Hydrogel

Where the papers sit

40 papers from the last 6 months study hydrogel directly · updated from PubMed 1 Nov 2026

• Adaptive Biomaterial Engineering

  Adaptive biomaterials are being engineered to combine mechanical resilience with adhesion, conductivity, self-healing and biological activity. Dynamic covalent chemistries, interpenetrating networks and strain-stiffening designs recur across sensors, wound and corneal repair, bone regeneration and bladder reconstruction. Ion doping, ROS scavenging and sustained delivery extend these systems toward osteogenesis, neurite outgrowth and local cancer therapy. The applications remain diverse, with performance tuning rather than one clinical endpoint providing the common direction.

  14 papers · 35%

• Antimicrobial Diabetic Wound Care

  Diabetic wound care is moving from passive coverage toward multifunctional systems that combine adhesion, hemostasis, antimicrobial action and redox control. Bilirubin, baicalin, tannic acid–iron particles, nanozymes and polydopamine support antioxidant or photothermal treatment, while glucose and pH responsiveness target infection and chronic wound conditions. Sustained EGF delivery and macrophage autophagy modulation broaden the focus from biofilm removal to tissue repair. The recurring challenge is coordinating inflammation, oxidative stress and infection without sacrificing closure.

  12 papers · 30%

• Biocompatible Three-Dimensional Matrix Design

  Tunable three-dimensional matrices are moving toward precise control of gelation, mechanics, degradation and cell behavior. Digital light processing, two-photon excitation and photocrosslinking provide spatial control, while thermosensitive injection supports cell culture and tissue repair. Fenton chemistry, photothermal functionality and cleavable antibiotic release add therapeutic roles beyond scaffolding. Biocompatibility, swelling and cytocompatibility remain the recurring constraints.

  11 papers · 27.5%

• Cellulose Composite Materials

  Cellulose-, pectin- and starch-rich networks are being developed as low-cost composite materials from biowaste and bacterial sources. Reinforcement and confinement are used to improve fracture resistance and mechanical integrity, while cellulose backbones also support conductive signal recording. Environmental remediation, especially Cd and Pb contamination, sits alongside sensing rather than a single translational endpoint. The field is converging on multifunctional, more sustainable matrices, but application-specific performance still dominates.

  3 papers · 7.5%