Project Grant S10EB041079
- This $589,100 National Science Foundation Engineering Directorate Project Grant will fund the acquisition of a Nanoscribe Photonics Professional GT2 3D printer for precision medical device manufacturing at Michigan State University from September 1, 2022 to August 31, 2025. The printer will be housed in the university's Electrical and Computer Engineering Research Cleanroom, a shared research facility available to MSU researchers and external users. It will immediately benefit investigators from...
- This $399,935 National Science Foundation (NSF) Project Grant Award under the Computer and Information Science and Engineering program (CFDA 47.070) aims to develop a portable and cost-effective biomedical diagnostic system in the form of an integrated lab-on-a-chip platform produced using additive manufacturing techniques. The key products and services to be delivered include: Advancing 3D manufacturing techniques, particularly in electrode printing, to enhance fabrication precision and...
- This $305,548 National Science Foundation Engineering grant will support the acquisition of a multi-modal, high-resolution 4D bioprinting platform at North Carolina State University. The platform features laser induced forward transfer, micro-valve drop-on-demand, and micro-extrusion printing capabilities for fundamental research and workforce training in additive manufacturing, tissue engineering, plant and animal cell biology, functional materials engineering, and bioelectronics. With...
- Project Grant Summary Colorado State University received a Project Grant award of $727,297 from the National Institute of General Medical Sciences (NIGMS) under the Biomedical Research and Research Training program (CFDA 93.859), effective July 15, 2025, with completion targeted for July 14, 2026. The award funds the acquisition and implementation of a 3i Marianas Super-Resolution Spinning Disk Confocal (SDC) microscope system to replace the university's original open-access SDC microscope...
- This $257,665 project grant, awarded by the National Science Foundation (NSF) under the Integrative Activities program (CFDA 47.083), aims to establish an innovative electrohydrodynamic (EHD) 3D printing technology for fabricating microscale 3D electronics. The key objectives are: 1) studying the relationship between ink composition and rheological properties, 2) investigating spatial photonic sintering of metallic nanoparticles, and 3) developing the "Intense Pulsed Light Assisted EHD 3D...
- The National Science Foundation awarded Mississippi State University $582,289 under the Major Research Instrumentation (MRI) program on October 1, 2025, to develop a machine-learning-assisted multi-material 3D printer with continuous fiber deposition capability for advanced additive manufacturing research. The award funds development of a hybrid additive manufacturing system integrating continuous fiber reinforcement with liquid-like polymer inks and machine learning-driven process optimization....
- The National Science Foundation awarded Phase, Inc., $304,761 on June 1, 2026, under the Small Business Technology Transfer Phase I program (CFDA 47.084, Technology, Innovation, and Partnerships) to develop advanced 3D printing methods for polydimethylsiloxane microfluidic devices. Phase will refine laser-based additive manufacturing processes to enable rapid, high-resolution fabrication of microfluidic systems—also called "labs on a chip"—without requiring specialized cleanroom...
- This National Science Foundation (NSF) Engineering program (CFDA 47.041) Project Grant award of $600,000 to the University of California, San Diego (UCSD) aims to develop additive and subtractive manufacturing processes to rapidly print and erase biomaterials capable of high-density wireless mechanical sensing. Specifically, the project will engineer photolabile ferroelectric bioinks incorporating piezoelectric nanoparticles with electrochromic dyes within a hydrogel. These bioinks will be...
- This National Science Foundation (NSF) Project Grant award, funded under the NSF Engineering program (CFDA 47.041), provides $1,100,000 to Southern University and A&M College (SUBR) to acquire an advanced laser powder bed fusion 3D printer for multi-material additive manufacturing research and education. The project aims to enhance engineering research and workforce development, particularly among underrepresented groups, through hands-on experience with this cutting-edge additive...
- Federal Grant Award Summary This $300,000 EAGER (Early-Concept Grant for Exploratory Research) award from the National Science Foundation's Division of Civil, Mechanical, and Manufacturing Innovation (CFDA 47.041—Engineering) supports fundamental research at Texas Tech University to develop innovative acoustic array-assisted three-dimensional (3D) bioprinting technology. The project, active from September 1, 2025, through August 31, 2027, focuses on enabling dynamic, layer-by-layer cell...
HIGH-DEFINITION MICROFLUIDICS 3D PRINTER - PROJECT SUMMARY/ABSTRACT THE REQUESTED INSTRUMENT IS A HIGH-DEFINITION 3D PRINTER, SPECIALLY DESIGNED FOR FABRICATION OF MICROFLUIDIC DEVICES. THE SPECIFIC PRODUCT IS THE PROFLUIDICS 285D SYSTEM BY CADWORKS3D (CONCORD, ONTARIO, CANADA). THE INSTRUMENT IS NEEDED TO ENABLE RAPID PROTOTYPING OF MICROFLUIDIC DEVICES, INTENDED FOR BIOMEDICAL RESEARCH AND HANDS-ON EDUCATION AT SAN JOSE STATE UNIVERSITY (SJSU). THIS INSTRUMENT WILL PROVIDE AN OVERALL BENEFIT TO SJSU'S RESEARCH AND EDUCATION BY VIRTUE OF ITS SPEED, COST EFFECTIVENESS, VERSATILITY WITH COMPLEX GEOMETRIES, AND BIOCOMPATIBLE MATERIALS. THE BROAD, LONG-TERM OBJECTIVES OF THE PI AND FELLOW MAJOR USERS ARE (1) TO INTERROGATE MICROSCALE BIOLOGICAL PHENOMENA UNDER PHYSIOLOGICALLY-RELEVANT FLOW CONDITIONS; (2) TO INNOVATE ENGINEERING SOLUTIONS THAT ADDRESS THE CAUSES, DIAGNOSIS, PREVENTION, AND CURE OF HUMAN DISEASES; AND (2) TO EDUCATE, TRAIN, AND MOTIVATE STUDENTS IN HANDS-ON MICROSCALE ENGINEERING. ACCESS TO THIS INSTRUMENT WILL STIMULATE BIOMEDICAL RESEARCH BY ENABLING SEVERAL INVESTIGATORS AT SJSU (SPEARHEADED BY INITIALLY 6 INVESTIGATORS AS MAJORS USERS) TO CONDUCT EXPERIMENTAL STUDIES ACROSS IMPORTANT AREAS OF BIOFLUID MECHANICS AND BIOTRANSPORT PHENOMENA. THE TOPICS OF RESEARCH CONDUCTED BY THE MAJOR USERS INCLUDE HEMODYNAMICS, ENDOTHELIAL MECHANOBIOLOGY, MITOCHONDRIAL MECHANOTRANSDUCTION, CELL SORTING, TISSUE SCAFFOLDING, BREASTFEEDING, SWALLOWING MECHANICS, AND NEUROTOXIN DETECTION. THESE INVESTIGATORS AND THEIR INTRAMURAL AND EXTRAMURAL COLLABORATORS ALSO CONDUCT RESEARCH IN COMPLEMENTARY AREAS (E.G., THROMBOSIS, BIOROBOTICS, WEARABLE HEALTH MONITORING, GENERATIVE DESIGN WITH ARTIFICIAL INTELLIGENCE) THAT CAN ALSO BENEFIT FROM THE MICRON-SCALE RAPID PROTOTYPING CAPABILITIES OF THE PROFLUIDICS 285D SYSTEM. ACCESS TO THIS INSTRUMENT WILL SUPPORT EDUCATION AT OUR INSTITUTION MOST SPECIFICALLY BY SERVING TWO HANDS-ON LABORATORY COURSES AS MAJOR USERS: AN UNDERGRADUATE ELECTIVE COURSE IN MICROELECTROMECHANICAL SYSTEMS (MEMS) AND MICROFLUIDICS, AND A GRADUATE COURSE ON EXPERIMENTAL METHODS IN BIOMEDICAL ENGINEERING. IN THE MICROFLUIDICS CLASS, THE REQUESTED 3D PRINTER WILL BE USED PREDOMINANTLY FOR THE OPEN-ENDED CLASS TERM PROJECT, IN WHICH STUDENTS COLLABORATE IN SMALL TEAMS TO PROPOSE, DESIGN, PROTOTYPE, AND DEMONSTRATE A FUNCTIONAL MICROFLUIDIC DEVICE. THE GRADUATE CLASS IN EXPERIMENTAL METHODS ALSO HAS AN OPEN-ENDED GROUP PROJECT, FOR WHICH MICROFABRICATION AND PROCESS TROUBLESHOOTING HAVE DEMANDED A LARGE FRACTION OF TIME. THE SPEED AND ROBUSTNESS OF FABRICATING FUNCTIONAL DEVICES WITH THE REQUESTED 3D PRINTER WILL ALLOW STUDENTS TO DIRECT MORE ATTENTION TO EXPERIMENTAL DESIGN (WITH MORE VARIABLES THAT CAN BE OTHERWISE CONSIDERED), DATA ACQUISITION, AND APPLICATION OF STATISTICAL ANALYSIS TO REAL-TIME DATA. THE INSTRUMENT WILL ALSO BE MADE AVAILABLE FOR MASTER'S THESIS PROJECTS, UNDERGRADUATE SENIOR DESIGN PROJECTS, AND SJSU-HOSTED COMMUNITY COLLEGE PROGRAMS.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $30.4k | 8/10/26 |