James Nicholas Watson mainly investigates Wavelet transform, Signal, Photoplethysmogram, Artificial intelligence and Wavelet. The Wavelet transform study combines topics in areas such as Electrocardiography, Ventricular fibrillation and Signal processing. James Nicholas Watson studies Signal, namely Pulse.
His Photoplethysmogram research incorporates themes from Intensive care, Respiratory rate and Respiratory system. His Artificial intelligence study combines topics from a wide range of disciplines, such as Constant, Interval, Computer vision and Pattern recognition. His research brings together the fields of Algorithm and Wavelet.
His main research concerns Signal, Artificial intelligence, Wavelet transform, Photoplethysmogram and Wavelet. His Signal research is multidisciplinary, incorporating elements of Acoustics, Electronic engineering and Continuous wavelet transform. He studied Artificial intelligence and Pattern recognition that intersect with Speech recognition.
His Wavelet transform study integrates concerns from other disciplines, such as Electrocardiography, Internal medicine, Ventricular fibrillation, Cardiology and Noise. His work carried out in the field of Photoplethysmogram brings together such families of science as Breathing, Respiratory rate, Blood pressure and Respiratory system. His Wavelet research integrates issues from Algorithm and Intensive care.
James Nicholas Watson spends much of his time researching Signal, Photoplethysmogram, Real-time computing, ALARM and Metric. His studies in Signal integrate themes in fields like Acoustics, Blood pressure, Respiratory system, Artificial intelligence and Biomedical engineering. Many of his research projects under Artificial intelligence are closely connected to Controller with Controller, tying the diverse disciplines of science together.
His research in Photoplethysmogram intersects with topics in Motion sensors, Biological system, Respiration rate and Intensive care medicine. He interconnects Electrical engineering and Pulse in the investigation of issues within Real-time computing. A large part of his Pattern recognition studies is devoted to Wavelet transform.
James Nicholas Watson focuses on Photoplethysmogram, Signal, Real-time computing, Blood pressure and Pulse oximetry. In his study, Pulse is strongly linked to Monitoring blood pressure, which falls under the umbrella field of Signal. The study incorporates disciplines such as Cardiology and Standard deviation in addition to Pulse.
His Real-time computing study combines topics from a wide range of disciplines, such as Computer hardware and Blood pressure monitoring. His studies in Pulse oximetry integrate themes in fields like Observational study, Respiratory rate and Intensive care medicine. His biological study spans a wide range of topics, including Capnography and Internal medicine, Respiratory system.
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Method of analysis of medical signals
Paul Stanley Addison;James Nicholas Watson.
(2000)
LOW-OSCILLATION COMPLEX WAVELETS
P.S. Addison;J.N. Watson;T. Feng.
Journal of Sound and Vibration (2002)
CONTINUOUS WAVELET TRANSFORM MODULUS MAXIMA ANALYSIS OF THE ELECTROCARDIOGRAM: BEAT CHARACTERISATION AND BEAT-TO-BEAT MEASUREMENT
I. Romero Legarreta;Paul S. Addison;M. J. Reed;Neil R. Grubb.
International Journal of Wavelets, Multiresolution and Information Processing (2005)
A fully automated algorithm for the determination of respiratory rate from the photoplethysmogram.
Paul A. Leonard;J. Graham Douglas;Neil R. Grubb;David Clifton.
Journal of Clinical Monitoring and Computing (2006)
Evaluating arrhythmias in ECG signals using wavelet transforms
P.S. Addison;J.N. Watson;G.R. Clegg;M. Holzer.
IEEE Engineering in Medicine and Biology Magazine (2000)
Standard pulse oximeters can be used to monitor respiratory rate
Paul Leonard;T. F. Beattie;P. S. Addison;J. N. Watson.
Emergency Medicine Journal (2003)
Developing an algorithm for pulse oximetry derived respiratory rate (RR oxi ): a healthy volunteer study
Paul S. Addison;James N. Watson;Michael L. Mestek;Roger S. Mecca.
Journal of Clinical Monitoring and Computing (2012)
Measurement Of Respiratory Rate From the Photoplethysmogram In Chest Clinic Patients
David Clifton;J. Graham Douglas;Paul S. Addison;James N. Watson.
Journal of Clinical Monitoring and Computing (2007)
A novel time–frequency-based 3D Lissajous figure method and its application to the determination of oxygen saturation from the photoplethysmogram
Paul S Addison;James N Watson.
Measurement Science and Technology (2004)
An algorithm for the detection of individual breaths from the pulse oximeter waveform.
Paul Leonard;Neil R. Grubb;Paul S. Addison;David Clifton.
Journal of Clinical Monitoring and Computing (2004)
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