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Taiwan’s first $165 million proton therapy center

Taiwan’s 1st proton therapy center opens in New Taipei | Taiwan Today

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NUDT student becomes first Chinese winner of William Sweet Smith Prize

Source: China Military OnlineEditor: Ouyang
2015-11-11 16:340

CHANGSHA, Nov. 11 (ChinaMil) -- The Institution of Mechanical Engineers (IMechE), a London-based professional engineering institution with a history of 168 years, granted the William Sweet Smith Prize, its highest prize in the aerospace area, to Tang Jun, a 27-year-old PhD at the College of Information System and Management of the National University of Defense Technology (NUDT) on November 9, Beijing time, in honor of his significant contributions to improving the air collision avoidance system.

Tang Jun is the first Chinese scholar winning this prize since it was established more than 30 years ago, he is also the youngest among winners of the prize.

Founded in 1847, IMechE set up the William Sweet Smith Prize in 1984 to commend the primary author of the best paper on an aerospace subject published by the Institution in the previous year or a contribution or achievement in that field. The prize is conferred to one person only every year, with the possibility of no winner at all. There have been only 21 winners in the past 30-plus years.

Matriculated by NUDT as a four-year cadet in 2006, Tang Jun was recommended to pursue his postgraduate studies majoring in military operation research in 2010. In 2012, he was selected by the NUDT to continue his doctoral studies in the Universitat Autonoma de Barcelona in Spain.

While in Spain, Tang focused his research on the improvement of air collision avoidance system. His creations on this regard consist of the air collision avoidance models, a 4D information database, the best collision prevention strategy and the decision support system for air traffic control. His improved plan will effectively help uplift safety and reliability of the collision avoidance system under the multi-plane circumstance and is of great significance for optimizing the route density, improving air traffic efficiency, reducing human error and ensuring flight safety.

An oral defense committee comprised of American and European experts appraised Tang Jun's research results in July this year and agreed that the results could be incorporated in the improvement plan for the new-generation global air traffic collision avoidance system.


NUDT student becomes first Chinese winner of William Sweet Smith Prize - China Military Online
 
Mirror currents in the wall make the most beautiful plasma of all
November 11, 2015


Groundbreaking US-China experiments continued in September between DIII-D, led by GA's Dr. Andrea Garofalo (at center), and China's ASIPP at the EAST fusion program, whose scientists connect via videoconferencing (pictured at left screen). At right is Huiqian Wang, an ASIPP post-doctoral scientist being trained at DIII-D. Credit: Lisa Petrillo/General Atomic
The way to increase the power and efficiency of magnetic fusion energy may be to risk running the plasma - hotter than 100-million-degrees C - closer than ever to the wall, according to new experimental results achieved by the first U.S.-China fusion research team.

The team is led by Dr. Xianzu Gong of ASIPP and Dr. Andrea Garofalo of General Atomics (GA) in San Diego. Using both China's EAST facility and the DIII-D National Fusion Facility, operated by GA for the U.S. Department of Energy, the team has investigated the "high-bootstrap current" scenario, which enhances self-generated ("bootstrap") electrical current to find an optimal tokamak configuration for fusion energy production.

Magnetic fusion energy research uses magnetic fields to confine plasma (ionized gas) heated to temperatures hotter than the Sun's core. This enables the ions to fuse and release excess energy that can be turned into electricity, harnessing the Sun's power on Earth. The most developed configuration is the tokamak, and the team's work helps prepare for the 500-megawatt ITER fusion research facility that is currently being built in France by a consortium of 35 nations, including China and the U.S.

This joint U.S.-China experiment directly demonstrates the stabilizing effect of reducing the plasma-wall distance in tokamaks with high plasma pressure and large bootstrap current fraction, according to Dr. Gong, who said, "I think, in simple terms, these experiments may provide better physics and operation foundation for ITER plasmas."

The focus was on resolving the "kink mode" instability, a wobbling effect that reduces performance, by moving the plasma closer to the vessel's wall, Dr. Garofalo explained . Operating closer to the wall suppresses the kink mode and enables higher pressure inside the tokamak, the toroidal or doughnut-shaped steel-lined fusion device. This gives rise to "pressure-driven" plasma flows that maintain the confinement quality even with lower external injection of velocity.

"This is unlike any other regime," said Dr. Garofalo. "It's very risky to move the plasma that close to the wall. The chief operator said 'You can't do that anymore, you're going to damage the machine,' so it was a struggle to prove our theory was correct."

The gambit paid off. Moving the plasma closer to the wall removed the kink mode and enabled higher plasma pressure, which, in turn, makes the plasma less dependent on externally injected flow. This is important because in a tokamak reactor, such as ITER, it is very difficult and expensive to drive a rapid plasma flow with external means.

The team performed the most recent bootstrap exploration in DIII-D, following-up work on the record-setting milestone achieved at China's EAST tokamak, where GA scientists have also been collaborating. An ASIPP scientist Dr. Qilong Ren will deliver the invited talk on the topic of Magnetic Confinement-Experiments.

While fusion has been in the public domain since the 1950s and its advances have been achieved by teams around the world, this U.S.-China team is setting new milestones in global cooperation. For realization of magnetic fusion energy, global cooperation is needed, said Dr. Gong of ASIPP, who cited the EAST/DIII-D partnership as "an efficient and effective new model" for international science collaborations that benefits both partners and the field of study.

"We have made a very good start of international collaboration in fusion research between China and the U.S., and we are very proud to be a pioneer in this field," said Dr. Gong.

More information: Abstract: KI2.00004 Progress Toward Steady State Tokamak Operation: Exploiting the high bootstrap current fraction regime
Session Session KI2: MFE Regime Optimization

Provided by: American Physical Society

Mirror currents in the wall make the most beautiful plasma of all

Note: ASIPP is Chinese Academy of Science Institute of Plasma Physics.
 
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Imitating synapses of the human brain using graphene
Nov 12, 2015

Graphene applications
Medicine
Technical / Research


Researchers at Tsinghua University, China, have created an artificial synapse out of aluminum oxide and twisted bilayer graphene. By applying different electric voltages to the system, they found they could control the reaction intensity of the receiving “neuron.” The team says their novel dynamic system could aid in the development of biology-inspired electronics capable of learning and self-healing.



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In recent years, researchers have been building artificial neurons and synapses with some success but without the flexibility needed for learning. However, this first-of-its-kind synthetic synapse mimics the plasticity of the brain, bringing science one step closer to human-like artificial intelligence.

Imitating synapses of the human brain using graphene | Graphene-Info

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Imitating synapses of the human brain could lead to smarter electronics
13-Nov-2015

Making a computer that learns and remembers like a human brain is a daunting challenge. The complex organ has 86 billion neurons and trillions of connections - or synapses - that can grow stronger or weaker over time. But now scientists report the development of a first-of-its-kind synthetic synapse that mimics the plasticity of the real thing, bringing us one step closer to human-like artificial intelligence.

While the brain still holds many secrets, one thing we do know is that the flexibility, or plasticity, of neuronal synapses is a critical feature. In the synapse, many factors, including how many signaling molecules get released and the timing of release, can change. This mutability allows neurons to encode memories, learn and heal themselves. In recent years, researchers have been building artificial neurons and synapses with some success but without the flexibility needed for learning. Tian-Ling Ren and colleagues set out to address that challenge.

The researchers created an artificial synapse out of aluminum oxide and twisted bilayer graphene. By applying different electric voltages to the system, they found they could control the reaction intensity of the receiving "neuron." The team says their novel dynamic system could aid in the development of biology-inspired electronics capable of learning and self-healing.

Original publication:

He Tian, Wentian Mi, Xue-Feng Wang, Haiming Zhao, Qian-Yi Xie, Cheng Li, Yu-Xing Li, Yi Yang, and Tian-Ling Ren; "Graphene Dynamic Synapse with Modulatable Plasticity"; Nano Letters; 2015

Imitating synapses of the human brain could lead to smarter electronics
 
China makes breakthrough in Li-Fi technology, with speed of 50 Gbps
English.news.cn 2015-11-13 19:51:03

BEIJING, Nov. 13 (Xinhua) -- A new Chinese breakthrough in visible light communication (VLC) technology may enable people to download a HD Hollywood movie in around 0.3 second simply using the light of a lamp.

A test conducted by the Ministry of Industry and Information Technology confirmed that the real-time traffic rate of a Chinese VLC system had reached 50 gigabytes per second (Gbps), the ministry announced Friday.

The real-time speed is the highest obtained by China so far. In August 2014, media reported a group of Mexican scientists used similar technology to transmit data with speeds up to 10 Gbps.

IT expert and academic Wu Jiangxing said it will be possible to establish a huge VLC network based on the billions of bulbs and LED lighting facilities already around the globe.

"Every bulb can serve as a high-speed Internet access point (similar to a WIFI hotspot ) after VLC technology is widely applied in the future," said Wu, unable to give a specific time frame. "Imagine downloading several movies while you are waiting for a green light at a crossroad or surfing the Internet on planes and high-speed trains via the lights."

The technology is green and consumes far less energy and can secure information better than radio, which has loopholes such as signal disturbance, leaks and interception, according to the ministry.

The VLC system was developed by the People's Liberation Army (PLA) Information Engineering University and has entered a phase of "integration and micromation in design." The university succeeded in developing a wireless broadcasting system based on VLC in 2013.

The ministry and the university have not specified when the Li-Fi system will be accomplished and put into practical use.


China makes breakthrough in Li-Fi technology, with speed of 50 Gbps
- Xinhua | English.news.cn
 
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Huawei Develops New Lithium-Ion Batteries That Charge Crazy Fast, Possibly Ten Times As Quick As Normal Batteries

Bertel King, Jr.

11 hours ago



At the 56th Battery Symposium in Japan, Huawei showed off its next generation of quick charging batteries. Huh? Yes, there's a Battery Symposium in Japan, and yes, there have been fifty-five of them in the past. Stay focused here.

Huawei says its new lithium-ion batteries can achieve charging speeds ten times faster than normal batteries.

The company has shared videos of two types of batteries. One has a 600mAh capacity and can reach 68% capacity in two minutes.

The larger battery has a capacity of 3,000mAh. It apparently takes just five minutes to reach 48%.

For comparison, Qualcomm boasts that Quick Charge 3.0 can rejuvenate a battery to a comparable level in closer to half an hour.

As for the science, Huawei says it "bonded heteroatoms to the molecule of graphite in anode, which could be a catalyst for the capture and transmission of lithium through carbon bonds." This, the company says, increases charging speed without decreasing energy density or battery life.

For now, this is just wow factor. Hopefully we see the technology make its way into smartphones, smartwatches, or something similarly smart soon enough.

Huawei Develops New Lithium-Ion Batteries That Charge Crazy Fast, Possibly Ten Times As Quick As Normal Batteries
 
China's Invention Patent Applications Grow 21.7% in the First Three Quarters

Recently, SIPO published data of patents in the first three quarters of 2015. In the first three quarters of 2015, China received 1.876 million applications of the three kinds of patents, up 22.0%. Among them, 709,000 were invention patent applications, up 21.7%; 779,000 were utility model patent applications, up 33.6%; 388,000 were design patent applications, up 4.4%, respectively were 37.8%, 41.5% and 20.7% of the total.

In all the invention patent applications, 610,000 were from domestic, up 24.9%; 99,000 were from overseas, up 5.1%. In the domestic invention patent applications, 492,000 were service applications, accounted for 80.7%; 118,000 were non-service applications, accounted for 19.3%.

In the first three quarters of 2015, SIPO granted 1.176 million patents of all the three kinds, up 25.8%. Among them, 248,000 were invention patents, up 46.0%; 599,000 were utility model patents, up 18.9%; 329,000 were design patents, up 26.1%.

In all the invention patents granted by SIPO, 181,000 were domestic, up 52.5%; 67,000 were from overseas, up 31.1%. In the domestic invention patents, 164,000 were service invention patents, accounted for 90.6%; 17,000 were not service invention patents, accounted for 9.4%.

According to official from SIPO, there were three characteristics in the data. Firstly, the quantity of patent applications was growing rapidly, especially the growth rate of invention patents were up 9.5 percent than last year. Secondly, invention patents granted got a high growth rate of nearly 50%, while the rates of utility model patents and design patents were both higher than invention patents. Thirdly, the proportion of domestic service invention patents applications provided a stable level of over 80%, and the proportion of service invention patents granted in domestic patents was over 90%.

SIPO is State Intellectual Property Office of China.

SIPO ENGLISH
 
Scientists report first measurement of antiproton interaction
(Xinhua)
Updated: 2015-11-06 16:22

SHANGHAI - A team of physicists announced a huge breakthrough in the understanding of antimatter by being the first to measure interaction between antiprotons, hailed as a potential and powerful new source of energy.

Scientists have been aware of antiprotons, the antimatter equivalent of protons, for sometime, but it proves challenging to create sufficient antiprotons for measuring their interaction.

The team, led by Ma Yugang with Shanghai Institute of Applied Physics (SINAP) in China; and Tang Aihong with the Brookhaven National Laboratory in the US, collided gold atoms to produce abundant antiprotons and measured two important parameters of their interaction: the scattering length and the effective range.

They concluded that when two antiprotons interacted the scattering length and the effective range were consistent with proton-proton interaction, according to a paper published in the journal "Nature."

Scientists believe that almost equal amounts of matter and antimatter were created in the Big Bang, but it remains an unsolved problem why the visible universe today is composed mostly of ordinary matter.

While antimatter is rare, a huge amount of energy is released when particles collide with antiparticles, which many see as a new form of energy.

"Harnessing this form of energy can help with lighter and more powerful space engines ... a well as potential for energy and weaponry application," Ma told Xinhua.

Scientists report first measurement of antiproton interaction - China - Chinadaily.com.cn
 
Plane sailing: Titanium-made aircraft may give China new edge in aviation as scientists develop method to make pure metal better than alloys
Scientists say new material could make Chinese aeroplanes 10 per cent tougher than Western rivals, and safer to boot, but same tech may find initial applications in surgery, implants

PUBLISHED : Thursday, 12 November, 2015, 1:03pm
UPDATED : Thursday, 12 November, 2015, 1:59pm
Stephen Chen binglin.chen@scmp.com


A breakthrough in material science could help China make large aircraft that are at least 10 per cent tougher than their foreign competitors, with significantly less chance of metal fatigue, according to Chinese scientists.

The technology can make pure metal, such as titanium, stronger than the best alloys in use today while maintaining a high level of elasticity to “prevent catastrophic failure during service,” the research team said.

They published their findings in the Proceedings of the National Academy of Sciences of the United States of America.

“It would be very possible for a big [Chinese] aircraft to use our new material. That’s the purpose of our research,” said Professor Wu Xiaolei, a lead scientist of the project who works with the Chinese Academy of Sciences’ Institute of Mechanics.

“A wholly titanium plane would not only be stronger, but stay longer in service, be more fuel efficient with significant weight reduction, and much, much cheaper to build,” he added.

China recently unveiled its first homegrown jetliner in Shanghai, with initial flights likely for next year. Boeing predicted last year the country will need more than 6,000 new aircraft over the next 20 years to keep pace with domestic demand as incomes grow and outbound tourism continues to surge.

Since ironsmiths discovered long ago that pure metal could be given extra strength by mixing it with other elements, alloys have come to replace pure metal in almost every sector of human industry.

For centuries, much effort was concentrated on the search for better alloys, with the list of mixing materials growing longer and the manufacturing process becoming increasingly sophisticated.

But Wu, together with Professor Zhu Yuntian from North Carolina State University in the United States, decided to head in the opposite direction.

In recent years, the rapid advancement of nano-technology has allowed scientists to develop materials from the same metal source but with very different physical traits, largely due to variations in their micro-structure.

By combining these materials, researchers found it was possible to bestow on pure metal some extraordinary physical properties.

But one nagging dilemma remained: Whether to go for greater strength or more flexibility.

Though nano-technology has helped researchers develop especially hard or flexible metals, they were unable to combine the two properties - an essential step for their real-life application.

Aircraft require both of these in a high degree as they may experience metal fatigue after extended periods of service that can potentially prove catastrophic.

It was long believed that pure metals would always be limited in their application, but Wu’s team claim to have solved the problem.

Using a new fabrication method, they brought hard and elastic titanium sheets together and created a new kind of pure titanium that is not only strong but ductile.

Their findings “provided a new principle for designing metals with mechanical properties that have not been reachable before,” the authors wrote in their paper.

Wu and his colleagues were surprised by how well the pure titanium performed compared to the alloys used in modern aircraft.

Their laboratory test results showed that the new pure material could be 15 per cent tougher than Ti6a14v - a special titanium alloy used in plane engines and structural components such as the hull and frame - and up to 20 per cent more flexible.

This meant it was much less likely to experience metal fatigue, they said.

It could also give China a strategic advantage in aviation.

The formula and manufacturing process of special alloys are among the most guarded industrial secrets by Western countries, and China has been struggling to compete with them with high-quality products of its own.

“China can make high-quality alloys, but they are not better than similar products overseas,” Wu said.

“To sell our planes and other high-end industrial products abroad, our materials must be way better than those of our competitors - and now we have a chance [to do that].”

Professor Xiong Yuexi, an expert in plane design at Beihang University in Beijing, said the new breakthrough could trigger a “revolution” in the aviation industry if the technology performs as reported.

“Materials are very important to plane manufacturers. [Using the right one] is a matter of life and death,” he said.

“I can’t wait to learn more about this new material and related technology.”

But Xiong cautioned that it could take a long time before the new material is applied to aircraft as extensive tests are first required both in the lab and field.

The new material must also prove it can handle the impact of acid rain and other environmental factors which could potentially erode it or cause other damage.

However, Wu said the new development has already caught the eye of manufacturers in China. He said part of its appeal is that it is simpler to make than most alloys.

But before it is used in planes, it may find its way onto the operating table.

“The first application of the new material will [likely] be in heart surgery,” Wu said.

“Pure titanium does not contain elements found in most alloys that can be harmful to people’s health, so it is perfect for metallic implants,” he added.

“We are working with several companies to bring the technology from the lab to people’s lives as soon as possible.”

The researchers said the technology may later be applied to other metals like iron.

“In the future we may have pure-iron cars that will be much safer and more fuel-efficient than those made with steel alloys today,” Wu said.

Plane sailing: Titanium-made aircraft may give China new edge in aviation as scientists develop method to make pure metal better than alloys | South China Morning Post
 
Chinese scientist solves global titanium problem
(People's Daily Online) 14:45, November 16, 2015

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By embedding ductile, large-grained columns (shown here as colors) in a harder, ultrafine-grained matrix (shown here as black), researchers were able to improve titanium's strength without impairing its ductility. (Photo provided by Prof. Zhu Yuntian)

Zhu Yuntian, professor at the Nanjing University of Science and Technology, and his research team have developed a technique to make titanium stronger without sacrificing any of the metal’s ductility – a combination that no one has achieved before, solving a global problem in material engineering. The research outcome has been published in the PNAS - the official scientific journal of the National Academy of Sciences.

The researchers believe the technique could also be used for other metals, and the advance has potential applications for creating more energy-efficient vehicles.

"Historically, a material is either strong or ductile, but almost never both at the same time,” says Yuntian Zhu, “We’ve managed to get the best of both worlds. This will allow us to create strong materials for use in making lighter vehicles, but that are sufficiently ductile to prevent the material from suffering catastrophic failure under strain."

The key idea here is grain size, or the size of the crystals in the metal. Metals with a small grain size are stronger – meaning they can withstand more force before they start to deform. But metals with a small grain size are also less ductile, which means they can withstand less strain before breaking. Materials that aren’t ductile won’t bend or stretch much – they just snap. Conversely, metals with a large grain size are more ductile, but have lower strength.

The new technique manipulates the grain size to give the metal the strength of ultrafine-grained titanium but the ductility of coarse-grained titanium.

"In addition to creating a metal with an unprecedented combination of strength and ductility, this material has higher strain hardening than coarse-grained titanium – which was thought impossible," says X.L. Wu, co-corresponding and first author of the paper, based at the Chinese Academy of Sciences' Institute of Mechanics.

Wu and Zhu are already working on projects to confirm whether this technique will work for other metals and alloys.
 
Tianhe-2 retains world's most powerful supercomputer
Xinhua, November 17, 2015

China's Tianhe-2 supercomputer has retained its position as the world's most powerful system for the sixth consecutive time, according to a biannual Top500 list of supercomputers released Monday.

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Photo taken on June 16, 2013 shows the supercomputer Tianhe-2 developed by China's National University of Defense Technology. The supercomputer Tianhe-2, capable of operating as fast as 33.86 petaflops per second, was ranked on Monday as the world's fastest computing system, according to TOP500, a project ranking the 500 most powerful computer systems in the world. [Photo: Xinhua]

Tianhe-2, or Milky Way 2, with a performance of 33.86 petaflops per second (Pflop/s), was developed by China's National University of Defense Technology and deployed at the National Supercomputer Center in Guangzhou. It has held the title since June 2013.

The Chinese system is almost twice as fast as the next on the list, Titan of the U.S. Department of Energy, which has a performance of 17.59 Pflop/s.

In fact, there has been no change among the ranking of the world's top5 supercomputers since June 2013 in the latest edition of the closely watched list.

"The top five computers are very powerful and expensive," Jack Dongarra, professor of the University of Tennessee and editor of the report, said in an email. "It will take perhaps another year before a new system enters the top five."

Among the significant changes to this list from July 2015's list is the sharp decline in the number of systems in the United States, now at 201.

"This is down from 231 in July and is the lowest number of systems installed in the U.S. since the list was started in 1993," the statement said.

In contrast, China made "a great leap" to 109 systems.

"China received a big boost from Sugon, Lenovo and Inspur," said Dongarra. "The large number of submissions came from Sugon."

According to the Top500 statement, Sugon has overtaken IBM in the system category with 49 systems, while Lenovo, which acquired IBM's x86 server business last year, has 25 systems in the list, up from just three systems on the July 2015 list.

In addition, some systems that were previously listed as IBM are now labeled as both IBM/Lenovo and Lenovo/IBM.

Inspur, the third vendor from China, now has 15 systems on the list.

"China is ... carving out a bigger share as a manufacturer of high performance computers with multiple Chinese manufacturers becoming more active in this field," the statement concluded.

Overall, HP leads the list with 156 systems followed by Cray with 69 systems and China's Sugon with 49 systems. IBM ranks fourth with 45 systems. Lenovo ranked sixth while Inspur ranked eighth on the list.

The Top500 list is considered one of the most authoritative rankings of the world's supercomputers. It is compiled on the basis of the machines' performance on the Linpack benchmark by experts from the United States and Germany.
 
Chinese indigenous Tunnel Boring Machines (TBMs)

Many Chinese companies manufacture Tunnel Boring Machines (TBMs). Examples include TBMs by Gansu Construction Equipment Manufacturing Co., China Railway Tunneling Equipment Co., and Wuhan Machine Equipment Co.

Gansu takes the lead to make shield TBM - China - Chinadaily.com.cn

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Xiamen invites public to name tunnel boring machine for Metro Line 1

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Tunnel Boring Machine - China Tunnel Boring Machine - Tunnelling Shield - China Tunnelling Shield

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Chinese scholar wins Germany's top research award

BERLIN, Nov. 18 (Xinhua) -- Chinese scholar Zhuang Xiaoying, along with 5 other international researchers, have received one of Germany's most valuable research awards, according to the awards' sponsor.

Winners of the 2015 Sofja Kovalevskaja Awards will each receive up to 1.65 million euros (1.71 million U.S. dollars) in award money to establish their own research groups in Germany, according to the Alexander von Humboldt Foundation, which chose six researchers aged between 31 and 33 to receive the award this year.

Zhuang Xiaoying, associate professor of College of Civil Engineering at Tongji University, is the seventh Chinese to win this award since 2002.

The 32-year-old said at the awards ceremony that she would start her research project focusing on nano-composite materials in December at the Institute of Continuum Mechanics, University of Hannover.

She said she aims to help engineers and scientists design a new generation of composite materials by designing an open source computer simulation platform.

"I want to be able to design an analytical framework for multi-scale materials to support the design of the next generation of nano-materials," Zhuang said.

The president of the Alexander von Humboldt Foundation Helmut Schwarz said Zhuang performed very well in research, and her study and research experience in China, Britain and Norway also made her a deserving candidate.

The previous six Chinese award-winners have successfully completed their work in Germany, said Schwarz, adding "we are very satisfied with their performance."

The Sofja Kovalevskaja Award, financed by the German Federal Ministry of Education and Research, aims to integrate internationally sought-after research talents into collaborations with academics in Germany at the beginning of their promising careers.

Scientists and scholars of all disciplines from abroad who have completed their doctorates within the last six years are eligible to apply.

Chinese scholar wins Germany's top research award | GlobalPost
 
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