WIRELESS CHARGING IN THE NEWS
With the penetration of high-end fields such as cell therapy and gene sequencing, wireless charging technology is being upgraded from an innovative solution to the core infrastructure of aseptic production, and it is expected that the relevant market size will exceed 1.9 billion US dollars in 2028, promoting the pharmaceutical industry to break through the last 1% of the microbial control blind area and move towards a true zero-contact era.
There are a variety of charging methods for agricultural robots, and each charging method has its advantages and disadvantages. With the continuous progress of technology, there may be more efficient and convenient charging methods in the future, providing more powerful support for the development of agricultural robots.
Agricultural robots have shown the characteristics of high efficiency and precision in different application scenarios, which has brought great changes to agricultural production.
Different types of agricultural robots meet the needs of all aspects of agricultural production, and with the continuous development of technology, they will play a more important role in modern agriculture.
After deep integration with autonomous driving technology, the charging robot can actively search for low-battery vehicles. The fourth-generation product in the test is road-capable and extends from parking lots to city roads.
Shanghai Hongkou District built in 1998 through the introduction of mobile charging system, complete the whole cell charging transformation within 3 days. Compared with the traditional charging pile construction requires grid transformation and ground excavation, the scheme saves 75% of the initial investment.
The innovative reservation charging function allows users to set the pickup time, and the system automatically calculates the optimal charging strategy. During the night valley power period, the robot cluster can be incarnated as a distributed energy storage unit, participate in the grid peak adjustment through V2G technology, and the annual energy storage income of a single device exceeds 10,000 yuan.
Intelligent robots will promote the manufacturing industry to the goal of "zero defects, zero inventory, zero delay", but at the same time, it also faces the problem of ethics and employment structure adjustment. For example, Germany has introduced a "human-machine collaboration certification standard" to ensure that the technology dividend is balanced with the transformation of the workforce.
Electronics manufacturing requires high precision and cleanliness. For example, the chip package needs to complete the pin welding within the micron error, and manual operation is difficult to meet the demand. Through the force control sensor and visual guidance system, the six-axis cooperative robot can accurately grasp and complete the assembly of micro-components, and the yield is increased to more than 99.9%.
The earliest large-scale application of industrial robots is the automotive industry. In 1959, the first industrial robot, Unimate, developed by American engineers George Devore and Joseph Ingeberg, was installed on the production line of General Motors, responsible for handling high-temperature castings, welding doors and installing car window parts.
Combined with digital twin technology, a wireless charging system deployed by a steel group in a steel rolling production line can monitor 18 parameters such as temperature and efficiency at each receiving end in real time.
When Industry 4.0 requires equipment to have the ability to make autonomous decisions, the traditional power supply system has become a key bottleneck restricting the implementation of technologies such as digital twins and predictive maintenance.