Post-doctoral Researcher

Contact Details
| Contact Campus | Hobart CBD Campuses |
| Building | HOBART Medical Science 1 |
| Telephone | +61 3 6226 2915 |
| aruneema.das@utas.edu.au |
General Responsibilities
MATLAB based GUI design for Lung function measurement instrumentation (ultrasound sensor based Spirometer), respiratory parameters estimation and statistical analysis for patient condition monitoring and diagnostics
Publications
- D. Howard, L. Kenney, C. Smith and A. Das, (2011), Hand & arm rehabilitation using functional electrical stimulation and rehabilitation robotics (Published in UoS RISE health supplement Journal).
- A. Griffiths, A. Das, B. Fernandes and P. Gaydecki (2007), A portable system for acquiring and removing motion artefact from ECG signals, IoP Journal of Physics: Conf. Series, 76 (1), 012038.
- A. Das, R. Folland, N. G. Stocks and E. L. Hines (2006), Stimulus reconstruction from neural spike trains: Are conventional filters suitable for both periodic and aperiodic stimuli?, Elsevier Signal Processing, 86, 1720 – 1727. ]
- R. Dutta, A. Das, N.G. Stocks, E.L. Hines, J.W. Gardner (2006), Stochastic resonance-based electronic nose: A novel way to classify bacteria, Elsevier Sensors and Actuators B-Chemical, 115 (1), 17 – 27.
- A. Das (2005), Performance enhancement of cochlear implant devices using stochastic resonance effect, Poster Presentation in Reception for UK's Best Younger Engineers, The House of Commons, London, UK.
- A. Das, N.G. Stocks, A. Nikitin and E.L. Hines (2004), Quantifying stochastic resonance in a single threshold detector for random aperiodic signals, Fluctuation Noise Letters, 4, L247–L265.
- A. Das (2004), Stochastic resonance in auditory models, Poster Presentation in International Workshop on Stochastic Resonance: New Horizons in Physics and Engineering, Max Planck Institute for the Physics of Complex Systems, Dresden, Germany.
Additional Information
Research Interests:
Biomedical Signal Processing and Sensor Informatics - “Stochastic Resonance” in non linear signal processing - Functional electrical stimulation - Statistical and Intelligent Signal Processing for real world multivariate signals - Blind Source Separation techniques like Independent component analysis - Noise reduction techniques like Adaptive filters and Wavelet transforms - Artificial neural network for pattern recognition/classification