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MIT robot
Trends
- 1Paper-thin robot powered by muscle cells swims through mazes▼Powered by muscle cells, a paper-thin robot swims through watery maze
MIT researchers have built a paper-thin swimming robot that moves using living muscle cells rather than motors. The soft robotic swimmer can navigate through watery mazes, demonstrating precise control of biohydraulic movement in a device thin enough to be flexible like paper. The work highlights growing progress in biohybrid robotics, where engineered living tissue is combined with synthetic materials to create machines that move in ways conventional robots cannot.
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MIT researchers have built a swimming robot that moves through water using living muscle cells rather than motors or propellers. The biohybrid design relies on the cells' natural contraction to propel the device, an approach that could inform soft, adaptable underwater machines for medicine or environmental monitoring. The unusual pairing of biology and robotics is drawing wide attention.
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MIT researchers have developed a thin swimming robot powered by living muscle tissue rather than conventional motors. The biohybrid robot moves through water using contractions of engineered muscle, a design that could inspire soft, adaptable machines for medical or underwater applications. The project is drawing attention as an example of how biology and robotics are increasingly being combined.
- 4MIT's Paper-Thin Aquabot Swims Using Living Muscle Cells▼Living Muscle Cells Power a Paper-Thin MIT Aquabot Through a Maze
MIT researchers have developed an aquabot — a paper-thin swimming robot powered by living muscle cells rather than motors or batteries. The cell-driven swimmer can navigate its way through a maze, demonstrating precise, untethered movement at tiny scales. The work highlights how biological actuators could enable soft, miniature robots for medicine or environmental sensing, and it is drawing attention across robotics and biotech communities.
- 5MIT Builds Swimming Robot Powered By Living Muscle Cells▼MIT Engineers Design Swimming Robot Powered By Living Muscle Cells
Engineers at MIT have designed a small swimming robot propelled by living muscle cells, according to Forbes. The biohybrid device uses biological tissue as its power source rather than a conventional motor, pointing to a growing field of robotics that merges synthetic structures with living cells for soft, agile movement.
- 6MIT Develops Technology Helping Factory Robots Think While Moving▼MIT Tech Helps Factory Robots Think While Moving
MIT researchers have developed technology that allows industrial factory robots to make decisions and adjust their actions while in motion, rather than following pre-programmed paths. The advance could make robots more flexible in manufacturing settings, adapting to changing conditions on the fly. It has drawn attention from the industrial automation sector, where real-time robot adaptability is a growing priority for production lines.
- 7Sherry Turkle Examines Artificial Intimacy in New Book▼Book Review: ‘Artificial Intimacy,’ by Sherry Turkle
The New York Times has published a review of 'Artificial Intimacy,' the latest book by MIT professor and technology critic Sherry Turkle. The book explores how relationships with chatbots, companion robots and other AI systems are reshaping human connection, a theme drawing renewed attention as conversational AI becomes part of everyday life.
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MIT researchers have developed an aquatic robot driven by living muscle tissue, combining engineered materials with biological cells to power underwater movement. The work points to new possibilities for soft robotics and biomedical applications, and is drawing attention for its blend of synthetic and living components.
- 9MIT builds paper-thin swimming robot powered by living muscle cells▼MIT builds tiny paper-thin robot that swims using living muscle cells
MIT researchers have created an extremely thin, paper-like robot that moves through liquid by using living muscle cells as its propulsion system. The biohybrid design lets the device swim when the cells contract, pointing toward possible uses in medicine such as targeted drug delivery or minimally invasive procedures inside the body. Coverage of the project is drawing attention for the unusual combination of synthetic materials and biological tissue.