Origami Robots with Magnetic Muscles Revolutionize Medicine Delivery

Strategic Insights -

Researchers at North Carolina State University have developed a new 3-D printing technique that can create paper-thin "magnetic muscles," which can be applied to origami structures to make them move. This innovation has the potential to transform medicine delivery, making it less invasive and more effective. The magnetic muscles can be used to create robots that can navigate through the human body, delivering medicine to ulcers without causing harm. The technology has also been used to create a crawling robot that can traverse obstacles up to 7 millimeters high and adapt to diverse terrains, including sand.

Key Takeaways:

  • The researchers have developed a new 3-D printing technique that can create paper-thin magnetic muscles, which can be applied to origami structures to make them move.
  • The magnetic muscles can be used to create robots that can navigate through the human body, delivering medicine to ulcers without causing harm.
  • The technology has been used to create a crawling robot that can traverse obstacles up to 7 millimeters high and adapt to diverse terrains, including sand.
  • The robots use soft magnetoactive materials, which exhibit strong magnetic response, flexibility, and programmable polarity, supporting untethered actuation with substantial force.
  • The researchers have demonstrated the potential of combining soft magnetoactive materials and origami for scalable, wireless, and multifunctional actuator systems.
  • The technology has applications in fields ranging from biomedicine to space exploration.
  • The robots can be controlled wirelessly by external magnetic fields, enabling applications in non-invasive drug delivery and crawling robotics.

Statistics:

  • The 3-D printing technique allows for the creation of magnetic muscles with up to 75 wt.% ferromagnetic particles and UV-curable elastomers.
  • The resulting films exhibit strong magnetic response, flexibility, and programmable polarity.
  • The robots can traverse obstacles up to 7 millimeters high.
  • The technology can be used to deliver medicine to ulcers without causing harm.
  • The robots can adapt to diverse terrains, including sand.

Sources:

  • "3D-Printed Soft Magnetoactive Origami Actuators" published in Advanced Functional Materials, DOI: 10.1002/adfm.202516404
  • M2 PressWIRE, "How origami robots with magnetic muscles could make medicine delivery less invasive and more effective" (https://www.m2.com/)