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Related Concept Videos

X-ray Imaging01:24

X-ray Imaging

9.7K
German physicist Wilhelm Röntgen (1845–1923) was experimenting with electrical current when he discovered that a mysterious and invisible "ray" would pass through his flesh but leave an outline of his bones on a screen coated with a metal compound. In 1895, Röntgen made the first durable record of the internal parts of a living human: an "X-ray" image (as it came to be called) of his wife’s hand. Scientists worldwide quickly began their own experiments with...
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Related Experiment Video

Updated: Jan 7, 2026

Plasmonic Photothermal Cancer Therapy: Nanoparticle-embedded Tumor-tissue-mimicking Phantoms for Visualizing Photothermal Temperature Distribution
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Biomimetic Phantoms in X-Ray-Based Radiotherapy Research: A Narrative Review.

Elisabeth Schültke1

  • 1Department of Radiooncology, Rostock University Medical Center, 18059 Rostock, Germany.

Biomimetics (Basel, Switzerland)
|December 24, 2025
PubMed
Summary
This summary is machine-generated.

Biomimetic principles enhance experimental radiooncology and patient safety through advanced phantoms. These phantoms mimic biological structures, movement, and microenvironments for improved radiotherapy validation and adaptive treatments.

Keywords:
anatomic mimicrybiomechanical mimicrybiomimetic principlesdosimetryphantomquality assurance (QA)radiotherapytumour environment

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Area of Science:

  • Biomedical Engineering
  • Radiotherapy Research
  • Medical Physics

Background:

  • Biomimetic principles are increasingly utilized in experimental radiooncology and quality assurance (QA) for patient safety.
  • Anatomical mimicry using phantoms based on biological structures has a long history in radiotherapy research.
  • Tissue-equivalent materials in phantoms mimic radiological properties, aiding dose distribution studies and treatment plan optimization without patient exposure.

Purpose of the Study:

  • To explore the application of biomimetic principles beyond anatomical mimicry in radiotherapy.
  • To investigate the potential of biomechanical mimicry for simulating dynamic treatment scenarios.
  • To enhance phantom utility through bioinspired sensors and realistic tumor microenvironment replication.

Main Methods:

  • Utilizing phantoms based on anatomical mimicry with tissue-equivalent materials.
  • Developing phantoms with biomechanical mimicry to replicate organ movement and deformation.
  • Integrating bioinspired sensor technologies for precise monitoring of radiation exposure, organ motion, and temperature.
  • Creating realistic tumor microenvironments within phantoms for irradiation target simulation.

Main Results:

  • Biomechanical mimicry enables more accurate simulation of dynamic treatment scenarios by replicating organ motion.
  • Bioinspired sensors provide high-precision monitoring of critical therapeutic parameters.
  • Realistic tumor microenvironments enhance phantom utility for irradiation studies.
  • Biomimetic strategies offer advanced validation for radiotherapy technologies.

Conclusions:

  • Biomimetic strategies significantly advance experimental radiooncology and patient safety.
  • The integration of anatomical, biomechanical, and microenvironmental mimicry, along with sensor technologies, opens new avenues for adaptive radiotherapy.
  • These advancements facilitate real-time monitoring and improved validation of radiotherapy technologies.