
DEPARTMENT OF
ELECTRICAL AND COMPUTER ENGINEERING
PROFESSOR MARTIN P. MINTCHEV, Ph.D., P.Eng., Fellow AIMBE
Professor of Electrical and Computer Engineering, Adjunct
Professor of Medicine, University of
Calgary
Adjunct Professor of Surgery, University of Alberta
Director, Low-Frequency
Instrumentation Laboratory, University of
Calgary

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Office: Room A121A, Engineering Complex
University of Calgary
2500 University Drive NW
Calgary, Alberta, Canada T2N 1N4
Tel. (403) 220-5309, (403) 220-4872 (Secretary)
Fax:
(403) 282-6855
e-mail:
<mintchev@enel.ucalgary.ca >
ELECTRONIC INSTRUMENTATION
BIOMEDICAL ENGINEERING / MEDICAL ELECTRONICS
OIL-FIELD INSTRUMENTATION
CREDENTIALS:
1987: B.Sc./MSc. (Hon) in Electronics from the Technical University of
Sofia, Bulgaria (combined degree)
1994: Ph.D. in Electrical Engineering from
the University of Alberta, Edmonton, Alberta, Canada.
1994: PDF in Experimental Surgery,
Surgical-Medical Research Institute, Edmonton, Alberta, Canada.
1998: Professional Engineer, APEGGA;
2001: Honorary Professor (International
Medical Association)
2002: Senior Member (IEEE);
2007: Fellow, American Institute of Medical
and Biological Engineering;
2009: Honorary Professor (ITHEA International
Scientific Society)
2010/2011: Distinguished Lecturer (IEEE
Sensors Society)
TEACHING:
ENEL
569
Electronics for Instrumentation
ENEL
623
Biomedical Instrumentation
ENEL
469
Analog Electronic Circuits
ENEL
591/599
Individual Undergraduate Research
Project
PUBLICATIONS,
INVITED LECTURES, AND PATENTS
CITATION IMPACT
GRANTS, AWARDS AND
HONORS
LOW FREQUENCY
INSTRUMENTATION LABORATORY
ELECTROGASTROGRAPHY
CYBERZINE
TELE-ELECTROGASTROGRAPHY
SERVER
CURRENT RESEARCH
INTERESTS
I.
BIOMEDICAL INSTRUMENTATION
I.1.
Design of portable and implantable embedded systems for functional gastrointestinal
neurostimulation;
I.2.
Transcutaneous power transfer for functional
gastrointestinal neurostimulators;
I.3.
Multichannel sensing, signal conditioning, amplification and digitization of
gastrointestinal signals;
I.4.
Digital signal processing of gastrointestinal signals;
I.5.
Non-invasive and semi-invasive sensing, monitoring and control of biomedical
phenomena
II.
OIL-FIELD INSTRUMENTATION
II.1.
Design and testing of fiberoptic gyroscope-based
inertial navigation systems for horizontal drilling applications;
II.2. Digital signal processing and conditioning of
measurement-while-drilling data.
III.
BIOMEMS
III.1.
Design of system-on-chip instrumentation for monitoring and control of
physiological processes;
III.2.
Design of MEMS-based programmable implants
IV.
COMPUTER MODELING
IV.1.
Modeling of the electrical field and the electromechanical behavior of
gastrointestinal organs;
IV.2.
Modeling of gastric electrical stimulation;
IV.4.
Neural-network based modeling of various physical processes (internal
combustion, sensor arrays);
IV.5.
Modeling fiberoptic gyroscopes for the purpose of
drilling navigation.
V. ELECTROGASTROGRAPHY (CUTANEOUS RECORDING
OF GASTRIC ELECTRICAL ACTIVITY) AND TECHNOLOGICAL METHODS TO ASSESS
GASTROINTESTINAL MOTILITY.
V.1.
Studies of gastric electrical activity both in
vivo and in vitro;
V.2.
Quantification of gastric electrical signals;
V.3.
Clinical electrogastrographic studies;
VI.
IMAGE PROCESSING
VI.1.
Methods for non-linear compensation of susceptibility artifacts in Magnetic
Resonance Imaging;
VI.2.
Magnetically levitated capsule endoscopy.