The chart shows the distribution of publications by all Research.com ranked scientists in the field of Materials Science in 2026. The highlighted bar marks where P. Van Houtte sits on this spectrum.
This scientist: 238 publications — 43rd percentile
43% of scientists in this discipline score the same or lower.
The last bar groups every scientist with 1,163 publications or more.
The chart shows the D-index (discipline H-index) distribution of Materials Science scientists ranked by Research.com in 2026. The highlighted bar marks where P. Van Houtte sits on this spectrum.
This scientist: 60 D-Index — 46th percentile
46% of scientists in this discipline score the same or lower.
The last bar groups every scientist with 165 D-Index or more.
P. Van Houtte is affiliated with KU Leuven in Belgium and has contributed extensively to the field of engineering, focusing primarily on mechanical engineering and materials science. Their research spans multiple subfields, including mechanical engineering, mechanics of materials, pharmaceutical science, computational mechanics, and materials chemistry.
The scientist's work covers a variety of key topics such as metal forming simulation techniques, advancements in transdermal drug delivery, metallurgy and material forming, laser material processing techniques, microstructure and mechanical properties, advanced machining processes and optimization, and the injection molding process and properties.
P. Van Houtte has authored several research papers across reputable publication venues, with frequent appearances in The International Journal of Advanced Manufacturing Technology, Micromachines, and IOP Conference Series Materials Science and Engineering. Other venues of publication include the International Journal of Material Forming and Manufacturing Letters.
Frequent coauthors collaborating with P. Van Houtte include Sylvie Castagne, Tim Evens, David Seveno, Pol Vanwersch, and Olivier Malek.
The scientist's research highlights particular emphasis on laser material processing and polymer microneedle production techniques, combining experimental and computational methods to address challenges in injection molding and material forming simulation.
J. Gil Sevillano;P. van Houtte;E. Aernoudt
H. R. Wenk;P. Van Houtte
P.Van Houtte
B. Peeters;M. Seefeldt;C. Teodosiu;S.R. Kalidindi
P. Ratchev;B. Verlinden;P. De Smet;P. Van Houtte
Paul Van Houtte;Laurent Delannay;S.R. Kalidindi
M.J. Philippe;M. Serghat;P. Van Houtte;C. Esling
S. Coppieters;S. Cooreman;H. Sol;P. Van Houtte
P. Van Houtte
P. Van Houtte;L. De Buyser
Unknown
B. Peeters;S.R. Kalidindi;P. Van Houtte;E. Aernoudt
B Peeters;B Bacroix;C Teodosiu;P Van Houtte
I Samajdar;B Verlinden;P Van Houtte;D Vanderschueren
Kai Zhang;Bjørn Holmedal;Odd Sture Hopperstad;Stephane Dumoulin
C. Henrard;C. Bouffioux;P. Eyckens;H. Sol
Kumar Yerra Sampath;Kumar Yerra Sampath;C. Tekoglu;Florence Scheyvaerts;Laurent Delannay
L. Delannay;Oleg Mishin;D. Juul Jensen;P. Van Houtte
B. Gommers;I. Verpoest;P. Van Houtte
P. Van Houtte
Lamel Model;P. Van Houtte;L. Delannay;I. Samajdar
If you think any of the details on this page are incorrect, let us know.
University of California, Davis
Case Western Reserve University
Hospital Universitario La Paz
University of Geneva
Washington University in St. Louis
National University of Singapore
University of Bristol
University of the Witwatersrand
University of British Columbia
University of British Columbia
Weizmann Institute of Science
Arizona State University
Kansas State University
University of Denver
Icahn School of Medicine at Mount Sinai
Albert Einstein College of Medicine
