The article discusses a new initiative by the U.S. Department of Homeland Security (DHS) to combat cybersecurity threats posed by Internet of Things (IoT) devices within homes. DHS has developed a robot designed to execute Distributed Denial of Service (DDoS) attacks against malicious IoT devices that have been compromised and are being used as part of a botnet to perform large-scale cyberattacks. These compromised devices, referred to as “booby traps,” can be everyday household items like smart thermostats, cameras, and fridges that hackers exploit to launch attacks on a larger scale.

The robot, named NEO, is engineered to identify and neutralize these threats by isolating the compromised devices and disrupting their ability to communicate with the botnet. This innovative approach is part of DHS’s broader strategy to enhance national cybersecurity by proactively targeting the growing threat from IoT devices, which are notoriously difficult to secure due to their varied nature and often weak built-in security measures.

DHS’s deployment of NEO represents a significant advancement in the ongoing battle against cyber threats. The use of a DDoS robot to fight DDoS attacks showcases a novel method of turning the tables on cybercriminals, leveraging the same techniques used by attackers to defend against them. This move is expected to provide a valuable tool in the protection of both individual households and the broader internet infrastructure.

The development of NEO is in response to the increasing number of cyberattacks involving IoT devices, which have become a popular target for hackers due to their widespread use and often lax security. By disrupting these booby traps before they can be used in large-scale attacks, DHS aims to reduce the risk of significant damage to critical infrastructure and personal data.

In summary, the introduction of DHS’s NEO robot marks a proactive step in cybersecurity, specifically targeting the vulnerabilities within IoT devices. This initiative underscores the importance of developing new technologies to protect against evolving cyber threats. 

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The Biomechatronics and Intelligent Robotics Lab at North Carolina State University has developed an AI-powered exoskeleton to assist both disabled and non-disabled individuals with movement. Key points include:

1. The exoskeleton consists of a fanny pack, thigh sensors, and buckles, allowing users to control it within 10-20 seconds of putting it on.
2. It uses AI to interpret joint angles and adapt to surroundings, helping users move in their intended direction.
3. The device learns through virtual simulation in about 8 hours, eliminating the need for lengthy human-robot coordination training.
4. It can assist with walking, running, and stair climbing, reducing energy expenditure by 13-24% compared to unassisted movement.
5. Researchers aim to adapt the technology for elderly people and children with mobility impairments like cerebral palsy.
6. An upper body exoskeleton is also being developed for stroke recovery and ALS patients.
7. The current cost of materials is around $10,000, which is lower than commercially available exoskeletons, but researchers aim to make it more affordable and accessible.
8. The project is funded by the National Science Foundation and National Institute for Health.

The researchers are working on improving comfort, human-centered design, and affordability to make the technology more widely available.

Summary by Claude | Republished with permission from Discovr.Ai

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The outrage is stemming from an Ai Generated commercial featuring a likeness (?) of founder Charles Lazarus. The video was first spotted by AiShortFilm.com on June 27, 2024. ~Admin

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The integration of living human skin cells into robots represents a groundbreaking advancement in the field of robotics, aiming to transform human-robot interactions by enabling machines to display emotions and communicate in a more human-like manner. This technology promises to bridge the gap between artificial and biological entities, making robots more relatable and easier to interact with across various settings.

One of the most significant implications of this development is in the healthcare industry. Human-like robots could provide essential support and comfort to patients, especially those requiring companionship or assistance in medical environments. These robots, equipped with the ability to emote and respond to human expressions, can create a more empathetic and supportive atmosphere, potentially improving patient outcomes and overall well-being.

Beyond healthcare, the cosmetics industry stands to benefit from this technology as well. The ability to recreate wrinkle formation on a small scale using living human skin cells allows for more accurate testing of skincare products. This advancement can lead to the development of more effective treatments for preventing or improving wrinkles, enhancing the efficacy of cosmetic products and providing better results for consumers​ (Popular Science)​​ (Laughing Squid)​.

The technology involves using advanced bioengineering techniques to grow and maintain living human skin cells on robotic structures. This process includes creating a suitable environment for the cells to thrive and ensuring that the robotic system can mimic the mechanical properties of human skin. By integrating these living cells, robots can exhibit more natural and nuanced facial expressions, making interactions with humans more seamless and intuitive.

Moreover, the potential applications of this technology extend beyond healthcare and cosmetics. In educational and customer service settings, human-like robots can improve engagement and communication by providing a more lifelike and responsive presence. This can enhance the learning experience for students and create a more satisfactory customer service experience in various industries.

In summary, the development of robots with living human skin cells marks a significant step forward in human-robot interaction. By enabling robots to emote and communicate more naturally, this technology can improve their relatability and effectiveness across multiple sectors, including healthcare, cosmetics, education, and customer service. The ability to closely mimic human expressions and responses opens up new possibilities for the integration of robots into everyday life, enhancing their utility and acceptance​ (Popular Science)​​ (Laughing Squid)​.

Reprinted with Permission from Discovr.Ai