This review examines how microscopy and computational analysis can identify defects in self-assembled nanosphere structures used in photonics, sensing, coatings, drug delivery, and nanosphere lithography. It concludes that multimodal imaging, standardized datasets, and data-efficient machine learning could improve quantitative inspection and feedback-guided assembly.
New research from Monash University scientists has revealed that microscopic life is actively breaking down decades-old mining waste in South Australia, turning stable radioactive and toxic metals into mobile nanoparticles that can easily travel through the environment.
Researchers compared additive-free nanocellulose and nanochitin films, gels, and laboratory coatings for paper packaging. Nanochitin provided better barrier performance, while nanocellulose produced stronger films and better preserved paper brightness.
Scientists have unveiled a new fabrication technique for the ultra-clean manufacturing of 2D heterostructures—materials just a few atoms thick—which could be used in quantum technology and electronics.
Researchers found that adding 1 wt.% nanographite produced the best balance of tensile strength, flexural strength, hardness, printability, and microstructural quality in SLA-printed UV-curable resin.
Higher nanographite concentrations caused agglomeration, defects, greater moisture uptake, and declining mechanical performance, highlighting the need for careful filler optimization.
At SLAC National Accelerator Laboratory, Q-NEXT collaborator Shannon Harvey develops quantum dots — a mass-producible type of qubit. Driven by curiosity about nature and how things work, Harvey draws on her facility for working at the nanoscale.
Researchers developed a waterborne carbon black-carbon nanotube coating that combines nanoscale light absorption with a structural light-trapping surface. The sprayable coating absorbed more than 99.90% of visible light while retaining adhesion after humidity and water-resistance testing.
Researchers created a proof-of-concept DNA origami device that encodes messages as nano-Morse patterns and conceals them inside tubular nanostructures. The system combines symmetric encryption, molecular verification, structural steganography, and block normalization to support confidential and authenticated communication.
This review demonstrates how nanozyme aptasensors combine synthetic enzyme-like nanomaterials with DNA or RNA aptamers to enhance selective biosensing across clinical, environmental, and food-safety applications. The paper compares three major sensor designs, NAISA, adsorption/desorption-based systems, and amplification-based platforms, while outlining the key challenges for point-of-care translation.
This review proposes eco-nanozymology as a framework for designing nanozymes that act as catalytic regulators in energy conversion, pollutant degradation, biomass valorization, and biogeochemical cycling. It highlights progress in nanozyme design while emphasizing that real-world safety, environmental fate, scalability, and regulatory oversight remain major challenges.
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