Researchers Eduard Porta and Daniela Grases have just published the first practical guide on the use of Spatial Transcriptomics. Thanks to their experience, resulting from processing of more than 1,000 tissue samples in the laboratory, the Spatial Biology program at the Josep Carreras Leukemia Research Institute is now a leading expert in the use of this technology, essential for better understanding blood cancers and advancing in the development of new therapies. This is a fundamental aspect of the Josep Carreras Institute's new mission, which seeks to transform the way patients with hematologic cancer are diagnosed and treated.

MIT researchers developed a training method that teaches vision-language generative AI models to localize a specific object, like a person’s pet, in a new scene.

A team from the the Universitat Jaume I (UJI) has developed an innovative robotic platform, powered by artificial intelligence, that promises to revolutionize the design of sustainable chemical processes. The system, named Reac-Discovery, makes it possible to optimize in just a few days what previously could take months or even years of work in a traditional laboratory, thanks to its high level of integration and automation.

University of Texas at Dallas researchers have developed a technology that enables same-day, 3D-printed dental restorations made of zirconia, the gold-standard material for permanent dental work.

The team is working to make the technology, which could be used for crowns, bridges, veneers and other restorations, commercially available with support from the National Science Foundation (NSF).

Photocatalytic conversion of plastic waste into valuable chemicals represents a groundbreaking approach to addressing global plastic pollution while generating clean energy. Nickel-substituted polyoxometalates (Ni-POMs), when combined with cadmium sulfide (CdS) nanospheres, create highly efficient single-cluster catalysts that enable simultaneous hydrogen production and plastic degradation under visible light irradiation. The optimized Ni₉@CdS-10 catalyst demonstrates exceptional performance, achieving a hydrogen evolution rate of 22.29 mmol g⁻¹ alongside 19.01 mmol g⁻¹ of pyruvate production from polylactic acid (PLA) degradation. This innovative system, developed by researchers at Tianjin University of Technology, offers a sustainable solution for plastic waste management through its unique electron-sponge mechanism that enhances charge separation efficiency by 160-fold compared to conventional CdS catalysts.

Without proper vascular systems — even primitive ones — engineered tissue faces restricted size and functionality, even developing necrotic regions of dead cells. New research from Binghamton University’s Thomas J. Watson College of Engineering and Applied Science offers a possible solution to the problem.