This September, recipients of the Abel Prize, ACM A.M. Turing Award, ACM Prize in Computing, Fields Medal, IMU Abacus Medal and the Nevanlinna Prize are invited to gather in Heidelberg to meet with 200 young researchers from all over the world at the 12th Heidelberg Laureate Forum (HLF). In order to reach a broader, more diverse and international audience, the Heidelberg Laureate Forum Foundation (HLFF) encourages journalists to cover the event and affords them the chance to interact with the preeminent scientists of mathematics and computer science. The 12th HLF will take place from September 14 to 19, 2025, and applications for journalist travel grants are accepted until March 31, 2025.

Three innovative design techniques substantially enhance wireless transmitter performance and can boost power efficiency and elevate data rates concurrently, as reported by the researchers from Science Tokyo, Japan. This effectively aligns with the growing demand for speed and efficiency, accelerating the widespread deployment of wireless devices. This enables synergistic operation of wireless electronic devices and better quality of modern life.Three innovative design techniques substantially enhance wireless transmitter performance and can boost power efficiency and elevate data rates concurrently, as reported by the researchers from Science Tokyo, Japan. This effectively aligns with the growing demand for speed and efficiency, accelerating the widespread deployment of wireless devices. This enables synergistic operation of wireless electronic devices and better quality of modern life.

Hybrid entanglement is an essential quantum resource of hybrid quantum information processing, which combines the advantages of discrete-variable (DV) and continuous-variable (CV) quantum information processing and overcomes their disadvantages. In quantum information processing, a feasible approach for enhancing the ability of quantum information processing is increasing the degree of freedom carried by the entangled state. Recently, hybrid CV-DV entanglement carrying orbital angular momentum (OAM), which involves three degrees of freedom, including polarization, cat states, and OAM, is presented. This work extends the degree of freedom for hybrid entanglement, which provides a new quantum resource for hybrid quantum information processing.