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Open access Aug 2026

Surface Modification of Titanium with EGCG and Hexamethylenediamine Coating for BMP‑2 Grafting: An Investigation of Osteogenic Properties

Osseointegration between titanium implants and surrounding bone is essential for the long-term success of implant surgery. However, mechanical injury during implantation can induce local oxidative stress, which compromises peri-implant osteogenesis. In this study, we developed a multifunctional titanium surface by codepositing epigallocatechin gallate (EGCG) and hexamethylenediamine (HD) to form a phenolic-amine coating with tunable amino-group density, followed by covalent grafting of bone morphogenetic protein-2 (BMP-2) via carbodiimide chemistry. Surface characterization confirmed the successful fabrication of the coatings, which exhibited improved hydrophilicity and pronounced radical-scavenging activity. In vitro experiments showed that the modified surfaces promoted osteoblast adhesion and spreading and enhanced osteogenic differentiation, as demonstrated by increased alkaline phosphatase (ALP) activity, enhanced extracellular matrix mineralization, and upregulated expression of osteogenesis-related genes and proteins, including Runx2, ALP, and OPN. Among the tested groups, the coating prepared with EGCG and HD at 0.4 mg/mL followed by BMP-2 grafting showed the strongest osteogenic performance. These findings suggest that the EGCG/HD/BMP-2 coating is a promising surface-engineering strategy for titanium implants by simultaneously improving the oxidative microenvironment and promoting osteogenesis.

Huimin Zheng, Tian-Yu Rui, Mao-Lin Yang et al. · 0 citations
Open access Aug 2026

Programmable mesoporous carbon architectures from liquefied wood via reactive-emulsion-mediated self-assembly

Developing biomass-derived programmable self-assembly systems for precise control of carbon morphology and architecture remains challenging, primarily because of the intrinsic heterogeneity that hinders controllable assembly. Here, we report a biomass-enabled reactive-emulsion-mediated strategy for converting liquefied wood into various mesoporous carbon nanomaterials. This synthesis features the introduction of trioctyl phosphate (TOP) as a hydrophobic swelling agent for composite micelles and an interfacial modifier, shifting the preferred micelle curvature/packing tendency and biasing the assembly pathway from homogeneous aqueous self-assembly toward interface-associated anisotropic organization. This coupled regulation progressively reduces the density of ordered mesochannels within the fibrous framework and promotes the evolution from ordered mesoporous nanofibers to hollow nanofibers and bowl-like architectures. The fabricated hollow carbon nanofiber-based mixed ion-electron thermoelectric generator (MTEG) exhibits a high thermopower of 12.33 mV K –1 (across 40 kΩ). This strategy provides a versatile route for constructing biomass-derived mesoporous carbon materials with tunable morphologies and pore architectures.

Yang Li, Kun Zhang, Shenghui Jiao et al. · 0 citations

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