Welcome
| "Our central aim here at Melbourne
University is to make you fluent in both biology and engineering,
so as to place you at the epicentre of this revolution
in medicine and the treatment of disease." |
Professor David Smith
Professor of Biomedical Engineering
Biomedical
Engineering at Melbourne
Biomedical engineering is the fastest growing, most exciting, and most
challenging area in engineering today.
It is the fastest growing because
there has been an explosive growth in our understanding of
how biological systems work. This understanding is being driven
along by new technologies like high throughput DNA and protein sequencing,
new imaging systems and wireless communications, which are all underpinned
by cheap high-speed digital computing.
This intersection between
new technologies and new understanding of how biological systems
work makes for a heady mix that is both exciting and challenging.
Exciting because it offers unsurpassed opportunities to do new creative
things. Challenging because to take an idea and turn it into
a reality is not always easy, usually requiring a detailed knowledge of
both biology and engineering.
Our central aim here at Melbourne University
is to make you fluent in both the
languages of biology and engineering, so as to place you
at the epicentre of this 21st century revolution in medicine
and the treatment of disease.
There are at least 10 major challenges in biomedical engineering today:
- personalised medicine - the human genome project has
unlocked a treasure trove of information that will
enable medical advice, diagnosis and treatment to
be tailored to individual patients;
- cell signalling - if you can understand how cells communicate
with one another, and process information about
their environment internally, then you can devise
new effective treatments;
- developmental biology - if you understand the miracle
of a single fertilised cell turning into a beautiful
baby, then you can begin to devise ways of ensuring
that everyone has a healthy start to life;
- medical bionics - we aspire to perfect the seamless integration
between engineered materials and devices and living
tissues;
- biomimetic engineering - devise ways of re-engineering
biological processes for another purpose;
- computational biology - we use engineering methods to
process data and build mathematical models of normal
and abnormal physiology, and then use these models
to control or increase understanding of how these systems work, and
so inform better medical treatment;
- how the mind works - the greatest mystery today is how
the mind works--understand this and unlock a new
era in understanding who we are and what it means
to suffer mental illness;
- improving patient outcomes - working with health professionals
on how to improve the treatment and management
of hundreds of pressing medical problems ranging
from prosthetic devices to cardiovasular disease
to long-term care following spinal cord injuries.
- health informatics - how to ensure the timely availability
of all the important information for making appropriate
and informed decisions;
- technology transfer - how to turn all the discoveries
arising from the above into new products that are
safe and effective.
This is a huge challenge that will take many decades of dedicated effort
to realise, but you could be part of this unfolding revolution here at
Melbourne University.
We have one of the finest engineering schools in
Australia (THES* ranked 16th in the world for technology),
with a host of leading edge technologies being explored.
We also have one the finest
and largest bioscience schools in Australia (THES*
ranked 7th in the world).
In the Parkville
Precinct we are fortunate to have: The
Royal Melbourne Hospital; The
Royal Women's Hospital; The
Royal Children's Hospital; The Royal Dental Hospital and a range
of world class research institutes including: Bio21 (a
biomedical, biotechnology research cluster
supporting collaborative projects, shared technology
platforms, business development and education programs);
the Howard
Florey Institute (focusing on brain research); Walter
and Eliza Hall Institute (focusing
on immune system, infection processes
and cancer research); The
Ludwig Cancer Institute (focusing on cancer research);
the Murdoch
Children's Research Institute (focusing on
life-saving medical research and community health research
for babies, children and adolescents);
and many others close by.
In others words, it is Australia's
premiere clinical and bioresearch hub.
Melbourne University is a comprehensive university with the full range
of student social and sporting clubs and events. Further,
the Melbourne School of Engineering is only a short walk to Melbourne's Central
Business District, meaning you can always be assured of something interesting
and exciting to do with your friends. What better place to study biomedical
engineering?
On behalf of the students and staff in the Melbourne School of Engineering, let
me welcome you to our scholarly community, and invite
you to learn more about us through our website or by contacting us directly.
Professor David Smith
Professor of Biomedical Engineering
*Times Higher Education Supplement (THES) 2006 World University Rankings
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