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The mission of the University of Toronto MHSc in Bioethics International Stream is to strengthen individual and institutional leadership capacity in bioethics, with particular emphasis on research ethics, in low- and middle-income countries. We work in partnership with existing and emerging programs in strong institutions in the developing world to identify leaders who will make those programs successful and sustainable.

This proposal seeks to build on 4 years of funded work on the ethical, legal, and social implications (ELSI) of genetic research in American Indian and Alaska Native (AI/AN) communities. In the course of that work, questions of trust have emerged with unique salience as American Indian and Alaska Native community members have expressed concerns with abusive treatment by researchers whom they characterize as primarily interested in self advancement and who, it is argued, have returned little of value to these communities that suffer so disproportionately from health disparities.

We propose to explore the potential of technology trusts - enabling collective action by the public sector involving diverse stakeholders - to pool intellectual property and to cultivate collective norms that can harness to R&D promising genomic technologies that can yield benefits for the poor and excluded. For markets that are small or resource-poor, the hurdles to benefiting from genomic technologies can easily become barricades to access.

One of the promises of genomic research is that information about a genetic disease or risk will increasingly provide the basis for screening and prevention to reduce morbidity and mortality. As a result, much of the meaningful medical action stemming from genetic information will take place under the auspices of primary care providers, underscoring the similarities rather than differences between genetic and other medical information.

A major ethical and policy challenge facing genomics research stems from the existing mandate for rapid public release of all sequenced DNA data. It is now clear that an individual can be uniquely identified with access to a small number of SNPs from that person. Genome-wide association studies routinely use more than 100,000 SNPs to genotype individuals, creating privacy risks that are only going to increase as technology advances and electronic databases proliferate.

Myocardial infarction (Ml) and peripheral arterial disease (PAD) pose an enormous public health burden and there is an urgent need to develop new strategies for their prevention and treatment. Both are manifestations of atherosclerotic vascular disease yet differ in risk factor profiles and clinical presentation. A major aim of this proposal is to identify novel genetic determinants of atherosclerotic vascular disease.