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Supporting Cutting-Edge Synthetic Biology Research with Computational Innovations WELLESLEY HCI iGEM 2012 Our Vision To apply engineering and HCI methodologies to promote collaboration and problem solving in the synthetic biology


  1. Supporting Cutting-Edge Synthetic Biology Research with Computational Innovations WELLESLEY HCI iGEM 2012

  2. Our Vision To apply engineering and HCI methodologies to promote collaboration and problem solving in the synthetic biology experimental process.

  3. This time last year…

  4. iGEM Feedback from Last Year… I wish there were an I wish to view all interactive way to the relevant express the information at concepts behind What if I don’t once… Synthetic Biology… have a Microsoft PixelSense? How is your project Where can I design addressing concerns my constructs? in biosafety?

  5. User-Centered Design

  6. User Research User-study Brainstorming Low-Fidelity Prototype User Observations

  7. Our Goals Goal 1: Simplify the research and information-gathering process Goal 2: Streamline the design and specification of complex constructs Goal 3: Convey basic synthetic biology concepts to non-scientists

  8. Our Projects SynBio Search Semantic search engine for synthetic biology information MoClo Planner A collaborative tool for Modular Cloning SynFlo An interactive installation teaching synthetic biology concepts to the next generation of synthetic biologists

  9. Semantic search of Synthetic Biology information

  10. Implementation • Scraping: CGI scripts in Ruby • Parsing: JSON, Javascript, jQuery • Look and feel: HTML, CSS, & Javascript

  11. Evaluation • Boston University Institutions • MIT (14 users) • Wellesley College  Search for a general topic Usability  Find 2-3 relevant parts  Find a relevant publication Task  Identify experience & author  Time to completion  Screen recording Data Collection  Audio recording  Observer notes Qualitative • Ease of use Methods • Post-study questionnaire

  12. Results: User Feedback “Fusing search results from “I liked that I could multiple sources is very narrow down the useful. I did not have to retype searches based on my query.” database source.” “It's intuitive to use and seems to gather all related data into one place, which is very helpful for project design purposes. I particularly like being able to filter out publications and just search for protocols/ lab notebooks.”

  13. Future Work • Integrated in SynBio Seminar taught by Natalie Kuldell (MIT) • Include more databases – Clotho – SynBERC • Increasing search engine capabilities (Boolean operators, customizable search, and more) • Crowd-sourcing: Incorporate sophisticated feedback and experience feature

  14. MoClo Planner A collaborative tool for Modular Cloning

  15. Modular Cloning  Clones multiple DNA fragments in a single reaction  Fusion sites – the cut and paste sites of Golden Gate cloning Fusion Site Compatible Fusion Sites RBS Promoters RBS Promoters

  16. Motivations • Process visualization • Resource integration • Efficiency • Collaboration

  17. Level 0: Basic Modules Level 1: Transcriptional Units Level 2: Multigene Constructs

  18. Implementation • Microsoft PixelSense: Support for direct manipulation & collaboration • Constraint–based permutation with Eugene • Fusion site checking algorithm • Primer design tests • Crawl and integrating resources: Parts Registry and PubMed

  19. MoClo Planner video

  20. Evaluation Evaluate the usability of the Institutions Goal program • Boston University iGEM Study Use PixelSense in user’s lab • MIT iGEM Procedure environment • Wellesley College  Select specific parts from Parts Registry Usability  Build a Level 1 module Task  Build a Level 2 module Position #  Create primers PIs 1  Video recording Postdocs 1  Audio recording Student Researchers 22 Data  Post-task interview Collection Total 24  NASA TLX questionnaire  Engagement questionnaire

  21. User Study Task

  22. Results 5 7 Engagement NASA TLX 6 4 5 3 4 3 2 2 1 1 0 0

  23. Future Work • Support a top-down workflow • Integrate with: • Clotho • Puppeteer

  24. Human Practices • SynFlo • Outreach • Expert Interviews

  25. SynFlo An interactive installation introducing synthetic biology concepts

  26. Basic concepts Protocol Abstraction Safety Environmental Biotoxins Modularity Contamination Concepts Standardization Real world applications

  27. What is SynFlo? 1. Sifteo Cambridge University’s 2009 iGEM team modified E.coli into color changing Biosensors 1. Selecting genetic parts 2. Inserting part into plasmid 2. Microsoft PixelSense 3. Inserting plasmid into E.coli 4. Testing in virtual environment

  28. Implementation • Sifteo SDK in C# • Server-Client Protocol: Deploying modified E. coli from Cubes onto Surface • Use of fabricated tangible objects to represent environmental toxins

  29. Future Work • Update to support Sifteo 2.0 • Add affordance: so Sifteo cubes reflect lab instruments • Present: • Tanner 2012 conference • Demo at the ACM Interactive Tabletops & Surfaces 2012 conference

  30. Interviews with Experts • Software Inspirations: troubleshooting tree, intuitive database access, search engine suggestions, citation tool suggestions, potential testing groups and outreach projects • Data-Sharing Concerns: collaboration styles, amount of information shared differ in industry and academia • Design Concerns: patenting and brainstorming dilemma, innovation and user comfort

  31. Summary Goal 1: (SynBio Search) Simplify the research and information-gathering process Goal 2: (MoClo Planner) Streamline design and specification of complex constructs Goal 3: (SynFlo) Convey basic synthetic biology concepts to non-scientists

  32. ACKNOWLEDGEMENTS Boston University Traci Haddock, Swapnil Bhatia, and the Wellesley College Doug Densmore lab, and the BU Catherine Summa, iGEM Team. Chris Arumainayagam, Agilent Andrea Sequeira, Robert Kincaid Wellesley College Science Center Summer Research, MIT Yui Suzuki and research lab, Natalie Kuldell & the MIT iGEM team Chelsea Hoover MIT-Wellesley UpWard Bound Sirtris Pharmatheuticals Christine Loh Wayne State University Tamara Hendrickson & her lab

  33. SynFlo Communication 1. Surface sees and sends tag ID (0x02) 2. Sifteo receives ID and waits for cube to flip. Flip links cube unique ID to byte tag 3. When E.Coli is created, Sifteo app send color as a string to the surface app

  34. What do we build on? MoClo: o Eugene o SBOL (visual) o Linking up with Puppetshow SynBio Search: o Parts Registry o SBOL (visual) SynFlo: o e.Chromi

  35. iPad vs PixelSense

  36. Safety Supplement Page

  37. SynBio Search

  38. SynBio Search

  39. SynBio Search

  40. Hierarchical Cloning Parts → Genes → Multi-gene networks RB Level 0 Term Promoters S (Part) Gene RB Term Promoters S Level 1 Gene Gene Level 2 Level 1 Gene Level 1 Gene Level 1 Gene Multi-Gene Network

  41. SynFlo

  42. Capabilities of Sifteo Cubes • shaking • tilting • flipping over • clicking • press & holding • sensing other cubes • Bluetooth connectivity

  43. SynFlo concept • Sets of 3 cubes: plasmid, color and E. coli • Select from 3 different colors on color cube • Transfer color to plasmid cube from color cube by tilting • Transfer color to E. coli cube from plasmid by flipping • Place E. coli on Surface to deploy • E. coli will move around on Surface environment

  44. SynFlo: UpWard Bound Students Evaluation & Results Preliminary user studies on 18 high school students involved a presentation on basic synthetic biology concepts, SynFlo demo, and relfection.

  45. SynFlo: Poster Final demos and project presentation encouraged Wellesley faculty and visitors to engage with our demos

  46. SynFlo: Challenges Working with new technology Lack of resources (i.e. example implementations, documentation) Limited memory Novel event handlers Communicating between devices Surface -> sifteo Sifteo -> surface

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