On the third floor of Fenster Hall, visitors can find a rich collection of landmark science and engineering artifacts that resemble a technological time capsule of the past 100 years. The iconic 1984 Apple Macintosh Plus, a 1950s suitcase-type Geiger counter, a 1954 wood-encased Seederer-Kohlbusch scale and 1947 Bausch & Lomb optical microscope — all historical scientific equipment once used at NJIT that is now being protected and displayed as part of university’s growing museum project, called the “NJIT Distributed Technology Museum.”

With the help of NJIT’s Career Development Services (CDS), some ambitious students have been able to elevate their academic careers through internships at big-name companies like Johnson & Johnson, JP Morgan & Chase and Cisco Systems.

CDS reported a sharp increase in the number of co-op and internship placements facilitated through the career center in 2017.

Nearly 900 students gained invaluable work experience, earning over $6.8 million in wages.

From large-scale weather or environmental disaster predictions and efficient design of vehicles and power generators, to understanding how bacteria propel themselves and how nutrients are delivered to different organs in our body at the cell level — researchers will need to find new ways of studying the complex flow of liquids, gases and plasmas that drive or characterize intricate climatic, transportation and biological systems.

Rajesh Davé, distinguished professor of chemical, biological and pharmaceutical engineering, and two of his former graduate students, Maxx Capece and Daniel To, received a Thomas Alva Edison Patent Award from the Research & Development Council of New Jersey for developing a manufacturing process that masks the bitter tastes of medications while delivering them effectively to their targets in the body.

Lego building blocks and a chance conversation at a scientific conference have led to a discovery about water droplets on the International Space Station (ISS) with down-to-earth applications that could range from the production of better inkjet printers to more precise techniques for manufacturing polymer fibers and microelectronic devices, and improvements in mass spectrometry.