Archive
2020, Volume 9
2019, Volume 8
2018, Volume 7
2017, Volume 6
2016, Volume 5
2015, Volume 4
2014, Volume 3
2013, Volume 2
2012, Volume 1




Volume 5, Issue 3, June 2016, Page: 97-104
Modelling and Analysis of Thermoelectric Generation of Materials Using Matlab/Simulink
K. P. V. B. Kobbekaduwa, National Institute of Fundamental Studies, Hanthana Road, Kandy, Sri Lanka
N. D. Subasinghe, National Institute of Fundamental Studies, Hanthana Road, Kandy, Sri Lanka
Received: May 19, 2016;       Published: May 19, 2016
DOI: 10.11648/j.ijepe.20160503.12      View  6907      Downloads  497
Abstract
This paper presents several models and implementations on measuring the thermoelectric behaviour of an unknown material using Matlab/Simulink. The proposed models are designed using Simulink block libraries and can be linked to data obtained from an actual experimental setup. This model is unique, as it also contains an implementation that can be used as a laboratory experiment to estimate the thermal conductivity of the unknown material thus, making it easy to use for simulation, analysis and efficiency optimization of novel thermoelectric material. The model was tested on a natural graphite sample with a maximum output voltage of 0.74mV at a temperature difference of 25.3K. Thus, according to the collected data, an experimental mean value of 68W/m.K was observed for the thermal conductivity while the Seebeck coefficient had a mean value of -3.1µV/K. Hence, it is apparent that this model would be ideal for thermoelectric experimentation in a laboratory based environment especially as a user interface for students.
Keywords
Seebeck Effect, Thermoelectric Power, Thermal Conductivity, Electrical Conductivity, Simulink Modelling
To cite this article
K. P. V. B. Kobbekaduwa, N. D. Subasinghe, Modelling and Analysis of Thermoelectric Generation of Materials Using Matlab/Simulink, International Journal of Energy and Power Engineering. Vol. 5, No. 3, 2016, pp. 97-104. doi: 10.11648/j.ijepe.20160503.12
Reference
[1]
B. Orr, A. Akbarzadeh, M. Mochizuki and R. Singh. “A review of car waste heat recovery systems utilising thermoelectric generators and heat pipes,” in Applied Thermal Engineering, 2016, p. 13.
[2]
F. Felgner, L. Exel, M. Nesarajah, and G. Frey.” Component-Oriented Modeling of Thermoelectric Devices for Energy System Design” in IEEE Transactions on Industrial Electronics, vol. 61 (3), 2014, p. 1301-1310
[3]
Y. Moumouni and R. J. Baker. “Improved SPICE Modeling and Analysis of a Thermoelectric Module,” in International Midwest Symposium on Circuits and Systems (MWSCAS), Fort Collins, CO, IEEE, 2015.
[4]
C. Li, et al, “Thermoelectric Cooling for Power Electronics Circuits: Modeling and Active Temperature Control,” IEEE Transactions on Industry Applications, vol. 50 6), 2014, p. 3995 - 4005.
[5]
A. Kane, V. Verma, and B. Singh. “Temperature Dependent Analysis of Thermoelectric Module using Matlab/SIMULINK,” in IEEE International Conference on Power and Energy (PECon), Kota Kinabalu Sabha, Malaysia, 2012.
[6]
A. M. Yusop, et al., “Dynamic Modeling and Simulation of a Thermoelectric-Solar Hybrid Energy System Using an Inverse Dynamic Analysis Input Shaper” in Modelling and Simulation in Engineering, 2014: p. 13.
[7]
A. M. Yusop, R. Mohamed and A. Ayob “Model Building of Thermoelectric Generator Exposed to Dynamic Transient Sources” in IOP Conf. Series: Materials Science and Engineering, vol. 53, 2013.
[8]
B. Ciylan. “Determination of Output Parameters of a Thermoelectric Module using Artificial Neural Networks,” in Elektronika ir Elektrotechnika, vol. 116 (10), 2011, p. 63-66.
[9]
H. L. Tsai and J.-M. Lin, “Model Building and Simulation of Thermoelectric Module Using Matlab/Simulink,” Journal Of Electronic Materials, vol. 39 (9), 2010, p. 2105-2111.
[10]
Y. Apertet and C. Goupil, “On the fundamental aspect of the first Kelvin's relation in thermoelectricity,” in International Journal of Thermal Sciences, vol. 104, 2016, p. 225-227.
[11]
Editors, “Thermal Conductivity - Different Methods for Measurement of Thermal Conductivity,” 2011, 11th June 2013 [cited 8th March 2016]; Available from: http://www.azom.com/article.aspx?ArticleID=5615.
[12]
TA Instruments, “Principal Methods of Thermal Conductivity Measurement,” 2012, p. 5.
[13]
J. Wilson, “Thermal conductivity of solders,” in Electronics Cooling, vol. 12 (3), 2006, p. 4-5.
[14]
S. Desai and J. Njuguna, “Thermal properties of natural graphite flake composites,” in International Review of Mechanical Engineering, 4th ed., vol. 6, 2012, p. 923-926.
[15]
M. Smalc, et al. “Thermal performance of natural graphite heat spreaders,” in ASME 2005 Pacific Rim Technical Conference and Exhibition on Integration and Packaging of MEMS, NEMS, and Electronic Systems collocated with the ASME 2005 Heat Transfer Summer Conference, San Francisco, CA, USA, American Society of Mechanical Engineers, 2005.
[16]
Y. M. Hoi and D. D. L. Chung, “Flexible graphite as a compliant thermoelectric material,” in Carbon, vol. 40 (7), 2001, p. 1134-1136.
[17]
M. Penza, et al., “Thermoelectric Properties of Carbon Nanotubes Layers,” in Sensors and Microsystems, vol. 91, 2011, Springer, p. 73-79.
[18]
R. Matsumoto, Y. Okabe, and N. Akuzawa, “Thermoelectric Properties and Performance of n-Type and p-Type Graphite Intercalation Compounds,” in Journal of Electronic Materials, vol. 44 (1), 2015, p. 399-406.
[19]
R. Javadi, P. H. Choi, H. S. Park, and B. D. Choi, “Preparation and Characterization of P-Type and N-Type Doped Expanded Graphite Polymer Composites for Thermoelectric Applications,” Journal of Nanoscience and Nanotechnology, 11th ed., vol. 15, November 2015, p. 9116-9119.
Browse journals by subject