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January 20, 2026Advanced Materials1 citations

Thread‐Designed Vascular Scaffold with Magneto‐Optical Probes Capture and Elimination of Circulating Tumor Cells In Vivo

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LGLihua GuoRLRuilin LouJLJiekai Lyu

Key Points

  • The aim is to develop a system that effectively captures and eliminates circulating tumor cells (CTCs) in vivo to prevent metastasis.
  • Used a threaded vascular scaffold to create a cell-enrichment zone.
  • Developed hybrid membranes-modified magnetic beads for specific CTC recognition.
  • Applied external magnetic guidance for CTC accumulation at the scaffold.
  • Utilized near-infrared light for photodynamic and photothermal activation.
  • Achieved CTC capture efficiencies of 60.3% in rabbits and 54.7% in goats.
  • Post-irradiation elimination rates exceeded 90%.
  • The integrated approach successfully disrupted the metastatic cascade.

Abstract

ABSTRACT Metastasis, responsible for over 90% of cancer‐related deaths, is largely fueled by circulating tumor cells (CTCs). Although eliminating CTCs could inhibit metastasis, the complex in vivo environment makes it difficult. Considerable progress of in vitro CTCs detection has been made, yet its translation into effective in vivo systems, particularly for large animals, continues to pose a substantial challenge. This study introduces a threaded vascular scaffold that creates a cell‐enrichment zone by modulating radial fluid velocity, enhancing cell axiality and providing an optimized environment for CTCs capture. In addition, hybrid membranes‐modified magnetic beads (HM‐MBs) loaded with indocyanine green and coated with tumor‐white cell membranes, enabling specific recognition and binding of CTCs. Under external magnetic guidance, CTCs bound to HM‐MBs are efficiently accumulated at the scaffold site, followed by near‐infrared light‐triggered activation of photodynamic and photothermal effects for targeted CTCs elimination. This integrated system effectively addresses key challenges in in vivo CTCs detection and removal. Experimental results in rabbit and goat vessels demonstrated high capture efficiencies of 60.3% and 54.7%, respectively, along with post‐irradiation elimination rates exceeding 90%. This integrated approach enables targeted in vivo CTCs capture and destruction, disrupting the metastatic cascade and offering a promising strategy for adjuvant cancer therapy.

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Cite This Study

Guo et al. (2026) studied this question.

synapsesocial.com/papers/696f1a239e64f732b51ee748https://doi.org/10.1002/adma.202516675
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