINS AND DNA ARE CHIRAL, THAT IS, THE SAME MOLECULE HAS TWO DIFFERENT GEOMETRICAL FORMS WHICH CANNOT BE SUPERIMPOSED ONTO ITS MIRROR IMAGE. ALTHOUGH BOTH FORMS ARE CONSIDERED IDENTICAL IN CHEMICAL AND PHYSICAL PROPERTIES EXCEPT THEIR HANDEDNESS, EXCLUSIVELY L-AMINO ACIDS IN PROTEINS AND D-SUGARS ARE FOUND IN BIOLOGICAL SYSTEMS ? A PHENOMENON CALLED HOMOCHIRALITY. MANY INTERESTING PHENOMENA HAVE BEEN DISCOVERED, SUCH AS THAT CHARGED CHIRAL SPECIES ONLY SEEK THEIR OWN KIND WHEN FORMING LARGE STRUCTURES (CHIRAL RECOGNITION), AND UNDER CERTAIN CONDITIONS ONLY ONE FORM WILL ASSEMBLE WHILE THE OTHER ONE STAYS AS MOLECULES IN SOLUTION (CHIRAL DISCRIMINATION, WHICH LEADS TO HOMOCHIRALITY). THESE ARE IMPORTANT TOPICS IN MANY FIELDS FROM LIFE SCIENCES TO CATALYSIS AND SEPARATION SCIENCE. THE PI WILL EXPLORE THE CONDITIONS NEEDED FOR ACHIEVING SUCH PHENOMENA IN SOLUTION BY STUDYING NANOSCALE INTERMOLECULAR PHYSICAL INTERACTIONS, ESPECIALLY THE LONG-RANGE ELECTROSTATIC INTERACTION BETWEEN DIFFERENT CHRAL COMPONENTS, WHICH IS THE PROBABLE DRIVING FORCE. THE PROJECT ENGAGES GRADUATE AND UNDERGRADUATE STUDENTS THROUGH THE NSF-REU CENTER, AND THE NEWLY ESTABLISHED BS PROGRAM IN POLYMERS, BOTH AT THE SCHOOL OF POLYMER SCIENCE AND POLYMER ENG. AT THE UNIVERSITY OF AKRON, AND HIGH SCHOOL STUDENTS FROM NORTHEAST OHIO. THE PI?S TEAM WILL SPECIFICALLY RECRUIT FROM LOCAL SCHOOLS THAT SERVE LARGE NUMBERS OF STUDENTS FROM GROUPS TRADITIONALLY UNDER-REPRESENTED IN STEM FIELDS, ENCOURAGING STUDENTS TO TAKE SCIENCE COURSES AND PURSUE STEM RELATED CAREERS. PI TIANBO LIU FROM THE UNIVERSITY OF AKRON WILL EXPLORE THE NANOSCALE INTERMOLECULAR INTERACTIONS IN DILUTE MACROIONIC SOLUTIONS CONTAINING MULTIPLE CHIRAL COMPONENTS, BY USING METAL-ORGANIC CAGES CONTAINING DIFFERENT CHIRAL AMINO ACID LINKERS AS MODELS . SUCH INTERACTIONS ARE RESPONSIBLE FOR ACHIEVING CHIRAL RECOGNITION (E.G., FORMING ENANTIOMERIC, CHIRAL SUPRAMOLECULAR STRUCTURES INSTEAD OF RACEMIC MIXED ONES) AND CHIRAL DISCRIMINATION AND SELECTION (E.G., ONLY ONE ENANTIOMER OF CHIRAL MACROIONS WILL ASSEMBLE, IN THE PRESENCE OF SMALL AMOUNT OF CHIRAL COUNTERIONS OR CO-IONS). THE PI PLANS TO DESIGN EXPERIMENTS TO EXPLORE THE PROBABLE KEY ROLE OF THE LONG-RANGE ELECTROSTATIC INTERACTION, REPRESENTED BY THE INTERACTIONS OF CHIRAL COUNTERIONS OR CO-IONS WITH THE CENTRAL CHIRAL MACROIONS, BEHIND SUCH PHENOMENA, BY EXAMINING THE FOLLOWING HYPOTHESES: (1) LONG-RANGE ELECTROSTATIC INTERMOLECULAR INTERACTION IS CRITICAL FOR ACHIEVING CHIRAL RECOGNITION BETWEEN CHIRAL MACROIONS, RESULTING IN PURE ENANTIOMERIC SUPRAMOLECULAR STRUCTURES IN RACEMIC SOLUTIONS INSTEAD OF FORMING MIXED ASSEMBLIES; (2) A MINOR CHIRAL ENVIRONMENT (E.G., LOW CONCENTRATIONS OF MINOR CHIRAL COUNTERIONS) IS SUFFICIENT TO ACHIEVE CHIRAL SELECTION (I.E., PROMOTING ONE TYPE OF ENANTIOMER TO SELF-ASSEMBLE WHILE SUPPRESSING THE OTHER TYPE) IN CHIRAL MACROIONIC SOLUTION; (3) CHIRAL SELECTION OF THE METAL ORGANIC CAGE MACROIONS MIGHT BECOME MUCH MORE SIGNIFICANT WHEN THE COUNTERIONS (AMINO ACIDS, E.G., ALANINE) AND THE LIGANDS OF THE METAL ORGANIC CAGES ARE OF THE SAME TYPE (E.G., ALANINE); (4) CHIRAL CO-IONS (IONS CARRYING THE SAME CHARGE AS THE MACROIONS) THEMSELVES ALONE MIGHT ALSO BE ABLE TO ACHIEVE CHIRAL RECOGNITION AND CHIRAL SELECTION OF CHIRAL MACROIONS; AND (5) MINOR CHIRAL COMPONENTS CAN LEAD TO THE FORMATION OF CHIRAL GELS WITH TUNABLE CHIRALITY. THE PI?S TEAM EXPECTS TO CONTRIBUTE TO OUR FUNDAMENTAL UNDERSTANDING OF NANOSCALE INTERMOLECULAR INTERACTIONS BY IDENTIFYING THE CRITICAL FORCE LEADING TO THE CHIRAL RECOGNITION AND CHIRAL SELECTION OF BIOMACROMOLECULES, WHICH FURTHER LEAD TO MANY CRITICAL PHENOMENA SUCH AS THE HOMOCHIRALITY FEATURE OF LIVES. THE PROJECT ENGAGES GRADUATE AND UNDERGRADUATE STUDENTS THROUGH THE NSF-REU CENTER, AND THE NEWLY ESTABLISHED BS PROGRAM IN POLYMERS, BOTH AT THE SCHOOL OF POLYMER SCIENCE AND POLYMER ENG. AT THE UNIVERSITY OF AKRON, AND HIGH SCHOOL STUDENTS FROM NORTHEAST OHIO. THE PI?S TEAM WILL SPECIFICALLY RECRUIT FROM LOCAL SCHOOLS THAT SERVE LARGE NUMBERS OF STUDENTS FROM GROUPS TRADITIONALLY UNDER-REPRESENTED IN STEM FIELDS, ENCOURAGING STUDENTS TO TAKE SCIENCE COURSES AND PURSUE STEM RELATED CAREERS. 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 | $134.8k | 8/28/25 | ||
| Not listed | $133.2k | 7/17/25 | ||
| Not listed | $131.6k | 11/14/23 |