Matthew Botvinick represents an eye opening cup of java. Building on the foundations of cognitive psychology, Botvinick’s laboratory works at the intersection of neuroscience, psychology and computer science, seeking to clarify the computational and neural foundations of human behavior. They employ a diverse set of research tools, including functional neuroimaging (fMRI), behavioral techniques (reaction time, error, and decision analyses), and computational modeling (neural networks, reinforcement learning models, and belief nets), typically applying multiple techniques to a single problem.
They are leveraging these tools to investigate a range of specific research questions, spanning the topics of cognitive control, working memory, decision making, sequential action, and language processing. Current projects include the monitoring and control of cognitive processing, the control of sequential behavior, and the representation of sequential order in working memory.
The Cairo Geniza is a collection of an estimated 750,000 manuscript pages found discarded for “burial” in the Geniza chamber of the Ben Ezra Synagogue in Cairo in the late 19th century. In addition to holding religious poems and fragments of Torah scrolls, the Cairo Geniza contains approximately 15,000 mundane papers that reflect the daily life of the Jewish community in Cairo during the medieval period (mainly in the 11th to 13th centuries) – letters, contracts, wills, and other legal documents preserved in the area’s arid climate. These “Geniza documents” range in size from a few words to long letters of 80-100 lines.
For more than two decades, Mark Cohen and his Princeton colleagues have been working to bring these ancient papers into the digital age. Their work, called the Princeton Geniza Project, has created the world’s only online, searchable-text database of the Cairo Geniza’s historical documents.
Imagine being paid, or getting Princeton credit, for playing with trains and Legos™.
For more than 25 years, Professor Michael G. Littman, of Mechanical and Aerospace Engineering at Princeton, has taught MAE 412 Microprocessors for Measurement and Control, a course about microcomputer control.
In the class, students design single-board microcomputer controllers, and apply them for the automation of a modular n-scale model railroad. For example, a computer might be used to automate railroad switches to prevent collisions, facilitate traffic flow through a ladder network of tracks on a project board, or even regulate the loading of pipes onto train cars.
The new Peter B. Lewis Library contains a new OIT-operated Broadcast Center with a high definition video studio that features a green room with a 65 inch LCD screen, a professional audio recording studio, as well as the hardware and software to edit video, color correct footage, and sweeten and edit audio. The Studio also has a Broadcast van with full, mobile production capabilities.
The Broadcast Studio staff is happy to assist members of the University community from the beginning through the end of their A/V projects, from the actual shoots through video editing and the final distribution. Some of the projects involve location shoots (from single camera shoots through full production), live event productions (such as Commencement and Opening Exercises), and in-studio shoots that aid in control of lighting and other key conditions. The Center also manages lecture recordings (including he integration of lecture A/V and speaker slides), podcasts, and rich media content.
The National Science Foundation has funded a multimillion-dollar Engineering Research Center based at Princeton University that is expected to revolutionize sensor technology, yielding devices that have a unique ability to detect minute amounts of chemicals found in the atmosphere, emitted from factories or exhaled in human breath.
The center, dubbed MIRTHE, for Mid-Infrared Technologies for Health and the Environment, combines the work of approximately 40 faculty members and researchers, 8 post-docs, 77 graduate students, and 30 undergraduates from the six universities (Princeton, Johns Hopkins, Rice, Texas A & M, City College of New York, and the University of Maryland Baltimore County) that are located in areas that are struggling to meet air quality standards.