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		    	Project Leaders: 
Dr. George Labahn (University of Waterloo) and
Dr. Michael Monagan (Simon Fraser University)
			   
				Our 2006 MITACS project proposal (.pdf)
			   
				Our 2008 MITACS project proposal (.pdf)
			   
				Our 2010 MITACS short project proposal (.pdf)
			   
				The Computer Algebra community in Canada is strong, coherent and cohesive, and 
				clearly lends itself to functioning as a consortium. It has three substantial nodes at
				the University of Waterloo, the University of Western Ontario and Simon Fraser 
				University. Each has a core of engaged scientists and students. As well, there is significant 
				ancillary expertise, notably at the University of Calgary, McMaster University, and 
				UQAM. It is not possible to promote, unify and fund this group as a single MITACS 
				project, hence the existence of the Consortium.
			   
			  The features that drive the success of the consortium are: 
				 the size, intellectual strength and breadth of the consortium the focus and cohesiveness of the consortium community  the importance to the mathematical sciences of the problems   the scientific track record  the management track record  the track record in training of Highly Qualified Personnel the track record of interaction with industry 
				The project addresses central problems in algebraic computation. This means developing and 
				implementing algorithms for finding  the exact solution(s) to mathematical problems.  For example, we 
				may prefer the output  to the output 1.727379092. We may prefer the output  to 
				the "unknown" sequence of numbers 1, 3, 11/2, 25/3, 137/12, 147/10,.... Or we may be interested in the 
				asymptotics of a solution, e.g.   
				Because exact formulae tend to grow in size rapidly, algorithmic efficiency and the ability to simplify 
				formulae, that is, to find a compact representation for a formula, is one problem we address. Another 
				problem is that some algorithms require tools from analysis.  Our goal here is to be able to deal with 
				analytic concepts in a computational setting (specifically in Maple) as easily as one can already do 
				with algebraic concepts. The scope of the research program includes problems like exact definite 
				integration and summation, finding analytical solutions of ordinary differential equations, solving systems 
				of algebraic and/or differential equations (both ODEs and PDEs), identity and inequality verification, and 
				simplification of  algebraic formulae involving symbols representing vectors  and matrices as well as 
				integers and reals.
			   
				As well as this fundamental research, our program aims to make the results accessible and visible to a 
				wider community by incorporating procedures into Maple and through the production of interactive 
				mathematical tools accessible from the internet.
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