Archived Intelligence
Scientists are improving how we convert sunlight into fuel by trapping microscopic semiconductors inside porous materials. This review examines how these protective cages stabilise the reaction and improve energy transfer.
Researchers have developed a machine learning framework that analyses high-speed video of bubbles to predict heat flux in nuclear systems. By learning the physical laws governing bubble formation, the model offers a non-intrusive, highly accurate safety tool.
Recent synthesis of highly stable conjugated microporous polymers demonstrates exceptional redox kinetics and durability in battery cathodes. While this study focuses on energy storage, the structural versatility of this material class invites speculation regarding future applications in robust molecular engineering.
Researchers have successfully engineered a high-performance catalyst support using waste avocado seeds. By creating a porous carbon structure loaded with metallic nickel, the material can effectively process bulky fats into sustainable fuel.
A new study demonstrates that creating a hydrogen concentration gradient in superconductors can induce inversion symmetry breaking, resulting in nonreciprocal charge transport. This method offers an alternative to complex artificial layering but relies on a potentially unstable nonequilibrium state.
Researchers sequenced the DNA of Jordanian patients to understand why some teeth fail to develop. While they identified specific genetic variants, the results suggest these may be harmless quirks rather than the direct cause of the condition.
Researchers have developed a catalytic method to synthesise specific molecular structures with high precision, mimicking biological efficiency. By utilising a chiral pyridoxamine catalyst, the team achieved high yields of pharmaceutical precursors without the usual protective steps.
Researchers modelled the thermal dynamics of a silver and magnesium oxide water-based mixture to predict cooling efficiency in vertical systems. The study reveals that while buoyancy forces accelerate fluid velocity, increasing the concentration of nanoparticles creates significant drag and asymmetric heating effects.
Scientists have identified that a specific brain molecule, Cholecystokinin (CCK), diminishes early in dementia models. By chemically boosting this signal in mice, researchers successfully restored memory function and synaptic plasticity.
Researchers have demonstrated that controlling surface hydroxyl groups on titanium dioxide supports can significantly boost platinum catalytic activity. By intentionally managing these surface defects, the study offers a reproducible method for optimizing the water gas shift reaction.
Researchers have discovered that certain seagrass species split their cellular energy instructions into dozens of separate DNA rings, rather than the standard single chromosome. This fragmented architecture represents a striking departure from the standard single chromosome found in most plants.
A study of 318 Chilean adults confirms that blood-based markers track neurodegeneration effectively in Latin American cohorts. While p-tau217 identifies established dementia with high accuracy, current tools lack the sensitivity to reliably detect early-stage mild cognitive impairment.
A new roadmap argues that generic safety models are becoming insufficient for modern medicine. It calls for a shift toward personalized assessments across the electromagnetic spectrum to ensure safe, effective treatment for individual patients.
Scientists have overcome the conductivity limits of organic battery materials by weaving them with carbon nanotubes. The result is a cathode that charges rapidly and survives thousands of cycles without degrading.