You are in:Home/Publications/"Novel Contact Sensor Concept and Prototype Based on 2-DOF Vibration Absorber System", Intelligent Systems, Modelling and Simulation, IEEE 7th International Conference, ISMS 2016 (2016). DOI:10.1109/ISMS.2016.70

Dr. Hussein Fouad Mohamed Ali :: Publications:

Title:
"Novel Contact Sensor Concept and Prototype Based on 2-DOF Vibration Absorber System", Intelligent Systems, Modelling and Simulation, IEEE 7th International Conference, ISMS 2016 (2016). DOI:10.1109/ISMS.2016.70
Authors: Hussein F.M. Ali, Ahmed M. R. Fath El Bab, Zakarya Zyada, and Said M. Megahed
Year: 2016
Keywords: Contact sensing; finite element; Landmine detection; vibration; vibration absorber.
Journal: Not Available
Volume: Not Available
Issue: Not Available
Pages: Not Available
Publisher: Not Available
Local/International: International
Paper Link: Not Available
Full paper hussein fouad mohamed ali_005__Conf_ISMS2016_Novel Contact Sensor Concept and Prototype based on 2-DOF Vibration Absorber System.pdf
Supplementary materials Not Available
Abstract:

Landmines are major problems, waste life and money. Much recent research acknowledges that the contact sensors have promising potential. In this work, a new idea of contact sensor for landmine detection is introduced. The sensor main principle is based on the concept of 2-DOF vibration absorber system (two springs and two masses), to detect the existence of an object (ex: landmine) in sand which is modeled as a 3 rd spring. The sand stiffness (the 3 rd spring stiffness k o ) can be acquired as function of the frequency vibration absorber mode ω Abs (the frequency at which the 2 nd mass has the lowest amplitude (mathematically proven: zero)). When the sand stiffness changed due to the presence of the landmine, the vibration absorber frequency ω Abs changes, and consequently the landmine can be detected. The mathematical derivation of the (ω Abs -k o ) relation is verified by simulations with Matlab and with finite element COMSOL Multi-physics. The system is succeeded to measure the sand stiffness up to 100kN/m. A physical prototype for the sensor is developed with sensitivity 16.85 (N/m)/Hz.

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