A team of scientists from the University of New South Wales
(UNSW) led by UNSW Scientia Professor Michelle Simmons, Director of the Centre
of Excellence for Quantum Computation and Communication Technology, or CQC2T has
for the first time that they can make two atom quantum bits or qubits,
generated from precisely positioned individual atoms in silicon, “talk” to each
The team creates the atom qubits by precisely positioning
and encapsulating individual phosphorus atoms within a silicon chip.
Information is stored on the quantum spin of a single phosphorus electron.
This new advance, published in the journal, Nature Communications,
shows the first observation of controllable interactions between two of these
qubits. A scanning probe was used to directly measure the atom’s wave function,
telling its exact physical location in the chip.
This enables the scientists to place their high-quality
qubit where they want it in the chip, see what they have made, and then measure
how it behaves. They can add another qubit nearby and see how the two wave
functions interact and then begin generating replicas of the devices that have been
For the study, the team placed two qubits – one made of two
phosphorus atoms and one made of a single phosphorus atom – 16 nanometres apart
in a silicon chip.
Using electrodes that were patterned onto the chip with
similar precision techniques, the researchers were able to control the
interactions between the two neighbouring qubits, so the quantum spins of their
electrons became correlated or entangled. Quantum computing utilises this kind
of quantum-mechanical phenomena to perform operations on data.
Study lead co-author, Dr Matthew Broome, formerly of UNSW
and now at the University of Copenhagen, said “These type of spin correlations
are the precursor to the entangled states that are necessary for a quantum
computer to function and carry out complex calculations.”
The prediction from theory was that the two qubits would
need to be placed 20 nanometres apart to see the correlation effect but it was
found to occur at only a 16 nanometres gap.
“In our quantum world, this is a very big difference. It is
also brilliant, as an experimentalist, to be challenging the theory,” Study
lead co-author, UNSW’s Sam Gorman said.
Prof Simmons’ team has also recently created quantum
circuitry with the lowest recorded electrical noise of any semiconductor device,
by optimising their nano-manufacturing process. Electrical noise from the circuitry
that controls the qubits is believed to be a critical factor in limiting their
Using silicon avoids the problem faced by most other devices
of having a mix of different materials, including dielectrics and surface
metals that can be the source of, and amplify, electrical noise.
The team has also created an electron spin qubit with the
longest lifetime ever reported in a nano-electric device – 30 seconds – up to
16 times longer than previously reported. Qubits have a fleetingly brief lifespan
which is one of the barriers in the development of complex quantum computers. A
longer lifetime, allows information to be stored longer in the quantum state. In
the same paper, they showed that these long lifetimes allowed them to read out
the electron spins of two qubits in sequence with an accuracy of 99.8 percent
for each, which is the level required for practical error correction in a
In the same paper, they showed that these long lifetimes
allowed them to read out the electron spins of two qubits in sequence with an
accuracy of 99.8 percent for each, which is the level required for practical
error correction in a quantum processor.
Prof Simmons said, “The combined results from these three
research papers confirm the extremely promising prospects for building
multi-qubit systems using our atom qubits.”
According to the press release, UNSW scientists and
engineers at CQC2T are leading the world in
the race to build a quantum computer in silicon. They are developing parallel
patented approaches using single atom and quantum dot qubits. Prof Simmons
expressed hope that both approaches would work.
The UNSW team have chosen to work in silicon because it is
among the most stable and easily manufactured environments in which to host
qubits. Moreover, there is a vast body of knowledge about silicon because of
its long history of use in the conventional computer.
Last year, UNSW launched
Australia’s first hardware quantum computing company, Silicon Quantum Computing
Pty. Ltd. (SQC) to commercialise CQC2T’s world-leading research. Operating out of new laboratories at UNSW, SQC has set a target of producing a 10-qubit demonstration device in silicon by 2022, as the
forerunner to a silicon-based quantum computer.
The company is backed by a consortium of governments,
industry and universities. The Australian government has invested A$26 million
in the A$83 million venture through its National Innovation and Science Agenda,
with an additional A$25 million coming from UNSW, A$14 million from the
Commonwealth Bank of Australia, A$10 million from Telstra and A$8.7 million
from the NSW Government.
The press release from UNSW cites an estimate that
industries comprising approximately 40% of Australia’s current economy could be
significantly impacted by quantum computing.
The National Heart Centre Singapore (NHCS) has been on a remarkable journey of advancements in cardiovascular research, particularly in the prevention, diagnosis, and management of heart diseases. With the global rise in heart disease cases, NHCS’s dedication to scientific knowledge and innovation has become increasingly vital.
Since its establishment in 2014, the National Heart Research Institute of Singapore (NHRIS) at NHCS has positioned itself as a leading institution for cardiovascular research in the region. Over the years, NHRIS has achieved significant breakthroughs that hold the potential to transform patient outcomes.
NHRIS’s research encompasses a wide spectrum of disciplines within cardiovascular medicine, spanning basic, translational, and clinical research. Notable achievements include Heart Stem Cell Therapy and Preventing Fibrosis.
By studying patients’ heart stem cells, researchers have uncovered new treatments for heart diseases. For example, a breakthrough treatment using myeloperoxidase has been discovered for hypertrophic cardiomyopathy, an inherited condition characterised by thickening of the heart muscle.
Also, through the study of heart tissue from patients undergoing surgery, NHRIS researchers have identified a potential treatment involving interleukin-11 antibodies to prevent inflammation and fibrosis in the heart and other organs. This innovative therapy has the potential to improve outcomes for patients with various inflammatory and fibrotic conditions.
The next phase of NHCS’s research efforts over the coming years will focus on three key areas:
- Discovery of New Treatments: Ongoing research aims to develop new treatments for heart diseases, enhancing patient outcomes.
- Utilising Artificial Intelligence: NHCS is at the forefront of integrating artificial intelligence (AI) into cardiovascular care. AI holds promise in predicting, diagnosing, and monitoring heart diseases with greater precision and efficiency. The APOLLO study, initiated in 2021, is building an AI-driven national platform for coronary angiography analysis, offering detailed reports on patients’ conditions and future cardiovascular disease risk.
- Clinical Trials and Population Health Studies: NHCS’s research agenda includes conducting clinical trials and population health studies to prevent the onset of heart disease.
NHRIS is pioneering innovative approaches, including Visualising Energy Pathways and AI Applications.
Disturbances in energy-producing pathways in heart muscle contribute to heart conditions as Hyperpolarised magnetic resonance spectroscopy, a novel imaging technology available only in a few centres worldwide, allows the measurement of these metabolic pathways, potentially leading to new treatments for heart disease.
On the other hand, AI accelerates research in the field of cardiovascular science. By processing vast datasets and identifying patterns, AI systems assist researchers in identifying novel treatment methods, risk factors, and disease mechanisms. These insights lead to breakthroughs in treatment and prevention methods, advancing the overall understanding of cardiovascular diseases.
With this, NHCS is leveraging AI to detect, predict, and diagnose heart diseases by analysing complex imaging data. AI provides clinicians with invaluable insights, enabling personalised care and early intervention.
In addition, NHCS collaborates with other heart research institutes and hospitals through CADENCE (Cardiovascular Disease National Collaborative Enterprise), a national platform that combines heart research capabilities in data science, clinical trials, and AI. This collaboration ensures a collective effort to advance cardiovascular research and improve patient care.
NHCS’s groundbreaking research initiatives in AI applications, clinical trials, and collaborative efforts underscore its commitment to enhancing patient care. As NHCS continues its pursuit of research excellence, its impact extends beyond Singapore, benefiting individuals across the region and around the world. The institution is poised to make substantial progress in preventing, diagnosing, and managing cardiovascular diseases, ultimately reshaping the future of cardiovascular medicine.
An innovative microscope developed by a research team at the Hong Kong University of Science and Technology (HKUST) is poised to revolutionise the field of cancer surgery. This cutting-edge microscope, powered by artificial intelligence, has the potential to transform the way surgeons detect and remove cancerous tissue during operations, thereby sparing patients from the distressing prospect of secondary surgeries.
Lung cancer, a leading cause of cancer-related deaths worldwide, has been a focal point for this ground-breaking research. Professor Terence Wong Tsz-Wai, the principal investigator of the project and an assistant professor in the Department of Chemical and Biological Engineering at HKUST, highlights the urgency of their work.
He notes that between 10% to 20% of lung cancer surgery cases require patients to return for a second operation due to incomplete removal of cancer cells. This uncertainty has long plagued surgeons, who often struggle to determine if they’ve successfully excised all cancerous tissue during the initial surgery.
The HKUST research team, led by Prof. Wong, is eager to see their innovation make a significant impact. Collaborating with five hospitals, including Queen Mary Hospital, Prince of Wales Hospital in Hong Kong, and three mainland Chinese hospitals, they have embarked on a large-scale clinical trial involving around 1,000 patient tissue samples. The goal is to have the microscope officially in service locally by 2024 and on the mainland by 2025.
The current methods for imaging cancer tissue offer either accuracy with lengthy delays or speed at the cost of accuracy. Traditional microscopy, considered the gold standard, is highly accurate but can take up to a week to generate results. This means patients must endure a week of anxious waiting to know the outcome of their surgery. In cases where the operation is deemed unsuccessful, patients face the daunting prospect of a second surgery to remove the remaining cancer cells.
The alternative, known as the frozen section, provides quicker results within 30 minutes but sacrifices accuracy, with an estimated accuracy rate of only around 70%.
The HKUST research team’s breakthrough technology, termed “Computational High-throughput Autofluorescence Microscopy by Pattern Illumination” (CHAMP), has changed this landscape. It can detect cancer cells in just three minutes with an accuracy rate exceeding 90%, rivalling the gold standard but with significantly faster results.
CHAMP employs ultraviolet (UV) light excitation to image tissue surfaces at a specific wavelength. Subsequently, a deep learning algorithm transforms the obtained greyscale image into a histological image, facilitating instant interpretation by doctors. This real-time feedback empowers surgeons to ensure they have completely removed all cancer cells during the operation.
CHAMP’s potential has garnered local, regional, and international acclaim, leading to the establishment of a start-up supported by HKUST and funded by the Technology Start-up Support Scheme for Universities (TSSSU). Beyond developing the technology, the company plans to manufacture CHAMP microscopes for medical institutions in Hong Kong, mainland China, and overseas markets.
This endeavour represents the culmination of years of meticulous research, starting with Prof. Wong’s PhD training at Washington University in St. Louis and the California Institute of Technology. During this period, Prof. Wong, under the guidance of biomedical imaging expert Prof. Lihong Wang, developed a microscope capable of analysing breast cancer tumours with an accuracy rate comparable to the gold standard but with results in just one to two hours.
The shift in focus to lung cancer occurred when a pulmonologist approached Prof. Wong, recognising the potential of the technology to enhance precision during lung cancer surgery. This decision led to the development of CHAMP microscopy, which is approximately 100 times faster than Prof. Wong’s earlier work during his PhD training. This breakthrough makes CHAMP clinically useful and impactful.
The applications of CHAMP extend beyond lung and breast cancers. The research team is conducting tests on smaller scales for conditions such as liver, colorectal, kidney, and skin cancers, as well as prostate gland conditions. Prof. Wong is confident that CHAMP will elevate medical imaging and diagnosis to new heights, benefiting not only Hong Kong hospitals but also healthcare institutions nationwide and abroad. This pioneering technology represents a beacon of hope for cancer patients, offering the promise of quicker, more accurate surgeries and improved outcomes.
OpenGov Asia reported that the Hong Kong Science and Technology Parks Corporation (HKSTP) spearheaded an initiative aimed at promoting innovation and technology in the biotech sector, showcasing Hong Kong’s pioneering advancements and entrepreneurial spirit.
This initiative was part of the “Think Business, Think Hong Kong” event organised by the Hong Kong Trade Development Council (HKTDC) in Paris recently. The event was a platform to underscore the potential for cross-border collaboration between Hong Kong and France in the field of biotechnology and innovation.
The government has unveiled the Intelligent Grievance Monitoring System (IGMS) 2.0 Public Grievance Portal and Automated Analysis in the Tree Dashboard portal under the Department of Administrative Reforms and Public Grievances (DARPG). It was unveiled by Jitendra Singh, the Union Minister of State (Independent Charge) for Science and Technology.
The IGMS 2.0 Dashboard was developed by the Indian Institute of Technology, Kanpur (IIT-Kanpur) as part of an agreement with the DARPG through a memorandum of understanding (MoU) signed in 2021. It enhances DARPG’s Centralised Public Grievance Redress and Monitoring System Information Systems (CPGRAMS) by integrating artificial intelligence (AI) capabilities. CPGRAMS is an online platform available to citizens round-the-clock to lodge their grievances to the public authorities on any subject related to service delivery.
The dashboard offers instant tabular analyses of both grievances filed and disposed of. It provides data categorised by state and district for grievances filed, and it also offers Ministry-wise data. Additionally, the dashboard can help officials identify the root causes of grievances.
The CPGRAMS portal receives an increasingly high caseload of issues raised by the general public. Given the public’s expectations for the timely resolution of their grievances, the portal receives approximately 2 million grievances annually.
Due to the substantial volume of grievances received, the manual classification and monitoring of cases is not feasible. The IGMS portal will assist the DARPG in generating draft letters for specific schemes or ministries. This automation expedites the grievance redressal process carried out by the respective ministries and departments involved.
According to Minister Singh, the Prime Minister has repeatedly emphasised the significance of grievance redressal as a crucial element to keep the government accountable and promote citizen-centric governance. In alignment with this vision, a more robust human interface mechanism has been introduced, which includes counselling services provided after the resolution of grievances.
The Minister praised DARPG for ensuring that the CPGRAMS portal is accessible in 22 Scheduled languages, in addition to English, ensuring that the benefits of the portal are accessible to the common man. He also emphasised the importance of integrating state public grievance (PG) portals and other government portals with CPGRAMS for more effective and streamlined grievance redressal processes.
He claimed that thanks to the reforms implemented by DARPG in the CPGRAMS, the average time it takes for central ministries and departments to resolve public grievances has decreased. There has been a decline of almost 50% in the average disposal time for central ministries and departments from 32 days in 2021 to 18 days in 2023.
Minister Singh also launched the Swachhata Special Campaign 3.0 and unveiled the Precedent Book (e-book) developed by the department. He praised the DARPG for achieving the transition to a fully paperless office, where all communication is conducted through the eOffice portal.
During the past two Swachhata campaigns, an impressive 9 million square feet of prime office space has been successfully cleared and repurposed for productive use. Additionally, 456,000 public grievances have been effectively redressed, and 8,998 references from Members of Parliament (MPs) have been addressed. The Swachhata campaign has also played a pivotal role in promoting an eOffice work culture within the government, resulting in over 90% of file work being transitioned to an online format.
Public transportation is a crucial service for enhancing the general satisfaction the government provides. In light of this, the Indonesian government has established high-speed rail infrastructure for Jakarta-Bandung mobility.
The Ministry of Communication and Information Technology (Kominfo) fully supports the Jakarta-Bandung High-Speed Train (KCJB) WHOOSH operation. Kominfo’s Budi Arie Setiadi expressed continuous monitoring for the availability and reliability of digital connectivity, particularly telecommunications networks along the first high-speed rail route in Indonesia.
“We, along with the telecommunications ecosystem, conducted tests. Kominfo is tasked with supporting signal-related issues. We assessed the signal quality along our journey and found that we could use devices and frequencies for communication,” he explained.
Minister Budi Arie emphasised that KCJB, as a technological leap for Indonesia’s progress, needs full support from the latest telecommunications technology. With advancements in transportation paralleled by digital technology, it will undoubtedly facilitate more efficient access for the public.
“This is a technological leap for Indonesia’s progress. Because this train is solid, the tracks are seamless, and the signal is robust. Our duty and responsibility are to support it,” he added.
Kominfo assured that the quality of telecommunications services would sustain the overall KCJB service. According to them, the journey from KCJB Halim Station to KCJB Padalarang Station and vice versa proceeded smoothly.
“Overall, the management and governance of the high-speed train are excellent,” he noted.
At this trial event, Minister Budi Arie Setiadi was joined by Deputy Minister of Kominfo Nezar Patria and senior officials from the Ministry of Communication and Information Technology. Minister Budi Arie encouraged the telecommunications service provider network to oversee and guarantee the quality of the network.
Ismail, the Director-General of Resources and Equipment of Posts and Information Technology at Kominfo, explained that the test conducted by Kominfo officials and telecommunications service providers is part of the initial process to support digital connectivity for KCJB. Kominfo has prepared radio frequency spectra for quality telecommunications signal transmission.
“And, fortunately, the signal used, or the frequency used, is now in collaboration with one of the biggest telecommunication companies in Indonesia. This cooperation began about two or three years ago. And, thank God, we witnessed today that the train’s communication system worked well. No signal interruptions,” he stated.
Director-General Ismail states that 5G telecommunication networks are available at Halim KCJB Station and Padalarang KCJB Station. This network supports connectivity and signifies that Indonesia is ready for full-scale and comprehensive digital transformation, even in minor details.
“For these two station locations here (Halim) and in Padalarang, the 5G signal has already been covered. Passengers at these stations can now enjoy 5G services. The remaining task is to improve the signal for passengers during the journey. So, from Jakarta to Padalarang and Bandung, we hope there will be no frequency or cellular signal interruptions,” he explained.
Next, Henry Mulya Syam, the President and Director of the Telecommunication company, stated that they would address several remaining telecommunications service challenges at various points along the KCJB route.
“There are several sites to be added, both outdoor and on the KCJB panel. We have conducted evaluations, so hopefully, within 6 to 9 months, because new towers need to be built,” he clarified.
Previously, together with President Joko Widodo and several members of the Indonesia Maju Cabinet, Minister of Communication and Information Technology Budi Arie Setiadi conducted a test journey on the KCJB from Halim Station, East Jakarta, to Padalarang Station, West Bandung Regency. The KCJB, WHOOSH, travels 350 kilometres per hour, making it the first high-speed train in Indonesia and Southeast Asia.
Oak Ridge National Laboratory (ORNL) has introduced the Centre for AI Security Research (CAISER) to confront the existing threats stemming from the widespread adoption of artificial intelligence by governments and industries worldwide. This move concedes the potential benefits of AI in data processing, operational streamlining, and decision-making while acknowledging the associated security challenges.
ORNL and CAISER will collaborate with federal agencies such as the Air Force Research Laboratory’s Information Directorate and the Department of Homeland Security Science and Technology Directorate. Together, they will conduct a comprehensive scientific analysis to assess the vulnerabilities, threats, and risks associated with emerging and advanced artificial intelligence, addressing concerns ranging from individual privacy to international security.
Susan Hubbard, Deputy for Science and Technology at ORNL, emphasised this endeavour, “Understanding AI vulnerabilities and risks represents one of the most significant scientific challenges of our time. ORNL is at the forefront of advancing AI to tackle critical scientific issues for the Department of Energy, and we are confident that our laboratory can assist DOE and other federal partners in addressing crucial AI security questions, all while providing valuable insights to policymakers and the general public.”
CAISER represents an expansion of ORNL’s ongoing Artificial Intelligence for Science and National Security initiative, which leverages the laboratory’s unique capabilities, infrastructure, and data to accelerate scientific advancements.
Prasanna Balaprakash, Director of AI Programmes at ORNL, emphasised that AI technologies substantially benefit the public and government. CAISER aims to apply the lab’s expertise to comprehensively understand threats and ensure AI’s safe and secure utilisation.
Previous research has highlighted vulnerabilities in AI systems, including the potential for adversarial attacks that can corrupt AI models, manipulate output, or deceive detection algorithms. Additionally, generative AI technologies can generate convincing deepfake content.
Edmon Begoli, Head of ORNL’s Advanced Intelligent Systems section and CAISER’s founding director emphasised the importance of addressing AI vulnerabilities. CAISER aims to pioneer AI security research, developing strategies and solutions to mitigate emerging risks.
CAISER’s research endeavours will provide federal partners with a science-based understanding of AI risks and effective mitigation strategies, ensuring the reliability and resilience of AI tools against adversarial threats.
They provide educational outreach and disseminate information to inform the public, policymakers, and the national security community.
CAISER’s initial focus revolves around four national security domains aligned with ORNL’s strengths: AI for cybersecurity, biometrics, geospatial intelligence, and nuclear nonproliferation. Collaboration with national security and industry partners is critical to these efforts.
Col Fred Garcia, Director of the Air Force Research Laboratory (AFRL) Information Directorate, expressed confidence in CAISER’s role in studying AI vulnerabilities and safeguarding against potential threats in an AI-driven world.
Moreover, as ORNL celebrates its 80th anniversary, CAISER embodies the laboratory’s commitment to solving complex challenges, advancing emerging scientific fields, and making a global impact. With its established cybersecurity and AI research programmes, ORNL is well-suited to pioneer AI security research through CAISER.
Moe Khaleel, Associated Laboratory Director for National Security Sciences at ORNL, highlighted the laboratory’s legacy of scientific discovery in various fields and emphasised CAISER’s role in scientifically observing, analysing and evaluating AI models to meet national security needs.
Rehabilitation services have gained increasing significance, as highlighted by Deputy Prime Minister Heng Swee Keat during RehabWeek 2023. The demand for rehab services is growing worldwide due to an ageing population and a rising incidence of chronic diseases. To meet this demand and improve outcomes, the field of rehabilitation is embracing innovation, particularly through advancements in technology, robotics, and digitalisation.
Rehabilitation plays a crucial role in enabling individuals, regardless of age, to regain independence and participate meaningfully in daily life. With the World Health Organisation estimating that 1 in 3 people globally may benefit from rehab services, the importance of this field cannot be overstated.
Beyond individual well-being, rehabilitation contributes to productive longevity and reduces downstream medical costs when integrated into holistic care plans. Thus, it aligns with the United Nations Sustainable Development Goal of “healthy lives and well-being for all at all ages.”
Deputy Prime Minister Heng shared his personal experience as a stroke survivor, emphasising the pivotal role that therapists and early rehabilitation played in his recovery journey. Early rehab interventions were instrumental in mitigating the debilitating effects of extended bed rest in the ICU. Dedicated therapists, combined with intensive rehab, enabled him to regain full functionality, underscoring the transformative potential of rehabilitation services.
Innovations in rehabilitation leverage broader trends like robotics and digitalisation. These innovations offer precision rehabilitation, tailoring treatment plans to individual needs. They also mitigate manpower constraints by augmenting human efforts with technology.
For instance, robotics-assisted physiotherapy and games-based cognitive exercises are becoming increasingly prevalent. Moreover, virtual rehabilitation has gained prominence during the COVID-19 pandemic, enhancing convenience and empowering patients to take charge of their rehab journeys from home.
Many societies are facing the dual challenge of an ageing population and a declining workforce to provide rehabilitation services. Technology is critical in augmenting these efforts to meet growing demand. Innovations in rehabilitation enhance its effectiveness and accessibility, ensuring that patients follow through with and benefit from rehab programs.
Singapore is at the forefront of innovative rehabilitation practices. Its acute hospitals offer excellent rehab care services and conduct research to improve care. Notably, Tan Tock Seng Hospital is a pioneer in rehabilitation medicine. Changi General Hospital houses the Centre for Healthcare Assistive and Robotics Technology (CHART), facilitating the synergy between clinical needs and technological innovation.
The One-Rehab Framework is a recent innovation in Singapore, ensuring timely access to rehabilitation care. This framework enables seamless care coordination across different settings and care team members through a common IT portal and harmonised clinical outcomes. It streamlines the sharing of relevant patient information and encourages right-siting of care within the community, reducing the burden on acute hospitals.
According to Deputy Prime Minister Heng, RehabWeek serves as a platform for delegates with diverse expertise and a shared commitment to advancing rehabilitation care. It encourages the sharing of best practices and useful technologies to strengthen collective impact, especially when addressing global challenges.
Singapore stands ready to collaborate with international partners, offering its strong ecosystem in research, innovation, and enterprise to advance the field of rehabilitation for the benefit of people worldwide.
He added that rehabilitation is evolving and embracing technological innovations to meet the increasing demand for its services, especially in ageing societies. “Collaboration, innovation, and a focus on the last-mile delivery of care are crucial for ensuring that individuals can live well and maximise their potential through effective rehabilitation,” Deputy Prime Minister Heng said. “Singapore’s commitment to these principles makes it a valuable partner in advancing the frontiers of rehabilitation on a global scale.”
The Vietnamese government has said that digital transformation and green transformation are inevitable global trends. They have a crucial role in enhancing economic growth, labour productivity, competitiveness, production, and business efficiency. They also reduce reliance on fuel sources that cause pollution and minimise carbon footprint.
To discuss digital and green transformation for sustainable development and to foster networking opportunities for businesses to accelerate their green transitions, the Ministry of Science and Technology held a forum in the northern province of Quang Ninh.
Domestic and international scientists, along with representatives from organisations and technology companies, deliberated on strategies to speed up green and digital transformations. They underscored the importance of advancing technological innovation and implementing reforms in human resource management, training, and quality enhancement to create new products and processes. This, in turn, will boost business value, aid in the delivery of better goods and services to society, and expedite Vietnam’s industrialisation and modernisation processes.
Participants suggested the establishment of a support mechanism for industries implementing green and digital transformation solutions in Vietnamese businesses. They also stressed that it is necessary to promote Horizon Europe’s international cooperation programme on joint research and innovation for Vietnam and have comprehensive digital transformation solutions for businesses.
During the forum, Quang Ninh province representatives, the Vietnam Union of Science and Technology Associations (VUSTA), businesses, and organisations exchanged memoranda of understanding regarding collaboration in the domains of digital transformation and green transformation.
Vietnam has been introducing emerging technologies in the agricultural sector to promote sustainable growth. Earlier this year, the government announced plans to introduce artificial intelligence (AI) for the optimisation of farming practices, including weather prediction, monitoring of plant and livestock health, and enhancing product quality.
AI can improve crop productivity and help control pests, diseases, and cultivation conditions. It can improve the performance of farming-related tasks across food supply chains. Advancements in the manufacturing of AI-controlled robots are assisting farmers worldwide in utilising less land and labour while simultaneously boosting production output.
Vietnam’s commitment to technological advancements in agriculture extends beyond AI, as highlighted by the government’s plans to harness biotechnology. In September, the Politburo issued a resolution under which Vietnam aims to be among the top ten Asian countries in biotechnology production and services by 2030.
As OpenGov Asia reported, the biotechnology sector is on the verge of becoming a significant economic and technological industry, with an expected 50% rise in the number of companies in terms of investment size and growth rate. Additionally, it is projected that half of the imported biotechnology products will be substituted by domestic production. This sector is anticipated to make a 7% contribution to the Gross Domestic Product (GDP).
Vietnam aims to establish a thriving biotechnology sector by 2045, positioning itself as a prominent centre for smart production, services, biotechnology startups, and innovation in Asia. This sector is expected to contribute 10% to 15% to the GDP by that year.
As a result of its tropical climate and its economic shift away from agriculture, biotechnology plays a vital role in Vietnam’s industrialisation and modernisation efforts. It contributes significantly to ensuring food security, facilitating economic restructuring, and promoting sustainable development. Furthermore, in environmental conservation, biotechnology has brought forth numerous solutions. These include the breakdown of inorganic and organic pollutants, waste treatment, industrial waste processing, and the use of microorganisms to address oil spills and incidents of oil contamination.
Vietnam can focus on developing various aspects within the biotechnology sector, such as agricultural advancements in crop and animal breeding, manufacturing veterinary drugs, developing vaccines, and creating bio-fertilizers.