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Humanoid robots are increasingly becoming an integral part of modern technology, and at the heart of these robots lies one of their most sophisticated components: the robotic arm. Much like a human arm, the robotic arm is responsible for executing a wide range of tasks with precision and efficiency. Behind its seemingly simple movements lies a complex interplay of mechanics, electronics, and intelligent control.

For decades, robotic arms have served as precise, tireless assistants in factories, laboratories, and research centers. But until recently, they shared one fundamental limitation — they could move, but they couldn’t see or think.
The latest fusion of 3D vision and AI-driven decision systems is now changing that paradigm, transforming conventional manipulators into intelligent agents capable of understanding and interacting with the world around them.

The launch of SLAM GO POST Pro V3 marks a groundbreaking transformation in SLAM post-processing. From user interface to core algorithms, from data handling to final deliverables, every step has been deeply redefined. This is not simply an update—it is a full-stack reconstruction that sets a new benchmark in intelligent 3D SLAM processing.

Handheld LiDAR devices are compact, portable systems designed to capture 3D point cloud data without relying on GNSS signals. These tools use advanced LiDAR technology and SLAM algorithms to perform real-time scanning and visualization, making them suitable for both indoor and outdoor environments. Most models feature 360° rotating gimbals for wide coverage and are equipped with smart battery systems to enable continuous operation using a dual-battery setup.

Stone is a widely favored material for building façades due to its durability and aesthetic appeal. It is often used in the exterior curtain walls of malls, hotels, and high-end residences. However, in humid climates—especially during the rainy season—stone surfaces are prone to retaining moisture due to their porous structure, making them ideal breeding grounds for moss and mildew. These biological stains not only compromise the appearance of buildings but may also lead to material deterioration and discoloration over time, requiring regular maintenance and cleaning.

As artificial intelligence and advanced manufacturing technologies evolve, humanoid robots are rapidly transitioning from science fiction to practical reality. From automated warehouse sorting to elderly care and rehabilitation, these intelligent machines are making inroads across industrial, medical, and domestic sectors. At the heart of this transformation lies a critical component—the joint motor—often referred to as the “muscle and nerve” of humanoid robots.

Building exterior cleaning using UAVs is a highly complex and systematic task. With the emergence of diverse technological routes, models, and features, solution selection has become increasingly difficult, raising decision-making costs for cleaning service providers, property managers, and other end users. In response, a dedicated "UAV Building Cleaning Solution Procurement Decision Framework" has been developed, summarizing key evaluation criteria to support efficient, targeted decision-making.

Explore the fundamental types of robot joints that enable movement and functionality in robotic systems. Discover the mechanisms behind their flexibility and precision!

If we compare a humanoid robot to an athlete, joint motors are its powerful and dynamic “muscle system.” While AI algorithms and advanced sensors often get the spotlight, it is the actuators—the joint motors embedded in each limb—that truly bring robots to life with fluid and purposeful movement.
Over the past decade, AI and perception technologies have advanced rapidly. However, without robust, responsive, and flexible actuators, humanoid robots cannot transition from lab demonstrations to real-world applications. Today, breakthroughs in joint motor technology are helping robots cross the final threshold from "mechanical motion" to "biological agility."

As warehouse environments become more complex and dynamic, the demand for intelligent, automated inventory solutions has never been greater. Traditional inventory counting methods are time-consuming, labor-intensive, and prone to error—especially in large or high-density storage areas. To address these challenges, the L-380 indoor drone redefines how inventory tasks are performed in confined, GPS-denied environments.
Equipped with advanced 3D LiDAR positioning and real-time imaging capabilities, the L-380 is designed to perform fully autonomous flights in warehouses, tunnels, and enclosed industrial sites. Whether it’s counting pallets on high shelves, scanning barcodes in narrow aisles, or building 3D maps of stored materials, the L-380 delivers reliable, high-precision results while dramatically reducing human involvement.

A major energy enterprise operating large-scale wind farms across southwestern China faced critical challenges with turbine icing during winter months. In high-altitude regions with low temperatures and high humidity, freezing rain leads to significant ice accumulation on wind turbine blades. This results in increased structural fatigue, reduced equipment lifespan, lower energy output, and serious safety concerns for the wind farm.
To ensure continued operation in freezing conditions, regular anti-icing measures are essential. However, traditional de-icing methods—such as manually dislodging ice with tools on elevated platforms—are inefficient, labor-intensive, and pose high safety risks. In search of a scalable, intelligent solution, the company aimed to prevent icing proactively and improve operational reliability across its sites.

With the rapid development of the low-altitude economy, inspection drones have become indispensable tools across multiple industries. These drones are widely applied in critical sectors such as power grids, urban management, and public services. By improving inspection efficiency and safety, they significantly optimize traditional workflows. In this article, we explore the key roles of inspection drones in various industries, their different types, and how they can be leveraged to maximize performance in diverse scenarios.