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FPGA Implementation of High-Speed MIMO Wireless Video Transmission for real-time 360 Panoramic Video Applications – Phase I

2020, Mr. Nilmantha

FPGA implementation of high-speed MIMO wireless video transmission for real-time 360 Panoramic Video Applications – Phase I P.A.D.S.N. Wijesekara, P.K.D. Chinthaka, A.M.S.D. Wickramasinghe, , W.A.P.M. Weeraarachchi The work that has been done in is the development of a hardware implemented system using Field Programmable Gate Arrays (FPGA) for real-time wireless transmission of a panoramic video…

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Quad Copter and WiFi based Airborne System Design and Development for Detecting Identified Quarantine People’s Movements.

2020, Mr. Saman

Quad copter and WiFi based airborne system design and development for detecting identified quarantine people’s movements De Alwis T.A.D.Y.D., Dineshika W.M.R. , Nishshanka N.M.K.H, D. S.De Silva This project focuses on a design for detecting identified quarantine people and their movements. This is been used by quarantine people who are staying at quarantine centers, locked-down…

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Study on Different Feeding Techniques of Textile Microstrip Patch Antenna

Supervisor, Mr. Saman, 2020

Study on Different Feeding Techniques of Textile Microstrip Patch Antenna Jayathunga E.H. , De Silva D.S., Amunugama C.S.B.M.R.N.L.K., Helapita L. and Nagahawaththa T.H Microstrip patch antenna is a suitable candidate for wearable textile antenna as it is a flexible, planer and directional antenna. In this antenna, the radiating patch is placed on top of the…

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Non-invasive Technique to Automate the General Movements Assessment

Supervisor, subodha, 2020

Non-invasive Technique to Automate the General Movements Assessment  G. Hewavitharana, I. Manawadu, R. Pytathma, D. P. M. H. Dharmananda,  A. Wimalasena, S. Gunawardhana This project features the first phase of designing a machine learning model to automate the General Movement Assessment using infant video library at Karapitiya Teaching Hospital.    Key Words: Cerebral Palsy, GMA, Automating…

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SL-Fleet: Fleet Monitoring System

subodha, 2020, Supervisor

SL-Fleet: Fleet Monitoring System D.M.T. Sasindula, H.M.P.B Piyathilaka,  M.J.M. Rasha , S. Gunawardhana This project features the first phase of the design and development of a fleet monitoring system over cellular networks using mobile data. The system consists of an embedded device to be fixed at the vehicle and a server side application at the…

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RehaBot: Design and Development of Upper-limb Exoskeleton Robot for Stroke Recovery

subodha, 2020, Supervisor

RehaBot: Design and Development of Upper-limb Exoskeleton Robot for Stroke Recovery P.V.N.U. Madhumali,  N.M.P.M. Nishshanka, H.M.C.M.B. Herath, S.Gunawardhana  This project features the first phase of designing and developing an Exoskeleton Rehabilitation Robot with 2-DoF (degrees of freedom) for upper limb rehabilitation. The robot is targeted to work in Active, Passive, and Passive-mirrored modes with the…

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UWB Radio Sensing Platform for Non-Contact Vital Signs Monitoring

2020, Dr. Chathura

UWB Radio Sensing Platform for Non-Contact Vital Signs Monitoring Bandulasena B.N.M., Hansini M.A., Kahawewidana K.W.P.P, Seneviratne C. K. W., Amaranath K., Gamage J. The objective of this project is to use Ultra Wide Band (UWB) radar technology, advanced signal processing techniques and Artificial Intelligence (AI) algorithms to develop a medical platform to track patient’s vital…

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Development of a Controller for an Interior type Permanent-Magnet Synchronous Motor

2019, dr_chandana

Abstract:

Interior type Permanent-Magnet Synchronous Motors (IPMSMs) are getting popular to use in many motion control applications. High efficiency and their compact design are the main reasons to attract them for motion control applications. Those applications vary in a wide spectrum from domestic applications to advanced industrial applications. Recently, they have been applied successfully in Hybrid and Electric Vehicles to operate both in motor and generator mode. The objective of this project is to develop a controller for an IPMSM so that it can control the speed and the torque precisely. Voltage Source Inverter (VSI) is used as the power electronic converter to supply the suitable voltage to the IPMSM. All control functions should be implemented in a micro-controller incorporating suitable sensors. A prototype IPMSM drive system will be developed in the laboratory incorporating a VSI, microcontroller and suitable sensors.