How It Works

Inside the CL1, real neurons are cultivated in a nutrient-rich solution that keeps them alive and healthy. These neurons grow across a silicon chip, which allows electrical signals to pass between them and the computer. The system is powered by a special software called biOS (Biological Intelligence Operating System), which creates a simulated world for the neurons to interact with. As the neurons react to their digital environment, they send signals back to the system, changing their virtual world in real-time.

A Breakthrough in Brain Research

CL1 offers scientists and researchers an ethical and accurate way to study brain function. Instead of relying on animal testing, which may not always provide accurate human data, CL1 allows researchers to test how real human neurons process information. This is particularly useful for studying diseases, understanding how drugs affect the brain, and even developing new medical treatments.

Self-Programming and Adaptive Intelligence

Unlike digital AI, which needs constant programming and training, real neurons can learn and adapt on their own. These neurons have evolved over four billion years, making them far more flexible than any artificial intelligence model. By integrating hard silicon with soft organic tissue, CL1 creates a high-performance closed-loop system where neurons and software communicate seamlessly.

Long-Term Stability and Independent Functioning

One of CL1’s most impressive features is its self-sustaining environment. The system keeps neurons alive for up to six months, while all recordings, applications, and life support functions are handled directly on the device. This means no external computing power is required, making CL1 a fully independent biological computing system.

Pushing the Boundaries of Science

With CL1, researchers can now deploy code directly to real neurons, testing new ideas and solving complex challenges in medicine, neuroscience, and artificial intelligence. This technology revolutionizes our understanding of the brain, unlocking new possibilities for studying cognition, learning, and disease mechanisms.

Source: Cortical labs

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Innovative Hydrogen Power

At the heart of the Kawasaki Ninja H2 SX is a modified 998 cc inline-four supercharged engine, traditionally known for its power and performance. However, this version is powered by hydrogen stored in high-pressure tanks located behind the rider. The use of hydrogen fuel offers several advantages, most notably in terms of efficiency and environmental impact.

Quick and Efficient Refueling

One of the standout features of the Ninja H2 SX is its quick and efficient refueling process. Unlike electric motorcycles that require long wait times for battery charging, refueling the hydrogen tanks takes just minutes. This means riders can enjoy longer rides without the inconvenience of extended downtime, making it a practical choice for both daily commutes and long-distance journeys.

Traditional Performance with a Green Twist

The Ninja H2 SX retains the traditional roar and vibrations of a combustion engine, providing the familiar riding experience that enthusiasts love. However, it does so with a significant difference: Kawasaki claimed the hydrogen combustion process burns minimal engine oil and produces water as its only other emission.

Public Debut at Suzuka Circuit

The Kawasaki Ninja H2 SX made its public debut at the Suzuka Circuit in the Mie Prefecture of Japan. This event highlighted Kawasaki’s commitment to pioneering sustainable transport solutions while continuing to deliver high-performance motorcycles.

A Milestone in Motorcycle Innovation

The introduction of the Kawasaki Ninja H2 SX marks a milestone in motorcycle innovation. As the first hydrogen-powered motorcycle, it sets a new standard for environmentally friendly riding, offering a glimpse into the future of the industry. For motorcycle enthusiasts, the Ninja H2 SX presents an exciting opportunity to embrace cleaner, more sustainable technology while enjoying the unmatched performance of a Kawasaki Ninja.

Source: Kawasaki

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The M4 robot is a true marvel of engineering and innovation, boasting the ability to reconfigure its body into eight distinct forms of locomotion. Its incredible flexibility is made possible by the advanced artificial intelligence integrated into its system. This means that M4 can autonomously choose the most effective mode of movement based on the terrain it encounters.

The primary mode of locomotion for M4 is rolling along on its four wheels, a highly energy-efficient method. However, as it encounters obstacles in its path, M4 can effortlessly shift to other forms of movement for optimal maneuverability. For instance, when faced with an obstacle, it can raise itself on two wheels to get a better view of the ground ahead.

This ability to stand on two wheels like a meerkat enables it to peer over obstacles and plan its next move accordingly. If M4 encounters a ravine or a gap, it can transform its wheels into rotor-like wings and take flight to glide effortlessly to the other side.

This ability to fly over obstacles is a testament to the robot’s versatility and adaptability, making it a truly multi-modal robot capable of navigating various terrains with ease. While the walking motion is more of a proof of concept, it showcases the incredible potential of M4 to replicate the locomotion of various creatures in nature.

M4’s design was heavily influenced by studying animals such as sea lions, which use their flippers for different types of movement on land and in water. This biomimetic approach has allowed engineers to create a robot that can imitate natural movements and achieve remarkable mobility.

Its ability to seamlessly transform and adapt to different environments has numerous potential applications, from search and rescue missions in challenging terrains to exploration in remote and hazardous locations.

Source: Caltech

Watch the M4 real-life Transformer robot in this video

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They don’t want to stop there; they want to bring that invention to the use of the common people. As a result, they have started a crowdfunding campaign to raise funds for the project. The magic behind the invisibility shield is the array of vertically placed convex lenses.

The reflected light from the vertically standing or crouching subject is redirected by the lenses and never reaches the viewer. Moreover, the invisible shields are made by extruding and then embossing a polymer.

Because of the vertically placed lenses, this updated invisibility shield works well against the backgrounds with horizontal and uniform objects. That includes rendered walls, grasses, foliage, painted lines, sand, sky, and even on a beach. Those shields are available in two different sizes.

The full-sized one measures 950 x 650mm and the small one measures 310 x 210mm. Likewise, anyone can assemble the invisibility shield within minutes. According to their campaign, The shield itself and its supports are made from flexible and non-rigid material.

In other words, it was not designed to be an anti-riot shield, but rather to protect you from visibility. As I mentioned earlier, this invisibility shields raising funds on Kickstarter.

If you want to surprise your friends, then get the full-size shield for the pledge of US$ 401. Or get the smaller version for US$ 66. You can even pledge for two or more full-size invisibility shields to make your large DIY invisibility shield that hides massive objects.

Source: Kickstarter

Watch the Invisibility Shield in action

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