Compute Canada

Researcher Spotlights

TRISEP 2014 School

Students at the TRi-Institute School in Elementary Particles (TRISEP 2014 - held at Laurentian University and SNOLAB) used HPCVL resources in their 9-hour practical course on simulation methods. HPCVL was able to give the students and lecturer (Luciano Pandola from the Instituto Nazionale di Fizica Nucleare, Italy) a common and powerful linux computing environment using Laurentian University computer terminals with a java-based login to HPCVL. It was easy to work  efficiently with the geant-4 simulation toolkit used extensively in nuclear, particle, and medical physics. This practical session was one of the highlights of the course. The TRISEP school runs every year in rotation by TRIUMF, SNOLAB and the Perimeter Institute for Theoretical Physics.

First Complete Scan of the Human Proteome

Chancellor's Professor of Computer Science F. Dehne building the human proteome

OTTAWA and KINGSTON, Ontario, April 9, 2010 -- Using high performance computing, Dr. F. Dehne and his team of researchers expect to have the entire Homo sapiens proteome complete within a few months.

The proteome is the complete set of proteins produced by a species. Protein-protein interactions are an integral part of many biological processes within the body's cells, including signaling processes to respond to outside stimuli such as the level of oxygen in the environment, transporting nutrients, and responding to threats from viruses such as H1N1 and HIV. Knowing the interactions in cells -- at the molecular level -- is essential for understanding cell behavior. It is also essential for understanding the impact of pathogens on cells.

The Sun Microsystems T5140 cluster located at HPCVL provides the Dehne group with a speedup of close to three orders of magnitude for this task. Without this high performance computing equipment, the first ever complete scan of the human proteome would take well over a year or more rather than just a few months. This would be impossible to achieve without an HPC installation such as HPCVL. The software was optimized to scale up to 6,400 concurrent computational threads, the largest ever calculation of its type ever done at HPCVL and one of the largest performed in Canada.

"HPCVL is pleased to be able to provide world-class computational resources for distinguished scientists such as Dr. Dehne. We are really excited about being able to facilitate this research especially the multi-threaded approach used by this group. Note that as a part of Compute Canada, our resources can be used by researchers across the country," said Dr. Ken Edgecombe, HPCVL's executive director.

"I would like to acknowledge the funding from the Government of Canada, the Canada Foundation for Innovation and the Government of Ontario and thank them for their commitment to ensuring Canadian researchers and scientists have the high performance computing tools and support they need to advance innovation and excellence," said Susan Baldwin, executive director of Compute Canada.

The PIPE software used in this work has been the first to scan the entire proteome of yeast, a key model organism for human cell behavior, and they are currently using HPCVL's resources to scan the entire human cell proteome which is several orders of magnitude larger. PIPE has also been successful in detecting protein interactions between human proteins and pathogen proteins such as HIV. This knowledge will be essential for understanding human cell behavior and helpful for understanding the impact of certain disease-causing viruses such as HIV. The PIPE software was developed by a team of Carleton researchers: Prof. Frank Dehne of Computer Science; Prof. Ashkan Golshani of Biology; Prof. James Green of Engineering; Dr. Sylvain Pitre, Andrew Schoenrock and Chris North of Computer Science; and Mohsen Hooshyar of Biology.