Burnaby, Canada
Burnaby, Canada

Simon Fraser University is a public research university in Burnaby, British Columbia, Canada, with its main campus on Burnaby Mountain and satellite campuses in Downtown Vancouver and Surrey. The 1.7 km2 main campus on Burnaby Mountain, located 20 km from downtown Vancouver, was established in 1965 and comprises more than 30,000 students and approximately 950 faculty members. The university is adjacent to an urban village, UniverCity. The university was named after Simon Fraser, a North West Company fur trader and explorer. Undergraduate and graduate programs operate on a year-round tri-semester schedule. It is the only Canadian university competing in the National Collegiate Athletic Association . In 2007, Simon Fraser University was the first and remains the only university to be awarded the Prix du XXe siècle from the Royal Architectural Institute of Canada recognizing the "enduring excellence of nationally significant architecture", although the campus is in declining physical condition. The university's 2011 capital plan reports 53% of buildings in "poor" condition and 27% ranked "fair," due to provincial and federal austerity in the education sector.SFU is ranked 24th from the 100 Under 50 universities 2014 in the world by the Times Higher Education. SFU was ranked first among Canada's comprehensive universities in 1993, 1996-1998, 2000, 2008-2013 and in 2015 by Maclean's. Based on solely Canadian Universities for 2014, SFU is ranked 17th in CWUR, 8th in ARWU, 11th in Times, and 2nd in Maclean's Comprehensive. SFU faculty and alumni have won 43 fellowships to the Royal Society of Canada, three Rhodes Scholarships and one Pulitzer Prize. Wikipedia.


Time filter

Source Type

Patent
University of British Columbia and Simon Fraser University | Date: 2015-04-09

This invention provides compound having a structure of Formulas: Uses of such compounds for treatment of various indications, including prostate cancer as well as methods of treatment involving such compounds are also provide.


Patent
Simon Fraser University | Date: 2015-04-15

Described herein are stable hydroxide ion-exchange polymers. The polymers include ionenes, which are polymers that contain ionic amines in the backbone. The polymers are alcohol-soluble and water-insoluble. The polymers have a water uptake and an ionic conductivity that are correlated to a degree of N-substitution. Methods of forming the polymers and membranes including the polymers are also provided. The polymers are suitable, for example, for use as ionomers in catalyst layers for fuel cells and electrolyzers.


A process for increasing the energy conversion and electrochemical efficiency of a scaffold material using a deposition material comprises flowing by at least one surface of the scaffold material a solution which comprises the deposition material, forming agglomerations of the deposition material with at least one surface of the scaffold material, wherein the deposition material fills pores on the at least one surface of the scaffold material (scaffold pores) thereby increasing the surface area of the scaffold material, electrically connecting deposition material to the scaffold material via the formation of agglomerations, wherein said scaffold material is conductive and flow-through and wherein deposition material has a pore size (deposition material pore size) which is no larger than the scaffold pore size.


Patent
Ballard Power Systems and Simon Fraser University | Date: 2016-08-18

Methods for detecting a hydrogen leak and quantifying a rate of the same in a polymer electrolyte membrane fuel cell stack are provided, as well as a fuel cell diagnostic apparatus that diagnoses a hydrogen leak in a fuel cell stack.


A new fabrication process for flexible and wearable microfluidic channel structures and devices is provided. Microfluidic channel structures and devices can be printed on textiles and in particular on flexible fabrics, such as clothing, for applications in wearable microfluidic sensors and systems. The wearable and flexible microfluidic devices are fabricated from water-insoluable plastisol polymers, which may be screen-printable, and sheets of paper may be used as a sacrificial substrate during production.


Patent
Simon Fraser University | Date: 2017-01-17

Electrode structures for transvascular nerve stimulation combine electrodes with an electrically-insulating backing layer. The backing layer increases the electrical impedance of electrical paths through blood in a lumen of a blood vessel and consequently increases the flow of electrical current through surrounding tissues. The electrode structures may be applied to stimulate nerves such as the phrenic, vagus, trigeminal, obturator or other nerves.


Patent
Simon Fraser University | Date: 2017-02-22

Described herein are stable hydroxide ion-exchange polymers. The polymers include ionenes, which are polymers that contain ionic amines in the backbone. The polymers are alcohol-soluble and water-insoluble. The polymers have a water uptake and an ionic conductivity that are correlated to a degree of N-substitution. Methods of forming the polymers and membranes including the polymers are also provided. The polymers are suitable, for example, for use as ionomers in catalyst layers for fuel cells and electrolyzers.


Grant
Agency: European Commission | Branch: H2020 | Program: RIA | Phase: SC1-PM-09-2016 | Award Amount: 6.75M | Year: 2017

The main goal of HIVACAR proposal is to change the current paradigm of HIV treatment by obtaining a functional cure for HIV (i.e., control of viral load to levels below the threshold of 50 copies/ml and maintenance of high CD4\ T-cell count after discontinuation of antiretroviral therapy) thanks to effectively targeting residual virus replication and viral reservoirs. In order to do so, the planned novel strategy is to successfully combine immune-based therapies, including therapeutic vaccines and broadly neutralizing antibodies with latency reversing agents, in a proof-of-concept phase IIa clinical trial. HIVACAR project will lead to a reduction of the actual costs related to HIV treatment and management and of the social public health as well as an improvement in the patients quality of life. HIVACAR project has been conceived under the framework of responsible research and innovation, so patients and other stakeholders will have a key role from the inception of the project until obtaining the results. Patients will be perfectly aware of how this therapy has been conceived and the real impact and change in their actual quality of life, as well as how the clinical trial has been designed and the consequences of participating in it. In addition, patients (and the general population) will tailor the project and its results dissemination and communication. This patient engagement will not be limited to the clinical trial but also to the rest of the activities of the project, so patients and the general society will be aware of how the research is developed and can include the patients point of view in the research activities. In addition, the socio-economic and psycho-social impact of the new treatment will be also analysed so overwhelming data on the benefits and impact of the new treatment will be obtained and shown to all the stakeholders.


Holdcroft S.,Simon Fraser University
Chemistry of Materials | Year: 2014

The polymeric ionomer plays a vital role in PEM fuel cell device technology, not simply as the membrane that transports protons and water from one electrode to another but as the binder and transport medium responsible for electrochemical activity within the catalyst layer. This perspective examines critical features of the catalyst layer ionomer. It highlights the current understanding of interactions of ionomer in catalyst inks, where the microstructure of the catalyst layer is largely formed, and in the catalyst layer itself. Properties important to the design and function of next generation ionomers and the challenges faced in replacing PFSA ionomers with hydrocarbon-based analogues are closely examined. © 2013 American Chemical Society.


Dhillon B.K.,Simon Fraser University
Nucleic acids research | Year: 2013

IslandViewer (http://pathogenomics.sfu.ca/islandviewer) is a web-accessible application for the computational prediction and analysis of genomic islands (GIs) in bacterial and archaeal genomes. GIs are clusters of genes of probable horizontal origin and are of high interest because they disproportionately encode virulence factors and other adaptations of medical, environmental and industrial interest. Many computational tools exist for the prediction of GIs, but three of the most accurate methods are available in integrated form via IslandViewer: IslandPath-DIMOB, SIGI-HMM and IslandPick. IslandViewer GI predictions are precomputed for all complete microbial genomes from National Center for Biotechnology Information, with an option to upload other genomes and/or perform customized analyses using different settings. Here, we report recent changes to the IslandViewer framework that have vastly improved its efficiency in handling an increasing number of users, plus better facilitate custom genome analyses. Users may also now overlay additional annotations such as virulence factors, antibiotic resistance genes and pathogen-associated genes on top of current GI predictions. Comparisons of GIs between user-selected genomes are now facilitated through a highly requested side-by-side viewer. IslandViewer improvements aim to provide a more flexible interface, coupled with additional highly relevant annotation information, to aid analysis of GIs in diverse microbial species.

Loading Simon Fraser University collaborators
Loading Simon Fraser University collaborators