1 Affiliation : School of Computer Science and Applied Mathematics, University of the Witwatersrand, Johannesburg, Gauteng, South Africa
Email : anil.pise@thefinalmile.com
2 Affiliation : Department of Computer Science and Software Engineering, University of Johannesburg, South Africa
Email : radhika.Kapshikar@multichoice.co.za
Abstract :
Target detection using multi fusion data is one of the common techniques used in military as well as defence units. The usage of a wide variety of sensors is now possible due to modern data fusion technology. The major problem is the existing multi-sensor fusion technique is loss of data and delay is message transfer. To overcome the existing problems, proposed work includes optimization, machine learning, and soft computing techniques. Multi Sensor Data Fusion (MSDF) is becoming an increasingly significant field of study and is being explored by a broad range of individuals. Data defects, outliers, misleading data, conflicting data, and data association are some data fusion concerns. In addition to the statistical advantages of more independent observations, the precision of an observation may be improved by using a variety of different types of sensors. Target tracking has earned a lot of attention in recent years in the realm of surveillance and measurement systems, particularly those in which the state of a target is approximated based on measurements. Academics as well as implementers in the fields of radar, sonar, and satellite surveillance are interested in the bearings-only tracking (BOT) problem. The BOT is the sole option available in many surveillance systems, such as those found aboard submarines. Significant difficulties arise because of the constrained observability of target states based only on bearing measurements. The work that is suggested tackles the limitations of EKF and its derivatives in controlling MSDF within the context of BOT. Specifically, the study identifies divergence as a primary challenge and works to devise solutions for it. It is recommended that two key methods of fusion, data level and feature level (or state level), be investigated in depth. This is in recognition of the fact that the MSDF may increase observability, thereby reducing the tendency of the tracking algorithm to diverge and realizing a better estimate of the states. The Information Filter, which is a casting of the Kalman Filter, and its expansions are employed via extensive simulation to lessen the influence of initial assumptions on the convergence of MSDF tracking algorithms. This is accomplished by using the Kalman Filter.
Keywords :
Tree-Based Fusion Technique; Potential Energy Efficient Data Fusion; LEACH; Wireless Sensor Network.
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| Style | # |
|---|---|
| MLA | A. Audumbar Pise ,Radhika Kapshikar. "Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques." Fusion: Practice and Applications, Vol. 8, No. 2, 2022 ,PP. 51-70. |
| APA | A. Audumbar Pise ,Radhika Kapshikar. (2022). Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques. Fusion: Practice and Applications, 8 ( 2 ), 51-70. |
| Chicago | A. Audumbar Pise ,Radhika Kapshikar. "Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques." Fusion: Practice and Applications, 8 no. 2 (2022): 51-70. |
| Harvard | A. Audumbar Pise ,Radhika Kapshikar. (2022). Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques. Fusion: Practice and Applications, 8 ( 2 ), 51-70. |
| Vancouver | A. Audumbar Pise ,Radhika Kapshikar. Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques. Fusion: Practice and Applications, (2022); 8 ( 2 ): 51-70. |
| IEEE | A. Audumbar Pise,Radhika Kapshikar, Multi-Sensor Data Fusion for Target Tracking Using Machine Learning Techniques, Fusion: Practice and Applications, Vol. 8 , No. 2 , (2022) : 51-70 (Doi : https://doi.org/10.54216/FPA.080205) |