Public Welfare Invention Benefiting the World: Distributed AI Robots

The invention of distributed AI robots is aimed at public welfare, distinguishing itself from the mainstream technological development that primarily focuses on profit generation, making it particularly unique. While mainstream AI robots tend to be humanoid or biomimetic, these types of robots possess high commercial value and emphasize entertainment. However, humanoid robots are highly inefficient; for instance, two wheels are far more efficient for movement than two legs. Furthermore, the human body has blind spots in both vision and limb movement, making it unreasonable for robots to replicate human functionalities.
Currently, no one is willing to engage in unprofitable ventures. Only Dr. Hung-Chih Lu is self-funding his commitment to public welfare innovation. His groundbreaking invention-distributed AI robots-is reminiscent of his 1999 invention of silicon photonics, which faced skepticism but later gained immense popularity by 2024, proving him right over 25 years. He firmly believes that his distributed AI robots will follow a similar trajectory.
Everyone needs housing, and this public welfare invention not only allows for rapid architectural of buildings but is also low-carbon, environmentally friendly, durable, and cost-effective. A single purchase can provide shelter for multiple generations, saving significant housing costs for a better quality of life. Moreover, in high-rise buildings during disasters, rescue operations become exceedingly difficult; aerial ladders cannot reach due to airflow issues, and helicopters cannot be used either. This reliance on firefighters often leads to tragic losses; however, his invention could change that.
AI robots excel at performing singular and repetitive tasks. Thus, he categorizes the robots into two types: those for heavy labor requiring strong power output-utilizing hydraulic rods-and those for precision tasks-using motors and gears. Conventional humanoid robot fingers are constructed with small gears and motors that cannot output significant force; hence scenarios depicted in science fiction where robots lift vehicles are unrealistic.
In the architectural domain, heavy-duty AI robots-illustrated in Figure 1 as "Distributed AI Architectural Heavy-Duty Robot"-feature an internal AI computer for safety and heat dissipation purposes made from brass. They move on tracks and have jacks at each corner to stabilize the body before lifting heavy objects. The upper part of the body includes a rotating platform connected to the robotic arm via three hydraulic rods, allowing for 360-degree rotation and powerful force output. The joints between the arm and elbow as well as between elbow and hand are also driven by hydraulic rods with concealed piping to prevent damage during operation. The hand can be swapped based on task requirements, necessitating corresponding AI training.
Figure 1: Digital twin show of distributed AI architectural rough-work robot.
For fine work, once the architectural modules are assembled using mortise joints, they need to be secured with screws requiring another robot-depicted in Figure 2 as "Distributed AI Architectural Fine Work Robot." This robot also contains an AI computer and a rotating platform but moves on wheels since it does not require jacking or heavy force output. The task of screwing is divided between two robots: one (the green robot) uses a two-finger grip to position screws while the other (the blue robot) uses an electric screwdriver to secure them.
Figure 2: Digital twin show of distributed AI architectural fine-work robot.
In rescue operations within urban high-rises-often curtain wall buildings with smooth glass facades-rescue efforts become extremely challenging during fires. If there were an AI robot capable of climbing walls effortlessly (illustrated in Figure 3), it could safely rescue trapped individuals. This "Distributed AI Rescue Robot" features a skeleton made from 7075 aluminum alloy-offering near stainless steel hardness at only one-third the weight-with excellent thermal conductivity.
Figure 3: Digital twin body show of distributed AI rescue robot.
The robot's limbs utilize a modified vacuum suction cup structure enhanced with small electric push rods that allow it to step forward or secure itself against curtain walls depending on electronic signals.
During rescues (shown in Figure 4), two robots cooperate by gripping both ends of a platform while the rescued individual stands on it. With drone-assisted visual systems, they can safely descend to the ground without fatigue as long as power supply and cooling systems remain operational.
Figure 4: Digital twin rescue demonstration of distributed AI rescue robot.
Notably, these AI robots do not have fixed cameras; instead, they utilize multiple drones equipped with life detection functions providing comprehensive environmental data through various imaging technologies.
Dr. Hung-Chih Lu envisions creating an ecologically prosperous and beautiful world where all life can thrive. He excels at original creation from scratch and works independently towards this goal. While many idolize tech billionaires whose companies are judged by revenue and stock prices, Lu's journey may take time to be recognized like silicon photonics; nonetheless, he has already illuminated a path toward a brighter future for the world.

postal code: 328015, Taoyuan city, Taiwan

Dr. Lu's Studio
Devoted to the public welfare creation of ecology, technology and art.

This release was published on openPR.