Bryan Berger, Himanshu Jain, Chao Zhou and a half dozen other faculty members were invited to give presentations last month at the TechConnect 2015 World Innovation Conference. Lehigh’s participation was organized by the Office of Technology Transfer.
Lehigh scientists and engineers won three National Innovation Awards recently at the TechConnect 2015 World Innovation Conference and National Innovation Showcase held in Washington, D.C.
The awards were for a nanoscale device that captures tumor cells in the blood, a bioengineered enzyme that scrubs microbial biofilms, and a safe, efficient chemical reagent that is stable at room temperature.
Lehigh’s TechConnect initiative was led by the Office of Technology Transfer (OTT) which manages, protects and licenses intellectual property (IP) developed at Lehigh. Yatin Karpe, associate director of the OTT, spearheaded the Lehigh effort and is pursuing IP protection and commercialization for the innovations.
The P.C. Rossin College of Engineering and Applied Science, led by former interim Dean Daniel Lopresti, and the Office of Economic Engagement, led by assistant vice president Cameron McCoy, supported Lehigh’s third-straight appearance at the annual conference.
The three National Innovation Awards were chosen through an industry review of the top 20 percent of annually submitted technologies and based on the potential positive impact the technology would have on industry.
This is the third year in a row that Lehigh has won Innovation Awards. No institution received more than three in 2015.
Lehigh’s National Innovation Awardees were:
• Yaling Liu, assistant professor of mechanical engineering and mechanics and a member of the bioengineering program, has developed a tiny device that can capture tumor cells circulating in the blood and can potentially indicate disease type, as well as genetic and protein markers that may provide potential treatment options.
• David Vicic, professor and department chair of chemistry, has created a new chemical reagent that is stable at room temperature, potentially eliminating the use of traditional hazardous regents.
TechConnect is one of the largest multi-sector gatherings in the world of technology intellectual property, technology ventures, industrial partners and investors. The event brings together the world’s top technology transfer offices, companies and investment firms to identify the most promising technologies and early stage companies from across the globe.
“This event is a productive opportunity to establish new connections with industry and government partners, many within easy reach of Lehigh,” said Gene Lucadamo, the industry liaison for Lehigh’s Center for Advanced Materials and Nanotechnology and the Lehigh Nanotech Network.
“Some of these connections are with alumni in business or government, and even with nearby Pennsylvania companies that were attracted to Lehigh innovations. These interactions allow us to promote research capabilities and facilities which are available through our Industry Liaison Program, and to identify opportunities for collaborations and funding.”
In addition to the three National Innovator Awards, Lehigh researchers won seven National Innovation Showcase awards and presented five conference papers in areas as diverse as the biomanufacturing of quantum dots, a 3-D imaging technique 20 times faster than current systems, the creation of a miniature medical oxygen concentrator for patients with Chronic Obstructive Pulmonary Disease (COPD), and a biomedically superior bioactive glass that mimics bone.
Attendees include innovators, funding agencies, national and federal labs, international research organizations, universities, tech transfer offices and investment and corporate partners. The 2015 TechConnect World Innovation event encompasses the 2015 SBIR/STTR National Conference, the 2015 National Innovation Summit and Showcase, and Nanotech2015—the world’s largest nanotechnology event.
The following is a list of the Lehigh faculty members who gave presentations at TechConnect 2015:
• A wavy micropatterned microfluidic device for capturing circulating tumor cells (Principal investigator: Liu)
• Bioengineered enzymes that safely and cheaply fight bacterial biofilms (Principal investigator: Berger)
• New reagents for octafluorocyclobutane transfer that eliminate the use of hazardous tetrafluoroethylene (Principal investigator: Vicic)
• A method to cheaply manufacture quantum dots using bacteria (Principal investigator: Berger)
• A multiplexing optical coherence tomography technology 20 times faster than current systems that preserves image resolution and allows synchronized cross-sectional and three-dimensional (3D) imaging. (Principal investigator: Chao Zhou, electrical and computer engineering)
• A miniature medical oxygen concentrator for COPD patients (Principal investigator: Mayuresh Kothare, chemical and biomolecular engineering)
• A biomedically superior bioactive glass that enables the production of porous bone scaffolds that can be tailored to match the tissue growth rate of a given patient type (Principal investigator: Himanshu Jain, materials science and engineering)
• A new distributed-feedback technique that dramatically improves the laser beam patterns and increases the output power levels of semiconductor lasers (Principal investigator: Sushil Kumar, electrical and computer engineering)
• A new pretreatment process to remove unwanted impurities in ceramic powders without any change in the physical properties, leading to better reproducibility of properties and reliability in the final products (Principal investigator: Martin Harmer, materials science and engineering)
|A team of Lehigh University engineers have demonstrated a bacterial method for the low-cost, environmentally friendly synthesis of aqueous soluble quantum dot (QD) nanocrystals at room temperature.|
|Principal researchers Steven McIntosh, Bryan Berger and Christopher Kiely, along with a team of chemical engineering, bioengineering, and material science students present this novel approach for the reproducible biosynthesis of extracellular, water-soluble QDs in the July 1 issue of the journal Green Chemistry (“Biomanufacturing of CdS quantum dots”). This is the first example of engineers harnessing nature’s unique ability to achieve cost effective and scalable manufacturing of QDs using a bacterial process.|
|Using an engineered strain of Stenotrophomonas maltophilia to control particle size, Lehigh researchers biosynthesized quantum dots using bacteria and cadmium sulfide to provide a route to low-cost, scalable and green synthesis of CdS nanocrystals with extrinsic crystallite size control in the quantum confinement range. The result is CdS semiconductor nanocrystals with associated size-dependent band gap and photoluminescent properties. (Image: Linda Nye for Lehigh University)|
|Using an engineered strain of Stenotrophomonas maltophilia to control particle size, the team biosynthesized QDs using bacteria and cadmium sulfide to provide a route to low-cost, scalable and green synthesis of CdS nanocrystals with extrinsic crystallite size control in the quantum confinement range. The solution yields extracellular, water-soluble quantum dots from low-cost precursors at ambient temperatures and pressure. The result is CdS semiconductor nanocrystals with associated size-dependent band gap and photoluminescent properties.|
|This biosynthetic approach provides a viable pathway to realize the promise of green biomanufacturing of these materials. The Lehigh team presented this process recently to a national showcase of investors and industrial partners at the TechConnect 2015 World Innovation Conference and National Innovation Showcase in Washington, D.C. June 14-17.|
|“Biosynthetic QDs will enable the development of an environmentally-friendly, bio-inspired process unlike current approaches that rely on high temperatures, pressures, toxic solvents and expensive precursors,” Berger says. “We have developed a unique, ‘green’ approach that substantially reduces both cost and environmental impact.”|
|Quantum dots, which have use in diverse applications such as medical imaging, lighting, display technologies, solar cells, photocatalysts, renewable energy and optoelectronics, are typically expensive and complicated to manufacture. In particular, current chemical synthesis methods use high temperatures and toxic solvents, which make environmental remediation expensive and challenging.|
|This newly described process allows for the manufacturing of quantum dots using an environmentally benign process and at a fraction of the cost. Whereas in conventional production techniques QDs currently cost $1,000-$10,000 per gram, the biomanufacturing technique cuts that cost to about $1-$10 per gram. The substantial reduction in cost potentially enables large-scale production of QDs viable for use in commercial applications.|
|“We estimate yields on the order of grams per liter from batch cultures under optimized conditions, and are able to reproduce a wide size range of CdS QDs,” said Steven McIntosh.|
|The research is funded by the National Science Foundation’s Division of Emerging Frontiers in Research and Innovation (EFRI Grant No. 1332349) and builds on the success of the initial funding, supplied by Lehigh’s Faculty Innovation Grant (FIG) and Collaborative Research Opportunity Grant (CORE) programs.|
|The Lehigh research group is also investigating, through the NSF’s EFRI division, the expansion of this work to include a wide range of other functional materials. Functional materials are those with controlled composition, size, and structure to facilitate desired interactions with light, electrical or magnetic fields, or chemical environment to provide unique functionality in a wide range of applications from energy to medicine.|
|McIntosh said, “While biosynthesis of structural materials is relatively well established, harnessing nature to create functional inorganic materials will provide a pathway to a future environmentally friendly biomanufacturing based economy. We believe that this work is the first step on this path.”|
|Source: Lehigh University|
Genesis Nanotechnology, Inc. a Canadian and U.S Applied Nanotechnology Company, is identifying and then exploiting for commercialization opportunities, emerging Nanotechnologies that focus on our specific areas of interest:
Water Filtration, Waste-Water Remediation, Renewable Energies (Solar & Fuel Cells), Displays & Super Capacitors (Electronics) and Drug Therapies & Delivery. These ‘disruptive and game changing technologies’, are being researched and developed by experienced research teams at leading Nanotechnology-Development Partnership Universities in Canada, the U.S. and the International University community.
Genesis Nano Technology is actively seeking and evaluating emerging nanotechnology opportunities for Joint Venture Partners and Strategic Alliances that will create ‘enterprise value’ by: identifying, developing, integrating and then commercializing, nanotechnologies that demonstrate significant new disruptive capabilities, enhance new or existing product performance and/or beneficially impact input cost reductions & efficiencies and therefore will achieve a sustainable and competitive advantage in their chosen market sector. “We are the ‘D’ in R & D.”
(Click on Images Above to Enlarge)
Follow Us on Twitter: https://twitter.com/genesisnanotech
Follow Us On Facebook: http://facebook.com/genesisnanotech