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3D Magnetic Stem Cell Aggregation and Bioreactor Maturation for Cartilage Regeneration
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Magnetoelectric 3D Microenvironments for Tissue Engineering: A Comprehensive Review.

Roman Chernozem1, Yusheng Zhang2, Alina Urakova1

  • 1National Research Tomsk Polytechnic University, Tomsk 634050, Russia.

ACS Applied Bio Materials
|June 15, 2026
PubMed
Summary
This summary is machine-generated.

Magnetoelectric (ME) scaffolds convert magnetic fields into electric stimuli for tissue engineering and biosensing. Advances enable tailored ME scaffolds, but challenges in biocompatibility and manufacturing remain for clinical translation.

Keywords:
biomaterialsfabricationmagnetoelectricsscaffoldstissue engineeringwireless electrostimulation

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Area of Science:

  • Biomaterials Science
  • Tissue Engineering
  • Nanotechnology

Background:

  • Magnetoelectric (ME) scaffolds offer unique capabilities by converting magnetic fields into localized electric stimuli.
  • This property is crucial for developing advanced microenvironments in tissue engineering (bone, skin, nerve repair) and other applications like biosensing and energy harvesting.
  • Exogenous electric potentials from ME scaffolds can accelerate healing, guide cellular behavior, and modulate immune responses.

Purpose of the Study:

  • To critically review fabrication methods for ME scaffolds with tailored structures and phase compositions.
  • To emphasize the multifunctionality and biomedical applications of these advanced materials.
  • To discuss current limitations and provide a future outlook for ME scaffold development.

Main Methods:

  • Review of recent advancements in material composition and hierarchical structuring of ME scaffolds.
  • Analysis of various fabrication technologies enabling control over biological interactions and functional outputs.
  • Examination of polymer- and hydrogel-based 3D constructions for ME microenvironments.

Main Results:

  • Recent progress has expanded the design space for ME scaffolds, enhancing control over biological interactions and functional outputs.
  • ME scaffolds show significant potential in tissue engineering, biosensing, energy harvesting, and the Internet of Things.
  • Tailored structures and phase compositions are key to optimizing ME scaffold performance.

Conclusions:

  • ME scaffolds are promising multifunctional platforms for regenerative medicine and advanced technological applications.
  • Addressing challenges in biocompatibility, stimulation efficiency, and scalable manufacturing is crucial for clinical translation.
  • Interdisciplinary integration and strategic design are essential to accelerate the development and application of ME microenvironments.