Launch of Chang’E-4 With Netherlands China Low-frequency Explorer to the Dark Side of the Moon

China’s Lunar exploring mission has finally started after two years of preparation. Chang’e-4 has been successfully launched from Xichang Center on May 21st 2018. On board is the Dutch designed and Dutch build Netherlands China Low-frequency Explorer on its way to the earth-moon L2 point. At the moon’s dark side, NCLE will explore the radio sky at very long wavelengths (i.e. at low frequencies below ~30 MHz). This includes the study of radio emission from the Earth, the Sun, the large planets in the solar system and the Milky Way.

Previous article with background information about the mission: Dutch Payload Ready to Join China’s Lunar Exploration Mission to the Dark Side of the Moon

Photo report of the launch:

 Xichang Satellite Launch Center

Chang’e-4 during the final preparation

CCTV interviewing Dr. Marc Klein Wolt

Xichang Center in the night sky before the launch 


Video of the launch: 

Shanghai bootcamp for Dutch startups; CES Asia and Global AI+ New Business Summit

CES Asia and Global AI+ New Business Summit will be held from June 13-15 in Shanghai. The Consulate-General of the Netherlands in Shanghai organises a bootcamp for startups that are interested to attend or exhibit at either CES Asia or the AI summit in Shanghai. A 5-day program is designed surrounding these two events for startups with high interest and ambitions in China.

Program details

The bootcamp itself will be free of charge; you will need to pay for flights and accommodation yourself. If you want to be an exhibitor at CES Asia Startup Park, this will cost around €1000.

Draft program:


If you are interested to explore opportunities in Shanghai and China, please answer the following questions and send your answers to Bart van Hezewijk, Officer for Innovation, Technology and Science of the Holland Innovation Network at the Consulate-General of the Netherlands in Shanghai:

  • Do you want to join the Shanghai bootcamp?
  • Do you want to attend CES Asia as a visitor or as an exhibitor? A 3x3m booth at CES Asia Startup Park will cost around €1000; exhibitors will get the opportunity to pitch on CES Asia Startup Park stage and speak at the press conference organised by Holland Innovation Network China.
  • Do you want to attend the AI Summit? Exact program of the AI Summit is still to be determined; we do our best to arrange good exposure for Dutch participants.
  • Please explain your interest and ambitions in China:
    • Who would you like to meet in China: customers, investors, R&D partners, manufacturers, distributors, incubators/accelerators, co-working spaces, corporates, talent, government (if you have any specific names please let us know)?
    • Are you active in China already, do you have Chinese-speaking team members?

The final application deadline is Wednesday May 16, 2018. Based on number of applicants and information provided the most relevant startups will be selected.


Dutch Payload Ready to Join China’s Lunar Exploration Mission to the Dark Side of the Moon

A Dutch designed and Dutch made radio astronomy payload named “Netherlands China Low-frequency Explorer” (NCLE) is ready to board on China’s latest Lunar exploration mission, Chang’e-4, and starts its journey to the back side of the Moon upcoming May. At the moon’s dark side, NCLE will explore the radio sky at very long wavelengths (i.e. at low frequencies below ~30 MHz). This includes the study of radio emission from the Earth, the Sun, the large planets in the solar system and the Milky Way.

NCLE is a cooperation project agreed to by the governments of China and the Netherlands in 2016.  The instrument was built in just a bit more than two years with joint efforts of Dutch scientists and engineers. Dr. Marc Klein Wolt, Managing Director of Radboud Radio Lab and Assistant Professor, Department of Astrophysics Research Institute for Mathematics, Astrophysics and Particle Physics, Radboud University Nijmegen, the Netherlands is Dutch PI of this project. He is expecting new astrophysical observational techniques and radio telescopes in this wavelength range in space, addressing topics such as long baseline interferometry, the investigation of faint signals from the early cosmos, and the detection of transient radio signals.


The dark side of the moon is superb for astronomical observation since noisy radio signals from the earth are blocked. But a journey there is not easy. Up to now, tougher terrain at the back side and technical difficulty in direct communication with the earth has stopped any country from landing there. The only picture of moon’s backside is taken by a Russian mission in 1959. Decades later in 2018, China is ready to face the challenge. If everything goes as planned, in a month time, China will make a soft landing at the back side of moon for the first time in human history.

Named after ancient fairytale character Chang’e, China’s moon mission signals its growing strength in space exploration.  Ultimate goal of the Chang’e mission is human landing on the moon by around 2030. So far China has succeeded in its first three endeavors, including two moon orbiters in 2007 and 2010 and a rover in 2013. Chang’e-4 is the fourth of the series and technically a complicated and difficult one.

On the occasion of the 3rd National Space Day, a day picked by President Xi Jinping for China to celebrate its accomplishments in space adventures, CNSA, the Chinese space authority, unveiled details of  Chang’e-4 mission. The mission includes two satellites. A relay satellite, named Que Qiao (in Chinese: 鹊桥, another fairy tale character), will head for the second Earth-Moon Lagrangian point, or EML-2, about 37,000 miles above the far side of the Moon first, fulfilling the task of  establishment of an earth-moon communication link. Once the link is built, a second satellite will be launched six-months later to deploy a rover and lander, on the South Pole-Aitken basin, the single largest dent on the Moon’s surface.

Besides Que Qiao’s primary task to keep Chang’e 4 rover and lander connected with their ground station, the communication satellite also carries two micro-satellites for long-wave length observation. The two micro-satellite were named Longjiang 1 and Longjiang 2, both developed by Harbin Institute of Technology, China’s first and strongest space education and research institute. In addition, China opened the Chang’e 4 mission to international cooperation. Together with NCLE, instruments developed by Germany, Sweden and Saudi Arabia are also accepted on the Chang’e 4 Mission to do space science.

Illustration of the CHANG’E 4 Mission


Talking about space science, Chinese scientist, Mr.Wang Chi of the National Space Science Centre, Chinese Academy of Sciences (CAS) admits that China has a long way to go to catch up with other advanced space nations. Up to 2017, America has launched more than 400 satellites for science purposes. ESA launched around 50 while China made 9 launches only, including 2 for the Double Star mission in close cooperation with ESA.

Realizing the gap with advanced space powers, space science started to become more and more important in the planning of the Chinese space programme. Through the “Strategic Priority Program on Space Science” led by CAS, aseries of space science missions are planned and implemented. On its own and through international cooperation, China is determined to contribute to “human understanding of the universe and planet earth, seeking new discoveries and new breakthroughs in space science”[1]

Through the Strategic Priority Programme, China is able to join the international community in the study of black holes and neutron stars and in search of dark matter particles. It also enabled microgravity research and examination of Sun-Earth space weather system.  Paired with ESA’s Cluster programme, China has completed the Double Star Programme focusing on solar wind.

In August 2016, China launched the world’s first quantum-communications satellite to   demonstrate principles underlying quantum communication.  The mission has demonstrated particles remain “entangled” at a record-breaking distance of more than 1,200 kilometres, which could be used as the basis of a future secure quantum-communications network.

China’s space station – Tiangong – to be completed by 2022, is designed mainly for space sciences. With two science modules joined together by a connecting service module, Tiangong is said to have similar capacity to perform space science as the International Space Station. China has announced that Tiangong will be developed into “Space Lab” open to experiments and astronauts from all UN member states, specifically to developing countries.

Looking into the future, space science in China will be strengthened significantly by a number of new satellites under the Strategic Priority Programme of CAS to be launched around 2020. This would include a cooperative mission with Europe called “SMILE” to study the interaction between the solar wind and the Earth magnetosphere. An “Einstein-Probe” puts focus on searching for X-rays emitting celestial bodies and high-energy radiation from black holes. The Programme also foresees a project to search for electromagnetic signals associated with gravitational waves and an earth observation mission focusing on water cycle observation.

The Chinese space missions often offers the international community unique opportunities to carry out joint scientific exploration. The Netherlands has secured one of such chances. As China strengthen its science ability, it would become a strategic and competitive partner for the advanced space nations.



Automating the World’s Factory

Opportunities for Dutch robotics companies in China in the wake of Made in China 2025

‘Made in China’ could well be the most printed phrase in the world. The country has largely depended on its manufacturing industry to make the stunning transition to upper middle income country in the last 40 years. In 1990, China produced only 3% of the world’s manufacturing output. Nowadays, this is nearly 25%[1]. In some product categories, such as air conditioners, mobile phones, security camera’s[2], and drones[3], 60- 80% of the products sold worldwide are manufactured in China. Container ships leave China filled to the brim, and come back almost empty[4].

The manufacturing industry has eminently been the domain of private enterprises driving economic reform after Deng Xiaoping’s opening up[5]. These companies have traditionally been low-tech, labor intensive companies, mostly focused on producing large quantities. Consequently, ‘Made in China’ has to some mostly been a synonym with ‘junk’, as was the case with Japanese motorcycles in the 1950s and 1960s.

China is eager to improve the quality of its products like Japan has done. Facing the same problem of rising wages as Japan and the Asian Tigers (Singapore, Hong Kong, Taiwan, South Korea) 20-30 years earlier, the Chinese government and companies are seeking to upgrade the whole manufacturing industry. Besides digitization, artificial intelligence, 3D printing, this will involve a lot of robots.

The robotics market in China

China has already been the world’s largest market for robots since 2013. The International Federation of Robotics estimated that China will take up 39% of the global market in 2019 in terms of multipurpose units sold, with an expected growth of 22% per year. This is about as much as Europe and the Americas together. Only 31% of these robots were domestically made in 2016, although this percentage is steadily growing (with 7% per year from 2013 to 2016) [6].

Looking at the robot density of only 68 per 10,000 employees in the manufacturing industry, there is still ample room for growth. In fact, China is still below the world average of 74. The world’s most ‘robot dense’ country South Korea has 631 industrial robots per 10,000 employees.

The automotive sector has traditionally been the biggest customer of robots. Looking at a moderately low robot density of 505, compared to 1,000-2,000 in Western developed countries, there are still many opportunities in this sector in China. However, the electronical and electronics industry has recently caught up to become the biggest market in China and surrounding Asian countries, with sustained high growth. In the wake of investments in the 100B USD ‘Big Fund’ for developing a domestic semiconductor industry, this can only be expected to continue in China[7].

Other sectors like the metal, chemical, and food processing industry are smaller in terms of units sold. Both the metal and chemical industry are plagued by overcapacity that make investors wary, although this seems to be slowly dissolving for the chemical industry[8]. Outside the manufacturing industry, robots for medical applications and the agricultural sector can offer interesting niche markets in China.

Made in China 2025

The central government realizes the importance of its manufacturing industry. Xi Jinping’s geopolitical One Belt One Road (OBOR) initiative is for a large part focused on securing access to the European market for goods produced in China. It is no coincidence that two of the main OBOR projects (railway lines) start in Yiwu, the manufacturing powerhouse of Zhejiang province[9].

As in other industries (e.g. aerospace with Commercial Aircraft of China (COMAC), semiconductors with the Big Fund), the government aims to nurture a domestic industry that is capable of adequately serving the domestic market. According to the statistics above, this is not yet the case. Issues like these are addressed in the Made in China 2025[10] roadmap published in 2015, and the 2016 follow-up Robotics Industry Development Plan[11], which is complementary to the Three-Year Action Plan to Promote the Development of a New-Generation Artificial Intelligence Industry[12], published in 2017.

For more information on the AI development plans and developments, check our website ( for an article on developments in China and ‘brain-inspired artificial intelligence’.

All plans seems to draw heavily on Industrie 4.0 from Germany. This is no surprise, as the concept is popular in China (fun fact: there are as much mentions of the concept on Chinese websites as on German websites[13]).

Goals set in Made in China 2025 are the following:

By 2020,

  • Indigenous brands of industrial robots and domestically produced critical components should reach over 50% share of the domestic market;
  • Mean time between failures (MTBF) has reached 80,000 hours;
  • Small scale production and application of service robots have been realized in medical health, family services, elderly care anti-terrorism, disaster relief;
  • 2-3 world leading companies with annual production capacity of 10,000 units have been cultivated, 5-8 robotics industrial clusters have been created.

By 2025,

  • A complete robotics industrial system has formed, China has reached an international level in robotics R&D, manufacturing and system integration;
  • Indigenous brands of industrial robots and domestically produced critical components have reached over 70% share of the domestic market;
  • MTBF has reached world top level;
  • Large scale production and widespread use of service robots has been reached in daily live, social services and national defense;
  • 1-2 Chinese companies have become world leader.

In the Robotics Industry Development Plan, more information is given on which types of robots are to be developed, as well as more precisely defined goals. However, as is customary for these strategic plans, little information is given on how these measures will be concretely implemented.

Looking at earlier industry developments (e.g. highspeed railways, aerospace, semiconductors), it is to be expected that local governments will compete for building ecosystems. To this end they often create incentives to lure foreign companies to their districts. Next to that, Chinese firms will more easily receive government subsidies or loans in this sector to accelerate their development. They will likely resort to proven methods such as hiring foreign experts and Chinese experts from foreign companies, and directly buying technology. They can also try to acquire more foreign companies, like the acquisition of German robotics company Kuka AG by Chinese Midea in 2016[14], or Zhejiang Wangfeng acquiring USA robotics company Paslin in 2016[15].

The role of indigenous innovation should however not be underestimated. The Chinese government has long pursued a clear goal of boosting indigenous innovation[16]. As one of the results, China has just surpassed the USA as largest producer of scientific publications in the world[17]. There are still legitimate concerns about quantity over quality in science, but the trend is clearly upwards. Figure 1 is a clear example of this. China is expected to have reached world average citation score in 2018, and could overtake some Western European countries by 2020 if the trend continues. China is a large countries and there are ample hotspots where quality is much higher.

Figure 1: Mean citation score of China using 137 Chinese universities included in the Leiden University Center for Science and Technology Studies Leiden Ranking, including linear prediction (dashed line). Measure used is percentage of papers among top 10% most cited. This is a comprehensive ranking that compensates for many factors, such as self-citations, type of publication, field of research dependent citation habits. Citations need time to mature, therefore the ranking of 2017 includes publications from 2012-2015 (walking average shown). For more information, see

A closer look at R&D activity in robotics

Next to research, it has become clear that Chinese companies can be very capable of world-class innovations. Most well-known examples are perhaps Baidu, Alibaba and Tencent (BAT), and Huawei. However, also in robotics there are interesting examples.

Hikvision has developed sorting robots that can sort up to 200,000 packages a day and are self-charging, meaning they can operate around the clock. The robots are already deployed in warehouses in China[18].

At the Fourth Military Medical University in Xi’an, the world’s first dental operation by a robot with no human involvement was completed in 2017[19]. Also in the medical field, iFlyTek developed a robot with Tsinghua University that has passed the Chinese medical licensing test, it can now be used to give suggestions to doctors, to help them identify problems quicker and avoid some risks[20].

Specialized Chinese companies Siasun Automation & Robotics, Zhejiang Wanfeng, Shanghai STEP Electric, Estun Automation with market capitalizations of 800 M USD to 4.8 B USD are all growing rapidly in the industrial robotics segment[21].

It is clear that these are just some clearly visible examples. We can get a more complete picture by looking at patent applications. Figure 2 shows the size of the Chinese jurisdiction in robotics compared to other jurisdictions in the world. Figure 3 shows the composition of patent applicants in the Chinese jurisdiction in this timeframe.

Figure 2: Patent applications worldwide in the robotics categories[22].

Figure 3: Composition of applicants in Chinese jurisdiction for robotics category.

The field is growing quickly worldwide. Most patent activity is clearly in China, and within this field, 70-90% stems from Chinese applicants. Growth in the last 4 years has averaged at 48% per year in this category, compared to 7% on average for China.

Some background on the patent system in China is necessary to interpret these statistics. Similarly to scientific publications, there are concerns about the quality of Chinese patents among low standards and incentives to file patents for the sake of filing[23]. This raises the valid question if Chinese patents are ‘worth as much’ as a measure for innovation as in other countries.

China offers Invention Patents with a 20 year protection period similar to European countries and the USA. They cost about 20,000 USD to file and maintain, similar to the USA, and more than in the European Patent Office[24]. Another type, limited Utility Model patents, is also very popular in China, but they are discarded here due to their lenient granting rules.

The Chinese patent office has become much stricter in recent years. The mean rejection rate in the robotics categories was 44% from 2011-2014, compared to 18% from 2007-2019, and 17% for the US 2011-2014. In 2016, regulations were revised again to be even stricter[25]. The mean granting period was 1.6 years from 2011 to 2014, so it is expected that statistics are not significantly skewed by applications still under consideration. Even with this high rejection rate, in terms of granted patents, the Chinese jurisdiction was still the largest in the world in 2014.

Opportunities for Dutch companies

With a strong scientific foundation, the largest presence and growth rates in corporate R&D, strong government support, the largest market, and a number of successful examples, China has all the right cards to become the new powerhouse of robotics in the near future. The Netherlands also hosts a lot of interesting companies and initiatives in robotics. How can they capitulate on all the potential in China? How to do this in a way that also safeguards Dutch interests in the long run?

The simple answer is that this depends on the specific case and sub industry segment. Contact us (, and we will be happy to see what we can do for you as a company. The Holland Innovation Network specifically aims to help Dutch innovative companies to unveil potential in China, or find collaboration partners.

Figure 4 shows where robotic SMEs filing patents in the Chinese jurisdiction are located. There is a clear cluster in the Yangtze River Delta (Jiangsu, Shanghai, Zhejiang province), extending out to Anhui province. This coincides with a large part of the manufacturing industry in China. The same is true for Guangdong in the south (Pearl River Delta). Individual city with most patent applicants in robotics is Suzhou in Jiangsu.

Figure 4: Location of SMEs filing patents in the Chinese jurisdiction in robotics categories.

A good way to start for companies are industry expo’s and companies. Some prime examples are:

  • China (Guangzhou) International Robotics Exhibition, 6-8 June, Guangzhou
  • China International Robot Show 2018 (CIROS2018) 4-7 July, Shanghai
  • World Robot Conference 2018 (WRC 2018), 15-19 August, Beijing
  • Robotics Show China 2018, 19-23 September 2018, Shanghai
  • International Conference on Robotics and Artificial Intelligence (ICRAI 2018), 17-19 November, Guangzhou
  • Guangzhou International Robot and Industrial Automation Expo (IRIA), April 2019, Guangzhou

If you are interested in joining, don’t hesitate to contact us. Perhaps there are opportunities for a joint Dutch presence or side activities.


Written by David Bekkers, Officer for Innovation, Technology & Science, Holland Innovation Network (Innovatie Attaché Network), Dutch Consulate-General Shanghai, with help of Ma Qing, Officer for IT&S at the Embassy in Beijing. You can contact me through

[1] The Economist:

[2] Wall Street Journal:

[3] East West Bank:

[4] Quartz Media, 2017

[5] New York Times:

[6] International Federation of Robotics:

[7] Wall Street Journal, 2017

[8] KPMG, 2017

[9] South China Morning Post, 2018

[10] Ministry of Industry and Information Technology, 2015 (Chinese)

[11] National Development and Reform Committee, 2016 (Chinese)

[12] Ministry of Industry and Information Technology, 2017 (Chinese)

[13] 1,810,000 on .de websites, 1,770,000 on .cn, of which 71,100 on websites, sourced by, using German/Chinese version of the term.

[14] Reuters, 2016

[15] China Daily, 2016

[16] US Chamber of Commerce, 2009

[17] Science Alert, 2018

[18] South China Morning Post, 2017

[19] South China Morning Post, 2017

[20] South China Morning Post, 2017

[21] Nanalyze

[22] Mainly IPC category B25J. Some niche categories were added, namely A01D46/3, A61B34, B21B39/2, B21J13/1, B29C64/379, B29C70/38, E21B41/4, G02B21/32.

[23] IP Watchdog, 2017

[24] IP Watchdog, 2016

[25] IP Watchdog, 2017