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| Joseph Jacobson | |
|---|---|
| Name | Joseph Jacobson |
| Birth date | 1965 |
| Birth place | Boston, Massachusetts |
| Nationality | American |
| Fields | Molecular engineering; Synthetic biology; Materials science; Molecular electronics |
| Workplaces | Massachusetts Institute of Technology; E Ink Corporation; Molecular Electronics Corporation |
| Alma mater | Massachusetts Institute of Technology; Princeton University |
| Known for | Electronic paper; DNA synthesis technologies; Molecular display technologies |
Joseph Jacobson is an American molecular engineer and entrepreneur noted for pioneering work at the intersection of physics, chemistry, biology, and materials science. He cofounded companies and led academic research that produced electronic paper, programmable matter concepts, and scalable DNA synthesis methods, influencing technologies used by E Ink Corporation, Broad Institute, and commercial synthetic biology ventures. Jacobson’s career spans academic laboratories at Massachusetts Institute of Technology and startup ecosystems in Cambridge, Massachusetts, with collaborations involving researchers from Harvard University, Stanford University, and industrial partners such as Hewlett-Packard and Samsung.
Jacobson was born in Boston and raised in the United States. He completed undergraduate studies at Princeton University where he studied physics and engineering, and later earned graduate degrees from the Massachusetts Institute of Technology in fields bridging electrical engineering and molecular biology. During his doctoral and postdoctoral training he worked alongside researchers connected to laboratories known for contributions to nanotechnology, optoelectronics, and early molecular electronics demonstrations. His mentors and collaborators included scientists affiliated with institutions such as Bell Labs, Bell Laboratories, and research groups that later contributed to startups in Silicon Valley and the Boston area.
Jacobson joined the faculty at Massachusetts Institute of Technology, establishing a lab that pursued research in programmable materials, molecular devices, and nucleic acid engineering. His group explored intersections with work from teams at Harvard University on DNA nanotechnology, researchers at Caltech in synthetic chemistry, and engineers at University of California, Berkeley developing microfabrication techniques. Research themes included development of bistable and multicolor reflective displays, scalable methods for oligonucleotide assembly that interfaced with projects from the Human Genome Project era, and concepts for reconfigurable surfaces inspired by programmable matter proposals from MIT Media Lab and theoreticians in computational design.
Jacobson’s publications and patents frequently cited contemporaneous advances from investigators at Columbia University, Yale University, and University of Pennsylvania, and he maintained collaborations with scientists involved in early work on organic electronics at Rutgers University and polymer chemistry at University of Massachusetts Amherst. His laboratory contributed to a cross-disciplinary body of work linking optical physics experiments from groups at University of Cambridge with synthetic biology methods emerging from Whitehead Institute researchers.
Jacobson is best known for co-inventing technologies that enabled reflective electronic displays, often referenced alongside developments by researchers at Philips and teams involved in electrophoretic ink research. These inventions included microencapsulated electrophoretic media and pixel architectures that improved contrast and bistability, which were commercialized and compared with display technologies from Sony and E Ink Corporation. He also advanced methods for high-throughput DNA synthesis, tools for oligonucleotide assembly that paralleled innovations at companies such as Agilent Technologies and initiatives from the Broad Institute to scale genomics workflows.
Other notable technologies from his group encompassed programmable material systems and molecular barcoding strategies that intersected with sequencing platforms from Illumina and microarray developments at Affymetrix. Jacobson’s work on integrating molecular-scale components with macroscopic devices drew on prior demonstrations in molecular electronics by researchers at IBM and on microelectromechanical systems research at Draper Laboratory.
Jacobson cofounded or helped to found multiple companies translating his laboratory inventions into commercial products. He played a central role in startups bringing electronic paper to market, collaborating with investors and industrial partners including Sony, Samsung, and venture firms connected to the Massachusetts innovation ecosystem. His entrepreneurial activities also extended into synthetic biology and DNA technologies, aligning with the emergence of companies like Twist Bioscience and Ginkgo Bioworks in the broader sector. Jacobson’s ventures attracted talent from academic centers including Harvard Medical School, MIT Media Lab, and Caltech, and engaged with corporate research groups at Hewlett-Packard and Intel for manufacturability and scaling.
Jacobson has been recognized with awards and honors from professional societies and industry groups for contributions to molecular engineering and display technology. His work received attention from organizations that honor innovation in materials and electronics, comparable to recognitions conferred by National Academy of Engineering members and prize committees associated with IEEE and materials science societies. He has been invited to give keynote lectures at conferences organized by SPIE, MRS (Materials Research Society), and meetings hosted by AAAS.
Outside research and entrepreneurship, Jacobson has engaged with philanthropic and advisory activities supporting science and technology education in the Boston area, partnering with nonprofit organizations and academic outreach programs connected to MIT, Harvard University, and local school initiatives. He has served on advisory boards alongside trustees and executives from institutions such as Massachusetts General Hospital and cultural organizations in New England, contributing to efforts that bridge academic research with public engagement.
Category:American engineers Category:Inventors