Dr. Juan del Real-Romero
Universidad Pontificia Comillas
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Academic Career Length
21Years (2006-Present)
(Calculated once Scilit publication data is synced: current year − year of first publication + 1)
Representative Publications
View All Publications1 July 2017 in Composites Part B: Engineering
Journal Article
JAJuana Abenojar
Juana AbenojarJTJ. Tutor
J. Tutor
YIYolanda Ballesteros Iglesias
Yolanda Ballesteros IglesiasJuan del Real-RomeroMMMiguel Angel Martinez
Miguel Angel Martinez1 April 2009 in Applied Surface Science
Journal Article
MPM. Pantoja
M. PantojaBDB. Díaz-Benito
B. Díaz-Benito
Francisco Javier Velasco LopezJAJuana Abenojar
Juana AbenojarJuan del Real-Romero1 August 2017 in Materials Science and Engineering: C
Journal Article
EPEva Paz
Eva Paz
Francisco ForriolJuan del Real-Romero
Nicholas Dunne1 August 2015 in The Journal of Arthroplasty
Journal Article
EPEva Paz
Eva PazPSpablo sanz-ruiz
pablo sanz-ruizJAJuana Abenojar
Juana AbenojarJVJavier Vaquero-Martín
Javier Vaquero-Martín
Francisco ForriolJuan del Real-Romero25 April 2012 in The Journal of Adhesion
Journal Article
JAJuana Abenojar
Juana AbenojarMMMiguel Angel Martinez
Miguel Angel MartinezMPM. Pantoja
M. Pantoja
Francisco Javier Velasco LopezJuan del Real-RomeroEpoxy-based composite materials reinforced with hard particles can be used as anti-wear coatings. In this study, a commercial bicomponent resin was used, with 6 and 12% SiC particles in two different particle sizes (nano and 10 µm). The epoxy curing process was studied by Fourier transform infrared spectroscopy (FTIR), differential scanning calorimetry (DSC) and confocal microscopy. Dynamic mechanical thermal analysis (DMTA) tests evaluated the influence of particle additions on the glass transition temperature (T g ). In addition, mechanical properties (hardness and bending strength) and wear resistance were evaluated. The addition of nanometric particles reduced the reaction order. A higher amount of particles decreased T g due to the lower number of crosslinking points. The agglomeration of nano particles led to non-uniform mechanical properties. 6% nano particle addition dramatically improved wear resistance and decreased the friction coefficient.
1 November 2019 in Materials Science and Engineering: C
Journal Article
EPEva Paz
Eva PazYBY. Ballesteros
Y. Ballesteros
FFF. Forriol
F. Forriol
Nicholas DunneJuan del Real-RomeroAbout Me
Juan Carlos del Real is currently a full professor in the Department of Mechanical
Engineering, ICAI School of Engineering, Universidad Pontificia Comillas,
Madrid, Spain. He currently holds the position of director of postgraduate and
doctoral studies at the ICAI School of Engineering and previously the position
of head of studies for the master’s degree in industrial engineering
(2014–2022). He holds a Ph.D. degree in industrial engineering from
Universidad Pontificia Comillas (ICAI). He began his teaching work at
Comillas ICAI in 1994, teaching in the fields of materials science and
engineering. He is currently developing his research at the Instituto
de Investigación Tecnológica (IIT) in the field of materials in the areas of
adhesive joints and composites and biomaterials. He is a member of the Interuniversity
Research Group on Structural Adhesives formed by researchers from ICAI and
Carlos III University of Madrid. He has been president and is currently the
scientific coordinator of Grupo Español de Adhesión y Adhesivos (GEAA).