Fruit Fly Brain Hackathon 2016
March 17, 2016
Columbia University, New York, NY 10027
The goal of the hackathon is to bring together researchers interested in developing executable models of the fruit fly brain. Towards that end we will engage systems and computational neuroscientists in modeling, design, implementation and biological validation of an open-source emulation platform of the whole fruit fly brain. All hackathon participants will be provided with an Amazon Machine Image of the recently developed open-source Neurokernel platform  for executable fruit fly brain circuits.
The hackathon is aimed at three main groups of participants: biologists, modelers and software engineers. For biologists, the hackathon focuses on the intuitive modeling and representation of biological data, such as anatomical and recordings data of the fruit fly brain, in the NeuroArch database. For modelers, the hackathon aims at creating/modifying models of neuropils that are compliant with the Neurokernel API. For software engineers, the hackathon focuses on improving the Neurokernel platform and its API, and developing new, proof-of-concept features that are needed by biologists and modelers alike. All hackathon participants will be strongly encouraged to collaborate towards the realization of executable fruit fly brain models.
The Fruit Fly Brain Hackathon is organized in conjunction with the Columbia Workshop on Brain Circuit, Memory and Computation on March 18-19, 2016. Participants of the hackathon are welcome to attend the workshop.
 Lev E. Givon and Aurel A. Lazar, Neurokernel: An Open Source Platform for Emulating the Fruit Fly Brain, PLOS ONE 11(1): e0146581. doi:10.1371/ journal.pone.0146581, January 2016.
Paul Richmond, Department of Computer Science, University of Sheffield
Adam Tomkins, Department of Automatic Control and Systems Engineering, University of Sheffield
Nikul Ukani, Department of Electrical Engineering, Columbia University
Yiyin Zhou, Department of Electrical Engineering, Columbia University
Registration is free but all participants have to register. To help us better organize the event, please provide in the appropriate registration block a brief description of your background and what you would like to learn/achieve during the hackathon. Thank you!
Lodging and Directions to Venue
Please follow this link for lodging details and directions to the hotel and venue.
Thursday, March 17th, 2016
09:00AM - 10:00 AM: Introduction to the hackthon and pairing
10:00AM - 11:20AM: Tutorial - Developing an executable model of neuropil in Neurokernel and connecting it to another neuropil model (by Yiyin Zhou, Columbia University)
11:20AM - 11:40AM: Break
11:40AM - 01:00PM: Tutorial - Importing and querying fly data in NeuroArch and exporting circuits for execution (by Nikul H. Ukani, Columbia University)
01:00PM - 02:00PM: Lunch break and more pairing
02:00PM - 03:00PM: Tutorial - Neurokernel API and internal communication mechanism (by Lev E. Givon, Columbia University)
03:00PM - 08:00PM: Hacking
08:00PM - 09:00PM: Reflection
Participants can choose to attend any of the tutorials or begin hacking earlier.
The hackathon relies on the Amazon Elastic Compute Cloud (Amazon EC2) as the main computing resource. Prior to attending the hackathon, participants are requested to set up an account with Amazon EC2 and to familiarize themselves with creating Linux GPU instances. Please be aware that Amazon charges for the EC2 service (pricing info can be found here). Students can obtain free credits from AWS Educate. During the hackathon high speed wired and wireless network Internet access will be provided to all participants.
To help participants get started with Neurokernel, we provide an Amazon Machine Image (AMI) with a preloaded Neurokernel. For more information about how to use this AMI and how to get started with Amazon EC2, please see this notebook.
In addition to using the Amazon EC2 service for high performance GPU computing, a limited number of Nvidia Jetson TK1 embedded development kits will be provided to participants interested in developing fruit fly brain models using embedded systems. The Jetson TK1 platform features a Tegra K1 SOC that consists of a NVIDIA Kepler GPU with 192 CUDA cores and a NVIDIA 4-Plus-1 Quad-Core ARM Cortex-A15 CPU. These embedded chips have been used to power a number of tablets, e.g., Shield Tablet K1.
For the Jetson TK1, we have preloaded all the embedded systems with software supporting the execution of Neurokernel. For information about how to run Neurokernel on the Jetson TK1, see this tutorial. Participants interested in developing fruit fly brain models on Jetson TK1 are encouraged to familiarize themselves with an embedded Linux system through, e.g., elinux.org.
- Jonas Belina (Yale University)
- James Bennett (University of Oxford)
- Norman Bobroff (IBM Research)
- Adam Calhoun (Princeton University)
- Justin Chavez (University of Maryland, Baltimore County)
- Jen-Yung Chen (University of California, Riverside)
- Elliot Noma
- Mohamad FallahRad
- Dorian Florescu (University of Sheffield)
- Garrett Gabriel
- Lev Givon (Columbia University)
- Julia Gray (Northwestern University)
- Kay Igwe (Columbia University)
- James Kozloski (IBM Research)
- Josephine Lee (Washington University in St. Louis)
- Patrick Lempert (Macaulay Honors College)
- Ximing Li (Ohio University)
- Akiva Lipshitz
- Yeray Lopez (Villanova University)
- Bayar Menzat (University of Oxford)
- Linhchi Nguyen (Princeton University)
- Carlos L.Ortiz (University of Sheffield)
- Nick Powers
- Brendan Reilly (New York University)
- Patrick Shoemaker (San Diego State University)
- Neeraj Soni (Yale University)
- Chen Tong (New York University)
- Weiyu Wan (New York University)
- Huayi Wei (New York University)
- Chung-Heng Yeh (Columbia University)