Noé López Perrusquia

Dr. Noé López Perrusquia

orcid

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 February 2010 in Applied Surface Science
Verified
Journal Article
Closed access
ICI. Campos-Silva
I. Campos-Silva
Martin Ortiz-DominguezMartin Ortiz-Dominguez
Martin Ortiz-Dominguez
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
AMA. Meneses-Amador
A. Meneses-Amador
Ramon Escobar-GalindoRamon Escobar-Galindo
Ramon Escobar-Galindo
JMJosé Martínez-Trinidad
José Martínez-Trinidad

1 August 2009 in Applied Surface Science
Verified
Journal Article
Closed access
ICI. Campos-Silva
I. Campos-Silva
Martin Ortiz-DominguezMartin Ortiz-Dominguez
Martin Ortiz-Dominguez
KMKEDDAM MOURAD
KEDDAM MOURAD
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
ACA. Carmona-Vargas
A. Carmona-Vargas
MEM. Elías-Espinosa
M. Elías-Espinosa

1 April 2011 in Surface Engineering
Verified
Journal Article
Closed access
ICI Campos-Silva
I Campos-Silva
MOM Ortiz-Domínguez
M Ortiz-Domínguez
HCH Cimenoglu
H Cimenoglu
Ramon Escobar-GalindoRamon Escobar-Galindo
Ramon Escobar-Galindo
KMKEDDAM MOURAD
KEDDAM MOURAD
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
A simple diffusion model is proposed to estimate the growth kinetics of Fe2B layers created at the surface of pure iron. This model employs the mass balance equation at the Fe2B/substrate interface to evaluate the boron diffusion coefficient ( DFe2 B) in the boride layer. The Fe2B layers were formed using the paste boriding process, at four temperatures with different exposure times. Analysing the results, the evolution of the parabolic growth constant ( k) of the Fe2B layer is presented as a function of boron concentration and boride incubation time [ t0( T)]. Furthermore, the instantaneous velocity of the Fe2B/substrate interface and the weight gain of borided pure iron were estimated for different boriding temperatures. Finally, to validate the diffusion model, the boride layer thicknesses were predicted and experimentally verified for two boriding temperatures and for different treatment times.

1 March 2008 in Applied Surface Science
Verified
Journal Article
Closed access
ICI. Campos
I. Campos
MFM. Farah
M. Farah
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
GBG. Bermúdez
G. Bermúdez
GRGerman Anibal Rodriguez-Castro
German Anibal Rodriguez-Castro
CVC. VillaVelázquez
C. VillaVelázquez

1 December 2015 in Thin Solid Films
Verified
Journal Article
Closed access
Marco Antonio Doñu RuizMarco Antonio Doñu Ruiz
Marco Antonio Doñu Ruiz
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
DHD. Sánchez Huerta
D. Sánchez Huerta
CMChristopher René Torres San Miguel
Christopher René Torres San Miguel
GUGuillermo Manuel Urriolagoitia-Calderon
Guillermo Manuel Urriolagoitia-Calderon
JSJ.V. Cortes Suarez
J.V. Cortes Suarez

13 April 2010 in Defect and Diffusion Forum
Verified
Journal Article
Closed access
PDF file
ICIvan Campos-Silva
Ivan Campos-Silva
Martin Ortiz-DominguezMartin Ortiz-Dominguez
Martin Ortiz-Dominguez
JMJosé Martínez-Trinidad
José Martínez-Trinidad
Noé López PerrusquiaNoé López Perrusquia
Noé López Perrusquia
EHE. Hernández-Sánchez
E. Hernández-Sánchez
Ramon Escobar-GalindoRamon Escobar-Galindo
Ramon Escobar-Galindo
Some physicochemical and mechanical properties of surface hard coatings obtained by the paste-boriding process are summarized in this work. Different grades of borided ferrous alloys were used to develop the formation of surface layers type Fe2B or FeB/Fe2B. Furthermore, in order to characterize the nature of boride layers, some classical techniques are presented and discussed such as Glow Discharge Optical Emission Spectrometry (GDOES), Atomic Force Microscopy (AFM) and estimation of residual stresses by X-Ray Diffraction method. Also, the morphology of borided interfaces was evaluated by concepts of fractal theory.