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Moth-inspired robot grows UV sensor via artificial circulatory system

1 reports1 reporting sourcesUpdated 5 hours ago

Overview

Source roundup

Source roundup from published reports. Claims below are attributed to their publishers, not independently verified. Tech Xplore — Robotics: Robot Moth Grows UV Sensor Using Artificial Circulatory System. Researchers from the University of Tartu and the Italian Institute of Technology developed a moth-shaped robot that uses an artificial circulatory system to deliver chemical building blocks and grow a light sensor where …

Generated from attributed reports · Updated 47 minutes ago

Event evidence and corrections

1 attributed source owners. Ownership does not establish independent confirmation. Quantities are reported separately and are never added together.

Reported quantity · veins: 86 other · Basis not reported
Supporting report

“om a transparent plastic (PETG) and operates on two scales. Millimeter-wide "veins" carry fluid across wings of 86 square centimeters each, while the gaps between the printed lines form a dense network of microchannels from which the liquid soaks about 10 micrometers into the plastic itself. A single pump with open-loop control fills the entire body with about 3 milliliters of liquid. Video showing the wing flapping”

Exact source · revision 2

science-x

Reported quantity · microchannels: 10 other · Basis not reported
Supporting report

“om a transparent plastic (PETG) and operates on two scales. Millimeter-wide "veins" carry fluid across wings of 86 square centimeters each, while the gaps between the printed lines form a dense network of microchannels from which the liquid soaks about 10 micrometers into the plastic itself. A single pump with open-loop control fills the entire body with about 3 milliliters of liquid. Video showing the wing flapping”

Exact source · revision 2

science-x

Reported quantity · liquid volume: 3 other · Basis not reported
Supporting report

“om a transparent plastic (PETG) and operates on two scales. Millimeter-wide "veins" carry fluid across wings of 86 square centimeters each, while the gaps between the printed lines form a dense network of microchannels from which the liquid soaks about 10 micrometers into the plastic itself. A single pump with open-loop control fills the entire body with about 3 milliliters of liquid. Video showing the wing flapping”

Exact source · revision 2

science-x

Reported quantity · sensor precision: 0.3 other · Basis not reported
Supporting report

“rever UV light then shone on the body for about a minute, the pyrrole inside the plastic turned into polypyrrole, an electrically conductive polymer. The synthesis of a new sensor was also evidenced visually, as the translucent body turned black. Elsewhere, it stayed unchanged. Using a stencil, the team could draw sensor patterns with 0.3-millimeter precision. The new material works as a UV receptor: when UV light hi”

Exact source · revision 2

science-x

Reported quantity · storage duration: 4 other · Basis not reported
Supporting report

“g beyond ordinary drift was going on," Pankratov says. The authors interpret this as a form of material memory: the sensor's structure becomes a record of what the robot has experienced. The sensors still worked after more than four months of storage. Time-lapse of the artificial circulatory system at work. Credit: Kadri-Ann Pankratov, Leonid Zinatullin, Hans Priks, Adele Metsniit, Urmas Johanson, Tarmo Tamm, Alvo Aa”

Exact source · revision 2

science-x

Evidence dependency changes (1)
  • 2026-10-30T19:43:52.241Z · evidence updated · source revision 2. Evidence extraction was updated; current source attributions are shown above.

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10/30
  1. Tech Xplore — RoboticsSignal
    Robot Moth Grows UV Sensor Using Artificial Circulatory System

    Researchers from the University of Tartu and the Italian Institute of Technology developed a moth-shaped robot that uses an artificial circulatory system to deliver chemical building blocks and grow a light sensor where UV light strikes. The robot's body is 3D-printed with microchannels that allow fluid to flow, enabling the synthesis of a conductive polymer sensor. This approach allows the robot to create new hardware on-site, enhancing its adaptability to unpredictable environments.

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