ReVision Implant receives FDA breakthrough device designation for its Occular visual cortical prosthesis
www.massdevice.com/revision-imp...
#BionicVision #BCI #NeuroTech
Science's PRIMA clinical trials are expanding to Australia, and will include inherited retinal diseases, such as Stargardt disease and retinitis pigmentosa.
Join the patient registry here: patients.science.xyz
#BionicVision #Neurotech #blindness #AMD #stargardt
New research from the Maesoon Im lab introduces transparent electrodes that reduce photoelectric artifacts by 74%, enabling simultaneous optical stimulation and electrical recording using neural interfaces
#BionicVision #NeuroTech #Engineering
advanced.onlinelibrary.wiley.com/doi/full/10....
What happens when a neural network controls electrical stimulation delivered directly to the brain?
In our new JNE paper we answer an important question: how do we know these models are safe?
bionicvisionlab.org/publications...
Full details in the thread below 👇
#BionicVision #NeuroTech #BCI
A Surrey-based study details how the #retina can build its structure from one type of stem cell: "Our simulations show how genetically identical cells can, through intrinsic bias and chance, self-organise into the retina's highly ordered layers." 🧠 🧪
www.bbc.com/news/article...
#BionicVision
“AMD patients in our clinical trial were able to read and write again, not just letter by letter but word by word,” said Daniel Palanker, professor of ophthalmology and electrical engineering at Stanford University.
#BionicVision #PRIMA #BCI #NeuroTech
time.com/7330887/brai...
What if retinal prostheses could speak the brain’s language? 👁️🧠🧪
Prof. Yossi Mandel and team built a hybrid implant that merges neurons and electrodes to restore high-acuity sight.
New Data Drop interview ↓
www.bionic-vision.org/research-spo...
#BionicVision #Neurotech #Blindness
🚨 Breakthrough alert: A new study in the NEJM reports that the PRIMA subretinal implant helped restore meaningful central vision in ~80% of participants with advanced geographic atrophy (an untreatable form of #AMD).
www.nejm.org/doi/10.1056/...
#BionicVision #NeuroTech
What happens years after the implant?
A new study from Cleveland Clinic follows 13 Argus II users long-term. None still use the device - but nearly half say they’d do it again. A powerful reminder of both the promise and the burden of early #BionicVision.
doi.org/10.1177/2474...
🕯️ One year ago, we lost Dr. Philip Hessburg—founder of The Eye and the Chip and a lifelong champion of bionic vision. His legacy continues to inspire.
📖 Read our 2023 interview:
🔗 www.bionic-vision.org/research-spo...
#BionicVision #VisionScience #InMemoriam
🚨 New preprint: Researchers from ETH Zurich, UMH Elche, and UCSB report the first data-driven control of a visual cortical prosthesis in a blind human.
Deep learning enabled more efficient, stable stimulation - and argues for closed-loop designs.
doi.org/10.1101/2025...
#BionicVision #NeuroTech
Diagram of the experimental setup for measuring electrically evoked neural activity. A stimulation pattern is chosen across electrodes on a Utah array (left). Selected electrodes deliver 167 ms trains of 50 pulses at 300 Hz (middle left), sent via stimulator and amplifier into the visual cortex of a participant (middle). Neural signals are recorded before and after stimulation across all channels, producing multi-unit activity traces (MUAe). The difference between pre- and post-stimulation activity (ΔMUAe) is computed (middle right) and visualized as a heatmap across electrodes, showing localized increases in neural responses (right).
Many in #BionicVision have tried to map stimulation → perception, but cortical responses are nonlinear and drift day to day.
So we turned to 🧠 data: >6,000 stim-response pairs over 4 months in a blind volunteer, letting a model learn the rules from the data.
New Pathways interview on bionic-vision.org: Prof. Lauren Ayton’s journey from clinic to leadership in #BionicVision, from early “switch-on” moments to shaping the future of #SightRestoration.
Read here 👉 www.bionic-vision.org/research-spo...
#Blindness #NeuroTech #BCI #GeneTherapy
Eye & the Chip '25 is almost here: Sept 28-30, Southfield, MI. Top minds in #BionicVision (neurobiology, nanoelectronics & more) will be presenting advances that bring artificial vision closer to reality.
See the full list of confirmed speakers:
www.bionic-vision.org/events/eye-c...
👁️⚡ Data Drop: We spoke with Dr. Jiayi Zhang about her recent Science paper on tellurium nanowire retinal implants: restoring vision and extending it to IR. No power source. No cables.
“Are we treating blindness—or enhancing human capability?”
🔗 www.bionic-vision.org/research-spo...
#BionicVision
👁️⚡ I spoke with Dr. Jiayi Zhang about her Science paper on tellurium nanowire retinal implants—restoring vision and extending it into the infrared, no external power required.
New materials, new spectrum, new possibilities.
🔗 www.bionic-vision.org/research-spo...
#BionicVision #NeuroTech
At #EMBC2025? Come check out two talks from my lab in tomorrow’s Sensory Neuroprostheses session!
🗓️ Thurs July 17 · 8-10AM · Room B3 M3-4
🧠 Efficient threshold estimation
🧑🔬 Deep human-in-the-loop optimization
🔗 embc.embs.org/2025/program/
#BionicVision #NeuroTech #IEEE #EMBS
🎓 Proud of our undergrad(!) Eirini Schoinas for leading this:
bionicvisionlab.org/publications...
🧠 Human-in-the-loop optimization (HILO) works in silico—but does it hold up with real people?
✅ HILO outperformed naïve and deep encoders
🔁 A step toward personalized #BionicVision
#EMBC2025
👁️⚡ Headed to #EMBC2025? Catch two of our lab’s talks on optimizing retinal implants!
📍 Sensory Neuroprostheses
🗓️ Thurs July 17 · 8-10AM · Room B3 M3-4
🧠 Efficient threshold estimation
🧑🔬 Deep human-in-the-loop optimization
🔗 embc.embs.org/2025/program/
#BionicVision #NeuroTech #IEEE #EMBS #Retina
A group of surgeons in blue scrubs and surgical masks are performing a procedure in a clinical wetlab setting. Dr. Muqit (seated) operates under a ZEISS ARTEVO® 850 surgical microscope, with Dr. others observing and assisting nearby. A large monitor and medical equipment are visible in the background, along with surgical instruments on a sterile table. The environment is dimly lit, with overhead lights providing focused illumination on the surgical field.
A surgeon in blue scrubs, surgical gloves, and a hair cover is seated and operating under a ZEISS ARTEVO® 850 surgical microscope. He is performing a delicate procedure on a blue surgical model using forceps, while another masked assistant supports from behind. The operating table is covered with a sterile green drape, and medical tubing and instruments are visible around the setup. The environment is dimly lit, highlighting the precision of the surgical training.
A wide view of a surgical training room shows multiple surgeons in blue scrubs and masks working around a ZEISS ARTEVO® 850 digital microscope. One seated surgeon is actively operating on a subretinal surgery model, while others observe and assist. A large overhead visualization arm and a table with imaging and surgical equipment are prominently visible. The lighting is dim except for the illuminated surgical field, emphasizing the precision and focus of the wetlab environment.
Two surgeons in blue scrubs and surgical caps are seated at a ZEISS ARTEVO® 850 digital microscope in a dimly lit operating room. A large monitor displays a high-resolution OCT scan, showing detailed cross-sections of ocular tissue. A green surgical drape, tubing, and imaging equipment are visible around the operating station. The scene highlights the integration of real-time imaging in subretinal surgical training.
🔬👁️ The next-gen #PRIMA chip in action: subretinal surgery training in 🇩🇪 with the Science Corps team, Prof. Yannick Le Mer, and Prof. Dr. Lars-Olof Hattenbach.
3D digital visualization + iOCT = a powerful combo for precision subretinal implant work.
#BionicVision #NeuroTech
📸 via Dr. Mahi Muqit
Prof. da Cruz argues the real legacy of first-gen devices is:
– safety + biotolerance
– validated test methods (FLORA, navigation tasks)
– a foundation to build on
We know how to test now.
We just need better tools.
#BionicVision #ClinicalTrials
👁️📉 “Have we lost our way?”
In a sobering but essential read, Prof. da Cruz reflects on the rise, retreat, and future of retinal prostheses:
“Performance didn’t transfer to daily life—and the field stalled.”
🔒https://onlinelibrary.wiley.com/doi/10.1111/ceo.14564
#BionicVision #BCI #NeuroTech
Thrilled to see this one hit the presses! 🎉
One of the final gems from Dr. Justin Kasowski’s dissertatio, showing how checkerboard rastering boosts perceptual clarity in simulated prosthetic vision. 👁️⚡️
#BionicVision #NeuroTech
This matters. Checkerboard rastering:
✔️ works across tasks
✔️ requires no fancy calibration
✔️ is hardware-agnostic
A low-cost, high-impact tweak that could make future visual prostheses more usable and more intuitive.
#BionicVision #BCI #NeuroTech
Raster patterns in simulated prosthetic vision. On the left, a natural scene of a yellow car is shown, followed by its transformation into a prosthetic vision simulation using a 10×10 grid of electrodes (red dots). Below this, a zoomed-in example shows the resulting phosphene pattern. To comply with safety constraints, electrodes are divided into five spatial groups activated sequentially across ~220 milliseconds. Each row represents a different raster pattern: vertical (columns activated left to right), horizontal (rows top to bottom), checkerboard (spatially maximized separation), and random (reshuffled every five frames). For each pattern, five panels show how the scene is progressively built across the five raster groups. Vertical and horizontal patterns show strong directional streaking. Checkerboard shows more uniform activation and perceptual clarity. Random appears spatially noisy and inconsistent.
👁️🧠 New paper alert!
We show that checkerboard-style electrode activation improves perceptual clarity in simulated prosthetic vision—outperforming other patterns in both letter and motion tasks.
Less bias, more function, same safety.
🔗 doi.org/10.1088/1741...
#BionicVision #NeuroTech
Recent update from Neuralink 👁️🧠🕹️:
- 7 participants implanted (ALS & SCI)
- First vision implant (Blindsight) planned for 2026 with deeper threads (5cm)
- 10,000 channels planned for 2027
#BionicVision #BCI #NeuroTech
Direct from the future. 👁️🗨️ This bionic eye is a stunning blend of circuits & glowing optics. Sharp focus, high-tech vibes.
www.patreon.com/posts/cybern...
#BionicEye #Cybernetic #SciFiArt #HighTech #DigitalArt #Futuristic #AIArt #ScienceFiction #TechArt #PromptArt #BionicVision
👁️🧠 Big step forward for #BionicVision: Science has submitted a CE mark application for the PRIMA retinal implant. If approved, it would be the first #NeuroTech to treat geographic atrophy, a late-stage form of age-related macular degeneration #AMD.
🔗 science.xyz/news/prima-c...
👁️🧠🧪 Next on the Horizon: Frederik Ceyssens from ReVision Implant on scaling bionic vision to the cortex with Occular, a high-res, deep-brain prosthesis.
Why performance might beat invasiveness - and what comes next:
www.bionic-vision.org/research-spo...
#BionicVision #NeuroTech #BCI
Hybrid opto-electric stimulation boosts retinal spikes at lower light levels: promising for safer, longer-lasting vision restoration.
#Optogenetics #Neurotech #BionicVision 👁️🧠🧪
doi.org/10.1109/TNSR...