The project aimed to explore the use of the e-readers in classes for which e-reserves were the primary readings. The printing of e-reserve readings at Princeton accounts for a large portion of printing in public clusters (total of 10 million sheets of paper last year). The e-reader pilot sought to target e-reserve readings and present them on an e-reader to see if printing could be reduced.
Princeton University has created a cyberinfrastructure, says Curt Hillegas, the Director of Princeton’s TIGRESS High Performance Computing and Visualization Center, itself a collaboration between the Princeton Institute for Computational Science and Engineering (PICSciE). Developed within the past decade, this cyberinfrastructure consists of computational systems, data and information management, advanced instruments, visualization environments, and people, all linked together by software and advanced networks to improve scholarly productivity and enable knowledge breakthroughs and discoveries not otherwise possible.
At the April 8 Lunch ‘n Learn seminar, Hillegas noted that the University’s research computing activity has grown to keep pace with and to provide leadership for this international trend. Tigress maintains a vast hardware and storage infrastructure. And staff provide support for programming and for the new visualization facilities within the Lewis Science library.
Imagine harnessing the power of the sun within a magnetic bottle. Unlike hydrogen bombs, which are essentially uncontrolled fusion reactions, scientists for decades have been pursuing the peaceful challenge of safely harnessing fusion energy, a potentially efficient and environmentally attractive energy source. Progress in addressing this scientific grand challenge, suggested William Tang, the Director of the Fusion Simulation Program at the Princeton Plasma Physics Laboratory (PPPL) has benefited substantially from advances in super-computing. At the March 10 Lunch ‘n Learn, Tang noted that such capabilities continue to progress at a remarkable rate, from tera-to-petascale today, and to exascale in the near future.
For the past three decades, the Princeton University Art Museum and the Office of Information Technology have collaborated on many innovative projects. During the 1980s. the Piero Project produced a real time three-dimensional tour of the Basilica of San Francesco in Arezzo, Tuscani. During the 1990s, OIT led the development of Almagest, a media management, presentation, and authoring tool.
Today, OIT and the Princeton University Art Museum are collaborating on the delivery of the museum’s collection through Roxen, the University’s web Content Management System. Customarily, museums are able to display only a small fraction of their holdings, but all museums recognize that one of their most important objectives is to make available scholarly content. Today, with the availability of powerful new development tools and special components to cost-effectively connect to the museum’s SQL Collection Information Management System, the Art Museum will be able to promote existing collections and to provide online access to local and even international researchers to a much larger portion of its holdings and events.
You don’t have to be a fan of Sex in the City to know that it’s important to backup your data. If you have not seen this wonderful vignette, take a moment to see what can happen if your intellectual property is not well protected.
Princeton uses a software application called Tivoli Storage Manager or TSM to back up campus computers. During the current academic year, TSM has backed up 600,000,000,000,000 bytes of stored data on 10,849 campus client accounts using 16 STK/Sun T10000 encrypted tape drives in two silos as well as eight TSM servers in two computer rooms.