Chemical And Biomolecular Engineering
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Anatomy of a microscopic wood chipper: New observations reveal how an individual cellulase enzyme operates
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreDec. 11, 2015
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Vanderbilt names distinguished computer scientist as vice provost for research
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreDec. 10, 2015
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Vanderbilt Ph.D.’s new company provides researchers ‘X-ray’ on cellular processes
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreNov. 6, 2015
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Alum Morris Morgan’s lecture caps Engineering Day slate of learning and fun
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreNov. 6, 2015
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Corvettes rev hands-on approach to automotive engineering at GM Ride & Drive
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 28, 2015
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Student last year, recruiter this year: Halma job gives Trout opportunity for globetrotting
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 25, 2015
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Tiny flying robots form teams, cooperate—Engineering’s Hall Lecture Oct. 12
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 16, 2015
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Unexpected turn moved newest chemical engineering prof into creating brain models
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 10, 2015
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Surgery and engineering initiative becomes institute
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 10, 2015
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Chambers Lecture Oct. 7: How the Maker Movement is changing the world
Illustration of the system used to measure the behavior of an individual cellulase molecule. The red shape represents the atomic tweezers that use laser light to manipulate small objects. The blue sphere represents the plastic microsphere that the atomic tweezers can manipulate. The strand of DNA that… Read MoreSep. 9, 2015