This article focuses on two main topics: advancements in engineered microbes for agriculture and internal issues concerning OpenAI's safety culture.

The use of genetically engineered microbes to enhance crop yields presents a promising avenue for sustainable agriculture, though careful evaluation of their environmental impact is necessary. Meanwhile, discussions around OpenAI's safety culture highlight the ethical and governance challenges that accompany the rapid development of Generative AI technologies.

Specifically, questions are being raised about the transparency of internal processes and decision-making regarding the safety, fairness, and prevention of misuse of AI models. These issues become increasingly critical as the societal impact of AI technologies, such as Large Language Models (LLMs) and Image Generation AI, continues to grow.

👉 Read the full article on Technology Review

This article highlights how software flaws within ATM systems are exposing broader vulnerabilities in the software supply chain.

These flaws indicate potential threats to financial infrastructure security and underscore the risks associated with using third-party components and open-source software. Inadequate security measures across the entire supply chain can impact not only single systems but also numerous interconnected systems.

The article advocates for the necessity of rigorous security audits and continuous monitoring throughout the software procurement, development, and deployment processes. This is crucial for ensuring the reliability of the software foundations upon which AI agents and other advanced systems depend.

👉 Read the full article on Wired

Researchers at the University of California San Diego have developed a completely recyclable structural zinc-ion supercapacitor. This new energy storage system features a groundbreaking ability to be disassembled after use, with its components then reused to manufacture new devices without performance loss.

Unlike conventional batteries and capacitors that use adhesives and bonding methods making recycling difficult, this supercapacitor employs materials and adhesives that allow for relatively easy disassembly. This is expected to significantly contribute to the reduction of electronic waste.

Furthermore, the device utilizes zinc ions and a non-flammable aqueous electrolyte, avoiding the risks associated with flammable organic electrolytes commonly found in lithium-ion systems. The research team demonstrated that they could reconstruct two new supercapacitors from the disassembled parts, maintaining performance comparable to the original device.

While this technology may not match lithium-ion batteries in energy density, it leverages the advantages of supercapacitors—rapid charge/discharge cycles and high durability—while emphasizing the importance of incorporating recyclability from the design stage. This represents a crucial step towards sustainable design that considers the entire lifecycle of electronic devices.

👉 Read the full article on Gizmodo en Español