Alison P. Mcguigan
Chemical Engineering & Applied Chemistry
University of Toronto
Canada
Biography
Dr. Alison P. McGuigan is currently working as a Professor in the Department of Chemical Engineering & Applied Chemistry, University of Toronto , Canada. His research interests includes Tissue engineering seeks to develop advanced health technologies to regenerate and model normal and diseased tissues. During natural tissue assembly and regeneration processes, cells are recruited and re-organized into a specific architecture. For example, during wound healing or regeneration replacement cells, often stem cells, are recruited and re-organized into a specific arrangement to generate new tissue. The functionality of the tissue depends critically on correct incorporation and re-organization of the cells during the regenerative process. Understanding how cell re-organization (termed morphogenesis) is regulated and how it can be controlled is a central problem in tissue engineering. In contrast, in diseases, such as cancer, cells in the tissue re-organize incorrectly as the disease spreads. Understanding cell re-organization therefore could also provide a basis for identifying novel disease therapies.. He /she is serving as an editorial member and reviewer of several international reputed journals. Dr. Alison P. McGuigan is the member of many international affiliations. He/ She has successfully completed his Administrative responsibilities. He /she has authored of many research articles/books related to Tissue engineering seeks to develop advanced health technologies to regenerate and model normal and diseased tissues. During natural tissue assembly and regeneration processes, cells are recruited and re-organized into a specific architecture. For example, during wound healing or regeneration replacement cells, often stem cells, are recruited and re-organized into a specific arrangement to generate new tissue. The functionality of the tissue depends critically on correct incorporation and re-organization of the cells during the regenerative process. Understanding how cell re-organization (termed morphogenesis) is regulated and how it can be controlled is a central problem in tissue engineering. In contrast, in diseases, such as cancer, cells in the tissue re-organize incorrectly as the disease spreads. Understanding cell re-organization therefore could also provide a basis for identifying novel disease therapies.. Dr. Alison P. McGuigan is currently working as a Professor in the Department of Chemical Engineering & Applied Chemistry, University of Toronto , Canada. His research interests includes Tissue engineering seeks to develop advanced health technologies to regenerate and model normal and diseased tissues. During natural tissue assembly and regeneration processes, cells are recruited and re-organized into a specific architecture. For example, during wound healing or regeneration replacement cells, often stem cells, are recruited and re-organized into a specific arrangement to generate new tissue. The functionality of the tissue depends critically on correct incorporation and re-organization of the cells during the regenerative process. Understanding how cell re-organization (termed morphogenesis) is regulated and how it can be controlled is a central problem in tissue engineering. In contrast, in diseases, such as cancer, cells in the tissue re-organize incorrectly as the disease spreads. Understanding cell re-organization therefore could also provide a basis for identifying novel disease therapies.. He /she is serving as an editorial member and reviewer of several international reputed journals. Dr. Alison P. McGuigan is the member of many international affiliations. He/ She has successfully completed his Administrative responsibilities. He /she has authored of many research articles/books related to Tissue engineering seeks to develop advanced health technologies to regenerate and model normal and diseased tissues. During natural tissue assembly and regeneration processes, cells are recruited and re-organized into a specific architecture. For example, during wound healing or regeneration replacement cells, often stem cells, are recruited and re-organized into a specific arrangement to generate new tissue. The functionality of the tissue depends critically on correct incorporation and re-organization of the cells during the regenerative process. Understanding how cell re-organization (termed morphogenesis) is regulated and how it can be controlled is a central problem in tissue engineering. In contrast, in diseases, such as cancer, cells in the tissue re-organize incorrectly as the disease spreads. Understanding cell re-organization therefore could also provide a basis for identifying novel disease therapies..
Research Interest
Tissue engineering seeks to develop advanced health technologies to regenerate and model normal and diseased tissues. During natural tissue assembly and regeneration processes, cells are recruited and re-organized into a specific architecture. For example, during wound healing or regeneration replacement cells, often stem cells, are recruited and re-organized into a specific arrangement to generate new tissue. The functionality of the tissue depends critically on correct incorporation and re-organization of the cells during the regenerative process. Understanding how cell re-organization (termed morphogenesis) is regulated and how it can be controlled is a central problem in tissue engineering. In contrast, in diseases, such as cancer, cells in the tissue re-organize incorrectly as the disease spreads. Understanding cell re-organization therefore could also provide a basis for identifying novel disease therapies.