Archive for the ‘workshop reports’ category

 

Humanitarian Response and CRICIS — A Report from a Grassroots Workshop

September 24th, 2012

Robin Murphy, Texas A&M UniversityThe following is a contribution to this blog from Robin Murphy, Raytheon Professor of Computer Science and Engineering and director of the Center for Robot-Assisted Search and Rescue at Texas A&M University. Back in April, Robin co-organized a visioning workshop about the role of computing in disaster management (including preparedness, prevention, response, and recovery). In this blog entry, Robin describes her participation at a workshop held last week in DC on Connecting Grassroots to Government for Disaster Management. 

I participated in the Wilson Center’s workshop on Connecting Grassroots to Government for Disaster Management last week where I briefed 60 physical and 150 remote participants on the NSF/CCC Workshop on Computing for Disaster Management and the subsequent report, Critical Real-Time Computing and Information Systems (CRICIS). The NSF/CCC CRICIS report succinctly identified unique fundamental computing research questions in disasters. The Wilson Center workshop illustrated why humanitarian response needs those fundamental research questions answered — and soon.

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Discovery Informatics: Science Challenges for Intelligent Systems

September 21st, 2012

Workshop on Discovery Informatics [image courtesy Yolanda Gil and Haym Hirsh, http://www.discoveryinformaticsinitiative.org/diw2012].This past February in Arlington, VA, Yolanda Gil (University of Southern California Information Sciences Institute) and Haym Hirsh (Rutgers University) co-organized a workshop on discovery informatics, assembling over 50 participants from academia, industry, and government “to investigate the opportunities that scientific discoveries present to information sciences and intelligent systems as a new area of research called discovery informatics.” A report summarizing the key themes that emerged during discussions at that workshop is now available.

From the executive summary:

The workshop's participants identified an expansive range of fundamental research challenges for information and intelligent systems brought into focus by these three  themes [image courtesy Yolanda Gil and Haym Hirsh, http://www.isi.edu/~gil/diw2012/DIW2012-ExecSummary.pdf].…[The] workshop’s participants identified an expansive range of fundamental research challenges for information and intelligent systems brought into focus by these three themes:

 

  1. To improve computational discovery processes: We must understand how to make processes explicit, so they can be better managed and easily reapplied. Tools are being developed to automate or assist with specific aspects of these processes. We must develop a methodology to design these tools for usability, learn from what has worked and has not worked, and understand what features lead to broader adoption by scientists. We must reduce the effort needed to integrate different sets of tools to process data. Research must be carried out to facilitate the recording of provenance of scientific processes, making them inspectable and reproducible. We must develop user-centered design and visualization techniques that augment human abilities to analyze complex data with complex processes, and enable understanding and insight.
  2. To strengthen the interplay between models and data. Data is often separated from the models that explain it, hurting our ability to do science effectively. We must increase the expressiveness of model representations and their connections to data. We must map the landscape of different types of models and develop general mechanisms for automated or semi-automated model construction, data collection guided by models, and data analysis. We must design scalable methods to navigate large hypothesis spaces and their validation or disproval that results from data analysis.
  3. To manage human contributions and opening participation in science problems. We must innovate scientific processes by creating effective human-computer teams, where human creativity can complement brute force computation. We must invent new ways to approach scientific questions by opening up science and exposing the possibility of contributions from the broader public. We must develop a science of design for such systems, so we can understand the incentives, norms of behavior, and effective communication of tasks.

 

Advances in these areas will advance the practice of discovery Informatics in two ways: 1) improving existing discovery processes that are inefficient and suffer from human cognitive limitations, and 2) developing new discovery processes that increase our ability to understand challenging scientific phenomena. Further, outcomes in these areas are not domain specific, and can be leveraged across different sciences and engineering disciplines, having multiplicative returns, avoiding the inefficient, redundant development of computing innovations that would otherwise be repeated in specific disciplines (e.g., bio-, geo-, eco-informatics).

Check out the workshop website for the complete report, workshop materials, and other helpful information.

To capitalize on the momentum from the spring workshop, Gil, Hirsh, and others will run a symposium at AAAI this fall — to be held Nov. 2-4, 2012, in Arlington, VA — titled Discovery Informatics: The Role of AI Research in Innovating Scientific Processes.

(Contributed by Erwin Gianchandani, CCC Director)

From GPS and Virtual Globes to Spatial Computing-2020

September 17th, 2012

CCC's Spatial Computing Visioning Activity: From GPS and Virtual Globes to Spatial Computing-2020.The following is a special contribution to this blog from the organizing committee of the Computing Community Consortium’s (CCC) visioning workshop on spatial computing – From GPS and Virtual Globes to Spatial Computing-2020 – held last Monday and Tuesday in Washington, DC. The committee summarizes some of the highlights of the workshop.

Spatial computing (SC) is a set of ideas and technologies that will transform our lives by understanding the physical world, knowing and communicating our relation to places in that world, and navigating through those places. The transformational potential of spatial computing is already evident. From virtual maps to consumer GPS devices, our society has benefitted immensely from spatial technology. We’ve reached the point at which a hiker in Yellowstone, a schoolgirl in DC, a biker in Minneapolis, and a taxi driver in Manhattan know precisely where they are, nearby points of interest, and how to reach their destinations. Large organizations already use spatial computing for site-selection, asset tracking, facility management, navigation and logistics. Scientists use GPS to track endangered species to better understand behavior, and farmers use GPS for precision agriculture to increase crop yields while reducing costs. Virtual globes (e.g., Google Earth, NASA World Wind) are being used in classrooms to teach children about their neighborhoods and the world in a fun and interactive way. Augmented reality applications (such as Google Goggles) are providing real-time place-labeling in the physical world and providing people detailed information about major landmarks nearby.

This is just the beginning.

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