The 2016 CCTV Spring Festival Gala, celebrating the Year of the Monkey, left a deep impression with hundreds of intelligent robots taking the stage to accompany pop stars in dance performances. This spectacle was a microcosm of a global phenomenon: a robust robot revolution is flourishing worldwide. Often described as “the pearl on the crown of manufacturing,” robots are extensively permeating manufacturing and even broader society. In 2015, China’s “Made in China 2025” strategy formally incorporated robotics and intelligent manufacturing into the nation’s prioritized key areas for scientific and technological innovation, signaling a strategic commitment to the China robot industry.
Globally, the trajectory of robotics began in 1961 when the United States developed the world’s first commercially available industrial robot. However, it was in Japan where robotic technology achieved rapid industrialization and scale. By the 1970s, Japan had developed practical machines for industrial use, cementing its status as a “robot powerhouse.” The 1980s saw the automotive industry become the earliest, most active, and largest-scale adopter of industrial robots. From the 1990s onward, robot applications expanded into ultra-clean rooms for semiconductor and liquid crystal display manufacturing, where eliminating human-borne contamination was paramount. Techniques like “playback,” where a robot repeats taught motions, became a specialty of Japanese engineering. Simultaneously, the robot industry developed swiftly in the United States, Europe, and South Korea, initially in military domains before extending into civilian applications.
Against this backdrop, the China robot sector faces a critical juncture. The era of demographic dividend in China’s economic development is concluding, with issues like “migrant worker shortages” and “rising labor costs” becoming prominent. In this context, the robot industry has emerged as a vital driver for promoting industrial transformation and upgrading. Although China has gradually become the world’s largest market for industrial robots and is projected to become the world’s largest holder of robots by 2017, several facts indicate that the China robot revolution is still in its infancy, with a long and challenging road ahead.
1. The Imperative for Rapid Growth of China Robot
The international community commonly uses robot density—the number of robots per 10,000 workers—to gauge the level of robot adoption. Currently, the industrial robot density in China remains notably low. Data from 2014 reveals that China had only 36 robots per 10,000 workers, significantly below the world average of 66 and far behind leaders like South Korea (478), Japan (314), Germany (292), and the United States (164). This gap underscores the urgent need for the China robot ecosystem to accelerate its expansion and integration into the manufacturing fabric.
| Country/Region | Robot Density |
|---|---|
| South Korea | 478 |
| Japan | 314 |
| Germany | 292 |
| United States | 164 |
| World Average | 66 |
| China | 36 |
Furthermore, the domestic China robot market is predominantly occupied by international robotics giants such as ABB, Fanuc, Yaskawa Electric, and KUKA. Domestic China robot enterprises hold a very small market share, particularly in the high-end robot segment where they cannot yet compete effectively with foreign brands. This market dynamic highlights a dependency that the China robot industry must overcome.
Technologically, the China robot sector lags behind developed nations in core technologies and key component manufacturing. Critical components like precision reducers, controllers, servo motors, and high-performance drivers are largely imported. For instance, approximately 75% of precision reducers are sourced from Japan. These core parts constitute over 70% of the total production cost of a robot, presenting a substantial challenge to the cost-competitiveness and technological sovereignty of the China robot industry.
While in technologically advanced nations, the proliferation of industrial robots is gradually giving way to the social entry of service robots—with experts estimating that “robots will enter everyone’s life in the next five to ten years”—the situation in China is different. The China robot landscape for service robots remains largely at the prototype or display stage, with truly industrialized products being exceedingly rare. Small domestic assistant robots are far from entering the homes of the general populace, indicating another frontier for the China robot sector to conquer.
2. How Should the China Robot Industry Advance?
Friedrich Engels once noted, “Once there is a technical need in society, it advances science more than ten universities.” For robots to successfully enter the market, they must meet the “three usability” criteria: practical, easy to use, and durable. Traditional industrial robots, which handle objects, are often caged behind safety barriers to prevent harm to workers. In contrast, service robots, especially domestic robots that interact with people, require far greater consideration for safety. Therefore, service robots should be regarded as a new industrial field distinct from industrial robots, one that must be built upon a new foundation of knowledge and culture.
The development trajectory of the China robot industry in service robotics offers instructive examples. In the late 1990s, Sony of Japan developed the pet robot “AIBO.” Since its launch in 1999, it cumulatively sold only 150,000 units. The reason? Despite avoiding the mess associated with live pets, the robotic dog undeniably remained far from resembling a living, furry companion, making it difficult to garner widespread affection. Consequently, this pioneer of home robots had a lifespan of merely eight years before production ceased in 2006. Experts explain that equipping robots with skin and hair resembling living creatures or humans requires tens of thousands of skin sensors and an unimaginable network of signal lines, representing a significant technical hurdle.
More recently, a Beijing-based robotics company introduced a “companion robot” named “Xiao You” (Little Friend). It combines education with entertainment, accompanying only children and catering to the needs of parents with certain economic means. Its emergence aims to alleviate children’s loneliness, reduce screen time on phones or computers, and provide cultural education. Reports suggest this robot “seems quite popular in the market.” Compared to Sony’s robotic dog, “Xiao You” taps into the Chinese cultural value of deep parental devotion, aligning more closely with the practical need for “parents buying robots to accompany their children” while realistically considering technical feasibility. Of course, whether “Xiao You” will achieve commercial success remains to be observed, but it represents a step forward for the China robot industry in understanding market demands.
Ultimately, China robot enterprises need to adopt the consumer’s perspective. Building on this, efforts should expand the application fields of service robots, developing products like logistics sorting robots, medical nursing robots, and collision-avoidance robotic vehicles. The key lies in whether developers can foresee the extent to which their robots satisfy genuine societal needs. Notably, a significant gap exists between the development of service robots and industrial robots within the China robot ecosystem, necessitating increased R&D focus on the service segment.
3. How to Facilitate Major Strides for China Robot
To promote the research and development of key robot projects aligned with national needs, an effective method is for government departments to use “government procurement” to incentivize enterprises and individuals to undertake innovation and entrepreneurship addressing national and societal challenges. However, as Premier Li Keqiang stated, while listing key nationally supported high-tech fields is necessary, “now new technologies emerge one after another, and even disruptive technologies can appear at any time. Listing them too meticulously excludes those unimaginable technologies. We should be more open and leave more room.” In this regard, the China robot policy framework could learn from the new U.S. approach of “investing in outcomes rather than plans to enhance decision-making科学性 (scientific nature).”
First, to develop more advanced robots, it is advisable to promote the integrated development of robot technology with other technological fields. For example, the United States’ state-of-the-art “endoscopic surgery support robot” is the product of the fusion of robotics and medical technology, born from collaborative research between robotics experts and physicians. Another instance is Nissan Motor Company’s EPORO, a robotic vehicle that uses laser reflection to measure distances to other objects and mimics fish swimming without collision, representing a fusion of robotics with laser and biomimetic technologies. More importantly, further promoting the integration of robotics and information technology is crucial. With advancements in cloud computing, big data, artificial intelligence, smart sensors, and the Internet of Things, robots are increasingly becoming “data terminals” or “network terminals.” This enables data sharing and collaboration among multiple robots, information sharing with production management, machining, and supply chains, and through big data and superior computational power from the internet, achieving “self-learning,” “autonomous decision-making,” and “autonomously solving problems.” In recent years, major IT companies like Microsoft, Google, Amazon, and IBM have entered the robot industry, bringing powerful information network technologies that further drive the intelligentization and networking of robots, a trend the China robot sector must embrace.
Second, implement various measures to cultivate robotics talent for the China robot industry. This involves expanding enrollment in robotics-related majors at higher education institutions, adding relevant specialties like robot programming, software development, and maintenance in vocational education systems, and cultivating technical talent in a wide range of fields associated with robotics, including energy, materials, communications, security, big data, and human-machine interfaces. Additionally, it is essential to recognize that robot development is not solely a natural science achievement but is closely related to social sciences. Particular attention must be paid to the connection between robot proliferation and social transformation. Therefore, there is a need to cultivate interdisciplinary research talent combining natural and social sciences to address economic, cultural, legal, and ethical issues related to robots within the China robot context.
Third, adopt various contemporary methods of scientific research activities to vigorously incentivize innovation by enterprises and individuals, unleashing people’s creativity. For instance, leveraging “research crowdsourcing” and “citizen science” to unearth innovative talent. “Research crowdsourcing” refers to gathering researchers globally to exchange academic成果 (achievements), collaborate on scientific research, and collectively establish closer ties with the market. “Citizen science” involves a large number of amateur science enthusiasts without professional training participating in research tasks through online organization. This approach is particularly suitable for the robotics field, as society abounds with amateur technology enthusiasts, among whom robot technology hobbyists of various age groups are numerous. The government could consider establishing a national “China Robot Award,” holding an annual ceremony to recognize outstanding contributors.
Fourth, pay attention to preventing the “brain drain” of technical talent through various channels, preventing professionals from shifting to non-specialized fields, and especially preventing technical personnel from transitioning into management roles, potentially turning from “excellent technicians” into “incompetent managers.” It is also important to harness the “remaining expertise” of retired professionals, helping retired researchers with solid foundational knowledge and rich technical experience move beyond “low-tech household chores” to participate in the “mass entrepreneurship and innovation” drive in high-tech R&D for the China robot industry.
4. Are Robots Competitors to Humans?
Industrial robots have played a commendable role in liberating workers from simple, repetitive tasks, heavy physical labor, and hazardous working environments. However, the widespread adoption of robots inevitably leads to increased unemployment. A 2016 World Economic Forum report indicated that robots and artificial intelligence could cause “disruptive changes” in the labor market, leading to a net loss of 5.1 million jobs by 2020 in 15 leading countries, potentially exacerbating labor market polarization and income inequality. Since the development of robots is considered a “revolution,” it will inevitably undergo a process of “destroying the old and creating the new,” forcing people to adapt, even endure the associated “growing pains.”
As robot prices decline and efficiency improves, to reduce production costs, it is foreseeable that more enterprises will tend to “replace blue-collar workers with robots.” Simultaneously, the development of office automation will impact white-collar employment. Some experts believe that a “tipping point” will emerge when robot prices equal blue-collar wages, leading to “robot costs being lower than the cost of hiring workers.” In fact, the comprehensive “cost” of robots is lower than their market price because using robots brings various economic benefits, which can be折算 (converted) into a “cost reduction.” For example, ultra-clean rooms in semiconductor chip manufacturing require extremely high cleanliness; operators’ skin flakes, hair, etc., can increase defect rates, whereas using robots avoids these issues, yielding considerable economic benefits equivalent to lowering the robot’s “comprehensive cost.”
Experts posit that the manufacturing model of “industrialized mass production” led by producers will gradually transition to a “smart on-demand customization” model led by consumers. However, despite robots having advantages like operating without rest, many job positions remain irreplaceable by robots, and a full “tipping point” is not imminent. Nevertheless, the replacement of human labor by robots is a major trend, akin to how the telephony operator profession became obsolete with communication technology advances. Therefore, facing the current robot revolution, people should elevate their素质 (quality), skills, knowledge, and capabilities to a higher level to stay relevant.
In summary, the robot revolution is both a natural science and a social science issue. Top-level designers of the China robot revolution should not simplistically view “robots as replacements for humans” but should establish the scientific concepts that “robots and humans form a mutually supportive and complementary relationship” and “robots are partners collaborating with humans to create high added value.” We need to solve problems related to “machinery,” but our problem-solving thinking must not be “mechanized.” Human society in the robot era must never become one where robots exclude humans, leaving people “with nothing to do.” Ultimately, what the future of the robot revolution will look like should and must depend on people, not on robots.
5. Walking Well, Steadily, and Far: The Future Path for China Robot
The future development of the China robot industry must proceed well, steadily, and far.
Walking well means “to elevate China’s robot level,” as emphasized by Chinese leaders. Building a high platform starts from laying the foundation; it is essential to accelerate the localization of core components and solidify the foundation of the high-end equipment manufacturing industry upon which robot development relies. Since robots are typical of mechanical-electronic composite technology industries, technological innovations aimed at improving robot levels will also bring immense positive energy to the entire machinery manufacturing industry. Promoting emerging technological innovations will undoubtedly contribute to enhancing the level of China’s machinery manufacturing and the overall industrial landscape, strengthening the China robot sector’s backbone.
Walking steadily means avoiding浮躁冒进 (impetuousness and rash advancement). It is necessary to prevent a rush of enterprises entering the field against market laws, leading to the low-endization of a high-end industry, overcapacity in low-end robots, or even a robot bubble. Simultaneously, it is crucial to prevent excessively rapid robot adoption detached from national conditions, causing undue impact on the labor market. Compared to Japan, China has entered an aging society, but its aging degree is much lower than Japan’s, while its related technological level is also significantly lower. Therefore, China should vigorously develop robots from both “quality” and “quantity” perspectives, yet there is no need to engage in a “robot density competition” with Japan and other countries. In fact, robot density is not necessarily higher the better. Practices of some Japanese enterprises show that excessive use of robots can lead to inefficiency, with some companies even reverting from “robots replacing people” back to “people replacing robots.” China should gradually form a labor market with a reasonable division of labor between humans and robots, demarcating certain job areas where robots are not used for replacement, such as cooking, arts, gardening, pottery, periodical editing, journalism, product planning, R&D, data analysis, and special crafts. This allows people with special skills and passions to enjoy work, gaining dignity, satisfaction, and happiness from labor, a consideration vital for the sustainable integration of the China robot revolution.
Walking far implies that the China robot industry should go global, capturing as much market share worldwide as possible. Aim to use roughly a decade to develop the China robot industry into a robust export industry, like high-speed rail and nuclear power, steadily advancing and reaching the world. Concurrently, it must be recognized that the development and convergence of robotics with artificial intelligence, 3D printing, the Internet of Things, big data, mobile internet, and other new technologies are the main characters of “the new round of technological and industrial revolution brewing and rising,” representing a significant future direction. This convergence will profoundly alter the production and transaction methods of human society, ultimately leading to fundamental changes in human civilization. This aligns with the contemporary world trend of building a community with a shared future for mankind through peace, development, and cooperation, a trend within which the China robot industry is poised to play a defining role.
The journey of the China robot sector is emblematic of a nation’s technological ascent. From being a stage spectacle to becoming an engine for industrial transformation, the path is lined with both immense opportunities and formidable challenges. The strategic focus on core technology independence, talent cultivation, and balanced socio-economic integration will determine whether the China robot narrative becomes one of global leadership. As the world watches, the evolution of the China robot industry will not only shape the country’s economic future but also contribute significantly to the global robotics landscape, redefining human-machine collaboration for decades to come.