1711 papers
This study introduces a phosphorus-doped single-atom cobalt catalyst that utilizes Jahn–Teller distortion to stabilize high-valent CoIV=O species, enabling an efficient, oxidant-free electrochemical process for water purification and simultaneous nickel resource recovery.
This study demonstrates that optimizing the composition of low-methylated pectin, xyloglucan, and cellulose nanocrystal bioinks through response surface methodology yields sustainable, high-fidelity 3D-printed structures with tunable rheological and mechanical properties that mimic natural plant cell wall assembly.
This paper reports the synthesis of carbon dots from scallion leaves that serve as a low-cost, biocompatible, and dual-range optical sensor for accurately detecting pH values in both acidic (2–6) and alkaline (8–12) environments through protonation-deprotonation and aggregation mechanisms.
This study demonstrates that an MXene/Cu-MOF hybrid-functionalized quartz crystal microbalance exhibits a measurable and persistent decrease in resonance frequency accompanied by morphological reorganization upon exposure to gamma radiation, validating its potential as a proof-of-concept platform for radiation sensing.
This study reports the construction of synergistic dual-fuel-driven dissipative (opto-)electronic crystals using a bioorganic building block that, through combined chemical and light inputs, enables spatiotemporally programmable multifunctionality such as self-erasable writing and logic-based patterning, thereby advancing the development of life-like adaptive molecular materials.
The paper introduces EMOS, an open-source framework that unifies fragmented digital discovery tools for electronic materials into a standardized, modular system, enabling seamless automated workflows and community-driven extensibility through the integration of millions of compounds and diverse machine learning models.
This study presents a sustainable cork-PLA biocomposite featuring a radiative cooling surface that simultaneously delivers exceptional thermal insulation, superior mechanical resilience, and multifunctional protection for low-altitude temperature-sensitive packaging.
This systematic review evaluates the eco-friendly synthesis, physicochemical properties, and distinct biological activities of silver nanoparticles derived from *Nigella sativa* seeds and *Azadirachta indica* leaves, highlighting their potential for therapeutic and industrial applications while emphasizing the need for standardized protocols and further toxicity assessments.
This paper establishes a generalized computational framework using DFT and NBO analysis to elucidate how nucleophilicity, carbonyl polarization, and substituent electronics govern intramolecular cyclization reactivity, thereby providing transferable design principles for optimizing heterocycle synthesis.
This study demonstrates that dispersing green-synthesized ZnO nanoparticles derived from *Caesulia axillaris* Roxb. leaf extract into 7CB nematic liquid crystals significantly enhances their dielectric permittivity, optical ordering, and thermal stability, making them promising candidates for advanced electro-optical applications.