A researcher applies a platinum contact lens emitting mild electrical pulses to a patient's eye in a lab setting for experimental cornea reshaping.
A researcher applies a platinum contact lens emitting mild electrical pulses to a patient's eye in a lab setting for experimental cornea reshaping.
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Researchers test electricity-based method to reshape the cornea for vision correction

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An Binciki Gaskiya

Researchers at Occidental College and the University of California, Irvine are developing an experimental technique that uses mild electrical pulses and a platinum “contact lens” to temporarily soften the cornea and reshape it without lasers or incisions.

Researchers are exploring an alternative to laser eye surgery that aims to reshape the cornea using electricity rather than tissue removal.

The experimental approach, known as electromechanical reshaping (EMR), uses a specially fabricated platinum lens shaped like a contact lens that acts as an electrode. In the experiments described by the American Chemical Society, rabbit eyeballs were placed in a saline solution designed to mimic tears, and an electrical potential was applied so the cornea could soften briefly and conform to the lens’ curvature.

In early testing, the team reported running the procedure on 12 rabbit eyeballs, including 10 treated to simulate correction of myopia (nearsightedness). The reshaping process took roughly about one minute, and the researchers said tissue cells remained alive because pH changes were carefully controlled during treatment. Imaging studies cited in the report—including optical coherence tomography, confocal microscopy and second-harmonic generation microscopy—suggested the cornea’s collagen structure remained largely intact, with no major loss of transparency or obvious damage in the early experiments.

The work remains preliminary and has primarily been tested in isolated rabbit eyes, not in living animals or humans. Researchers say further animal studies are needed to assess longer-term stability and safety before the approach could be considered for clinical use.

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Elderly patient happily reading with restored central vision from the PRIMA wireless retinal implant in a clinical trial.
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Wireless PRIMA retinal implant improves central vision for many patients with advanced geographic atrophy, trial reports

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A 2×2 millimeter wireless retinal implant system helped many people with advanced geographic atrophy due to age-related macular degeneration regain functional central vision in a multicenter European study, according to results published in The New England Journal of Medicine.

Scientists at the University of Basel and ETH Zurich have reversed the polarity of a specialized ferromagnet with a focused laser beam, without heating the material. This achievement, detailed in Nature, combines electron interactions, topology, and dynamical control in a single experiment. The method hints at future light-based electronic circuits on chips.

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A Japanese consortium held its inaugural meeting in Tokyo, aiming to bring smart contact lenses into practical use around 2030. Led by Yasuhiro Takaki, a professor at Tokyo University of Agriculture and Technology, the group seeks to integrate electronic components for displaying images and promote medical applications. It intends to lead the technology's spread from Japan worldwide, unlike foreign dominance in smartphones and smart glasses.

Three rhesus macaque monkeys equipped with brain-computer interfaces navigated virtual environments using only their thoughts. Researchers implanted around 300 electrodes in motor and premotor cortex areas to enable this control. The experiments aim to improve intuitive control for people with paralysis.

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Researchers at East China Normal University have developed a new imaging technique that captures ultrafast events in trillionths of a second, revealing both brightness and structural changes in a single shot. The method, called compressed spectral-temporal coherent modulation femtosecond imaging (CST-CMFI), tracks phenomena like plasma formation and electron movement. Yunhua Yao, the team leader, described it as a major advance for physics, chemistry, and materials science.

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