Through
1/1
New research from the School of Engineering and Applied Science shows a new way to build and package microbatteries that maximizes energy density even at the smallest sizes.
Evan Lerner ・
With a “liquid assembly line,” Penn researchers have produced mRNA-delivering-nanoparticles significantly faster than standard microfluidic technologies.
Evan Lerner ・
“Metallic wood” is full of regularly spaced cell-sized pores that radically decrease its density without sacrificing the material’s strength, which not only gives metallic wood the strength of titanium at a fraction of the weight, but unique optical properties.
Evan Lerner ・
A new study from Penn Engineering details the complex electrochemical process that causes certain types of batteries to degrade, insights that could aid in the design of longer lasting, more efficient batteries in the future.
Evan Lerner ・
The hurdle for making individual chip component devices has always been in manufacturing high-temperature ferroelectric materials. Now a team of researchers at the School of Engineering and Applied Science has shown a potential way around this problem.
Evan Lerner ・
By combining cutting-edge concepts from theoretical physics, researchers from Penn Engineering developed “sypersymmetric microlaser arrays” that are both stable and have high power density.
Evan Lerner ・
SEAS engineers are developing robot-powered technology with energy sources that are harvested in the robot’s environment.
Evan Lerner ・
Researchers from Penn Engineering, Children’s Hospital of Philadelphia, and Yale University use molecular simulations to uncover how mutations in a class of enzymes known as kinases lead to cancer progression.
Evan Lerner ・
Penn researchers are working to engineer nanoscale features on ultra-lightweight materials, finding the ideal combination that will allow those materials to lift themselves into the air using the energy provided by light.
Evan Lerner ・
For Niko Simpkins, a musician who performs, produces, and engineers his own tracks, the most exciting processes combine structure and flexibility, creativity, and rigor. As a third-year student in the School of Engineering and Applied Science, he sees his mechanical engineering education as a framework for problem solving that might serve him across a broad set of endeavors, and for now, he’s more interested in learning than narrowing to any one particular career path.
Evan Lerner ・