Acceso abierto

Evolution Of A Suite Of Smart Millimetre Wave Radar Systems For Situational Awareness And Automation In Mines


Cite

Barton, D. (1976). Radar Systems Analysis, Artech House.Search in Google Scholar

Beasley, P. and Stove, A. (1991, May). Pilot-An Example of Advanced FMCW Techniques. IEE Colloquium on High Time-Bandwidth Product waveforms in Radar and Sonar, London.Search in Google Scholar

Beckmann, P. and Spizzichino, A. (1987). The Scattering of Electromagnetic Waves from Rough Surfaces, Artech House.Search in Google Scholar

Bhartia, P. and Bahl, I. (1984). Millimeter Wave Engineering and Applications, John Wiley & Sons.Search in Google Scholar

Blake, L. (1986). Radar Range-Performance Analysis, Artech House.Search in Google Scholar

Blieb, J. and Pulkrabek, M. (1999). Application of a 15 GHz FMCW radar for industrial control and process level measurement. Microwave Symposium Digest, IEEE MTT-S 1: 13-19.Search in Google Scholar

Brooker, G. (1993). Finsch Installs World First Ore Level Solution. SA Mining World 12(10). Brooker, G. (1997). Measurements Made on a Long Ore Pass. Mining World.Search in Google Scholar

Brooker, G. (2005). Long-Range Imaging Radar for Autonomous Navigation. Ph.D, University of Sydney,Search in Google Scholar

Brooker, G. (2008). Introduction to Sensors for Ranging and Imaging, SciTech.10.1049/SBRA014ESearch in Google Scholar

Brooker, G., Lobsey, C. and McHugh, C. (2006, 26-27 September). Development and Application of a Portable Millimetre Wave Cavity Monitoring System. CRC Mining Conference, Hunter Valley, NSW, Australia.Search in Google Scholar

Brooker, G., Scheding, S., Bishop, M. and Hennessy, R. (2005). Development and Application of Millimeter Wave Radar Sensors for Underground Mining. IEEE Sensors Journal 5(6): 1270-1280.Search in Google Scholar

Brooker, G., Widzyk-Capehart, E., Hennessey, R., Bishop, M. and Lobsey, C. (2007). Seeing through Dust and Water Vapour: Millimetre Wave Radar Sensors for Mining Application. Journal of Field Robotics 24(7): 527-557.Search in Google Scholar

Brooker, G. and Youds, S. (2002, 27-28 May 2002). Using Millimetre Wave Radar to Monitor In-Stope Backfilling at Olympic Dam Mine, South Australia. CMMI Conference 2002, International Codes, Technology and Sustainability for the Minerals Industry, Cairns, Australia.Search in Google Scholar

Brumbi, D. (1995, 8-11 May). Measuring Process and Storage Tank Level with Radar Technology. International IEEE radar Conference.Search in Google Scholar

Comparetto, G. (1993). The Impact of Dust and Foliage penetration on Signal Attenuation in the Millimeter wave Regime. Journal of Space Communication 11(1): 13-20.Search in Google Scholar

Currie, N. and Brown, C. (1987). Principles and Applications of Millimeter-Wave Radar, Artech House.Search in Google Scholar

Currie, N., Hayes, R. and Trebits, R. (1992). Millimeter-Wave Radar Clutter, Artech House.Search in Google Scholar

Ghobrial, S. and Sharief, S. (1987). Microwave Attenuation and Cross Polarization in Dust Storms. IEEE Transactions on Antennas and Propagation AP-35(4): 418-425.Search in Google Scholar

Gillett, D. (1979). Environmental Factors Affecting Dust Emission by Wind Erosion. Saharan Dust.Search in Google Scholar

Goldhirsh, J. (2001). Attenuation and Backscatter From a Derived Two-Dimensional Duststorm Model. IEEE Transactions on Antennas and Propagation 49(12): 17031711.Search in Google Scholar

Goodsit, M. (1982). Field Patterns of Pulsed, Focussed, Ultrasonic Radiators in Attenuating and Non-attenuating Media. Acoustic Society America 71(2): 318-329.Search in Google Scholar

Groll, H. and Detlefsen, J. (1997). History of Automotive Anticollision Radars and Final Experimental Results of a MM-Wave Car radar Developed by the Technical University of Munich. IEEE AES Systems magazine.10.1109/62.609525Search in Google Scholar

Kielb, J. and Pulkrabek, M. (1999). Application of a 25GHz FMCW Radar for Industrial Control and Process Level Measurement. Microwave Symposium Digest, IEEE MTTS: 281-284.Search in Google Scholar

Kirsten, H. (1979). Applying the DFT (FFT). Lecture Notes, University of Stellenbosch.Search in Google Scholar

Kue, R. (1984). Estimating Ultrasonic Attenuation from Reflected Ultrasonic Signals, Comparison of Spectral Shift and Spectral Difference Approach. IEEE Trans. on Acoustic, Speech and Signal Processing. 32(1): 1-6.Search in Google Scholar

Li, Y., Li, X. and Wang, m. (1998, August). An Analysis of Signal of MMW Step Frequency High Resolution Radar with MUSIC Algorithms. International Conference on Microwave and Millimeter wave Technology, ICMMT’98.Search in Google Scholar

Liau, T., Carr, A. and Cuthbert, L. (1986). Using Non-Fourier Techniques in Signal Processing for an FMCW Hidden-Object Detection Radar. IEE Electronics Letters 22(9): 466 to 467.Search in Google Scholar

Longbottom, F. and Eren, H. (1994, May). Ultrasonic Multiple-Sensor Solid Level Measurements. IEEE Instrumentation and Measurement Technology Conference IMTC/94.Search in Google Scholar

Macfarlane, D. and Robertson, D. (2004, October). A 94GHz dual-mode active/passive imager for remote sensing. SPIE Passive Millimetre-Wave and Terahertz Imaging and Technology, London.10.1117/12.579719Search in Google Scholar

Motzer, J. (2000). A pulse radar gauge for level measurement and process control. Microwave Symposium Digest, IEEE MTT-S 3.10.1109/MWSYM.2000.862274Search in Google Scholar

Nagy, W. and Wilhelm, J. (1996, 13-16 may). System and Parametric Tradeoffs of Forward Looking Automotive Radar Systems. IEEE National Radar Conference, Ann Arbor, Michigan.Search in Google Scholar

Nelson, S. (2001). Measurement and Calculation of Powdered Mixture Permittivities. IEEE Transactions on Instrumentation and Measurement 50(5): 1066-1070.Search in Google Scholar

Ondria, J. and Cardiasmenos, A. G. (1980, 22-24 October). Desensitisation of Spread Spectrum Radar Systems by Far Off the Carrier Noise Generation in Millimeter Sources. 2nd Military Microwaves Conference (MM80), London, England.Search in Google Scholar

Patterson, E. (1977). Atmospheric Extinction Between 0.55um amd 10.6um due to Soil-Derived Aerosols. Applied Optics 16(9): 2414-2418.Search in Google Scholar

Perry, B. and Baden, J. (2000). Effectiveness of MMW Aerosols in Defeating Battlefield Surveillance Radar: Field Demonstration Preliminary Results. IEEE AES Systems Magazine: 11-20.Search in Google Scholar

Pichler, M., Gulden, P., Vossiek, M. and Stelzer, A. (2003). A 24-GHz Tank Level Gauging System with State-Space Frequency Estimation and a Novel Adaptive Model Order Selection Algorithm. Microwave Symposium Digest, IEEE MTT-S 3: 1953-1956.Search in Google Scholar

Pinnick, R., Fernandez, G. and Hinds, B. (1983). Explosion Dust Particle Measurements. Applied Optics 22(1): 95-102.Search in Google Scholar

Pinnick, R., Fernandez, G., Hinds, B., Bruce, C., Schaefer, R., et al. (1985). Dust Generated by Vehicular Traffic on Unpaved Roadways: Sizes and Infrared Extinction Characteristics. Aerosol Science and Technology 4(1): 99-121.Search in Google Scholar

Preissner, J. (1978, February). The Influence of the Atmosphere on Passive Radiometric Measurements. AGARD Conference Reprint No. 245: Millimeter and Submillimeter Wave Propagation and Circuits.Search in Google Scholar

Reeves, B., Stickley, G., Noon, D. and Longstaff, D. (2000, July). Developments in Monitoring Mine Slope Stability using Radar Interferometry. Geoscience and remote Sensing Symposium, IGARSS 2000, Honolulu, HI, USA.Search in Google Scholar

Skolnik, M. (1980). Introduction to Radar Systems, McGraw-Hill Kogakusha.Search in Google Scholar

Skolnik, M. (1990). Radar Handbook, McGraw Hill.Search in Google Scholar

WeiB, M. and Knochel, R. (1997, September 8-12). A Highly Accurate Multi-target Microwave Ranging System for Measuring Liquid Levels in Tanks. 27th European Microwave Conference.10.1109/EUMA.1997.337945Search in Google Scholar

Widzyk-Capehart, E., Brooker, G., Hennessy, R. and Lobsey, C. (2005, 26-28 September). Rope Shovel Environment Mapping for Improved Operation using Millimetre Wave Radar. CRC Mining Conference, Fremantle, WA.Search in Google Scholar

Zimmermann, B. and Wiesbeck, W. (1996). 24 GHz Microwave Close Range Sensors for Industrial Measurement Applications. Microwave Journal: 228-238.Search in Google Scholar

eISSN:
1178-5608
Idioma:
Inglés
Calendario de la edición:
Volume Open
Temas de la revista:
Engineering, Introductions and Overviews, other