Biosensors and Nanotheranostics

This review discussed the continuous monitoring of neurological biomarkers via wearable biosensors offers early disease detection, personalized treatment, and enhanced patient outcomes, revolutionizing neurology.

3D printing in medicine revolutionizes patient care, surgical planning, medical education, and research, offering personalized solutions and advancing healthcare.

Early detection of Alzheimer's disease through nanomaterial-based sensors enhances intervention, research, and patient care, promising a transformative impact on healthcare.

Biodegradable nanoparticles are used for sustainable drug delivery, minimizing environmental impact, enhancing patient care, and fostering cost savings in healthcare.

Nanoparticle-based drug delivery enhances cancer treatment, minimizing side effects, improving efficacy, and enabling targeted therapy, revolutionizing cancer treatment.

This study showed the green synthesis of zinc oxide nanoparticles from Opuntia fragalis leaves, modeling corrosion inhibition of mild steel using response surface methodology and artificial neural networks in varying HCl concentrations.

Implantable biosensors offer continuous, real-time monitoring of cardiac health, enabling early detection of abnormalities and personalized treatments, transforming cardiac care.

Integrating biosensors into smart textiles revolutionizes health monitoring, offering real-time, unobtrusive data collection for proactive healthcare management.

This review discusses upper cervical vertebral subluxations' neurobiological mechanisms, enhancing diagnosis and treatment in chiropractic care.

This study showed a novel covalently crosslinked hydrogel system, enhancing drug delivery via improved mechanical stability and controlled release.

This study improves surgical tools by using thin film coatings, enhancing durability, corrosion resistance, and performance, while reducing costs.

This study demonstrated Ni/ZnO photocatalysts as efficient, sustainable agents for degrading toxic dyes in wastewater, minimizing environmental impacts.

Hesperidin-loaded silver nanoparticles offer a novel strategy for cancer therapy, enhancing bioavailability, targeted delivery, and therapeutic efficacy.

This study determined the silica-gold core-shell nanoparticles' synthesis and characterization, with their superior catalytic potential for environmental applications.

This study demonstrated the understanding of Casson fluid dynamics under magnetic fields and slip conditions aids in optimizing cooling systems and enhancing biomedical applications.

This review underscores graphene's transformative potential in improving silicon solar cell efficiency, crucial for advancing renewable energy technologies and sustainability.

This study showed the efficacy of cyclodextrin complexation, particularly using SBE-β-CD, in improving the solubility and potential bioavailability of diclofenac sodium.

This study demonstrated lipid nanocapsules' potential to improve targeted drug delivery in treating intimal hyperplasia, reducing restenosis risk.

This study provides critical insights into utilizing nanotechnology for sustainable plastic waste management in Bangladesh, promoting environmental and economic benefits.

This study demonstrates the eco-friendly synthesis of silver nanoparticles using Moringa oleifera extract, highlighting sustainable nanotechnology’s potential in combating bacterial infections.

This study showed cost-effective methods for synthesizing gold nanoparticles using polymeric micelles, enhancing their potential for biomedical applications.

This study determines Zn-loaded mesoporous silica nanoparticles as a scalable, pH-responsive drug delivery system for cancer therapy.

This study demonstrated multifunctional hybrid hydrogels with potential for biomedical applications, combining enhanced mechanical properties and tunable optical characteristics.

This research advances cancer drug delivery using mesoporous silica nanoparticles, offering precise, stimuli-responsive, and biocompatible therapeutic solutions.

This study determined nanoparticle synthesis via micelles for biofunctionalization, optimizing conditions for stable quantum dot arrays.

The study demonstrated that controlled synthesis of mesoporous silica nanoparticles enables efficient, targeted cancer treatment with reduced toxicity.

This study demonstrated the potential of Zn and Mg doped MSNs in targeted cancer therapy and bone metastasis prevention.

This study showed that the tailoring of nano-templates' surface properties can optimize lysozyme crystallization, improving efficiency in protein purification and structural studies.

This study determined AgNP antibacterial efficacy, resistance mechanisms in E. coli mutants, and impact of particle aggregation on nanoparticle performance.

Continuous LbL nanocapsule production could revolutionize scalable drug delivery, enhancing targeted, efficient treatments through controlled release mechanisms.

This study developed optimized nanogels for precise, pH-responsive drug release, potentially reducing side effects and improving targeted delivery efficiency.

Nanoparticle based drug delivery enhances cancer treatment, minimizing side effects, improving efficacy, and enabling targeted therapy, revolutionizing cancer treatment.

Graphene and MoS2 functionalized with copolymers offer enhanced biocompatibility and efficiency for targeted cancer treatment via photothermal therapy.

A low-cost, portable diagnostic device enables sensitive, rapid malaria detection, aiding intervention programs to reduce transmission and improve outcomes globally.

The GinerSTAT enables rapid, cost-effective detection of brevetoxins in seawater, revolutionizing harmful algal bloom monitoring and mitigating health and economic impacts.