REAL-TIME MICROWAVE MOISTURE MEASUREMENT OF NICKEL ORE IN CONVEYOR APPLICATIONS

Authors

  • Win Adiyansyah Indra Department of Electronic and Computer Engineering Technology, Faculty of Engineering Technology, Universiti Teknikal Malaysia Melaka, Hang Tuah Jaya, 76100 Durian Tunggal, Melaka, Malaysia
  • Nurulhalim Hassim Department of Electronic and Computer Engineering Technology, Faculty of Engineering Technology, Universiti Teknikal Malaysia Melaka, Hang Tuah Jaya, 76100 Durian Tunggal, Melaka, Malaysia

DOI:

https://doi.org/10.11113/jt.v78.5021

Keywords:

Microwaves, moisture, nickel ore

Abstract

There are many advantages of knowing the moisture content of material in a real-time basis. Moisture content is a crucial parameter that affects material handling. Various technologies have been introduced but only a few were successfully applied for on-line moisture measurement in bulk mineral applications. This paper describes a Random Stratified Sampling Sweeping Microwave technique, moisture content measurement technique that reduce interference, annulling or superimposing signal, which are common errors in moisture measurement using microwave transmission technology. The technique is used for nickel ore running on a belt conveyor exiting the rotary dryer. The experimental results showed regression of 0.85, standard error of 0.18, and accuracy of 0.7wt%.

References

S. Schimanski, T.F. Schroeder, C. Spitthover, R. Moller. 2015. Contacless Sensor Technology for Measuring Soil Moisture. IEEE International Conference on Consumer Electronics. 385-387.

T. Zhang, L. Jiang, L. Chai, T. Zhao, Q. Wang. 2015. Estimating Mixed-Pixel Component Soil Moisture Content Using Biangular Observations From the HiWATER Airborne Passive Microwave Data. IEEE Transaction On Geoscience And Remote Sensing. 12(5): 1146-1150.

K. C. Kornelsen, P. Coulibaly. 2015. Design of an Optimal Soil Moisture Monitoring Network Using SMOS Retrieved Soil Moisture. IEEE Transaction On Geoscience And Remote Sensing. 53(7): 3950-3959.

M. Hassan, N. C. Karmakar. 2014. Soil Moisture Measurement Using Smart Antennas. IEEE International Conference on Electrical and Computer Engineering. 192-195.

V. S. Palaparthy, S. Lekshmi, J. J. S. Sarik, M. S. Baghini, D. N. Singh. 2013. Soil Moisture Measurement System for DPHP Sensors and In Situ Applications. IEEE International Symposium on Electronic System Design. 11-15.

C. G. Zhu, J. Chang, P. P. Wang, B. N. Sun, Q. Wang, W. Wei, X. Z. Liu, S.S. Zhang. 2014. Improvement of Measurement Accuracy of Infrared Moisture Meter by Considering the Impact of Moisture Inside Optical Components. IEEE Sensors Journal. 14(3): 920-925.

C. C. Corredor, D. S. Bu, and D. Both. 2011. Comparison Of Near Infrared And Microwave Resonance Sensors For At-Line Moisture Determination In Powders And Tablets. Anal. Chem. Acta. 696(1-2): 84-93.

J. Austin, M. T. Harris. 2014. In-Situ Monitoring of the Bulk Density and the Moisture Content of Rapidly Flowing Particulates Using a Microwave Resonance Sensor. IEEE Sensors Journal. 14(3).

D. G. Miljak, D. Bennet, T. Kazzaz, N. G. Cutmore. 2006. On-Line Microwave Moisture Measurement of Iron Ore and Mineral Concentrates in Conveyor Application. Presented at the Instrumentation & Measurement Technology Conference (IMTC) Sorrento, Italy.

D. G. Miljak, N. G. Cutmore, D. Crnoakrak, A. J. McEwan and T. Rowlands. 2001. Low Frequency On-Line Microwave Moisture Analyser For The Minerals And Process Industries. Proceedings 4th Conference On Electromagnetic Wave Interaction With Water And Mosit Substances, Weimar, Germany. Kupfer K. (ed.). 301-307.

G. G. France. 2007. Analysis of Variable-Depth Sample Using a Sweeping Microwave Signal. U.S. Patent 7,190,176 B2, March 13, 2007.

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Published

2016-05-30

Issue

Section

Science and Engineering

How to Cite

REAL-TIME MICROWAVE MOISTURE MEASUREMENT OF NICKEL ORE IN CONVEYOR APPLICATIONS. (2016). Jurnal Teknologi, 78(6). https://doi.org/10.11113/jt.v78.5021