In light of these pressing global ecological challenges, there is a compelling need to develop ecological theories and applied technologies for understanding, managing, and conserving macroecological systems at regional to global scales. Such efforts are essential to safeguarding natural resource environments, maintaining ecosystem stability, and ensuring the sustainability of human societies.

 In recent decades, the infusion of statistics and dynamic equations into geography has shifted the discipline from a descriptive endeavor to a modern science that builds predictive models through hypothesis testing. This progress, however, prompted doubts about the representativeness of sampling, the validity of discarded outliers, and the uniqueness of assumed distributions, parameters, and equations.

The dynamics of soil organic carbon (SOC) play a critical role in the global carbon cycle. In context of global warming, numerous experimental studies have reported temperature-sensitive responses of SOC. However, the limited temporal frequency and spatial density of repeated sampling and whole-profile SOC observations have hindered the understanding of large-scale, long-term spatiotemporal patterns of SOC and their responses to environment changes under global warming, thereby constraining the ability to accurately predict the global carbon cycle.

This study analyzes 20 years of data from the Food and Drug Administration’s Adverse Event Reporting System (FAERS) to reveal trends in drug-induced fatty liver disease (DIFLD), identifying high-risk drug classes and vulnerable populations, and highlighting the need for region-specific pharmacovigilance and tailored interventions.

Perfluoroalkyl substances (PFASs) refer to a group of man-made chemicals that are widely used due to their water- and stain-resistant properties and exceptional chemical stability. However, they often accumulate in the environment, causing environmental and health hazards. A team of researchers has recently shown how zinc oxide nanocrystals capped with specific ligands can efficiently defluorinate perfluorooctanesulfonic acid, a well-known perfluoroalkyl substance. This approach could solve PFAS recycling challenges.