Polymer network-based nanogels (NGs) and microgels (MGs) have emerged as highly versatile platforms for advanced drug delivery, owing to their tunable architecture, biocompatibility, and responsiveness to diverse stimuli.
First-pass extracted concept
polymer network-based nanogels and microgels
Aliases
MGs, microgels, nanogels, NGs
Evidence Snippets
Supporting Sources
Linked Claims
The review discusses multifunctional theranostic nanogels and emerging nanogel or microgel platforms for immunotherapy and personalized medicine.
Multifunctional NGs integrating therapeutic and diagnostic capabilities (theranostics), as well as emerging platforms for immunotherapy and personalized medicine, are critically discussed.
The review emphasizes design-driven applications of nanogels and microgels for overcoming biological barriers and enabling targeted therapies in cancer, inflammation, diabetes, and viral infections.
Emphasis is placed on the design-driven applications of NG/MGs in overcoming biological barriers and enabling targeted therapies, particularly in cancer, inflammation, diabetes, and viral infections.
The review classifies nanogels and microgels by polymer origin, crosslinking mechanisms, composition, charge, stimuli-responsiveness, and structural architecture.
their classification based on polymer origin, crosslinking mechanisms, composition, charge, stimuli-responsiveness, and structural architecture
The review identifies scalable manufacturing, regulatory considerations, and integration with smart diagnostics as translational challenges or future directions for nanogel and microgel therapeutics.
Finally, we address translational challenges and future directions, including scalable manufacturing, regulatory considerations, and integration with smart diagnostics.
The review covers inverse microemulsion and radiation-induced polymerization as synthesis strategies for nanogels and microgels.
We detail synthesis strategies-including inverse microemulsion and radiation-induced polymerization
The drug-delivery relevance of polymer network-based nanogels and microgels is attributed in the source to tunable architecture, biocompatibility, and responsiveness to diverse stimuli.
owing to their tunable architecture, biocompatibility, and responsiveness to diverse stimuli
Polymer network-based nanogels and microgels are versatile platforms for advanced drug delivery.
Polymer network-based nanogels (NGs) and microgels (MGs) have emerged as highly versatile platforms for advanced drug delivery