5 Minute Healthtech Jargon Buster: Digital Twins in Healthcare
- Romilly Life Sciences

- Sep 30, 2024
- 6 min read
Updated: Oct 30, 2024
by Saoirse Wilson, Research and Communications Associate
In the age of rapid technological advancement, the concept of digital twins has emerged as a groundbreaking innovation with significant potential to transform various industries, including healthcare. A digital twin is a virtual replica of a physical object, process, or system that is created and then updated using real-time data and sophisticated algorithms. These digital counterparts can simulate, predict, and optimise the performance of their physical counterparts.
Iqbal et. al. (2023) Towards Healthcare Digital Twin Architecture
In healthcare, a digital twin could be a model of a patient's body or a specific organ, enabling healthcare professionals to monitor and simulate health conditions, treatments, and outcomes with remarkable precision. A digital twin can also be a model of a medical device, or an entire hospital to monitor its function.
Applications in Healthcare Systems
The UK National Health Service (NHS), with its vast and complex healthcare system, stands to benefit enormously from digital twin technology. Here’s how digital twins can be utilised and what advantages they bring:
Personalised Medicine: Digital twins can be used to create individualised models of patients or their organs. These models can simulate how a patient might respond to a particular treatment, allowing for personalised treatment plans. For instance, a digital twin of a heart could help doctors simulate the impact of different medications or surgeries, allowing better calculation of risk for each treatment plan. (Ahmadi-Assalemi et al. 2020).
Predictive Maintenance of Medical Equipment: Hospitals rely heavily on advanced medical equipment. Digital twins of these devices can predict when they are likely to fail or require maintenance, minimising downtime and ensuring that critical machinery is always operational (Gliszczyński and Ciszewska-Mlinarič 2021).
Operational Efficiency: Digital twins can model entire hospital systems, helping administrators optimise workflows, manage resources, and predict patient influx. This can lead to reduced waiting times, better resource allocation, and improved overall efficiency (Navonil Mustafee et al. 2023).
Personalised medicine for chronic disease patients: Often requiring complex, multidimensional treatment plans, digital twins can be used to monitor a range of patient data including clinical outcomes, biomarkers, lifestyle factors, and treatment history, healthcare professionals can gain deeper insights into the patient's condition. clinical outcomes, biomarkers, lifestyle factors, and treatment history, healthcare professionals can gain deeper insights into the patient's condition. This allows for more precise adjustments to treatment plans, improving the effectiveness of care (Voigt et al. 2021).
The Role of Artificial Intelligence
Artificial Intelligence (AI) plays a critical role in the development and functionality of digital twins. AI algorithms analyse vast amounts of data collected from sensors, medical records, and other sources to create accurate and dynamic digital models. The role of AI includes:
Data Integration and Analysis: AI integrates data from multiple sources, such as patient records, imaging data, and genetic information, to create comprehensive digital twins. This enables a holistic view of a patient’s health, improving diagnosis and treatment plans (Cellina et al. 2023).
Real-Time Monitoring and Simulation: AI-driven digital twins can continuously monitor patient data in real time, simulating different scenarios to predict outcomes and suggest interventions. This proactive approach can lead to early detection of health issues and timely medical interventions (Navonil Mustafee et al. 2023).
Predictive Modelling: AI can predict how a patient’s condition might evolve over time, helping healthcare providers to plan long-term treatment strategies and manage chronic conditions more effectively with a holistic approach (Voigt et al. 2021).
Adoption Challenges for Digital Twins
Despite its potential, the implementation of digital twins in the NHS is not without challenges. These are faced in data privacy and security, because digital twins require vast amounts of patient data and the fluidity of patient information between systems, raising concerns about data privacy and security. The NHS must ensure the vulnerability of sensitive health information is protected from breaches and misuse (Issam Al-Dalati 2023) (Lu et al. 2023). Potential challenges also occur in the integration with existing systems. The NHS operates on a range of legacy IT systems therefore, integrating digital twin technology with these systems can be complex and costly, requiring significant investment in infrastructure, maintenance and training (Hendy et al. 2007). A significant issue is ethical concerns with the use of AI in healthcare.
Particularly the AI role in decision-making, raises ethical questions about accountability, bias, and the transparency of AI algorithms (Lysaght et al. 2019). Another challenge ongoing with implementing advanced technologies in the NHS is the constraints due to financial pressure, and advanced technologies like digital twins requires significant resources, both in terms of funding and skilled personnel.
Implementation Strategies
To address these challenges, the NHS and its partners are exploring several solutions:
Robust Data Governance Frameworks: To address privacy concerns, the NHS is working on establishing stringent data governance frameworks that ensure patient data is securely stored, accessed, and used. This includes anonymising data and using encryption to protect sensitive information. like intelligent Intrusion Detection Systems (IDS), efficient authentication methods, protected communication channel, privacy by design, enhance trust with block chain integration and better compliance with current related standards (Issam Al-Dalati 2023).
Collaborative Ecosystems: The NHS is collaborating with technology providers, academic institutions, and private companies to integrate digital twins into healthcare systems. Public-private partnerships are essential in pooling resources and expertise (Winter and Timothy 2023).
AI Transparency and Explainability: Efforts are being made to ensure that AI algorithms used in digital twins are transparent and explainable. This means that healthcare professionals can understand how AI makes decisions, fostering trust in the technology.
Investment in Training and Infrastructure: The NHS is investing in training programs to equip healthcare professionals with the skills needed to work with digital twin technology. Simultaneously, upgrading IT infrastructure is a priority to support the seamless integration of digital twins.
Next Steps for Digital Twins
Digital twins, powered by AI, hold immense potential to revolutionise the NHS by enabling personalised medicine, improving operational efficiency, and enhancing patient outcomes. However, the challenges associated with data privacy, system integration, and resource constraints must be carefully managed. By adopting robust data governance practices, fostering collaboration, and investing in training and infrastructure, the NHS can harness the full potential of digital twins to create a more efficient and effective healthcare system for the future.
Where to find out more
Romilly Life Sciences can offer several decades experience leading the validation, regulatory approval and implementation of effective solutions based on Digital Twin approaches at a patient-specific and at a healthcare systems level, drawing on direct experience from other sectors such as aviation and construction where these methods are already established..
To find out how you can reach patients faster, backed by compelling evidence, contact us.
References
Ahmadi-Assalemi, G., Al-Khateeb, H., Maple, C., Epiphaniou, G., Alhaboby, Z.A., Alkaabi, S. and Alhaboby, D. 2020. Digital Twins for Precision Healthcare. Advanced Sciences and Technologies for Security Applications, pp. 133–158. doi: https://doi.org/10.1007/978-3-030-35746-7_8.
Cellina, M. et al. 2023. Digital Twins: The New Frontier for Personalized Medicine? ProQuest, p. 7940. Available at: https://www.proquest.com/docview/2836331975/55852277BD8C4EFFPQ/3?accountid=14541.
Gliszczyński, M. and Ciszewska-Mlinarič, M. 2021. Digital Twin and Medical Devices: Technological Significance of Convergent Inventions. Journal of Global Information Technology Management, pp. 1–15. doi: https://doi.org/10.1080/1097198x.2021.1914498.
Hendy, J., Fulop, N., Reeves, B.C., Hutchings, A. and Collin, S. 2007. Implementing the NHS information technology programme: qualitative study of progress in acute trusts. BMJ 334(7608), p. 1360. doi: https://doi.org/10.1136/bmj.39195.598461.551.
Issam Al-Dalati. 2023. Digital twins and cybersecurity in healthcare systems. Elsevier eBooks, pp. 195–221. doi: https://doi.org/10.1016/b978-0-32-399163-6.00015-9.
Lu, Q., Chen, L., Xie, X., Fang, Z.-L., Ye, Z. and Pitt, M. 2023. Framing blockchain-integrated digital twins for emergent healthcare: a proof of concept. Proceedings of the Institution of Civil Engineers 176(4), pp. 228–243. doi: https://doi.org/10.1680/jensu.22.00073.
Lysaght, T., Lim, H.Y., Xafis, V. and Ngiam, K.Y. 2019. AI-Assisted Decision-making in Healthcare. Asian Bioethics Review 11(3), pp. 299–314. Available at: https://link.springer.com/article/10.1007/s41649-019-00096-0.
Navonil Mustafee, Harper, A. and Viana, J. 2023. Hybrid Models with Real-time Data: Characterising Real-time Simulation and Digital Twins. Open Research Exeter. doi: https://doi.org/10.36819/sw23.031.
Voigt, I., Inojosa, H., Dillenseger, A., Haase, R., Akgün, K. and Ziemssen, T. 2021. Digital Twins for Multiple Sclerosis. Frontiers in Immunology 12. doi: https://doi.org/10.3389/fimmu.2021.669811.
Winter, P. and Timothy. 2023. Using the Non-Adoption, Abandonment, Scale-Up, Spread, and Sustainability (NASSS) Framework to Identify Barriers and Facilitators for the Implementation of Digital Twins in Cardiovascular Medicine. Sensors 23(14), pp. 6333–6333. doi: https://doi.org/10.3390/s23146333.




Comments