Dr.s Khem Ghusinga and Alan Jones

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Presentation transcript:

Dr.s Khem Ghusinga and Alan Jones Interaction-Miner: Building Saturated Protein Interactomes from Published Research and Public Databases Dr.s Khem Ghusinga and Alan Jones

Using computers to learn about biology “It is hard for me to say confidently that, after fifty more years of explosive growth of computer science, there will still be a lot of fascinating unsolved problems at peoples' fingertips, that it won't be pretty much working on refinements of well-explored things. Maybe all of the simple stuff and the really great stuff has been discovered. It may not be true, but I can't predict an unending growth. I can't be as confident about computer science as I can about biology. Biology easily has 500 years of exciting problems to work on, it's at that level.” Donald Knuth

This one took a century to assemble! Biologists find constituents of a system and establish relationships between them This one took a century to assemble! Atomic Level (e.g. respiratory complex) Cellular Level

Biology ~ Like figuring out how a car works from just its list of parts. Requires piecing them together first and knowing all you can about each part. It’s slow and expensive work. Lots of labs are doing this, each with only a few pieces at a time. We need a tool to integrate all of this faster and cheaper.

Goal: Create a network (graph) of proteins that interact with each other. The “interactome”

To edge or not to edge Physical Interactions Functional Interactions Evolutionary Interactions Others Interactions established via experiments Link proteins if they participate in similar function Link proteins whose RNA level are correlated Link proteins that evolved similarly All this information is piling up in public data bases. We need a tool to mine all the data to enlighten us.

Where is this freely-accessible data buried? Database Description BioGRID genetic and protein interactions curated from literature for several model organisms and human Wiki-Pi Human protein-protein interactions (PPIs). Takes data from HPRD, BioGrid, and many other sources IntAct Interactions are derived from literature curation or direct user submissions and are freely available. There are many other databases Most databases are freely accessible. Data could be download or accessed via REST Service. Frequently updated as new information is published.

We will start from one protein of interest and build around it.

The resulting interactome that this tool will generate will be so complex that it will look like a hair ball to us. SO, we will also need features that enable us to visualize and learn from it.

Desired features in the tool GUI that allows the user to add/remove a criteria for an edge. Visualization to display the interactome. Desirable to have dynamic visualization as criteria for edge is changed. Scalable so that more databases can be added later on

Assets for your team: No prior biology knowledge required! Two PhD biologists and a mathematician will be on your team all the way. Free accessible databases to mine with annotated nodes Immediate implementation during development. Ergonomic experts Everything a leading institution like UNC can bring to this table.

Your tool will have wider applicability because networks are everywhere Inventory control optimal point to point Traffic control  non-intuitive paths Team management  connecting expertise … just to name a few

We invite you as co-authors on the publication of the tool Scientifically peer-reviewed article More than proof of principle 2019 publication date Free ticket to grad school!

Thank you! Contact: alanjones@bio.unc.edu khem@email.unc.edu