Multidisciplinary framework bridges earth science and environmental engineering to combat waterborne pathogens
Peer-Reviewed Publication
Updates every hour. Last Updated: 30-Oct-2026 16:16 ET (30-Oct-2026 20:16 GMT/UTC)
This perspective article proposes a paradigm shift from single-discipline pathogen control to an integrated, cross-disciplinary approach that combines earth science and environmental engineering. Led by Zheng-Yang Huo from Renmin University of China, an research team outlines how geochemical insights and advanced disinfection technologies can work together to achieve full-chain assessment and control of waterborne pathogens, addressing a persistent threat that causes over 10 million deaths annually worldwide.
- Professor Young-Jin Kim’s team measured minute variations in battery electrode thickness—down to approximately one ten-thousandth the diameter of a human hair—using a non-contact, non-destructive method
- The combination of optical frequency comb and terahertz technologies is expected to become a key quality-control solution for next-generation all-solid-state battery production lines
A research team led by UCLA and the University of Rochester has demonstrated a promising evolution of an imaging system designed to capture details within “complex media,” which scatter light, from depicting structures inside body tissue to seeing obstacles through heavy fog. The system uses physics-based machine learning to improve upon an existing imaging technique.
In tests with standard calibration images obscured by complex media, the new system more than doubled the signal-to-noise ratio compared to a previous generation of the technology. The system also created images in close to real time — thousandths of a second.
Enhancers are pieces of DNA that act like switches, regulating when genes are turned on and off and how strongly they are activated. Scientists know these switches play a critical role in cancer and other diseases, but they have yet to fully understand how enhancers work together to control gene activity. A new study, which focused on the DNA switches of prostate cancer cells, reveals new insights into enhancers that become active during cancer development and turn on genes linked to the disease. The study found that enhancers work cooperatively in 3D networks, rather than as isolated switches. Some enhancers function as “central hubs” that control many genes, while others play a supporting role. Rhie's lab focuses on chromatin interactions, a specialized area of research that investigates how DNA folds and interacts to regulate gene expression. Using 201 datasets from both prostate tumor samples and healthy prostate tissue, her team identified 3,216 key enhancers specific to prostate cancer. They then zoomed in on one region of the genome and used an advanced technique known as Region Capture Micro-C to map physical interactions between enhancers and genes at extremely high resolution. They found that in prostate cancer cells, enhancers formed an interconnected 3D network that did not exist in normal prostate cells. Next, they used the gene-editing tool CRISPR to delete enhancers one at a time and observe how this affected enhancer activity, chromatin interactions, gene expression and cancer cell growth. Deleting some enhancers had little effect. Deleting other “central” enhancers disrupted the entire network, reducing the activity of other enhancers, switching off many cancer-promoting genes and slowing cancer cell growth. The discovery that some enhancers serve as key control points could inform future cancer therapies. Rather than targeting individual genes, gene-editing therapies could one day edit these master switches to control multiple cancer-promoting genes at the same time.
New research found that the century-old yardstick used across many industries to estimate air-conditioning and refrigeration energy demand — called cooling degree days — is missing something fundamental. The study reports a new, physics-based version of the metric — effective cooling degree days — that captures how temperature and humidity together impact the actual work a cooling system is required to do. Applying it across North America, they found that cooling efficiency has been quietly declining by 2–4% per decade since 1971, and that the old temperature-only metric misjudges how much cooling is required in different regions, overstating demand in some places and understating it in others.