Rafael Barcena

Dr. Rafael Barcena


Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

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

Representative Publications

View All Publications
1 January 2013 in CIRP Annals
Verified
Journal Article
Closed access
JMJ. Munoa
J. Munoa
IMI. Mancisidor
I. Mancisidor
NLN. Loix
N. Loix
LUL.G. Uriarte
L.G. Uriarte
RBRafael Barcena
Rafael Barcena
MZM. Zatarain
M. Zatarain

1 March 2014 in International Journal of Machine Tools and Manufacture
Verified
Journal Article
Closed access
IMIker Mancisidor
Iker Mancisidor
AUAitor Urkiola
Aitor Urkiola
RBRafael Barcena
Rafael Barcena
JMJokin Munoa
Jokin Munoa
ZDZoltan Dombovari
Zoltan Dombovari
MZMikel Zatarain
Mikel Zatarain

1 November 2019 in Mechatronics
Verified
Journal Article
Closed access
IMI. Mancisidor
I. Mancisidor
APA. Pena-Sevillano
A. Pena-Sevillano
ZDZ. Dombovari
Z. Dombovari
RBRafael Barcena
Rafael Barcena
JMJ. Munoa
J. Munoa

16 January 2023 in IEEE Access
Verified
Journal Article
Open access
MSMikel Segura
Mikel Segura
TPTomaso Poggi
Tomaso Poggi
RBRafael Barcena
Rafael Barcena
Co-simulation is a key step in the development of today’s complex cyber-physical systems (CPS), specially in the integration and validation activities. However, performing a co-simulation involving models developed in different environments and possibly deployed in different platforms with mixed real-time and non real-time constraints is a challenging engineering task. A promising technology that could help overcome communication and synchronisation difficulties is the non-proprietary standard Distributed Co-simulation Protocol (DCP). This standard defines an application-level communication protocol, independent of the platform and the communication medium, that regulates the exchange of information between the co-simulation entities. This paper presents a new approach to apply the DCP standard. Instead of using it as a model encapsulation mechanism, having to develop an specific DCP slave for each application, it is proposed to use it as a generic co-simulation interface. To this end, a Simulink library has been developed, allowing to connect models developed in Simulink with the outside world in an standardised way. Moreover, by exploiting the code generation potential of Simulink, a wide variety of devices become accessible, thus enabling x-in-the-loop simulations, which are commonly used tests in the verification and validation process of CPSs. This library has been tested in a soft real-time co-simulation application between a Simulink instance and an application running on a Xilinx Zynq Ultrascale+ System-on-Chip. As an additional contribution, an analysis of DCP synchronisation problems when simulating closed-loop systems composed of two slaves is performed. Finding that the main causes are the occurrence of random delays and that the simulations of the two slaves start at an arbitrary time. A possible solution to this problem is also presented.

21 October 2014 in The International Journal of Advanced Manufacturing Technology
Verified
Journal Article
Closed access
PDF file
IMI. Mancisidor
I. Mancisidor
JMJ. Munoa
J. Munoa
RBRafael Barcena
Rafael Barcena
XBX. Beudaert
X. Beudaert
MZM. Zatarain
M. Zatarain

1 November 2015 in Control Engineering Practice
Verified
Journal Article
Closed access
IMI. Mancisidor
I. Mancisidor
XBX. Beudaert
X. Beudaert
AEA. Etxebarria
A. Etxebarria
RBRafael Barcena
Rafael Barcena
JMJ. Munoa
J. Munoa
JJJosu Jugo
Josu Jugo