A new study published in Science in One Health provides an updated picture of the population genetic structure of the zoonotic parasite Toxoplasma gondii in China. Using high-resolution multilocus sequence typing across 16 genetic markers, researchers analyzed 96 T. gondii DNA samples collected from diverse animal hosts, including pigs, cats, sheep, birds, bats, and captive wildlife, from 12 provinces and regions in China.

The study confirmed that ToxoDB#9, also known as the Chinese 1 lineage, remains the dominant T. gondii genotype in China. However, sequence-based analysis revealed substantial hidden genetic diversity within this apparently clonal lineage that would not be detected by conventional PCR-RFLP genotyping. The researchers also detected the rare ToxoDB#5 lineage, commonly associated with North American sylvatic cycles, in a captive caracal in China, expanding the known geographic occurrence of this lineage.

Population genetic analyses showed high haplotype diversity but limited geographic structuring, suggesting broad dispersal of dominant clonal lineages, likely influenced by host movement and agricultural activities. The findings highlight the importance of systematic molecular monitoring under a One Health framework and support future whole-genome sequencing to clarify isolate origins, transmission routes, and possible recombination among co-circulating lineages.

Life cycle assessment (LCA) is the gold-standard method for quantifying the environmental footprint of products and processes—from climate change to resource depletion. 

Dentin hypersensitivity affects millions of people worldwide, yet existing treatments often provide only temporary relief. Seeking a more durable solution, researchers from Sichuan University developed a novel self-assembling peptide designed to mimic the functions of natural dentin proteins. By combining peptide engineering with biomimetic mineralization, the team investigated whether this innovative approach could support dentin regeneration and address the underlying structural damage associated with dentin hypersensitivity, opening new possibilities for regenerative dental care.

Specific GABAergic interneuron subtypes are the earliest to be affected by the amyloid plaque that causes Alzhemier’s Disease (AD). Dysfunctional GABAergic activity disrupts resting state gamma oscillations. Together, these dysfunctions result in impaired memory and cognition. Interventions that restore GABAergic activity and reinforce gamma oscillations can provide protective effects against AD-related pathology, and provide cognitive benefits to patients. Greater research into these approaches could benefit millions of patients.

Centimeter-level satellite positioning is becoming essential for autonomous transport, precision surveying, unmanned aerial vehicles, and other systems that must know exactly where they are in real time. 

Researchers developed a simple and cost-effective way to protect environmental monitoring equipment from wildfire damage. The redesigned data cabinets will keep electronics below their failure temperature during wildfires, helping maintain critical environmental data collection.

This study presents a hybrid dynamic best model selection algorithm for real-time building fire prediction using IoT-enabled smoke, temperature, and humidity sensors. Validated on a custom laboratory dataset and live sensor streams, the system dynamically selected the best machine-learning classifier and achieved 99.57% accuracy, 99.37% precision, 99.79% recall, and low error, improving adaptability and early fire detection.

Propylene is vital for industry, but catalysts often fail due to heat. Researchers at Nankai University have engineered a robust Pt-Fe bimetallic catalyst by anchoring atomically dispersed Pt-O-Fe centers within MFI zeolite nanosheets for propane dehydrogenation. This framework-mediated architecture provides a thermodynamic barrier against metal sintering and coking, maintaining >95% propylene selectivity and full regenerability. By resolving the long-standing stability-activity trade-off, this structural design offers a transformative paradigm for industrial-scale, sustainable propylene manufacturing.

A new review in Journal of Management Science and Engineering maps nearly five decades of climate adaptation economics, covering 6,248 studies from 1978 to 2025. It shows how households, firms, markets and governments adapt to climate risk, why adaptation and mitigation must be coordinated, and where future research needs better data, causal evidence and models of inequality.

Researchers developed a triple-synergy strategy that locks ultrafine ruthenium nanoparticles inside a nitrogen-doped porous carbon framework. Spatial confinement, nitrogenous defect anchoring, and electronic modulation work together to improve alkaline hydrogen evolution. The resulting Ru/3DSPNC catalyst delivers high activity and long-term durability in anion exchange membrane water electrolysis, operating stably at 1.9 V for 310 hours.