Correction: Surface modification of medical grade biomaterials by using a low-temperature-processed dual functional Ag-TiO coating for preventing biofilm formation.

Correction for 'Surface modification of medical grade biomaterials by using a low-temperature-processed dual functional Ag-TiO coating for preventing biofilm formation' by Lipi Pradhan , , 2024, https://doi.org/10.1039/D4TB00701H.

Surface modification of medical grade biomaterials by using a low-temperature-processed dual functional Ag-TiO coating for preventing biofilm formation.

Biofilm development in medical devices is considered the major virulence component that leads to increased mortality and morbidity among patients. Removing a biofilm once formed is challenging and frequently results in persistent infections. Many current antibiofilm coating strategies involve harsh conditions causing damage to the surface of the medical devices.

Screening of Lithium Substituted Ag-TiO Nanoparticle Coating for Antibiofilm Application.

Bacterial infections and biofilm growth are common mishaps associated with medical devices, and they contribute significantly to ill health and mortality. Removal of bacterial deposition from these devices is a major challenge, resulting in an immediate necessity for developing antibacterial coatings on the surfaces of medical implants. In this context, we developed an innovative coating strategy that can operate at low temperatures (80 °C) and preserve the devices' integrity and functionality.

Solvent Evaporation Induced Large-Scale Synthesis of CsPbBr and CsPbBr Microcrystals: Optical Properties and Backlight Application for LEDs.

The contemporary work focuses on embossing the emissive nature of lead halide perovskite materials, specifically CsPbBr microcrystal powder prepared via single step bulk recrystallization method followed by the solvent evaporation route from gram to kilogram scale. The X-ray diffraction pattern confirms the formation of phase pure CsPbBr with a goodness of fit value of 1.51 calculated from Rietveld refinement and the fluorophore powder manifesting an intrinsic band gap of 3.