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VERSION:2.0
PRODID:icalendar-ruby
CALSCALE:GREGORIAN
X-WR-CALNAME:Colloquium: Dr. Joseph DeSimone\, Stanford University
X-WR-TIMEZONE:Eastern Time (US & Canada)
BEGIN:VEVENT
DTSTAMP:20260710T200534Z
UID:tag:localist.com\,2008:EventInstance_45430096893509
DTSTART:20240202T160000Z
DTEND:20240202T170000Z
DESCRIPTION:The Delicate Interplay Between Light\, Interfaces and Design:\n
 The Complex Dance that Allows 3D Printing to Scale to Manufacturing\n\n \n
 \nJoseph M. DeSimone\n\nSanjiv Sam Gambhir Professor of Translational Medi
 cine and Chemical Engineering\n\nDepartments of Radiology and Chemical Eng
 ineering\n\nDepartment of Chemistry (by Courtesy)\n\nDepartment of Materia
 ls Science & Engineering (by Courtesy)\n\nGraduate School of Business (by 
 Courtesy)\n\nStanford University\n\n \n\nGroup Website: https://desimonegr
 oup.stanford.edu/\n\n \n\nAbstract\n\nThe production of polymeric products
  relies largely on age-old molding techniques. In this talk\, I will descr
 ibe a breakthrough in additive manufacturing—3D printing—referred to a
 s Continuous Liquid Interface Production (CLIP) technology (Science 2015).
   CLIP\, and its recently introduced cousin injection CLIP (iCLIP\; Scienc
 e Advances 2022)\, embody a convergence of advances in software\, hardware
 \, and materials to bring the digital revolution to the design and manufac
 turing of polymeric products. CLIP uses software-controlled chemistry to p
 roduce commercial quality parts rapidly and at scale by capitalizing on th
 e principle of oxygen-inhibited photopolymerization to generate a continua
 l liquid interface of uncured resin between a forming part and a printer
 ’s exposure window. Instead of printing layer-by-layer\, this allows lay
 erless parts to ‘grow’ from a pool of resin\, formed by light. Compati
 ble with a wide range of polymers\, CLIP opens major opportunities for inn
 ovative products across diverse industries. Previously unmakeable products
  are already manufactured at scale with CLIP\, including the large-scale p
 roduction of running shoes by Adidas (Futurecraft 4D)\; mass-customized fo
 otball helmets by Riddell\; the world’s first FDA-approved 3D printed de
 ntures\; and numerous parts in automotive\, consumer electronics\, and med
 icine. At Stanford\, we are pursuing new advances including digital therap
 eutic devices in pediatric medicine\, new multi-materials printing approac
 hes\, recyclable materials\, and the design of a high-resolution printer t
 o advance technologies in the microelectronics and drug/vaccine delivery a
 reas\, including novel microneedle designs as a potent vaccine delivery pl
 atform and for the sampling of interstitial fluids for health monitoring a
 nd the early detection of disease.
LOCATION:Murray Hall\, G202
SUMMARY:Colloquium: Dr. Joseph DeSimone\, Stanford University
URL;VALUE=URI:https://calendar.unc.edu/event/colloquium_dr_joseph_desimone_
 standford_university
CATEGORIES:Lectures
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