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NAME:PhD defence N.G. Cartier
METHOD:PUBLISH
BEGIN:VEVENT
DTSTART:20260527T154500
DTEND:20260527T171500
DTSTAMP:20260527T154500
UID:2026/phd-defence-n-g-cartier@8F96275E-9F55-4B3F-A143-836282E12573
CREATED:20260604T191024
LOCATION:(1st floor) Auditorium, Main building De Boelelaan 1105 1081 HV Amsterdam
SUMMARY:PhD defence N.G. Cartier
X-ALT-DESC;FMTTYPE=text/html: <html> <body> <p>Computational Aspects o
 f the One Body Reduced Density Matrix Functional Theory</p> <p>Resear
 chers are increasingly using computer simulations to develop new drug
 s and materials. This saves time and costs, because promising molecul
 es can first be tested digitally before laboratory studies are requir
 ed. Still, some chemical processes remain difficult to simulate accur
 ately, especially so-called "highly correlated systems," which arise,
  for example, when chemical bonds are stretched.</p><p>Quantum chemis
 t Nicolas Cartier developed a new algorithm that significantly speeds
  up these complex calculations. His research focuses on a relatively 
 little-explored method within quantum chemistry: reduced density matr
 ix functional theory (RDMFT). Using his approach, calculations can of
 ten be performed up to 10 times faster than before.</p><p>Moreover, a
 ccording to Cartier, there is potential to make the method even much 
 more efficient via a completely new computational approach, although 
 further research is needed to do so. Thanks to the acceleration, RDMF
 T calculations not only become more practical, but also usable for la
 rger and more realistic molecules.</p><p>Faster and more accurate sim
 ulations can accelerate the development of new drugs, contribute to s
 ustainable alternatives to petrochemicals and help develop innovative
  agrochemical applications for food production. Problems hitherto too
  complex to reliably simulate may thus come within reach of researche
 rs and companies.</p><p>Learn more about the <a href="https://hdl.han
 dle.net/1871.1/4c50a3aa-a397-4e5d-9fe7-2f56c8c084ae" data-new-window=
 "true" target="_blank" rel="noopener noreferrer">dissertation</a></p>
  </body> </html>
DESCRIPTION: Researchers are increasingly using computer simulations t
 o develop new drugs and materials. This saves time and costs, because
  promising molecules can first be tested digitally before laboratory 
 studies are required. Still, some chemical processes remain difficult
  to simulate accurately, especially so-called "highly correlated syst
 ems," which arise, for example, when chemical bonds are stretched. Qu
 antum chemist Nicolas Cartier developed a new algorithm that signific
 antly speeds up these complex calculations. His research focuses on a
  relatively little-explored method within quantum chemistry: reduced 
 density matrix functional theory (RDMFT). Using his approach, calcula
 tions can often be performed up to 10 times faster than before. Moreo
 ver, according to Cartier, there is potential to make the method even
  much more efficient via a completely new computational approach, alt
 hough further research is needed to do so. Thanks to the acceleration
 , RDMFT calculations not only become more practical, but also usable 
 for larger and more realistic molecules. Faster and more accurate sim
 ulations can accelerate the development of new drugs, contribute to s
 ustainable alternatives to petrochemicals and help develop innovative
  agrochemical applications for food production. Problems hitherto too
  complex to reliably simulate may thus come within reach of researche
 rs and companies. Learn more about the <a href="https://hdl.handle.ne
 t/1871.1/4c50a3aa-a397-4e5d-9fe7-2f56c8c084ae" data-new-window="true"
  target="_blank" rel="noopener noreferrer">dissertation</a> Computati
 onal Aspects of the One Body Reduced Density Matrix Functional Theory
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