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Supercomputers allow researchers to carry out experiments that would otherwise be impossible because they are too small or too large, too fast or too slow, or simply too expensive. Combining supercomputers with large data allows researchers to solve problems by analysing Big Data and enabling exploration of new areas.
Supercomputers have become very important in medicine and public health issues. Researchers are using a combination of experiment and molecular simulations to understand how, at a molecular level to replicate how diseases work.
Simulating these systems in realistic biological environments for the long timescales required to understand viruses like COVID-19 has not previously been possible.
The additional speed and capacity of supercomputers allows the researchers to gain a more detailed understanding through realistic simulations, allowing them to shorten the time between research and real impacts for everyone.
Computer Simulations Speed Up Time- Intensive Lab Processes
Computer simulations can examine how different variables react with different viruses. Each of these individual variables can comprise billions of unique data points. When these data points are compounded with multiple simulations, this can become a very time-intensive process if a conventional computing system is used.
Viruses infect cells by binding to them and using a ‘spike’ to inject their genetic material into the
host cell. To understand new biological compounds, like viruses, researchers in wet labs grow the micro-organism and see how it reacts in real-life to the introduction of new compounds. This is a slow process without powerful computers that can perform digital simulations to narrow down the range of potential variables.
IBM’s Summit is one of the world’s most powerful high-performance computing facilities. The Summit supercomputer has tens of thousands of processors covering an area that is as large as two tennis courts at Oak Ridge National Laboratory (ORNL). This lab has more computational power than one million top-of-the-line laptops.
Scientists are using supercomputers to run digital stimulations of 8,000 molecules interacting with the virus to find candidate molecules that might work. They have found 77 that might and those are currently being tested in labs.
“It took us a day or two, whereas it has traditionally taken months on a normal computer,” said Jeremy Smith, director of the University of Tennessee/ORNL Centre for Molecular Biophysics and principal researcher in the study.
While simulations alone cannot find a treatment that will work, this project was able to find 77 candidate molecules that can now be tested in trials.
Accelerate Understanding of Diseases
Using a mix of AI techniques, researchers will be able to identify patterns in the function, co-operation, and evolution of human proteins and cellular systems. Greater understanding of how these patterns work will help the the drug discovery process.
“Summit was needed to rapidly get the simulation results we needed. It took us a day or two, whereas it would have taken months on a normal computer,” said Jeremy Smith, director of the lab’s Centre for Molecular Biophysics.
The results obtained from the Summit supercomputer does not mean that a cure for the new coronavirus has been found but it is hoped that the computer’s findings will assist with studies in the future giving scientists a focused framework to further investigate the identified compounds. After further investigation it will reveal if any of them have the required characteristics to attack and kill the virus.
“We are very hopeful, though, that our computational findings will both inform future studies and provide a framework that experimentalists will use to further investigate these compounds. Only then will we know whether any of them exhibit the characteristics needed to mitigate this virus.” said the Director of the lab’s Centre for Molecular Biophysics.


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Singapore’s Minister-in-charge of Trade Relations, S Iswaran, and the European Commissioner for Internal Market, Thierry Breton, signed the EU-Singapore Digital Partnership (EUSDP), a comprehensive framework for all areas of bilateral digital cooperation between the EU and Singapore.
The partnership covers various aspects of the cross-border digital economy, including digital trade facilitation, secure data transfers, electronic payments, and standards and compliance. It also addresses cutting-edge areas like artificial intelligence (AI), digital identities, and 5G/6G. The partnership aims to enhance broader participation in the digital economy by collaborating on digital skills training for employees and the digitisation of businesses and public services.
The EU-Singapore Digital Trade Principles, the first outcome of the EU-Singapore Digital Partnership, were signed by Iswaran, as stated in a press release. This marks the beginning of a legally binding digital trade agreement between the two sides. The principles facilitate cross-border data transfers, reduce costs through electronic trade documentation and authentication, and enhance online consumer protection for people buying goods and services online.
Minister Iswaran and Commissioner Breton agreed to exchange best practices and/or develop projects in AI governance and standards and digital identities. The two sides will facilitate cross-border digital transactions and support SMEs’ digital transformation and digital skills. They also said they anticipate more joint projects between Singapore and the EU, including the EU Member States, in partnership with the private sector.
Iswaran stated that the EU-Singapore Digital Partnership strengthens connectivity and interoperability between the digital markets of the EU and Singapore. It will enable Singapore citizens and businesses to transact digitally more seamlessly and at lower costs. As a first deliverable, the officials launched a set of Digital Trade Principles, marking the first step towards a bilateral digital trade agreement that provides legal certainty for cross-border digital trade.
Digital infrastructure, such as data centres and submarine telecom cables, plays a crucial role in enabling cross-border connectivity between countries and regions. To create a secure, resilient, and sustainable digital environment for individuals and businesses, both sides will work together to promote digital infrastructure.
Furthermore, to support trusted cross-border data flows and data sharing, Singapore and the EU will work on the application of model data protection contracts and provide guidance for their use. They will also exchange information on the infrastructure and governance frameworks needed to facilitate data sharing.
The two sides will also cooperate on information sharing in platform governance and regulation. To drive the development and uptake of 5G and beyond 5G technologies, they will research use cases and possible areas of collaboration on R&D pilots. To support the deployment of AI, Singapore and the EU will encourage interoperability on AI governance, standards, and testing frameworks. Both sides will also explore cooperation on AI testbeds and research collaboration on AI.
Singapore and the EU have a strong economic partnership, built on the EU-Singapore Free Trade Agreement (EUSFTA), which came into effect in November 2019. The EU is Singapore’s fourth largest goods trading partner globally, with bilateral trade in goods totalling SG$ 102 billion (US$ 78.1 billion) in 2021, which accounted for 8.8% of Singapore’s total goods trade. The EU is also Singapore’s second-largest services trade partner globally, with bilateral trade in services exceeding SG$ 67 billion (US$ 51.3 billion). Investment relations are strong, with the EU being Singapore’s second-largest foreign investor and largest overseas investment destination.
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Market merchants in Quezon City, Philippines, can now apply for and book spaces and booths online using the Market One-Stop Shop platform (MOSS). According to City Administrator Michael Alimurung, the portal would identify “legal” vendor spaces free of impediments. It is also part of Quezon City Mayor Joy Belmonte’s ambition of making the city a desirable business location.
With the new system, the city government promises a smooth application process for renting a stall, including payment and collection of market rentals. This will also make the city treasurer’s office’s job easier because they will no longer have to collect rent in person.
To ensure that the new system is widely adopted, the local administration put free Wi-Fi connection points in barangay halls and hundreds of other public venues. A caravan will be launched to assist existing and prospective vendors in registering with the platform.
“Imagine treating the entire city as a public market. This method allows us to locate vendor locations online. It’s thinking broader by allowing us to treat the entire city in terms of how to assist our vendors,” Alimurung told at a press conference at Quezon City Hall.
Margarita Santos, director of the Quezon City Business Permits and Licensing Office, stated that the system would not replace any positions, such as market masters or market managers, but would make their tasks easier.
She stated that the MOSS would use a “first in, first out” queuing system and offer a five-year contract to the first vendor that applied for the space or stand. However, if they cannot satisfy the requirements within a specific number of days, they will be returned to the bottom of the queue,” Santos noted.
Market inspectors will check IDs supplied to registered merchants to guarantee that the correct renters occupy registered booths. Currently, over 12,000 sellers occupy public market stalls in the city. Those are our objectives. In addition, we want to incorporate 43 private markets.
According to Santos, the MOSS would also assist in eliminating red tape and corruption, such as those who reserve marketplaces and then rent them out to other merchants. Because this is an online system, we have a digital trail that allows us to see where the application took too long, who is at fault and admonish them.
Santos added that the system would also record vendor transgressions, which might result in losing their registration area or stall. She stated that registered vendors would be queued online once these areas are full until free space becomes available.
Procopio Lipana, Programmes and Projects Officer, stated that the site would make it easier for the city government and other law enforcement agencies to identify and apprehend unlawful sellers. Quezon City has an anti-hawker division and market inspectors who verify stall sizes and look for illicit merchants.
Indonesia is also working to improve digitisation in the conventional sector. Indonesia’s Ministry of Trade has targeted digitising 1,000 traditional markets and one million MSMEs as part of its digital transformation strategy. There are now 2,047 traditional markets that use local market websites through the Trade Facility Information System (TFIS), ten traditional markets that use digital marketing, and 51 conventional markets that operate QRIS for non-cash transactions.
According to Vice Minister of Trade Jerry Sambuaga, 326 traditional markets in 42 sub-districts have implemented e-retribution, 106,702 local traders, and 9.7 million MSME dealers have made non-cash transactions through QRIS.
The government of Indonesia’s digitalisation efforts have helped the country attain IDR980 trillion (US$ 63 billion), or 5.7% of GDP, by 2021. Indonesia’s GDP is predicted to reach IDR24 trillion (US$1.5 trillion) in 2030, with the digital economy accounting for 18% of GDP, or approximately IDR4,531 trillion (US$ 290 million).
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Indonesia’s Central Bank (Bank Indonesia/BI) worked with five ASEAN countries, including the Philippines, Malaysia, Indonesia, Singapore, and Thailand, to provide cross-border payment through QR. In a series of events at the G20 Bali Summit, the five ASEAN countries agreed on Regional Payment Digital Connectivity. The collaboration will make the Indonesian Standard Quick Response Code (QRIS) more widely available in five ASEAN countries.
The Ministry of Communication and Informatics welcomed the discussion. Usman Kansong, Director General of Information and Public Communication at the Ministry of Communication and Information (Kemkominfo) asserted that the ministry supports efforts to integrate payment systems through QRIS ASEAN.
“Because it is related to the digital economy, Kominfo is very supportive; we will provide the infrastructure. For example, we are also putting together an internet network,” said Usman on the sidelines of Jakarta’s 2023 ASEAN Indonesia Chair Kick-Off event.
The five countries’ central banks have held discussions on various occasions to implement cross-border payment system connectivity in the region. Bank Indonesia began payment system connectivity cooperation with other central banks in the area, initially with five countries in the region.
The agreement will be documented as a memorandum of understanding (MOU). At the same time, this initiative demonstrates Indonesia’s regional leadership in implementing the G20 agreement.
Regional Payment Digital Connection among 5 ASEAN Countries, according to Governor of Bank Indonesia (BI) Perry Warjiyo, is a physical representation of how digital connectivity in ASEAN is an example for other countries to help economic recovery in each country regionally.
“Wherever we go in these five ASEAN countries, we can utilise QR payment, QRIS in Thailand, Malaysia, Singapore, and the Philippines, and it will be a rapid payment system, instantly,” Perry explained.
Meanwhile, according to Esther Sri Astuti Soeryaningrum from an economic and finance NGO, the introduction of QRIS will aid financial integration in ASEAN. At the same time, there are still some hurdles to tackle. However, she mentioned that QRIS, as a non-cash transaction method, can help collaborating countries make cross-border payments easier without needing a money changer.
“With QRIS, we don’t have to worry about converting rupiah currency for other currencies, and we don’t have to do cash transactions, which are riskier and require a higher level of security,” she explained.
Moreover, the Indonesia Central Bank (Bank Indonesia/BI) expanded its payment cooperation network with Japan in December. The signing of a Memorandum of Cooperation (NK) addressing QR-based payment by BI and Japan’s Ministry of Economy, Trade, and Industry (METI). Dody B. Waluyo, Deputy Governor of BI, stated that the partnership on QR-based payment between BI and METI Japan would be a key concern for regulatory authorities and industry, given that the NK in question has the potential to strengthen economic relations between Indonesia and Japan.
The QR-based payment collaboration aims to accelerate cooperation on the implementation and interoperability of cross-border or country payments using QR codes, specifically the QR Code Indonesian Standard (QRIS) and the Japan Unified QR Code (JPQR). Furthermore, this collaboration will create a framework that permits QR-based payments between the two countries and other parties, such as payment system operators (SP).
The agreement marks the beginning of BI and METI Japan’s collaboration to carry out various activities related to the interconnectivity of QR-based payment systems, such as policy dialogue, technical cooperation, and the formation of working groups to ensure goals are met, such as efforts to implement QR-based cross-border payments to support people-to-people transactions in both countries. This collaboration is expected to promote payment system digitisation in both Indonesia and Japan.
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HKUST and ASTRI announced that they will be partnering to establish an initial Joint PhD programme through the signing of a Memorandum of Understanding (MoU). The MoU was signed by HKUST’s Provost and ASTRI’s Chief Executive Officer at HKUST’s campus in the presence of HKUST’s President and ASTRI’s Board of Directors Chairman.
As per the MoU, HKUST and ASTRI will jointly screen and select eligible candidates who will work as full-time R&D staff at ASTRI while pursuing a part-time PhD degree at HKUST. The selected candidates will have the chance to participate in leading-edge research projects that encompass artificial intelligence, big data, wireless communications, smart city, and advanced materials. Additionally, they will also be involved in R&D projects related to their PhD studies. Experienced R&D staff members from ASTRI may be appointed as HKUST’s adjunct professors and serve as co-supervisors for the PhD students.
With the backing of the nation, the Hong Kong government emphasised the significance of advancing innovation and technology (I&T) in the “2022 Policy Address.” The “I&T Development Blueprint” created by the government in December outlines a comprehensive plan for Hong Kong’s I&T growth in the next 5 to 10 years, including strategies such as improving the I&T environment and expanding the pool of I&T talent.
The Joint PhD programme aims to contribute to these efforts by fostering talent who can turn their research into commercial success while gaining the necessary knowledge and credentials to prepare for their careers.
The Chairman of the ASTRI Board of Directors stated that as Hong Kong’s top R&D organisation, ASTRI is dedicated to supporting the government’s initiatives outlined in the “I&T Development Blueprint” and “Competing for Talents” plans.
The first launch of the Joint PhD Programme with HKUST is anticipated to draw and retain talented individuals in I&T who want to pursue PhD studies or research in Hong Kong, thereby providing a strong pool of I&T talent to help make Hong Kong a smart city and a global hub for I&T.
The President of HKUST stated that the University is committed to its mission of promoting knowledge through education and research. With its strong foundation in basic research and partnerships with various industrial partners, including ASTRI, HKUST is well-positioned to bridge the gap between fundamental and applied research.
This will not only enhance Hong Kong’s innovation and technology ecosystem, cultivate top-notch talent for Hong Kong, the nation, and beyond, but also enable the commercialisation of HKUST’s research results for the benefit of society.
The Chief Executive Officer of ASTRI stated that bringing research and development results to fruition is a central objective of ASTRI. To maintain close ties with the academic community, the Memorandum of Understanding with HKUST was signed to foster joint R&D and technology commercialisation in February 2022, followed by this Joint PhD Programme a year later. The programme is expected to will effectively sharpen students’ creativity, critical thinking, and global perspective, enhancing their competitiveness on a global scale and hastening the implementation of HKUST’s R&D breakthroughs.
HKUST’s Provost expressed excitement about the joint PhD programme with ASTRI, stating that it is crucial to talent development for Hong Kong’s growth into an international innovation and technology hub.
The programme will use the strengths of both organisations to provide specialists with opportunities to acquire skills and qualifications while conducting R&D projects. The programme is expected to enhance Hong Kong’s talent development and expand its talent pool.
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Researchers at the National Institute of Standards and Technology (NIST) in the United States (U.S.) have developed biosensors to detect the presence of or predisposition to various illnesses, including cancer. A novel biosensor chip with an accurate and low-cost architecture may enhance access to high-quality examinations.
The capacity to detect these signs, called biomarkers, enables medical practitioners to make vital early diagnoses and give individualised therapies. Because traditional screening procedures might be time-consuming, costly, or limited in what they can reveal, they also combined the biosensors with extremely low-power FET Internet of Things (IoT) devices to boost the sensors’ responsiveness. The FET was created at CEA-LETI to amplify signals in smartwatches, personal assistants, and other gadgets.
“This is a scalable technique. In principle, we can integrate hundreds, if not thousands, of sensors in an area of one square millimetre into a console the size of a smartphone, which is far less burdensome than some of the latest equipment used in the clinic,” said NIST researcher Arvind Balijepalli, a co-author of the new study developed by researchers at NIST Brown University and the French government-funded research institute CEA-Leti.
The researchers reported the results of a study that proves the device’s excellent sensitivity and precision despite its modularity, which is commonly associated with decreased performance, in a paper recently uploaded online from the 2018 IEEE International Electron Devices Meeting.
DNA sensor
The biosensor recognises biomarkers by detecting how DNA threads bond to the device. Its modular architecture distinguishes it from related sensors, lowering costs by making mass production more accessible and allowing the most expensive parts to be reused.
Like other DNA biosensors, the device makes use of the fact that a single DNA strand is ready for chemical bonding when it is not coupled with another within the recognisable double helix. Instead, a portion of the device has single strands of DNA coated on it. When these “probes” come into contact with DNA biomarkers with a matched or complementary genetic sequence, the two strands join, sending a signal that the gadget detects.
When a strand of target DNA binds to a probe, it causes a voltage shift that may be measured using a semiconductor device called a field-effect transistor (FET). As the molecules pop on and off the sensor, these voltage shifts can occur hundreds of times per second. This method tells you whether a DNA strand is attached to a probe and how long it takes to connect and disengage.
Improving signal detection
FET-based methods have yet to hit the mainstream, however. A significant stumbling block is their single-use nature, which has now seemed necessary but has increased its cost. The signal gets harder to measure because of the electrical signal’s noise when they must travel longer within electronics.
DNA probes in FET-based sensors usually are attached to the transistor directly, which converts the signal into readable data and limits noise. But the probes and whole device signal are weaker after exposure to a sample. Then they utilise the Internet of Things (IoT) FET to accommodate the losses. The NIST authors paired their circuitry with a specific type of low-power FET developed at CEA-LETI that is used in smartwatches, personal assistants, and other devices to amplify signals and compensate for the lost sensitivity.
The researchers found that the binding kinetics were sensitive enough to make accurate measurements even at low concentrations. Overall, the modular design performed similarly to integrated, nonmodular FET-based biosensors. The modular design performed similarly to integrated, nonmodular FET-based biosensors. The next step in their research is determining if their sensor can perform similarly with varying DNA sequences caused by mutations. Because many diseases are caused or exacerbated by altered DNA, this skill is critical for clinical diagnosis.
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Thailand realised the country needs to keep up with the development of the entire digital age globe. Therefore, Prof. Dr Sirirerk Songsiwilai, Permanent Secretary of the Ministry of Higher Education, Science, Research, and Innovation emphasised the national universities’ important role in advancing digitalisation. The policy to direct the development of Thai universities toward becoming digital universities is also needed.
He encouraged universities to pursue digital technology development aggressively. Because the value of the world’s leading economies and organisations is always digitally related. More than half of technological advancement is done through digitalisation, which creates considerable changes. Thailand’s universities must be the driving force in the country’s development, using digital as a tool for growth to become more productive with minimal resources.
“To become a developed country in 2037, colleges play an essential role in building Thai people into digitally educated and developing technology in the future. Therefore, the university’s role in providing knowledge and expertise in digital use is critical. It should be ready ten years in advance,” Sirirerk noted while presiding over the webinar on the ‘Surveys on Transformation Readiness towards Digital University’.
The webinar examines the digital maturity model (DMM) and digital university transformation readiness. At the event, renowned presenters will share their knowledge of DMM tools and surveying preparation for university digital progress.
Universities must make the most of technology. It must be ready to make management organisations reduce expenses and improve efficiency. Universities must employ technology to maximise learning, such as through online education. It must also consider systems for other types of education, such as lifelong learning. To promote innovation and fully utilise all aspects and objectives, universities must integrate research missions with digital technologies.
Dr Wanchat Suwant Tokitti, Deputy Secretary-General, Office of the National Economic and Social Development Council, also highlights the usage of DMM technologies in the digital ecosystem for country development. DMM is vital in developing the approach that will drive the national plan.
Under the master plan National Economic and Social Development Plan national policies and plans on national security, the strategy intends to create concrete practise of quality management principles (PDCA).
To meet the country’s needs, the government needs to transform to do more with less digital technology. Because being a digital university can improve Thai people’s quality of life. Technology is also required to support the country’s context toward self-determination and to drive the organisation systematically and consistently.
“Doing DMM, don’t just stay within the university border, but must come out of the fence. Assist the country in developing and achieving its goals following the national strategy. Everyone is vital for equipping students and utilising digital to help the country prosper. Have a digital attitude and a strong desire to become digital.”
She anticipates that the university social service is critical and will create research and development academics that can be globally applied to the Thai social landscape in all areas. It also aids in monitoring and evaluating results to achieve progress and sustainability, requiring the information to be ready to use.
The use of DMM is founded on six principles: knowledge, virtue, perseverance, and getting up. Make decisions based on moderation, reason, and effect, and have a solution-finding immunity.
While Danairat Thanabodee Thammajaree, Supervisor of the Thai University to Digital University Project, discloses that DMM is an essential tool in reflecting readiness to change into a digital university with the support of the Science Promotion Fund Research and Innovation (CCD).
The method enables executives and operational levels to have a common understanding of university operations. It can be used to identify development concerns that align with the organisation’s aims. As a result, it encourages all sectors to collaborate by exchanging information and technology to create an ecosystem.
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The University of South Australia and the South Australian Institute of Sport (SASI) have joined forces to establish a top-notch sports research and education facility in Mile End, focusing on high-performance sports.
The new cutting-edge complex integrates essential sports and educational resources to aid athletes in reaching peak performance, offer university students hands-on, industry-focused learning, and provide research-based solutions for sports in South Australia. The new SASI will share a location with the National Centre for Sports Aerodynamics, UniSA Sports Science Hub, SA Athletics Stadium, and Netball SA Stadium at Mile End.
The global sports technology market was valued at US$12.17 billion in 2021 and is projected to grow at a CAGR of 19.6% from 2022 to 2030. With the growing demand for data-driven decision-making and operations in sports events, the sports tech industry is expected to experience significant growth due to the increased adoption of data analytics, IoT, and social media integration in various sports.
The demand for technology-based solutions in the sports sector is driven by a focus on enhancing audience engagement and entertainment, and the digitisation of stadiums. The market has seen growth with increased investments by organisations in adopting advanced technologies for monitoring player performance and fan engagement.
The UniSA Sports Science Hub provides UniSA sports science students with real-world learning opportunities, the chance to work with top industry professionals and elite athletes, and a well-rounded education for a successful career.
UniSA Vice Chancellor Professor David Lloyd states the new facility will offer dynamic, connected learning experiences for students. He stated that the new UniSA Sports Science Hub offers exceptional potential for enhancing research, education, and commercial partnerships with SASI and other sports industry partners located at the same site.
Coaches and health professionals will collaborate to conduct innovative research to better equip athletes for competition. The UniSA Sports Science Hub boasts state-of-the-art facilities and expertise to provide top-notch education, training, and research, benefiting South Australia’s sports industry both now and in the future.
The new UniSA Sports Science Hub, the only one of its kind in the Southern Hemisphere, features specialised teaching and research areas such as exercise classrooms, biomechanics labs, exercise testing gear, and an environmental chamber.
The new facility aims to inspire children to participate in sports, allowing them to reap the physical, mental, and social benefits. To motivate the children, South Australia’s athletes representing the state on a global level need access to top-notch facilities, and this project will provide them for the long term. The new SASI-UniSA partnership demonstrates South Australia’s sports industry’s innovative and pioneering spirit.
The Minister for Recreation, Sport and Racing emphasised that the new facilities will motivate future generations to participate more in sports and physical activity. She added that some of South Australia’s greatest athletes developed their talent in Adelaide at SASI. When these and other remarkable athletes excel, future generations are motivated, leading to an increase in sports and physical activity participation.
The Minister also said that as sports institutes worldwide adopt advancing technology for a competitive advantage, the cutting-edge SASI facility will maintain South Australia’s leadership in sports performance and research, aid staff and athletes, and enable more young athletes to pursue their athletic aspirations. Works are set to commence in early 2023, with the project expected to be completed by mid-2024.