Dr. Derek H Rosenzweig (PhD) is an Associate Professor in the Division of Orthopaedic Surgery, Department of Experimental Surgery, McGill University. His research is focused on musculoskeletal tissue modeling and engineering, predominantly using biofabrication approaches including 3D printing and bioprinting. He is currently utilizing these tools for tissue engineering applications but also cancer and tissue modeling.
Webinar Title: Leveraging 3D Bioprinting toward human disease modeling and tissue regeneration
Dr. Rahul Gawri (MD, PhD) is an Assistant Professor, Department of Surgery, McGill University. His research focuses on fracture healing using the body’s immune cells, such as mast cells, and devising strategies for faster and more effective repair. He also conducts research on bioenergetics and energy utilization by cells that generally have a limited nutrient supply, such as intervertebral disc cells and cells at the site of fracture healing. The overall goal of this research is to utilize innate mechanisms and energy modulation to devise effective tissue engineering therapies.
Webinar Title: Variance in Physiological Tissue-Level Oxygen Tension: An Effective Tool in Tissue Engineering and Regenerative Medicine Applications.
Tarek Klaylat is a PhD student in Surgical and Interventional Sciences in the lab of Dr. Rahul Gawri at McGill University. Tarek’s work focuses on developing innovative and cutting-edge tissue engineering and regenerative medicine applications for ligament tissues. Tarek is passionate about contributing to the scientific community and is currently engaged in the Experimental Surgery Graduate Student Society (ESGSS) as VP Finance and in the Quebec Cell, Tissue and Gene Therapy Network – ThéCell Students’ initiative committee as VP Activities.
Webinar Title: Ligamentogenic differentiation of human bone marrow-derived stromal cells using physiological oxygen tensions for tissue engineering applications.
Brenda Fraser is a professional photographer who ais trained in crime scene photography and this is where her journey as a photographer truly began. First with a film SLR and then into the digital world. She specializes in sports, equestrian and event photography, from formal to backyard BBQ style. She also attends unconventional locations, such as hospitals and nursing homes, to capture memories for generations to come.
Webinar Title: Scleroderma-Experienced Dermatological Changes
Lab Info
Name:
Biobank LOEX
Principal investigator:
Ms. Veronique Moulin
Location:
Quebec, Quebec
Contact:
Veronique Moulin
veronique.moulin@fmed.ulaval.ca
Objective/description
The advancement of biomedical research including regenerative medicine, tissue engineering reconstruction of different tissues and organs as well as the understanding of physiological, pathophysiological mechanisms and pharmacotoxicological and cosmetological analyzes.
Collection Details
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Lab Info
Name:
Piguet Lab
Principal investigator:
Dr. Vincent Piguet
Location:
Toronto, Ontario
Contact:
David Croitoru
David.croitoru@mail.utoronto.ca
Objective/description
We are engaged in translational research of inflammatory dermatoses and perturbation of immune regulation and microbial communities at associated disease sites.
Collection Details
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Lab Info
Name:
CTTB Biobank and Registry for Atopic dermatitis
Principal investigator:
Dr. Carolyn Jack
Location:
Montreal, Quebec
Contact:
Gaurav Isola
gaurav.isola@mail.mcgill.ca
Objective/description
The Transdisciplinary Centre for Biological Therapies (Centre Transdisciplinaire de Thérapies Biologiques or CTTB) is a multidisciplinary, integrated approach for patients who are receiving therapies directed at the immune system. The CTTB Biobank and Registry for Atopic dermatitis has been created to collect and store blood, skin tissue and other types of biological samples, as well as clinical information, for current and future research purposes.
Objectives:
To identify the impact of various treatments for dermatitis on patient symptoms, quality of life and disease outcome.
To characterize (including potential sequencing) skin lesions and matched normal tissues at the molecular and cellular level (the cells, the DNA, RNA and proteins, as well as their regulatory factors), to help better understand disease biology, prognosis and response to therapy, with a potential to identify new targets for improved treatments.
To characterize cells, proteins and genetic material (RNA and DNA) in the blood or other bodily fluids to identify characteristics that may act to identify specific kinds of skin diseases, or to predict response to therapy or disease outcome.
To characterize biomarkers, including those related to microbiome (bacteria that live on or in humans) to identify potential disease markers, markers of response to therapy or prognostic markers.
Collection Details
Skin conditions represented:
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