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Great potential was demonstrated by a biopsy needle in reducing the risk of dangerous brain bleeds in patients undergoing brain biopsy as it has undergone initial tests on humans.
According to a recent report, the ‘imaging needle’ can help surgeons identify and avoid blood vessels in the brain during surgery.
A team of researchers and clinicians, led by the University of Adelaide, describe how the tiny imaging needle can detect blood vessels with a very high degree of accuracy, 91.2% sensitivity and 97.7% specificity.
Published in the journal Science Advances, the researchers describe how they produced the imaging device with a tiny fibre-optic camera encased within a brain biopsy needle.
Led by researchers from the ARC Centre of Excellence for Nanoscale BioPhotonics and the University of Adelaide’s Institute for Photonics and Advanced Sensing, the project is a collaboration with Sir Charles Gairdner Hospital.
The project originated out of work undertaken at the University of Western Australia.
Brain biopsies are a common procedure carried out to diagnose brain tumour and other diseases. It is a minimally invasive operation, but still carries the risk of damage to blood vessels that is potentially fatal.
The imaging needle allows the surgeons ‘see’ at-risk blood vessels as they insert the needle, allowing them to avoid causing bleeds.
The fibre-optic camera, having the size of a human hair, shines infrared light onto the brain tissue. The computer system behind the needle will then identify the blood vessel and alerts the surgeon.
An initial validation with 11 patients at Sir Gairdner Hospital in Western Australia has been done by the imaging needle.
The patients were undergoing other types of neurosurgery and consented to allow the team to safely test how well the imaging needle was able to detect blood vessels during surgery.
This is the first reported use of such a probe in the human brain during live surgery. Moreover, it is the first step in the long process required to bring new tools like this into clinical practice.
Bleeds are a risk in many types of neurosurgery and there is a great opportunity for new technologies like this to help reduce those risks.
To have a tool that can see blood vessels, as one proceeds through the brain, would open up new vistas of things that can be done with neurosurgery.
These things are usually those that people do not currently trust their own hands to do.
The Institute for Photonics and Advanced Sensing (IPAS) has been created to bring together experimental physicists, chemists, material scientists, biologists, experimentally driven theoretical scientists and medical researchers to create new sensing and measurement technologies.
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In a remarkable leap forward in the field of neuroscience, researchers at the Indian Institute of Technology, Guwahati (IIT Guwahati) have introduced a groundbreaking algorithm known as the Unique Brain Network Identification Number (UBNIN). This innovative algorithm is poised to revolutionise the analysis of brain connectivity patterns, offering profound insights into both healthy brain function and neurological disorders such as Parkinson’s disease (PD).
The human brain, with its intricate network of neural connections, is a marvel of complexity. Each individual possesses a unique pattern of brain connectivity, akin to a fingerprint of the mind. Recognising the significance of these individualised brain networks, the researchers at IIT Guwahati set out to develop a method capable of decoding and quantifying these intricate patterns.
The UBNIN algorithm represents a paradigm shift in how we understand and analyse brain connectivity. Drawing upon data from structural MRI scans, the algorithm constructs a network model of the brain, with each region of the brain represented as a node. These nodes are interconnected by edges, reflecting the strength of connectivity between different brain regions.
What sets UBNIN apart is its ability to distil this complex network into a single numerical identifier. This unique identifier, akin to a digital signature for the brain, encapsulates the individualised connectivity patterns of each person. By quantifying these patterns into numerical values, UBNIN offers a powerful tool for understanding the structural organisation of the brain.
The implications of UBNIN are far-reaching. One potential application lies in the realm of brainprinting, where individual brain signatures could be used for identification purposes. Much like a fingerprint uniquely identifies an individual, UBNIN could serve as a digital identifier for the brain, with applications in personalised medicine, biometrics, and cognitive neuroscience.
Moreover, UBNIN holds promise as a biomarker for neurological disorders such as Parkinson’s disease. Parkinson’s is a progressive neurodegenerative disorder characterised by the loss of dopaminergic neurons in the brain. Early detection of Parkinson’s is crucial for initiating timely interventions and improving patient outcomes. By analysing changes in UBNIN values over time, researchers may be able to identify subtle alterations in brain connectivity associated with the onset and progression of Parkinson’s disease.
To validate the utility of UBNIN as a biomarker for Parkinson’s disease, researchers conducted a comprehensive study involving structural MRI scans from both PD patients and healthy individuals. The results were promising, with UBNIN values exhibiting distinct patterns in PD patients compared to healthy controls. This suggests that UBNIN has the potential to serve as a sensitive and specific biomarker for Parkinson’s disease, offering new avenues for early diagnosis and disease monitoring.
Furthermore, the researchers explored the impact of age on brain connectivity patterns. Aging is associated with changes in brain structure and function, which may contribute to the development of neurological disorders. By analysing structural MRI data from individuals across different age groups, the researchers found that brain connectivity patterns indeed change with age. Specifically, they observed a decrease in the clustering coefficient—a measure of network connectivity—with increasing age. These findings provide valuable insights into the dynamic nature of brain plasticity and aging.
Dr. Cota Navin Gupta, Assistant Professor at the Neural Engineering Lab, Department of Biosciences and Bioengineering, IIT Guwahati, commented on the significance of these findings. “UBNIN offers a unique window into the structural organisation of the brain,” he remarked. “By quantifying individualised brain connectivity patterns, UBNIN has the potential to transform our understanding of brain function and dysfunction.”
Looking ahead, the researchers envision further applications of UBNIN in diverse fields, ranging from personalised medicine to cognitive neuroscience. By harnessing the power of UBNIN, researchers may unlock the mysteries of the human brain, paving the way for new insights into neurological disorders and brain health.
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Bushfires represent one of the most formidable challenges faced by firefighters worldwide. With their unpredictable behaviour and rapid spread, combating these blazes demands innovative solutions to ensure the safety of both responders and communities at risk. In a groundbreaking initiative, researchers are harnessing the power of robotics to revolutionise bushfire response, paving the way for more effective firefighting strategies and enhanced situational awareness.
At the heart of this endeavour lies the Silvanus Project, an ambitious international collaboration aimed at developing ground robots capable of navigating fire fronts and gathering crucial data in real-time. Led by researchers from Data61’s Queensland Centre for Advanced Technologies, this project represents a pioneering effort to address the inherent dangers associated with traditional firefighting methods.
Bushfires, fueled by factors such as vegetation density and weather conditions, can escalate rapidly, outpacing conventional firefighting techniques. To stay ahead of the inferno, firefighters require accurate information about fire location, direction of spread, and potential hazards. However, obtaining such data often entails placing personnel in hazardous environments, risking their safety in the process.
Drones have emerged as a promising tool for aerial reconnaissance, offering valuable insights into fire behaviour from above. However, their effectiveness is limited by factors such as smoke interference, high winds, and restricted flight times. Recognising these limitations, researchers turned their focus to ground-based solutions, envisioning robots capable of operating in the most challenging of conditions.
The ground robots developed as part of the Silvanus Project are equipped with advanced sensors and navigation systems, allowing them to traverse rugged terrain and navigate through smoke and debris. Some robots are designed to move on legs, mimicking the mobility of insects, while others utilise tracks for increased stability and manoeuvrability. These robots venture into the heart of the fire, gathering critical data such as fire intensity, fuel availability, and environmental conditions.
During a demonstration conducted for fire service representatives and researchers, the capabilities of these ground robots were showcased, highlighting their potential to transform firefighting operations. With the ability to transmit data in real-time to a cloud-based platform, these robots provide firefighters with unprecedented situational awareness, enabling more informed decision-making and proactive firefighting strategies.
Senior experimental scientist Tom Lowe emphasises the significance of these ground robots in enhancing firefighter safety and operational effectiveness. By deploying robots into areas deemed too hazardous for human intervention, firefighters can access vital information without exposing themselves to unnecessary risks. Furthermore, the integration of remote sensing technologies allows robots to assess vegetation density and predict fuel availability, further aiding in fire suppression efforts.
While the technology is still in the developmental stage, researchers are optimistic about its potential impact on future firefighting practices. Navinda Kottege, Cyber-Physical Systems Research Director, underscores the life-saving potential of ground robots, particularly in high-risk firefighting scenarios where human intervention may be impractical or unsafe.
The Silvanus Project represents a collaborative effort involving researchers from across Europe, Australia, Indonesia, and Brazil, united in their mission to develop innovative solutions for forest management and fire prevention. By harnessing the power of robotics and cutting-edge technologies, this initiative aims to bolster preparedness and response capabilities, ultimately saving lives and protecting communities from the devastating impact of bushfires.
As ground robots continue to evolve and mature, fueled by ongoing research and international collaboration, the vision of leveraging technology to mitigate the impact of bushfires grows ever closer to reality. With each technological advancement, firefighters gain new tools and capabilities to confront one of nature’s most formidable adversaries, ensuring a safer and more resilient future for all.
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CSIRO successfully delivered an innovative 3D mapping technology package to the International Space Station (ISS). This cutting-edge system marks a pivotal advancement in space technology, promising to revolutionise navigation and task execution aboard the orbiting laboratory.
As space exploration expands, the need for efficient inventory tracking, damage assessment, and emergency response in off-Earth environments becomes more evident. With lunar and Martian missions looming, where crew time is limited and some facilities may be uncrewed, the demand for accurate autonomous systems is critical. Additionally, rovers and robots exploring extraterrestrial terrain rely on precise mapping data for effective navigation.
In response to these challenges, CSIRO has developed a fused sensor system for autonomous 3D scanning in collaboration with an international air and space tech company, NASA Ames Research Centre, and the ISS National Laboratory. Originally designed for terrestrial applications like remote mine site access, this technology is now set to be demonstrated aboard the International Space Station (ISS).
The multi-resolution scanning payload will be integrated into an Astrobee robot platform, which supports astronaut activities on the ISS. This marks the first time a single piece of technology will utilise both payload bays of an Astrobee robot simultaneously.
Once deployed on the ISS, the multi-resolution scanner will conduct experiments, including full internal scans, beginning with the Japanese experimental module (Kibō). The data collected will support tasks such as inventory analysis, traditionally requiring human intervention, demonstrating the potential for autonomous caretaker functions on uncrewed spacecraft.
The culmination of extensive research and collaboration, this groundbreaking payload is poised to enhance the efficiency and safety of astronauts working on the ISS. Integrated into Astrobee, a versatile robot platform developed by NASA, the 3D mapping device is primed to generate detailed three-dimensional maps of the space station, surpassing previous mapping capabilities with unprecedented accuracy.
Dr. Marc Elmouttie, Research Group Leader at CSIRO, highlighted the overarching goal of this mission, stating, “Our objective is to demonstrate the efficacy of our technology in providing enhanced 3D sensing and mapping for robotics systems on spacecraft.”
This advanced mapping capability holds immense potential for streamlining operations within the ISS, enabling precise tracking of inventory movement and facilitating optimal planning of onboard activities for astronauts and mission controllers.
The technology behind this groundbreaking payload combines two pioneering CSIRO innovations – Stereo-Depth Fusion and Wildcat Simultaneous Localisation and Mapping. This synergy produces high-quality data about the surrounding environment and the device’s movements in space, offering unparalleled insights into spatial dynamics within the ISS.
Developed in collaboration with an international air and space tech company, with support from the ISS National Laboratory and NASA Ames Research Centre, this project underscores CSIRO’s commitment to innovation in remote operations and aerospace manufacturing. Leveraging its expertise in these domains, CSIRO aims to propel space exploration into new frontiers by advancing the capabilities of robotic systems in space environments.
Dr. Ryan Reeves, Technical Director of Research and Innovation for the ISS National Laboratory, emphasised the significance of testing such innovative technologies in low Earth orbit. He noted that these endeavours play a crucial role in shaping the future of space commerce and exploration, driving advancements that will pave the way for unprecedented scientific breakthroughs.
With the successful delivery of the 3D mapping payload to the ISS, the stage is set for a new era of space exploration. The device’s integration into the Astrobee platform marks the beginning of extensive experimentation and validation of its capabilities in the unique microgravity environment of the space station.
As the payload undergoes its first experimentation run in the Japanese Kibō module, anticipation runs high among scientists and engineers involved in the project. This milestone achievement represents a collaborative triumph in space technology, underlining the collective efforts of CSIRO, NASA and the international air and space tech company in advancing the frontiers of human knowledge and exploration beyond Earth’s boundaries.
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In a landmark collaboration aimed at advancing healthcare through digital innovation, technology, and artificial intelligence (AI), the City University of Hong Kong (CityUHK) and the Shenzhen Hospital of Southern Medical University (SMU) have forged a strategic cooperation framework agreement. Signed on March 20th, 2024, this agreement signifies a pivotal step towards fostering joint scientific research, technology transformation, and talent cultivation, with a particular emphasis on cutting-edge fields such as digital medicine, computer science, and biomedical engineering.
The signing ceremony, held at CityUHK and attended by esteemed dignitaries including Professor Liu Shuwen, Vice-President of SMU, and Professor Freddy Boey, President of CityUHK, underscored the commitment of both institutions to collaborative innovation in healthcare. President Boey expressed enthusiasm about the partnership, highlighting the potential for joint development and cooperation in life sciences and technological advancements.
He emphasised the establishment of the Institute of Digital Medicine at CityUHK as a key initiative that will leverage clinical resources from Shenzhen Hospital of SMU to drive research and projects, particularly in areas such as cell therapy and gene therapy.
Professor Liu echoed President Boey’s sentiments, noting CityUHK’s distinguished reputation and expertise across various research domains. He underscored the significance of the collaboration in deepening cooperation between the affiliated hospital of SMU and a leading university in Hong Kong. By pooling resources and expertise, the partnership aims to advance medical services in Hong Kong, Macao, Shenzhen, and beyond. Through joint efforts, both institutions aspire to provide international standard medical services, enhancing healthcare outcomes and fostering academic excellence in the region.
The strategic cooperation framework extends beyond research collaboration to encompass platform and resource sharing, joint academic programs, and the promotion of scientific research initiatives. These efforts are geared towards enhancing healthcare delivery, facilitating knowledge exchange, and driving innovation in medical practice. By leveraging digital health technologies and AI-driven solutions, the collaboration seeks to revolutionise healthcare delivery, improve patient outcomes, and address the evolving challenges of modern medicine.
Furthermore, the agreement aims to promote internationalisation and cooperation between Shenzhen and Hong Kong, aligning with broader efforts to strengthen ties and foster innovation in the Greater Bay Area. Through joint initiatives, such as the establishment of science and technological innovation platforms at the provincial and municipal levels, the collaboration aims to create synergies and opportunities for cross-border collaboration. By harnessing the collective strengths of both institutions, the partnership aims to position Shenzhen and Hong Kong as hubs for scientific research, technological innovation, and healthcare excellence.
In addition to fostering academic collaboration, the partnership emphasises practical outcomes and real-world impact. Through technology transfer and collaborative research projects, both CityUHK and Shenzhen Hospital of SMU seek to translate scientific discoveries into tangible solutions that benefit patients and communities. The agreement also facilitates academic exchanges, enabling researchers and healthcare professionals to share knowledge, expertise, and best practices.
Overall, the strategic cooperation framework agreement between CityUHK and Shenzhen Hospital of SMU represents a significant milestone in advancing healthcare innovation in the Greater Bay Area and beyond. By harnessing digital health, technology, and AI-driven solutions, the collaboration aims to address the complex challenges facing modern healthcare and pave the way for a more sustainable, resilient, and patient-centric healthcare system.
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In a significant advancement in health technology, scientists at Nanyang Technological University, Singapore (NTU Singapore), have unveiled a revolutionary device capable of rapidly isolating blood plasma with unparalleled precision. Named ExoArc, this coin-sized chip offers a transformative alternative to the cumbersome and time-consuming multi-step centrifugation process currently used in diagnostics and precision medicine.
ExoArc’s innovation lies in its ability to directly isolate blood plasma from a tube of blood in just 30 minutes, eliminating the need for labour-intensive centrifugation. By leveraging unique flow phenomena in tiny channels within the chip, ExoArc achieves high plasma purity, removing over 99.9% of blood cells and platelets precisely and gently.
This breakthrough technology accelerates the clinical analysis of cell-free DNA, RNA molecules, and extracellular vesicles, which are vital for screening biomarkers indicative of various cancers and diseases.
Traditionally, blood plasma isolation has relied solely on centrifugation, a method prone to residual cell contamination and time-sensitive processing constraints. Even after multiple centrifugation rounds, lingering biological cells can compromise the accuracy of diagnostic tests, prolonging waiting times for results and exacerbating patient anxiety.
ExoArc’s streamlined process significantly reduces contamination risks, enabling quicker and more precise diagnoses, particularly crucial in cancer treatment and disease management.
To validate ExoArc’s efficacy, a portable prototype device was developed in collaboration with clinician-scientists from the National Cancer Centre Singapore (NCCS), Tan Tock Seng Hospital (TTSH), and the Agency for Science, Technology and Research (A*STAR). Clinical validation demonstrated ExoArc’s ability to diagnose non-small cell lung cancer with a sensitivity of 90%, highlighting its potential for real-world applications.
Furthermore, ExoArc’s versatility extends beyond cancer diagnostics, as demonstrated in studies involving microRNA analysis in individuals with type 2 diabetes mellitus. By identifying distinct microRNA profiles, ExoArc holds promise in identifying disease-related biomarkers and driving precision medicine initiatives, offering tailored treatments and improving patient outcomes.
In contrast to conventional centrifugation methods, ExoArc’s compact size and scalability present a transformative approach to blood plasma isolation. Its one-step process reduces processing time and operator variability, paving the way for automated and standardised diagnostic procedures. Moreover, ExoArc’s potential for scaling up through multiple channels ensures faster and more consistent plasma isolation, with future automation promising further efficiency gains and cost reductions.
Supported by a Proof-of-Concept and Proof-of-Value grant from the NTUitive Gap Fund, ExoArc epitomises NTU’s commitment to translating research into practical innovations with societal impact. With contributions from esteemed institutions such as the Massachusetts Institute of Technology and the University of Texas Medical Branch (Galveston), ExoArc’s development underscores collaborative efforts in advancing healthcare technology.
ExoArc represents a significant leap forward in health technology, offering a paradigm shift in blood plasma isolation for diagnostics and precision medicine. As ExoArc continues to evolve, its potential to enhance patient care and drive medical advancements holds promise for a healthier future globally.
NTU Singapore has positioned itself at the vanguard of deploying cutting-edge technology within the healthcare sector, striving relentlessly to pioneer advancements that not only enhance patient outcomes but also revolutionise the overall healthcare experience.
OpenGov Asia reported that a team of researchers from NTU Singapore developed WellFeet, a mobile application designed to provide comprehensive support for individuals living with diabetes. WellFeet educates patients and caregivers about the disease while assisting them in monitoring medication adherence, physical activity, and dietary habits, addressing the myriad challenges associated with diabetes management.
WellFeet offers tech-enabled support for individuals with diabetes and their caregivers, serving as a vital source of empowerment and assistance. As Singapore tackles its diabetes epidemic, initiatives like WellFeet pave the way for transformative healthcare solutions with the potential to change lives.
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Living with diabetes presents a myriad of challenges, from managing blood sugar levels to preventing complications like diabetic foot ulcers (DFUs). Recognising the critical need for comprehensive support for individuals grappling with this chronic condition, a team of researchers led by Nanyang Technological University, Singapore (NTU Singapore), has developed a groundbreaking mobile application: WellFeet.
This innovative app not only educates diabetic patients and their caregivers about the disease but also assists them in monitoring crucial aspects of their daily lives, including medication adherence, physical activity, and dietary habits.
Diabetes is a prevalent health concern worldwide, with Singapore grappling with its diabetes epidemic. Approximately 8.5% of Singapore residents, translating to roughly 32,000 individuals, are affected by this condition. Among the complications associated with diabetes, diabetic foot ulcers pose a significant threat.
These ulcers occur in approximately one-third of diabetic patients and, if left untreated, can lead to lower limb amputations and increased mortality risks. Moreover, the recurrent nature of DFUs often imposes substantial financial burdens on patients due to ongoing medication and surgical expenses.
WellFeet, an app conceived in collaboration with clinicians from Tan Tock Seng Hospital and National Healthcare Group, aims to address this. Its primary objective is to tackle the pervasive issue of diabetic foot ulcers by empowering patients and caregivers with essential knowledge and tools to prevent and manage this complication effectively.
The development process involved rigorous testing and evaluation, with 40 patient-caregiver pairs from Tan Tock Seng Hospital participating in a month-long trial. The results were promising, with participants reporting positive changes in foot care behaviour and diabetes management routines.
WellFeet’s impact extended beyond the confines of a single institution. As part of the “Preventing Limb Losses in Singapore” research project, an additional 835 patients and caregivers from various healthcare institutions across Singapore were enlisted to test the app. This larger-scale initiative aimed to assess current foot care practices among individuals living with diabetes and their caregivers, further validating WellFeet’s potential to revolutionise diabetic care on a national scale.
What sets WellFeet apart from existing applications is its comprehensive approach to patient education. While many apps focus solely on tracking ulcer progression, WellFeet goes above and beyond by offering animated educational content in English, Mandarin, Malay, and Tamil. This multilingual feature caters to Singapore’s diverse population and ensures that crucial foot care information is accessible to all.
Associate Professor Andy Ho Hau Yan, the project’s principal investigator, underscored the app’s role in enhancing health literacy and instigating behaviour change among diabetes patients and caregivers. He emphasised WellFeet’s unique value proposition – a DFU-specific training programme delivered via mobile devices, promising scalability and cost-effectiveness.
Dr Liew Huiling, an endocrinologist at Tan Tock Seng Hospital, lauded WellFeet’s transformative impact on diabetes care. She highlighted the app’s scalability and proven efficacy in improving health outcomes, underscoring its role as a comprehensive monitoring tool that consolidates essential health aspects into a user-friendly interface.
WellFeet plans to integrate AI and health coaching features allowing the app to offer even more personalised and timely support to users. Its impending public release in mid-2024 signifies a significant milestone in Singapore’s ongoing battle against diabetes, promising accessible, evidence-based foot care education tailored to the needs of the local population.
WellFeet offers tech-enabled hope for individuals living with diabetes and their caregivers, offering not just a digital tool but a lifeline – a source of empowerment and support in their journey towards better health and well-being. As Singapore continues to grapple with its diabetes epidemic, initiatives like WellFeet pave the way for innovative solutions that have the potential to transform lives and shape the future of healthcare.
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In the dynamic landscape of modern healthcare, the fusion of technology, art, and design is proving to be a catalyst for innovation, particularly in fields like Biomedical Engineering. At the forefront of this convergence is the Research and Community Service Institute (LPPM) of Bandung Institute of Technology (ITB), Indonesia’s oldest technology institution.
Through its recent endeavours, such as the 4th edition of the Art+Technology Dialogue, ITB is showcasing the transformative potential of interdisciplinary collaborations in advancing health technology solutions for a healthier future.
Central to this dialogue is the perspective shared by Allya Paramita Koesoema, ST, MT, PhD, from ITB’s School of Electrical and Informatics Engineering (STEI), who highlights the intrinsic link between Biomedical Engineering, technology, and the human experience. Koesoema underscores that technology should serve humanity, not the other way around, emphasising the importance of leveraging innovation to enhance human well-being.
Biomedical Engineering, as elucidated by Koesoema, represents a synergy of engineering, science, and health sciences. Through collaborative efforts, this fusion has led to groundbreaking advancements in healthcare technology, spanning bioelectronics, Artificial Intelligence (AI), and robotics. However, Koesoema acknowledges that while functionality is paramount, aesthetics and user-friendliness are equally crucial in maximising the impact of these innovations.
Recognising this need, ITB is spearheading initiatives to bridge the gap between technology and design, thereby optimising health technologies for improved healthcare outcomes and quality of life. This entails fostering collaboration between art, design, and engineering disciplines to ensure that innovations are not only functional but also aesthetically pleasing and culturally relevant.
Illustrating this approach is the development of the “Sahabat Bunda” (Mother’s Friend) mobile health application, a collaborative project focused on maternal and child health. Tailored to local needs, the application features three modules for midwives, mothers, and policymakers. Through iterative design processes and user feedback, the Sahabat Bunda application exemplifies how technology, art, and design converge to address societal health challenges effectively.
Moreover, ITB’s commitment to innovation extends beyond digital solutions. The integration of non-digital media, such as the “Bunda Cermat” (Careful Mother) board game, underscores a holistic approach to healthcare. By incorporating elements of family financial literacy, this initiative not only enhances health outcomes but also empowers communities through education and awareness.
Similarly, the “Kapan Ya Bu?” (When, Mom?) toolkit serves as a vital resource for mothers, aiding in the tracking of pregnancy and child development milestones. Through continuous refinement and adaptation, these projects exemplify ITB’s dedication to developing inclusive, culturally sensitive health solutions that evolve with the needs of the community.
Nevertheless, navigating the complexities of multidisciplinary collaboration poses challenges, as highlighted by Koesoema. Diverse backgrounds among team members necessitate a cohesive approach to unite resources effectively. By embracing a sustainable co-design process, ITB aims to harness the collective expertise of art, design, and engineering to drive meaningful impact in healthcare innovation.
ITB’s endeavors underscore the transformative potential of interdisciplinary collaborations in addressing pressing healthcare challenges. Through the convergence of technology, art, and design, ITB is pioneering holistic approaches to health innovation, ultimately striving towards a healthier future for all.
At the forefront of innovation and digital development, Bandung Institute of Technology (ITB) is pioneering groundbreaking solutions that integrate technology across fields to address complex societal challenges in healthcare and beyond.
OpenGov Asia reported on the collaboration between the Postgraduate School of Geological Engineering at Bandung Institute of Technology (ITB), the Geological Engineering Student Association “GEA” (HMTG “GEA”), and the Indonesian Association of Geologists (IAGI) that showcased advancements in sensing technology, emphasising its pivotal role in data-driven exploration, inventory, and management of natural resources in Indonesia.