I completed my Ph.D. in Electrical Engineering and Computer Science at MIT. My doctoral thesis was in the field of Biomedical and Electrical Engineering; specifically, it was about developing methods for non-invasive monitoring of intracranial pressure (ICP) and cerebrovascular autoregulation.
Doctoral thesis title:
“Modeling and Estimation for Non-invasive
Monitoring of Intracranial Pressure and Cerebrovascular
Autoregulation”.
My broad research interests are in model and signal
analysis/design; my previous projects involved both theory and application of
signal processing, dynamic systems and statistical methods.
Computational Physiology and
Clinical Inference Group: Our group is part of MIT’s Research Laboratory of
Electronics and we work on developing and applying models of human
physiology for clinical monitoring and inference.
Fetal and
Neonatal Neurology Group at Children’s Hospital,
As a member of
the research group at Children’s Hospital, the goal is to develop non-invasive
methods for monitoring of the cerebral vasculature in the very pre-term
neonates.
MIMIC II / Physionet
(Bioengineering Research Partnership at MIT)
We are also part
of Bioengineering Research Partnership at the Health Sciences and Technology
program at MIT. Details are here.
Laboratory for Information
and Decision Systems (LIDS):
I was part of the Wireless Communications and
Network Sciences Laboratory and worked on the problem of nonlinear
communication channel, e.g., satellite channel. Following topics summarize the
nature of problems and/or solution approaches that were explored.
Markov chain Monte Carlo (MCMC) based
Statistical Inference over Hidden Markov Models (HMM) [a reduced complexity
solution for systems with large state-space]
Factor Graphs and Sum-Product Algorithm
Pilot Sequence based Channel Estimation for Volterra Structured Nonlinear Channel
Optimal Decision Rule for High-dimensional
Constellations in Nonlinear Memoryless Channels
Paper titles:
FM Kashif, H Wymeersch,
MZ Win, “
FM Kashif, G Chrisikos,
MZ Win, “Detection of Higher Order Modulation in Nonlinear Fading Channels”,
Report.
Master’s hesis
title:
“Factor Graphs and MCMC Approaches
to Iterative Equalization of Nonlinear Dispersive Channels”. View at Dspace
at MIT.
Algorithm
design and development for voice over IP applications and embedded system
solutions, specifically about modem, speech codec and echo-cancelation modules.
Optimized PDF parser design.
@MIT:
6.041/6.431:
“Probabilistic System Analysis/Applied Probability”. www.mit.edu/~6.041
6.341:
“Discrete-Time Signal Processing”
www.mit.edu/6.341
6.434J/16.391J: “Statistics for Scientists and
Engineers”.
@others:
Time-Frequency Analysis.
Labs for: Digital Signal Processing,
Digital Communication Systems, Wireless Communications
The following classes at MIT represent my background and the
focus areas.
6.041/6.431 Probabilistic System Analysis
18.112 Complex Analysis
6.241 Dynamic Systems and Control
6.975 Fundamentals of Probability
6.434J Statistics for Scientists and Engineers
HST.542/BE.371/6.522 Quantitative Physiology: Organ Transport Systems
6.336/2.096/16.910J Introduction to Numerical Simulations
6.986 Principles of Wideband Communication
18.385/2.036 Nonlinear Dynamics and Chaos
I received my B.Sc. degree in Electronic Engineering from Ghulam Ishaq Khan Institute, Pakistan.
I worked in industry before joining graduate school:
(1)Avaz Networks / Communications Enabling Technologies, both
in
(2)Elixir Technologies,
I have taught as visiting faculty
at Center for Advanced Studies in Engineering,
I worked as a part-time research
fellow at
Some links and bookmarks that
may be useful.
e-mail: fmkashif (at) mit (dot)
edu