EY Center for Sustainable Supply Chains launches in Singapore

Comprises team of 50+ climate change and sustainability professionals
Focus areas include traceability, supply chain decarbonisation, circular business models & tax incentives

The EY organisation recently launched the EY Center for Sustainable Supply Chains. Based in Singapore, the Center provides tailored service offerings that help organizations at every stage of their supply chain…Continue Reading

Japan rolls the dice on a state-led chip revival

At the G7 Hiroshima Summit in May 2023, leaders declared in a statement on economic resilience and economic security that they would strengthen supply chains for critical goods, including semiconductors, through global partnerships. 

This commitment reaffirms Japan’s efforts – starting in 2021 – to revitalize its domestic semiconductor industry, reduce its dependence on other countries for critical goods and build a resilient supply chain. 

Two key elements of Japan’s semiconductor strategy for 2023 include strengthening domestic manufacturing capability and fostering research and development (R&D) for next-generation semiconductor technology through international collaboration. 

This ambitious approach aims to transform Japan’s semiconductor industry and demonstrates the government’s determination to revive its semiconductor ecosystem. 

The Japanese government aims to increase domestic semiconductor manufacturing capacity by providing subsidies to companies engaged in the production of advanced semiconductors. 

Given that semiconductors are used in everything from cellphones to defense systems, expanding Japan’s domestic capability will be crucial for reducing the risk of dependence on unreliable sources of supply as well as the risk of becoming overly reliant on a few countries. 

In 2021 and 2022 the government set aside more than 1 trillion yen (close to US$7 billion) for semiconductor manufacturing plants. Without this, Japanese and foreign firms would likely choose more attractive locations to manufacture semiconductors. 

In May 2023, top executives of seven foreign semiconductor companies met with Prime Minister Fumio Kishida to exchange views on expanding investment in Japan. This step is expected to further secure the semiconductor manufacturing base. 

Semiconductors were also designated “specified critical materials” to strengthen the ability of Japanese industry to manufacture legacy semiconductors and produce the required manufacturing equipment and materials.

This resulted in a total budget of 368.6 billion yen (US$2.8 billion). These support measures aim to maintain Japan’s presence in the global semiconductor ecosystem and induce additional private-sector investment. 

Beyond financial support, the Japan Investment Corporation (JIC)—a government-affiliated fund overseen by the Ministry of Economy, Trade and Industry—has taken a significant step by acquiring the chip materials-producing firm JSR through a takeover bid of approximately 900 billion yen ($6.4 billion). 

Japan Investment Corporation’s purchase of local photoresist-maker JSR took a key chip component-making company off the open market. Image: Facebook

JSR holds a roughly 30% share of the global market for photoresists that are required to manufacture semiconductors. The acquisition will enable JSR and JIC to restructure Japan’s semiconductor materials industry through large-scale mergers and acquisitions to increase the competitiveness of Japan’s semiconductor materials companies. 

While industrial policy alone will not be enough to reinvigorate Japan’s domestic semiconductor industry, the government can work to ensure its industrial policies contribute to the success of the industry. 

This work will require close engagement with semiconductor companies and other stakeholders, an examination of the successes and failures of industrial policy efforts and the modification of policies as needed. 

The Japanese government’s semiconductor strategy also emphasizes strengthening Japan’s next-generation semiconductor technology base through international collaboration. Other technology-driven nations — including European countries, the United States, South Korea and India — are launching policies to build resilient supply chains for semiconductors. 

This is an opportune time for Japan to pursue collaboration with other countries. 

In December 2022, Japan established the Leading-edge Semiconductor Technology Center (LSTC), which is supported by public research institutions in Japan and serves as an R&D hub for scientists worldwide. 

At the LSTC, researchers will explore new technologies for next-generation semiconductors based on the needs of domestic and foreign industries. It is expected that the National Semiconductor Technology Center and the Interuniversity Microelectronics Centre (IMEC) will collaborate with the LSTC on advanced semiconductor technologies. 

Separately, Japan’s National Institute of Advanced Industrial Science and Technology is working with domestic and overseas semiconductor companies on a project to launch a pilot line of 2-nanometer chips.

It is also working with the Taiwan Semiconductor Manufacturing Company (TSMC) to develop an advanced 3D semiconductor packaging technology. These collaborative projects showcase the Japanese government’s ambition to catch up to global leaders that are currently 10 years ahead of Japan in chip manufacturing technology. 

The Japanese government has also established Rapidus, a mass-production center for next-generation semiconductors, in collaboration with IBM and IMEC. Rapidus received 330 billion yen ($2.3 billion) in financial support from the Japanese government over 2022 and 2023. It aims to start producing 2-nanometer semiconductors in 2027. 

But because Rapidus has not built and operated a fabrication facility to date, it will likely take time to realize its potential. It also remains to be seen whether Rapidus’s business model, which is based on R&D sustained by sales revenue, will work. 

A cautionary tale is that, from the 1970s to the 2000s, multiple joint research projects similar to the LSTC were undertaken by the Japanese government. These government initiatives initially benefited Japan’s semiconductor industry. 

But in the long term, Japanese semiconductor companies became less diverse due to the standardization of their technology and the leveling up of technology among their companies. 

This lack of diversity among Japanese semiconductor manufacturers made it difficult for companies to adapt to changes in a competitive environment. 

To apply the lessons learned from past government initiatives, the LSTC will need to be led by a diverse set of Japanese semiconductor companies, operate flexibly and not be too bound by specific research goals. 

The government is driving Japan’s semiconductor revival. Image: Twitter

The Japanese government’s new semiconductor policy aims to play a significant role in reviving Japan’s semiconductor ecosystem. To implement the strategy successfully, the government must continue to pursue further investment and long-term policies aimed at building a resilient global supply chain. 

At the same time, the government will also need to work closely with stakeholders and remain flexible in adjusting its policies. In addition to financial support, the Japanese government is taking a multifaceted approach to strengthen the competitiveness of its semiconductor industry. 

International cooperation, the establishment of R&D centers and human resource development are all on the table. These efforts are expected to help the Japanese semiconductor industry build a stronger position and contribute to economic resilience at home and abroad. 

Hideki Tomoshige is Research Associate for the Renewing American Innovation Project at the Center for Strategic and International Studies (CSIS), Washington DC. 

This article was originally published by East Asia Forum and is republished under a Creative Commons license.

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Fahmi Fadzil visits Axiata Cyber Fusion Centre, urges greater public-private links to raise cybersecurity capabilities

Cybersecurity Malaysia, MDEC explore cybersecurity collaboration with Axiata
Advance Malaysia’s cybersecurity capabilities, build trusted digital ecosystem

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9 Budget 2024 recommendations as rocket fuel for Malaysia's Soonicorns 

Critical to offer visas for foreign students who study in local universities 
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Microsoft launches its Copilot, your everyday AI companion

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China, India race for 1,000-qubit quantum computers

The two largest populations in the world, China and India, are in competition with one another by creating their own 1, 000-qubit quantum computers, a task that IBM of the United States will complete this time. & nbsp,

India is a newbie when it comes to producing classical computers, compared to China.

The Indian National Quantum Mission( NQM ), which aims to deliver intermediate-scale quantum computers with 50 – 1, 000 physical qubits by 2031, received funding approval from the US in April of this year. & nbsp,

A joint Indo-US Quantum Coordination Mechanism was established by the US and India in June to promote cooperation between business, education, and government organizations as well as the two nations’ efforts to develop a detailed Quantium Information Science and Technology agreement.

However, a 7-qubit classical machine is still being developed in India by the Defense Research and Development Organization, the Tata Institute of Fundamental Research, and tata Consultancy Services. & nbsp,

The 66-qubit Zuchongzhi 2, which is still the fastest quantum machine in China, was introduced back in May 2021 by Chinese professor Pan Jianwei and his group at the University of Science and Technology of China in Hefei. & nbsp,

Hefei-based quantum machine manufacturer Origin Quantum vowed to surpass the 1, 000-qubit indicate by 2025 in September of the same year. Yet, it has had trouble launching its 72-qubit quantum machine Wukong, which is named after the Monkey King in Chinese mythology, so far this year. Just 24 packets are used in its most recent product, Benyuan Wuyunan, which was released in 2021.

In 2021, Origin Quantum Computing Technology Co introduced a 24 packet quantum laptop called Benyuan Wuyulan. originqc.com.cn is a picture.

” Wukong’s research and production are still going well for the time being. According to Zhang Hui, public director of Origin Quantum, who recently spoke with the Hefei Daily, it will be formally launched by the end of this year. ” After that, we’ll keep working on building quantum computers with frequencies greater than 72 qubits.”

According to Zhang, Origin Quantum was founded in 2017 with the goal of turning China’s technological advancements into useful goods. He claimed that the business had spent three years attempting to self-supply every component of its materials.

He omitted to go into detail about the challenges the business has encountered during the development of Wukong.

Zhang announced that the business may introduce Wukong by the end of 2022 in September of last year. He stated that the release did take place in July this year in June. However, the business missed both schedule. & nbsp,

US censorship

In order to stop the Chinese government from using these products, especially in the production of hypersonic rockets and artificial intelligence tracking systems, the Biden state outlawed exports of high-end semiconductors, chip-making machinery, quantum computers, and supercomputers to China last October. & nbsp,

US President Joe Biden signed an executive order in August of this year prohibiting US companies and money from investing in China’s silicon, artificial intelligence, and quantum computing industries starting in 2024. & nbsp,

Given that Origin Quantum has not received any unusual funding, it is unlikely that it will be impacted by US investment restrictions. Additionally, the business contracted Nexchip Semiconductor Corp., which is owned by the Hefei government at 52.99 % and Taiwan’s Powerchip Technology at 27.44 %, to produce its superconducing chips. The US trade restrictions and punishment shouldn’t have an impact on the production. & nbsp,

Wukong should be released by Origin Quantum as soon as possible, according to Chinese observers.

According to a Shanxi-based author in an content,” Classical cards have much stronger processing power than traditional transistors.” We can lessen our reliance on high-end printing and self-sustain ourselves once the technology for classical chips is mature.

According to him, this development may include proper implications for the chip industry’s global supply chain. He claims that the Mate60 Pro from Huawei’s successful launch has already demonstrated that China is unafraid of modern and containment from other nations. & nbsp,

In the meantime, Origin Quantum is creating uses for its classical computers.

Vice President of Origin Quantum Dou Meng announced to the internet on Tuesday that the company would look into using its quantum computers to analyze health information.

According to Dou,” Classical technology has an edge in handling graphics.” ” We used our self-developed algorithm to handle tumor patients’ photos provided by Anhua’s Bengbu Medical College and effectively reduced the consumption of traditional processing power to explore the programs in health information analysis.”

India is catching up.

The 433-qubit Osprey, the country’s fastest quantum machine to date, was introduced by IBM in November. The 1, 121-qubit Condor was scheduled to be introduced by the tech behemoth this year.

a classical computer’s specifications. Image: IBM

A quantum system can have more than 50 scientific or functional qubits, according to some engineering experts, which is enough to perform various calculations and generate business value. & nbsp,

In order to help professional and business markets with top, like-minded classical nations, the US announced on June 22 that it welcomes India’s contribution in the Quantum Entanglement Exchange and the classical Economic Development Consortium.

Biden and Indian Prime Minister Narendra Modi announced at a meeting on September 8 that they would advance scientific cooperation in fields like quantum computing, biology, and place inquiry. In addition, & nbsp,

According to a Ganzu-based columnist, India’s NQM, which covers quantum computing as well as particle communication, classical perception, surveying, and classical materials and devices, may not be able to use the US$ 730 million in revenue.

He claims that China is far behind India in terms of its classical communication research, which will consume a sizable portion of the funding. & nbsp,

Read: The US is also far behind China’s fastest particle computer.

At & nbsp, @ jeffpao3 is Jeff Pao’s Twitter account.

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