Project Grant 2337946
- This federal Project Grant award from the National Science Foundation's Mathematical and Physical Sciences program (CFDA 47.049) is providing $1.1M to Purdue University and subawardees to develop sustainable, hemp-derived bioplastics with exceptional properties and recyclability. The goal is to accelerate the displacement of legacy petrochemical-based plastics, reducing greenhouse gas emissions and microplastics. The project will investigate novel hemp-derived monomers to synthesize a variety of...
- This $1,000,000 Project Grant from the National Science Foundation's Division of Chemistry, under the Mathematical and Physical Sciences program (CFDA 47.049), supports research at New York University to develop methods for converting lignin from pulp and paper waste into useful chemical feedstocks. Principal Investigator Tianning Diao aims to establish a microscopic reverse biosynthesis process using titanium-mediated depolymerization and electrocatalytic methods, drawing inspiration from...
- This Project Grant award from the National Science Foundation (NSF) Division of Materials Research under the Mathematical and Physical Sciences program (CFDA 47.049) provides $300,000 to the University of Washington to conduct research on developing sustainable polymer foams from renewable biomass-derived polymer mixtures. The key focus is on synthesizing hierarchical polymeric foams with controllable structure and mechanical properties directly from unprocessed polymer mixtures found in...
- This Faculty Early Career Development (CAREER) Program award from the National Science Foundation's Division of Civil, Mechanical, and Manufacturing Innovation (CFDA 47.041) funds fundamental research to advance predictive design of polymer materials by establishing mechanistic links between molecular-scale entanglements and macroscopic mechanical properties. The $569,573 award to SUNY at Binghamton, active from April 1, 2026 through March 31, 2031, will produce physics-informed machine learning...
- This $195,000 Federal Project Grant award from the National Science Foundation (NSF) Engineering program (CFDA 47.041) supports research by the University of Colorado to accelerate the development of sustainable bioplastics. The key objectives are to use high-throughput data capture, multiscale modeling, and machine learning to better understand the molecular and chemical mechanisms controlling the transformation of biomatter into thermoformable bioplastics. This knowledge will enable...
- This National Science Foundation (NSF) Convergence Accelerator Track M award of $649,990 to Rensselaer Polytechnic Institute (RPI) supports the development and commercialization of a family of sustainable bio-based plastics derived from hydroxy fatty acids. Key activities include scaling up monomer synthesis, conducting polymer characterization and recycling assessments, and performing techno-economic and life cycle analyses. RPI is collaborating with Danimer Scientific, a bioplastics...
- This Project Grant award from the National Science Foundation's (NSF) Integrative Activities program (CFDA 47.083) provides $118,143 to the University of Alabama to develop sustainable, functional paper-based packaging materials as an alternative to plastic. The project aims to improve the barrier properties of cellulose-based packaging by impregnating it with bio-derived compounds extracted from agricultural waste, using supercritical carbon dioxide technology. Key activities involve studying...
- This $735,670 Faculty Early Career Development (CAREER) award from the National Science Foundation's (NSF) Engineering program supports fundamental research to create strong, tough, and sustainable materials through new knowledge of small-scale fracture in architected materials. The research will involve developing bio-derived and/or biodegradable materials with precise microstructures using advanced manufacturing, testing their mechanical properties, and modeling crack growth and propagation in...
- This Project Grant award provided by the National Science Foundation (NSF) Division of Civil, Mechanical, and Manufacturing Innovation (CFDA 47.041 Engineering) will support the development of novel manufacturing principles for high-performance, sustainable packaging films from hierarchically reinforced biopolymers. The $374,160 award to North Carolina State University aims to enable the production of natural material-based films that match or exceed the properties of synthetic polymer films,...
- This $391,345 Project Grant awarded by the National Science Foundation (NSF) Engineering program supports research at Stanford University to develop optically recyclable polymer resins for sustainable additive manufacturing. The project aims to engineer reversible photochemical mechanisms and nanoparticle-based light delivery systems that would allow 3D-printed materials to be optically "erased" and reused over multiple cycles, transitioning from a linear...
CAREER: ILLUMINATING MOLECULAR-LEVEL EFFECTS IN NEW PLANT-BASED NANOCOMPOSITES FOR ADDITIVE MANUFACTURING BY STEREOLITHOGRAPHY -NON-TECHNICAL SUMMARY PLANTS ARE REMARKABLE ORGANISMS. THEY ARE TOWERING, SUNLIGHT-DRIVEN FACTORIES THAT USE CARBON DIOXIDE, WATER, AND SOIL NUTRIENTS TO CREATE ALL THE MATERIALS THEY NEED TO SURVIVE, INCLUDING THE FACTORY ITSELF! WHILE MANY HUMAN-MADE FACTORIES ARE CONSTRUCTED USING CONCRETE, PLANTS USE LONG MOLECULES CALLED POLYMERS TO CREATE SUPPORTING STRUCTURES. THESE STRUCTURES ALLOW A PLANT TO STAND UP AND REACH OUT FOR SUNLIGHT, MOVE WATER AND NUTRIENTS BETWEEN ITS ORGANS, AND PROTECT ITSELF AND ITS OFFSPRING. ONE OF THESE POLYMERS IS CALLED LIGNIN, AND IT FUNCTIONS LIKE THE CEMENT IN CONCRETE; IT IS A SORT OF GLUE THAT HOLDS EVERYTHING TOGETHER. IT ALSO HAS A CHEMICAL STRUCTURE THAT IS VERY SIMILAR TO MANY OF THE PLASTICS THAT PEOPLE USE IN EVERYDAY LIFE. THEREFORE, LIGNIN COULD BE USED TO MAKE NEW PLASTICS, INCLUDING THOSE USED FOR 3D PRINTING. USING LIGNIN TO 3D PRINT OBJECTS WOULD BE LIKE HOW PLANTS USE LIGNIN TO MANUFACTURE THEIR LEAVES, STEMS, ROOTS, AND SEEDS. ALSO, SINCE PLANTS ARE A RENEWABLE RESOURCE, PLASTICS MADE FROM THEM WOULD ALSO BE RENEWABLE, WHICH IS THE OPPOSITE OF CURRENT NON-RENEWABLE PLASTICS THAT ARE MADE FROM CRUDE OIL. FINALLY, SINCE PLANTS USE CARBON DIOXIDE TO MAKE LIGNIN, GROWING NEW PLANTS TO MAKE NEW PLASTICS WOULD REDUCE THE AMOUNT OF CARBON DIOXIDE IN THE ATMOSPHERE, WHICH COULD LESSEN ITS EFFECT ON CLIMATE CHANGE. THE GOAL OF THIS PROJECT IS TO LEARN HOW TO CONTROL THE STRUCTURE OF LIGNIN TAKEN FROM PLANTS AND USE IT TO CREATE NEW MATERIALS FOR 3D PRINTING. NEW CHEMISTRY METHODS TO EXTRACT, MODIFY, AND USE LIGNIN WILL BE EXPLORED. THE PRINCIPAL INVESTIGATOR WILL ALSO STUDY HOW USING LIGNIN AND OTHER PLANT POLYMERS COULD LESSEN THE EFFECTS OF CLIMATE CHANGE AND HOW USING THEM COULD HELP PEOPLE IN RURAL COMMUNITIES GET GOOD JOBS RELATED TO THESE NEW RENEWABLE MATERIALS. IN ADDITION, THE RESEARCH PLAN WILL BE AUGMENTED BY ENRICHING UNDERGRADUATE EDUCATION AT THE INTERSECTION OF POLYMER SCIENCE AND SUSTAINABILITY, SUPPORTING UNDERGRADUATE RESEARCH OPPORTUNITIES RELATED TO SUSTAINABILITY, AND DISSEMINATING CUTTING EDGE RESEARCH PRINCIPLES TO K12 STUDENTS THROUGH RESEARCH EXPERIENCES FOR TEACHERS PROGRAM. TECHNICAL SUMMARY THE OVERARCHING GOALS OF THIS CAREER PLAN ARE TO (1) DEVELOP 3D PRINTABLE COMPOSITE RESINS CONSISTING OF SUITABLY MODIFIED NANOCELLULOSE AND LIGNIN, (2) USE THIS RESEARCH AS A PLATFORM TO INTRODUCE STUDENTS TO BOTH FUNDAMENTAL PRINCIPLES OF POLYMER SCIENCE AND ISSUES OF SOCIAL JUSTICE AND SUSTAINABILITY THAT UNDERPIN RENEWABLE BIOPRODUCTS, AND (3) CONTRIBUTE TO GLOBAL EFFORTS TO DIMINISH THE EFFECTS OF ANTHROPOGENIC CLIMATE CHANGE BY REDUCING THE CONCENTRATION OF ATMOSPHERIC CARBON. THE PROPOSED CAREER PLAN WILL ADVANCE KNOWLEDGE AND UNDERSTANDING IN SEVERAL FIELDS, INCLUDING GREEN ENGINEERING, SYNTHETIC CHEMISTRY, AND POLYMER SCIENCE AND ENGINEERING. THE AIMS INCLUDE (1) ESTABLISHING APPROACHES TO CONTROL THE OXIDATION STATE OF ALIPHATIC CARBONS IN LIGNIN DURING FRACTIONATION AND UPGRADING, (2) DEVELOPING TECHNIQUES TO CONTROL LIGNIN STRUCTURE AND FUNCTION AS A PHOTOPOLYMERIZABLE POLYMER MATRIX, AND (3) IDENTIFYING METHODS TO BLEND MODIFIED LIGNIN FEEDSTOCKS TO CREATE NEW STEREOLITHOGRAPHY RESINS. THESE ACTIVITIES EXPLORE TRANSFORMATIVE CONCEPTS, INCLUDING PRODUCING ENTIRELY RENEWABLE BIOCOMPOSITE RESINS FOR 3D PRINTING. IN ADDITION, THE RESEARCH PLAN WILL BE AUGMENTED BY (1) ENRICHING UNDERGRADUATE EDUCATION AT THE INTERSECTION OF POLYMER SCIENCE AND SUSTAINABILITY, (2) SUPPORTING UNDERGRADUATE RESEARCH OPPORTUNITIES RELATED TO SUSTAINABILITY AND ?DRAWDOWN,? AND (3) DISSEMINATING CUTTING EDGE RESEARCH PRINCIPLES TO K12 STUDENTS THROUGH RESEARCH EXPERIENCES FOR TEACHERS. 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 | $127.2k | 7/8/25 | ||
| Not listed | $124.8k | 1/2/24 |