Competing all season in the No. 1 spot, Douglas finished the regular season with a 10-3 record overall and a 5-2 mark in conference play. He vanquished a host of the league’s top performers, including fellow First-Team All-Ivy awardees Veer Chotrani of Cornell, Spencer Lovejoy of Yale, and James Wyatt of Columbia.
A native of Brooklyn, New York, Douglas has been selected First-Team All-Ivy in each of his three seasons. He is also a two-time First-Team All-American.
Eleinen went 12-2 overall in the regular season and 6-1 in the Ivy League, playing primarily at the No. 2 position. He recorded nine 3-0 wins in his 14 matches.
Last season as well, Eleinen, from Alexandria, Egypt, received First-Team All-Ivy recognition, and he was a First-Team All-American.
Douglas and Eleinen are the first Penn duo to be named First-Team All-Ivy in consecutive seasons since Stewart Ballard and David Proctor in 1986 and 1987.
Both players will work to help the Quakers win the National Collegiate Men’s Team Championships, or Potter Cup, from Feb. 28 to March 1 in Boston.
The National Collegiate Individual Championships will be held from March 6-8 at Penn.
Understanding order to disorder at the atomic scale opens possibilities for next-generation electronic devices
A Penn team has developed insight into the chemical and geometric mechanisms underlying the synthesis of new 2D materials, paving the way for next-gen devices, biomedical applications, and cleaner, quicker energy conversion and storage.
Exposure to air pollution worsens Alzheimer’s disease
New research from Penn Medicine finds living in areas with high concentration of air pollution is associated with increased buildup of amyloid and tau proteins in the brains of Alzheimer’s patients, accelerating cognitive decline.
Penn buildings achieve LEED certifications, showcasing commitment to sustainability
Three recent building projects at the University of Pennsylvania have earned LEED Platinum, Gold, and Silver certifications, underscoring Penn’s ongoing commitment to sustainable design and construction.
What stiffening lung tissue reveals about the earliest stages of fibrosis
A Penn Engineering team has targeted the lung’s extracellular matrix to better understand early fibrosis by triggering the formation of special chemical bonds that increase tissue stiffness in specific locations, mimicking the first physical changes that may lead to lung fibrosis.
