NLIS 1
October 29, 2004
(Innovation, Trade and Rural Development)
Industrial Research and
Innovation Fund projects announced
Kathy Dunderdale, Minister of Innovation,
Trade and Rural Development, in conjunction with Dr. Axel Meisen, President
and Vice-Chancellor of Memorial University of Newfoundland, announced
funding for 20 projects under the Industrial Research and Innovation Fund
this morning at a news conference at the St. John�s Arts and Culture
Centre. The goal of the fund is to enhance research and industrial
innovation within higher education and public research institutions in the
province.
The Government of Newfoundland and Labrador
has allocated over $3 million from the Industrial Research and Innovation
Fund to the 20 projects. The total value of the projects is approximately
$15 million.
"We want to leverage additional research
and development investments from federal granting agencies," said
Minister Dunderdale. "We need to build our research and development
capacity as a means to increase innovation and commercialization of
technologies. This strategy will help transform our economy through the
adoption and use of innovation."
The Industrial Research and Innovation Fund
supports research and development investments in targeted, high-growth
clusters offering significant long-term economic development potential in
such areas as advanced manufacturing, marine technology, biotechnology,
pharmaceutical research, value-added natural resources, and the oil and gas
industry.
"The creation of this fund signals the
increasing importance that the provincial government places on supporting
research and development," said Dr. Meisen. "Memorial is committed
to growing its research activity and ensuring that research results are
introduced into practice and commercialized. This will be vital to the
success of the province�s emerging innovation strategy."
Memorial University of Newfoundland and the
College of the North Atlantic, and their institutes and incorporated
entities, are eligible for support under the fund.
Media contact:
Lynn Evans, Innovation, Trade and Rural
Development, (709)729-4570
Deborah Inkpen, Memorial University of
Newfoundland, (709) 737-4073
BACKGROUNDER
Industrial Research and Innovation Fund (IRIF)
The Industrial Research and Innovation Fund (IRIF)
is an important step by the Government of Newfoundland and Labrador to
enable its provincial institutions of higher learning and research to remain
competitive with other Canadian institutions. IRIF is a support mechanism
for all successfully awarded projects through institutional funding programs
such as the Canada Research Chairs Program and the Canada Foundation for
Innovation (CFI). Total IRIF contributions to Memorial University research
projects listed below total $ 3,020,000. This amount represents 34 per cent
of the total project costs equaling $14,771,931. The overall IRIF ratio is
4.89:1.
Memorial University of Newfoundland projects
awarded funding under IRIF:
- Capillary Electrotrophoresis system for
the Analysis and Identification of Environmental Pollutants
-
$39,785.00 was awarded to Dr Christina Bottaro, Faculty of Science for a
Capillary Electrophoresis (CE) system which is capable of producing
quantitative results with high sensitivity, linearity and reproducibility.
The ability of CE to handle a wide range of compounds very effectively,
with minimal sample handling and in small quantities makes it particularly
useful for the analysis and characterization of persistent organic
pollutants, which is the main theme of Dr. Bottaro�s research. The
significant capabilities of the CE technology combined with the excellent
research and expertise represented by faculty at Memorial University will
enhance Memorial�s reputation as a leader in research in the area of
marine studies, analytical chemistry, and environmental chemistry.
Canada Research Chair in Offshore and
Underwater vehicles design - Dr.
Neil Bose, Faculty of Engineering and Applied Science was awarded $187,500
for an offshore and underwater vehicles design laboratory. This lab will
provide a home for physical models, including the underwater vehicles
themselves, as well as a laboratory for design, manufacture, maintenance and
fitting out of the hardware. The laboratory is necessary in order to form a
strong base for the chair�s research and, in particular, to facilitate an
extremely strong design component associated with this research. The
laboratory will consolidate the work of the chair and provide for a
state-of-the-art fluid velocity measurement system.
Canada Research Chair in Stroke and
Neuroplasticity - Dr. Dale Corbett,
Faculty of Medicine was awarded $187,500 for a state-of-the-art stroke
research laboratory will be established in the Faculty of Medicine. This
laboratory will have the capability to perform small animal surgery at
multiple stations, a Ul range of histological procedures using either frozen
or fresh brain tissue sections and, most importantly, a sophisticated
three-dimensional image analysis system equipped for both standard light and
fluorescence microscopy. Brain temperature, an important physiological
variable, will also be able to be monitored and regulated using an on-line
computer system during and after stroke. Modem microscopy and computer
software have evolved so that highly detailed examination and quantification
of neuronal structure/features are possible. The 3-D microscopy system,
research microscope and associated software, for example, will allow Dr.
Corbett to trace and analyze fine structural details of neurons such as
dendritic trees and spines that have been modified by post-stroke
treatments. Being able to identify such changes in neuronal structure will
provide important new insights into the mechanisms contributing to the
recovery of function after stroke. Other experiments require precise
information about the numbers of neurons that survive after stroke,
especially in situations where a neuroprotective drug has been administered.
New, unbiased stereological counting procedures have recently been developed
and they will be employed in this laboratory.
Canada Research Chair in Scientific
Modelling and Simulation - Dr Paul
Mezey, Faculty of Science was awarded $266,212 for infrastructure for the
Scientific and Modelling and Simulation Laboratory (SMSL) which consists of
two newly renovated rooms adjacent to the Computing and Visualization Centre
(CVC) of Memorial University. A major part of the new infrastructure is a
substantial upgrade of the central processing unit of the CVC in which 20 of
the 28 MIPS processors will be replaced by three SGI Altix machines equipped
with 36 new and far more powerful Itanium 2 processors, resulting in a very
substantial overall increase in computing power. This upgrade, more than
tripling the performance of the CVC, will not adversely affect the high-end
visualization capabilities of the centre. Integrating these resources into
the CVC leverages earlier investments by Memorial University, the Canada
Foundation for Innovation and others, and will provide researchers at
Memorial and throughout the province with improved access to this resource.
The second component of the new infrastructure is a group of 10
state-of-the-art dedicated PCs located in the two new rooms of the SMSL, and
two laptops, providing additional, dedicated modeling and simulation
capabilities to researchers, graduate students and visitors participating in
the research work of the SMSL.
Canada Research Chair in Asset Integrity
Management - Dr. Rangawamy Seshadri,
Faculty of Engineering and Applied Science, was awarded $151,842 for the
research program of the Canada Research Chair in Asset Integrity Management,
focusing on the development of a comprehensive set of mechanical and
structural integrity assessment methodologies suitable for new as well as
in-service oil and gas industrial facilities that is unique in Canada. These
assessment methods are particularly suitable for an aging facility that is
subjected to process-induced and material degradation, in that, while based
on scientific and analytical rigour, the methods are simplified and robust.
The research program will develop methods that are novel, innovative and
suitable for use in a design office and an operational oil and gas facility,
both offshore and on-land. This research will support Memorial University's
goal to become a regionally, nationally and internationally recognized
Centre of Excellence in Asset Integrity Management.
Infrastructure for research on the endocrine
regulation of feeding in fish - Dr.
Helene Volkoff, Faculty of Medicine, was awarded $44,942 for the development
of modern facilities for the study of fish feeding physiology in the
Department of Biology at Memorial In her research, Dr. Volkoff uses a
multidisciplinary and integrative approach to examine these physiological
mechanisms at the molecular, cellular, organ, and whole animal levels, thus
combining traditional physiology techniques with the latest molecular
biology tools. This equipment will provide Dr. Volkoff with the necessary
infrastructure to efficiently carry on a research program that will build on
Memorial University's leadership position in fish physiology research. This
research has potential impacts on the aquaculture industry.
Canada Research Chair in Boreal and Cold
Ocean Systems - Dr. Paul Snelgrove,
Ocean Science Centre, was awarded $145,874 for the creation a regional
facility for cold ocean biological sampling and experimentation. It is the
combination of field and laboratory approaches that will allow the most
significant advances in our understanding of the North Atlantic environment.
The major lab elements include a flume and associated equipment for
quantifying flow within the flume; flumes are structures that mimic natural
bottom flow in order to understand larval settlement of organisms that live
on the seafloor. The flume will be built at the Ocean Sciences Centre, which
has world-class aquaculture facilities that will make it feasible to rear
larval stages of cold water species to a degree not possible anywhere else
in the world. It is these early life stages that are thought to influence
year-to-year variation in recruitment success, and the flume facility will
allow studies on the behaviour of Newfoundland marine organisms in a way
that is not currently possible at a superb aquaculture facility.
Laboratory Facility for Process Safety and
Risk Management - Dr. Faisal Khan,
Faculty of Engineering and Applied Science, was awarded $151,906 in IRIF
funding. This project will develop an infrastructure facility for
investigating chemicals and process behavior in different operating
conditions, including process upset leading to accidents, and setting up
safety measure design parameters. The facility will investigate pressure
hazards, thermal hazards, and reactive hazards present in processing
operations. The facility will be located in the Faculty of Engineering and
Applied Science, Memorial University, and will be used for research related
to process safety, loss prevention, and risk management. The proposed
facility will provide a strong base for the creation and enhancement of
institutional, national and international research collaborations.
Analytical X-ray Facility for Materials
Science and Engineering - Dr John
Shirokoff, Faculty of Engineering and Applied Science, was awarded $146,618.
The research infrastructure is aimed at developing innovative, cross-linking
research programs which will benefit research at Memorial University.
Research collaborations will involve regional, national, international
and/or industrial researchers. Within the Faculty of Engineering and Applied
Science research will focus on the residual stress in metals and alloys,
metal failure analysis, and asset integrity management of materials provided
to the process (forestry, chemical, hydrometallurgy, electrochemistry,
etc.), mining, and oil and gas industries. The infrastructure will provide
the necessary data to assess materials performance for industrial service
and after service repair markets.
Chemical Dynamics Laboratory for Fast
Kinetics Research - Dr. David
Thompson, Faculty of Science, was awarded $200,768. The Laser Laboratory
will allow Memorial University access to research funding that will increase
the level of innovation and research excellence relative to other high
profile research-active universities in Canada and the United States. The
research involves multifaceted, multidisciplinary investigations in the
areas of nanotechnology; fundamental investigations into photo-induced
electron and energy transfer processes; the design of photoactive catalysts
for chiral epoxidation of selected substrates, and; C-H and C-C bond
activation. For the research being conducted in the area of nanotechnology,
the Chemical Dynamics Laboratory is an essential tool. It is expected that
the results of this research will be of importance to both advanced
manufacturing and pharmaceutical research.
Laboratory for Physico-chemical Imaging and
Analysis of Biomaterials and Soft Nano-structured Interfaces -
Dr Kaushik Nag, Faculty of Science, was awarded $255,978. The atomic force
microscope (AFM) and a Raman Micro-Spectroscope (RMS are the first of their
kind at Memorial University and in this province. These instruments will not
only enhance the capability for Dr. Nag�s research in biotechnology, but
will also be an added advantage to other researches. Researchers in physics,
medicine and marine biology, for example, have projects which are directed
towards the development of advanced materials, photonics, pharmaceuticals,
and the oil and gas industries. These researchers, using this
infrastructure, will enable the formation of a core group of expertise
developed within this province. The ongoing training of personnel and
students will allow for the development of highly skilled workers, as these
techniques are cutting edge and regularly used in the R&D of
biotechnology, electronics, as well as in the nano-scale device
manufacturing industry.
Development of Intelligent Systems Lab (ISLAB)
for Research in Coordinated Robotics
- Dr. George Mann, Faculty of Engineering and Applied Science, was awarded
$110,457. Some of main wealth creating sectors in Canada belong to the
resource group of industries, such as metal mining, pulp and paper, and oil
and gas. The automation and telerobotic applications are vital for these
sectors to be competitive in the global market. Most of the industries are
already predicting they will have telerobotic systems in their production
systems within the next 10 years as an immediate solution to being
competitive in the market. This research project is of significance to
Newfoundland and Labrador as a major portion of our provincial economy is
based on these resource industries. Research at the ISLAB will have a direct
influence in bringing short-term economical advantages to these industries.
For example, collaboration between Memorial University and Inco Ltd. on
various research projects has enabled Inco to implement cost-saving
solutions to their immediate operational issues.
Cellular Signaling Mechanisms in Growth,
Development and Disease - Dr Robert
Gendon et al, Faculty of Medicine, were awarded $362,375 to support
molecular biological and proteomics-based research studies of health and
disease. This infrastructure is critical in order to undertake their
research projects ranging from novel proteins in blindness and cancer to
molecular biological studies of cell adhesion in pre-term labour and growth
factor signaling in cellular differentiation. As an important part of the
research focuses on understanding interactions between proteins to determine
their function within cells, emphasis will be put on the development of a
proteomic core infrastructure and a cell biology core infrastructure. Other
infrastructure needed to successfully achieve the goals include a molecular
biology core infrastructure, and improvement of the general research
infrastructure and the animal core facility.
The Role of Integrin-Linked Kinase in Human
Trophoblast Differentiation - Dr.
Daniel MacPhee, Faculty of Medicine, was awarded $73,324. The placenta
represents a critically important fetal:maternal interaction that is
absolutely necessary for the maintenance of pregnancy. In the development of
the fetal placenta, numerous finger-like projections of cells termed "trophoblasts"
invade the uterus of the mother. The invasion of the placenta into the
uterine wall is a precisely controlled process since aberrations in the
invasive process can lead to decreased or over-invasiveness of trophoblast
cells. Dr. MacPhee hypothesizes that an enzyme named "Integrin-Linked
Kinase" (ILK) may be a key protein involved in the regulation of the
development of invasive trophoblast cells. Through his research, Dr. MacPhee
will characterize the expression pattern of ILK at the messenger RNA level
and the protein level in human placental tissue during pregnancy. Dr.
MacPhee will also specifically decrease the amount of ILK protein produced
in human placental explants in tissue culture and observe how a lack of ILK
protein affects the development of the trophoblast cells. Lastly, Dr.
MacPhee will determine whether ILK is a player in the development of the
disease called preeclampsia. This disease is a leading cause of maternal
death in the industrialized world and is marked, pathologically, by shallow
trophoblast invasion of the uterus. The levels of ILK messenger RNA and
protein will be measured in placental tissue from preeclamptic pregnancies
and compared to levels in normal placental tissue. Based on these results,
Dr. MacPhee will attempt to restore the invasive capacity of trophoblast
cells in vitro from preeclamptic pregnancies and ultimately aid in the
development of a therapeutic strategy to prevent the disease.
Canada Research Chair in Traditional
Music/Ethnomusicology - Dr.
Beverley Diamond, School of Music, was awarded $37,363. This project
includes the funding of basic fieldwork equipment, an archival digitization
and restoration facility, Memorial University Folklore and Language Archive
(MUNFLA) community access stations, a multimedia production centre, and the
refitting of space for small conferences or working group meetings. This
constitutes the major components of a unique Centre for Music, Media and
Place (MMAP). Research on the science of audio technology is well developed
at several Canadian institutions, and the broad social implications of music
media are studied in a number of Canadian universities. The MMAP Centre will
provide a much needed facility that will work in between these two types of
research, in a space where specific media and technological decisions are
explored in detail from the perspective of participants and listeners, in a
space that is cognizant of social determinants but is also ready to
recognize individual agency. The MMAP Centre will offer a significant
national capability not duplicated elsewhere and will become a player in
various related international projects.
Regulation of Striated Muscle Myosin
- Dr. David Heeley, Faculty of Science, was awarded $130,097. The ultimate
aim of Dr. Heeley's research is to understand how the protein molecules in
muscle, such as a biceps, a fish tail, or a heart, actually produce
movement. The proteins (i.e., myosin, actin, tropomyosin, and troponin),
which are the mobile parts of a muscle, are purified here at Memorial
University and added back together to create the skeleton of a working
muscle in a test tube. By then supplying fuel (adenosine triphosphate or
ATP), the protein machinery can be analysed in different stages of its
cycle.
Proteinase - Activated Receptor 2 (PAR2) and
Cardiovascular Diseases - Dr. John
McGuire, Faculty of Medicine, was awarded $166,416. High blood pressure is
the greatest risk factor in the development of stroke, a devastating disease
that urgently needs prevention as there are currently no fixes for the brain
damage that results. Lowering blood pressure by introducing lifestyle
changes and treating it with existing drugs may reduce the risks of stroke
and kidney failure, but this has failed to provide remedies for some
patients who still require management of their blood pressure. High blood
pressure is also a component of cardiovascular disease, which is currently
the leading cause of death in Canadians. Dr. McGuire�s research is to find
new drugs to prevent and treat cardiovascular diseases.
Sulfur Amino Acid Metabolism and
Compensatory Growth - Dr. Robert
Bertolo, Faculty of Science, was awarded $74,519. Sometimes fetuses do not
get the nutrition they need, and as a result, these infants are born small
for their age. However, once born, these infants grow faster than their
normal sized counterparts in an attempt to "catch up" in size.
Often this catch up growth is inadequate and these infants remain small into
adulthood. It has recently been shown that infants who are born small and
then catch up actually have a higher risk of developing chronic diseases in
adulthood, including obesity, heart disease, high blood pressure, diabetes,
Alzheimer�s disease, and osteoporosis. When infants are deprived of
nutrition in the womb, their metabolism is altered to compensate for this
poor environment. Once borne, their metabolism cannot cope with the surplus
of nutrients during catch up growth. Some nutrients such as the amino acid
methionine, have dual roles during growth. Methionine is incorporated into
protein and is also responsible for methylation reactions, which are
critical during growth. However, too much methionine may lead to
homocysteine accumulation, which has been associated with the development of
the above mentioned chronic diseases. How the body decides how much
methionine is delivered to each process is the subject of this research. In
particular, Dr. Bertolo will investigate how this partitioning is regulated
during poor and rapid growth both before and after birth. Because methionine
metabolism can lead to high homocysteine levels, the control of this
partitioning is critical in the understanding and treatment of the growing
epidemic of the chronic diseases of adulthood.
Enhancing Small Intestinal Function
Following Injury in the Newborn -
Dr. Janet Brunton, Faculty of Science, was awarded $78,586. The small
intestine in the newborn infant is in a rapid stage of growth, particularly
in an infant born prematurely. Unfortunately, premature and newborn infants
often require intravenous feeding due to intestinal infections or medical
problems that preclude normal feeding. Intravenous feeding interrupts normal
intestinal development and impairs the ability of the gut to absorb the
nutrients required to maintain growth. If the intestine can be stimulated to
grow during or after intravenous feeding, such that absorption of nutrients
is enhanced, then the transition from intravenous to enteral nutrition may
be accelerated. The objective of this research is to identify nutrients or
other therapies that might stimulate intestinal growth and function. There
is some evidence that the amino acid arginine (i.e., a component of all
proteins) acts in this manner. Dr. Brunton proposes to investigate the
effects of arginine on the structure and function of the intestine in
newborn piglets which have been intravenously fed. Like the human, the
newborn piglet is in a rapid stage of growth. Information provided by the
piglet model may quickly result in therapies that will enhance small
intestinal function in infants with gastrointestinal problems. Improvements
in the intestinal structure and function will help avoid the high morbidity
and long term complications associated with parenteral feeding and/or the
development of devastating GI infections. Ultimately, this will lead to
improved growth and shortened hospital stays for newborn premature infants,
which will enhance the quality of life for infants and families, as well as
reducing the burden on health care resources.
Interaction of interferon-induced antiviral
responses and Ras siginalling pathways
- Dr. Kensuke Hirasawa, Faculty of Medicine, was awarded $107,938. Virus
infection still remains as one of the major health and economic problems in
Canada. For example, the outbreak of Severe Acute Respiratory Syndrome (SARS)
in Canada in 2003 resulted in 44 deaths and a significant economic loss
(approximately $ 1.5 billion). Moreover, the renewed threat of the West Nile
virus comes every spring in Canada and in 2002, there were 325 confirmed
infections, with 18 deaths. Virus infection is also considered a major risk
for economic loss in domestic animals, including avian influenza virus and
foot-and-mouth disease virus. Although the development of highly effective
vaccines has successfully eradicated important viral pathogens, such as
polio virus and small pox virus, some other viruses remain impervious to the
vaccine approach. The need for antiviral drugs is growing as new viral
diseases emerge. Over 30 antiviral drugs have been developed recently, but
their therapeutic use is focused on a small number of viruses which require
the rapid identification of the specific virus causing the infection for
effective use of these agents. New strategies for development of antiviral
drugs targeting common properties of viruses still need to be explored. The
interferon (IFN) system is the first line of defense against viral
infection. IFN is released by infected cells in response to viral infection,
as it causes the activation of antiviral status in the neighboring cells.
However, this first defense can be broken when viruses take advantage of
cellular machinery regulating IFN-induced antiviral responses. Through this
research, Dr. Hirasawa will identify and characterize cellular status
maximizing IFN's ability to fight against virus infection. The findings from
this research will lead researchers to develop novel antiviral drugs that
target a wide spectrum of viruses.
2004 10
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