Grant: Canada Research Chairs
Carleton University
$120,000.00
Imaging and Biomaterials Characterization
FY 2024-25
Summary
Finding Cures for the Incurable: Combining Tissue Engineering & Imaging to Understand Fibrosis
Fibrosis, which can occur in such tissues as the lungs, liver, heart, and brain, is a hallmark of several diseases including certain types of cancer, atherosclerosis, and asthma. The fibrosis process occurs when wound healing mechanisms – the beneficial tissue remodelling processes – go awry, leading to overgrowth, hardening, and/or scarring of various tissues. Characteristic accumulation of excess collagen and remodelling are contributing factors to asthma, among other diseases. Asthma is a Canadian and worldwide public health problem. One of the most common chronic respiratory diseases in Canada, it affects 1 in 12 Canadians or ~8% of the national population. In Canada, the direct costs of asthma are estimated to be $41 billion per year (~13% of Canadian health care funding), making it the second most expensive disease to treat. Current treatments, which only relieve patient symptoms, are unable to reverse the disease process.
Healthy lungs inflate and deflate as we breathe due to a net of collagen and elastic fibers, part of an intricate network called the extracellular matrix (ECM), which provides a structure for cell movement and function. Asthma patients have difficulty breathing because the tubes (airways) that carry air in and out of the lungs become scarred and obstructed by continuous injuries. This constant injury results in a build-up of scarring due to non-elastic fibres, such as collagen, that change the ECM structure and modify cell behaviour. However, key fundamental processes associated with fibrosis and changes in tissues are still very poorly understood.
Dr. Mostaço-Guidolin’s ambitious research combines tissue engineering with high-resolution imaging to design artificial tissues to mimic airway injury and repair. Recovery from injury requires the coordinated activation of a variety of different pathways, including cells and certain ECM alterations. Using microscopy imaging technologies, Dr. Mostaço-Guidolin will look at changes happening within the ECM with an unprecedented level of detail.
In the long term, this research will guide the identification of new targets for the development of new medications not only for asthma, but for a range of widespread, deadly, and otherwise incurable fibrotic diseases that affect the lives of many Canadians.
Program
Canada Research Chairs
Recipient
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
CRC-2021-00391
Name nom
Guidolin, Leila
Department département
Systems and Computer Engineering - Carleton University
Organization id
23
Institution établissement
Carleton University
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2024
Competition year année de concours
2021
Award amount
120000
Program id
CRC
Program name en
Canada Research Chairs
Program name fr
Chaires de recherche du Canada
Group en
DISCOVERY RESEARCH
Group fr
RECHERCHE AXÉE SUR LA DÉCOUVERTE
Committee code
9998
Committee name en
Canada Research Chair Selection Committee
Committee name fr
Comité de sélection des Chaires de recherche du Canada
Area of application code
9999
Area of application group en
Not available
Area of application group fr
Non disponible
Area of application en
Not available
Area of application fr
Non disponible
Research subject code
9999
Research subject group en
Not available
Research subject group fr
Non disponible
Research subject en
Not available
Research subject fr
Non disponible
Field of research list codes
RDF2070101
Field of research list names en
Biomedical materials
Field of research list names fr
Matériaux biomédicaux
Socioeconomic objective list codes
RDS10799
Socioeconomic objective list names en
Health, n.e.c.
Socioeconomic objective list names fr
Santé, n.c.a.
Application title
Imaging and Biomaterials Characterization
Keywords
imaging; optics; microscopy; spectroscopy; extracellular matrix; collagen; tissue remodelling; fibrosis; image processing
Application summary
Finding Cures for the Incurable: Combining Tissue Engineering & Imaging to Understand Fibrosis
Fibrosis, which can occur in such tissues as the lungs, liver, heart, and brain, is a hallmark of several diseases including certain types of cancer, atherosclerosis, and asthma. The fibrosis process occurs when wound healing mechanisms – the beneficial tissue remodelling processes – go awry, leading to overgrowth, hardening, and/or scarring of various tissues. Characteristic accumulation of excess collagen and remodelling are contributing factors to asthma, among other diseases. Asthma is a Canadian and worldwide public health problem. One of the most common chronic respiratory diseases in Canada, it affects 1 in 12 Canadians or ~8% of the national population. In Canada, the direct costs of asthma are estimated to be $41 billion per year (~13% of Canadian health care funding), making it the second most expensive disease to treat. Current treatments, which only relieve patient symptoms, are unable to reverse the disease process.
Healthy lungs inflate and deflate as we breathe due to a net of collagen and elastic fibers, part of an intricate network called the extracellular matrix (ECM), which provides a structure for cell movement and function. Asthma patients have difficulty breathing because the tubes (airways) that carry air in and out of the lungs become scarred and obstructed by continuous injuries. This constant injury results in a build-up of scarring due to non-elastic fibres, such as collagen, that change the ECM structure and modify cell behaviour. However, key fundamental processes associated with fibrosis and changes in tissues are still very poorly understood.
Dr. Mostaço-Guidolin’s ambitious research combines tissue engineering with high-resolution imaging to design artificial tissues to mimic airway injury and repair. Recovery from injury requires the coordinated activation of a variety of different pathways, including cells and certain ECM alterations. Using microscopy imaging technologies, Dr. Mostaço-Guidolin will look at changes happening within the ECM with an unprecedented level of detail.
In the long term, this research will guide the identification of new targets for the development of new medications not only for asthma, but for a range of widespread, deadly, and otherwise incurable fibrotic diseases that affect the lives of many Canadians.