Project Grant 2409281
- This National Science Foundation (NSF) Mathematical and Physical Sciences grant, under CFDA 47.049, provides $480,000 to Alfred University to conduct a comprehensive study on stress and enthalpy relaxation in borosilicate glasses. The project aims to: 1) develop a database of stress and enthalpy relaxation data for high-homogeneity borosilicate glasses, 2) compare existing relaxation models, and 3) elucidate the atomic mechanisms behind glass relaxation through experiments and simulations. The...
- This $256,929 federal Project Grant award from the National Science Foundation's (NSF) Division of Materials Research under the Mathematical and Physical Sciences (CFDA 47.049) program supports a collaborative research project to gain a fundamental understanding of the deformation behavior of metallic glasses. The research team at the University of Michigan is employing advanced techniques like time-resolved 4-dimensional scanning transmission electron microscopy and machine learning to map...
- This Project Grant award from the National Science Foundation (NSF) under the Mathematical and Physical Sciences program (CFDA 47.049) supports research aimed at improving the understanding of heterogeneous molecular motion in glassy materials. The $235,528 award to Ohio University will fund theory and computer simulations to study the heterogeneous dynamics of molecules in the transition to the glassy state. This research focuses on the puzzling behavior of materials with heterogeneous...
- This Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) supports research to improve the modeling and prediction of long-term performance for polymer glasses, a class of non-equilibrium materials with applications in electronics, aerospace composites, and other areas. The $372,323 award, effective April 1, 2024 through March 31, 2027, is funding collaborative work between researchers at North Carolina State University (NC State) and the...
- This National Science Foundation (NSF) Integrative Activities (CFDA 47.083) Project Grant award of $299,838 to the University of New Mexico (UNM) is funding research to investigate stress-induced birefringence and refractive index changes in glass materials. The goal is to advance the capability of ultrafast laser micromachining techniques to reliably alter material properties and create sub-micron features in glass for fabricating novel optical components like waveguides, waveplates, and...
- This $523,521 Project Grant award from the National Science Foundation's Division of Materials Research (CFDA 47.049 - Mathematical and Physical Sciences) will fund collaborative research by The Ohio State University to gain a fundamental understanding of the deformation behavior of metallic glasses (MGs). The research team will employ advanced techniques like 4D scanning transmission electron microscopy, machine learning, and computer simulations to map and monitor the atomic structures in...
- This $225,298 Project Grant award to the Board of Regents of the University of Nebraska (University of Nebraska) by the National Science Foundation (NSF) Engineering program (CFDA 47.041) supports collaborative research to develop new approaches for predicting the long-term performance of polymer glasses. The research aims to address a major impediment in using polymeric glasses in advanced composites and other applications by improving the ability to quantify and model the mechanical and...
- This CAREER (Faculty Early Career Development) Project Grant, awarded by the National Science Foundation (NSF) Division of Materials Research under the Mathematical and Physical Sciences program (CFDA 47.049), funds fundamental research into the direct growth of single-crystal two-dimensional (2D) semiconductors on amorphous glass substrates. Awarded to Washington University on September 1, 2026, with total federal obligations of $417,790 and a completion date of August 31, 2031, the project...
- This National Science Foundation project grant of $261,718 will fund research at the University of Texas at Dallas from November 2022 to October 2025 under the Engineering program (CFDA 47.041). The research aims to improve fundamental understanding of the impact of heterogeneity and scale on the nonlinear viscoelastic behavior of glassy polymers and their nanocomposites. Researchers will use mechanical spectral hole burning and large amplitude oscillatory shear techniques to characterize...
- This National Science Foundation project grant of $651,108 awarded to Brown University on August 1, 2022 will support research into thermally activated dynamics in two-dimensional colloidal glasses and crystals under the Mathematical and Physical Sciences program (CFDA 47.049). Over a three year period ending July 31, 2025, the university will conduct experimental and theoretical work to uncover the microscopic mechanisms governing sudden phase transitions from liquid to solid without...
FUNDAMENTAL UNDERSTANDING OF DYNAMICAL PHENOMENA NEAR GLASS TRANSITION FOR INTELLIGENT DESIGN AND PROCESSING OF FUNCTIONAL OXIDE GLASSES -NON-TECHNICAL SUMMARY: FROM WINDOWS AND CONTAINERS TO LENSES IN TELESCOPES AND MICROSCOPES, INNOVATIVE DEVELOPMENTS IN THE SCIENCE AND TECHNOLOGY OF OXIDE GLASSES (SILICATES, PHOSPHATES, BORATES, AND THEIR VARIOUS COMBINATIONS) HAVE BEEN KEY ENABLERS OF CIVILIZATION THROUGHOUT HISTORY. THIS STRONG SOCIETAL IMPACT OF GLASS CONTINUES IN THE MODERN TIMES IN THE FORM OF APPLICATIONS SUCH AS OPTICAL FIBERS FOR LONG-DISTANCE TELECOMMUNICATION AND DAMAGE-RESISTANT DISPLAY PANELS FOR ELECTRONIC DEVICES, WHICH HAVE TRANSFORMED THE WAYS WE LIVE AND COMMUNICATE IN THE MODERN WORLD. ACCELERATING THE DESIGN OF THESE FUNCTIONAL GLASSES TO ADDRESS THE GRAND CHALLENGES FACED BY SOCIETY REQUIRES A FUNDAMENTAL UNDERSTANDING OF THE UNDERLYING RELATIONSHIPS BETWEEN THEIR ATOMIC STRUCTURE AT VARIOUS LENGTH SCALES AND THE DYNAMICAL PROCESSES IN THEIR PARENT LIQUIDS, THEIR PROGRESSION ACROSS GLASS TRANSITION ALONG WITH THE TEMPORAL EVOLUTION OF STRUCTURE-PROPERTY RELATIONSHIPS DURING PHYSICAL AGING OF THE DERIVED GLASSES. THIS PROJECT AIMS TO PROVIDE UNIQUE AND COMPREHENSIVE KNOWLEDGE REGARDING THE MECHANISTIC CONNECTIONS BETWEEN THESE ?MICROSCOPIC (ATOMISTIC)? AND ?MACROSCOPIC? ASPECTS IN OXIDE LIQUIDS AND GLASSES FOR THE VERY FIRST TIME, USING A UNIQUE AND POWERFUL COMBINATION OF CUTTING-EDGE CHARACTERIZATION TECHNIQUES. SCIENTIFICALLY, THIS WORK IMPACTS MATERIALS SCIENCE, PHYSICAL CHEMISTRY, AND SOLID-STATE PHYSICS. THE INTERDISCIPLINARY NATURE OF THIS WORK TRANSFERS KNOWLEDGE BETWEEN FIELDS AND PROVIDES STUDENTS WITH UNIQUE OPPORTUNITIES FOR INTELLECTUAL GROWTH. GRADUATES TYPICALLY FIND EMPLOYMENT IN BOTH ACADEMIA AND IN GLASS AND SEMICONDUCTOR INDUSTRY. THE IMPACT OF THIS RESEARCH IN EDUCATION AND OUTREACH IS IN THREE MAJOR AREAS: (1) ENGAGEMENT OF UNDERGRADUATE AND GRADUATE STUDENTS IN CUTTING-EDGE RESEARCH, (2) ACTIVE COLLABORATION WITH SCIENTISTS AT MULTIPLE NATIONAL LABS, AND (3) DISSEMINATING KNOWLEDGE, ESPECIALLY OF GLASS SCIENCE AND TECHNOLOGY, TO THE BROADER SCIENTIFIC COMMUNITY. THE RESEARCH FINDINGS ARE EMBEDDED INTO SPECIAL TOPICS COURSES THAT ARE OFFERED TO STUDENTS IN MATERIALS SCIENCE, CHEMISTRY, AND OTHER RELATED FIELDS; AND THEY CONTRIBUTE TO CAMPUS PROGRAMS FOR WOMEN AND MINORITY STUDENTS AND TO THE RECRUITMENT OF PROMISING UNDERGRADUATE AND GRADUATE STUDENTS FROM UNDERREPRESENTED AND ECONOMICALLY DISADVANTAGED GROUPS. TECHNICAL SUMMARY: ACCELERATING THE SMART DESIGN OF FUNCTIONAL OXIDE GLASSES TO ADDRESS SOME OF THE GRAND CHALLENGES FACED BY OUR SOCIETY TODAY REQUIRES FUNDAMENTAL KNOWLEDGE OF THE STRUCTURAL RELAXATION KINETICS OF SUPERCOOLED OXIDE LIQUIDS AND GLASSES AT LENGTH SCALES EXTENDING BEYOND THAT OF SHORT-RANGE ORDER AND OF THEIR MECHANISTIC CONNECTIONS WITH MELT FRAGILITY, DYNAMICAL HETEROGENEITY AND PHYSICAL AGING PHENOMENA, WHICH ARE INTIMATELY LINKED TO THEIR VIABILITY FOR VARIOUS PROCESSING TECHNIQUES UTILIZED IN INDUSTRY. THE PROPOSED PROJECT WILL SYSTEMATICALLY INVESTIGATE THESE CHALLENGING PROBLEMS UTILIZING A UNIQUELY POWERFUL COMBINATION OF CUTTING-EDGE CHARACTERIZATION TECHNIQUES INCLUDING X-RAY PHOTON CORRELATION, NMR, SHEAR-MECHANICAL AND ELECTRICAL IMPEDANCE SPECTROSCOPY AND CALORIMETRY TO BUILD A COMPREHENSIVE ATOMISTIC UNDERSTANDING OF THE DYNAMICS AND VARIOUS RELAXATIONAL PHENOMENA IN OXIDE GLASSES AND DEEPLY SUPERCOOLED LIQUIDS. THE RESULTS OBTAINED FROM THESE STUDIES WILL PROVIDE IMPORTANT AND NOVEL CONSTRAINTS FOR ADDRESSING SOME OF THE KEY OUTSTANDING QUESTIONS IN GLASS SCIENCE, SUCH AS THE LENGTH SCALE DEPENDENCE OF RELAXATION AND ITS IMPLICATIONS, THE NATURE OF THE DYNAMICAL HETEROGENEITY AND ITS EVOLUTION ACROSS GLASS TRANSITION AND THE TEMPORAL EVOLUTION OF STRUCTURE-PROPERTY RELATIONSHIPS DURING PHYSICAL AGING. THIS FUNDAMENTAL KNOWLEDGE WILL ENABLE THE ADVANCEMENT OF PREDICTIVE MODELS CRITICALLY NEEDED FOR OPTIMIZATION OF THE CHEMISTRY AND PROCESSING PARAMETERS OF OXIDE GLASSES AND GLASS-CERAMICS FOR ENHANCED FUNCTIONALITY, THEREBY PERMITTING THEIR WIDESPREAD APPLICATION IN TRANSFORMATIVE TECHNOLOGIES WITH STRONG SOCIETAL IMPACT. THE BREADTH, FLEXIBILITY AND INTERDISCIPLINARY NATURE OF THE PROJECT WILL PROVIDE THE STUDENTS WITH UNIQUE OPPORTUNITIES OF INTELLECTUAL GROWTH THAT WILL OPEN MANY FUTURE CAREER OPPORTUNITIES. IT WILL ALSO ENRICH THE GRADUATE EDUCATION AND TRAINING EXPERIENCE THROUGH NUMEROUS SCIENTIFIC DIALOGUES BETWEEN THE COLLABORATING SCIENTISTS AND PARTICIPATING STUDENTS. 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 | $162.9k | 8/19/25 | ||
| Not listed | $324.6k | 5/9/24 |