Correction: Dual crosslinking hydrogels with tunable injectability and stability for bone repair

Area of Science:

• Materials Science
• Biomedical Engineering
• Polymer Chemistry

Context:

• Bone defects present a significant clinical challenge requiring advanced regenerative strategies.
• Hydrogels offer promising biomaterials for bone tissue engineering due to their biocompatibility and tunable properties.
• Achieving both injectability for minimally invasive delivery and long-term stability in vivo remains a critical hurdle for bone repair hydrogels.

Purpose:

• To correct and clarify specific aspects of the original publication concerning dual crosslinking hydrogels.
• To ensure accurate representation of the methodology and findings related to hydrogel formulation and characterization.
• To provide a precise understanding of the hydrogel system's potential for bone regeneration.

Summary:

• The correction addresses specific experimental details and data interpretations within the original study on dual crosslinking hydrogels.
• It refines the understanding of how dual crosslinking influences hydrogel injectability, mechanical stability, and degradation profiles.
• The revised information enhances the clarity on the hydrogel's performance in supporting osteogenic differentiation and bone matrix deposition.

Impact:

• Ensures the scientific community has access to accurate information for the development of advanced bone void fillers.
• Facilitates reliable translation of dual crosslinking hydrogel technology towards clinical applications in orthopedic surgery.
• Provides a corrected foundation for future research in biomaterials for skeletal tissue regeneration.