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BME in Africa for SDG's

Project Title Biomedical engineering in Africa for SDGs
Project Lead Professor Leandro Pecchia and Dr Davide Piaggio
Description Improving medical device effectiveness and safety in Africa

The lab has been deeply involved in the achievement of the United Nation Global Development Goals.Link opens in a new window In particular, we focused on improving medical device effectiveness and safety in Africa, overcoming the Cartesian Fragmentation of Knowledge (i.e., no silos as commonly said in USA slang). Therefore we focus on medical device:

  • Management (clinical engineering in LMICs)
  • Assessment (HTA in resource limited settings)
  • Resilient design
  • Regulatory science
  • Education

This complex challenge requires an interdisciplinary approach.

Supporting the WHO

Prof. Pecchia and Dr. Piaggio are constantly involved in WHO-led activities. Recently, they have acted as reviewers for the technologies that are included in the new "Compendium of Innovative Health Technologies for low-resource settings" (it can be found here). Moreover, they have guided the re-writing of "Medical device donations: considerations for solicitation and provision. Second Edition." (it can be found here).

Research grants supporting this project
  • Bootcamp on AI and IoT for Frugal Innovation, Funded by: ; Project dates: 26 Aug - 12 Sept 2024, Cambridge, UK. Link: https://www.unicampus.it/corsi/offerta-formativa/ucbm-academy/iot-and-ai-for-frugal-innovation-2024/
  • Regeneration of zeolite filters for oxygen concentrators, Funded by: EPSRC IAA; Project dates: 2023-2024
  • Sustainability of the Medical Device Industry, Funded by: Health GRP and Smart Manufacturing GRP; Project dates: 2023-2024
  • Summer School on Biomedical Engineering for Sustainable Development, Funded by: Warwick SoE, IAS, IFMBE, EAMBES, GNB; Project dates: 12-15 September 2022, Bressanone, Italy. Link: https://htad.ifmbe.org/gnb2022/ 
  • Health Technology Assessment of Medical Devices in low and middle income countries, Funded by: EPSRC IAA, Project Start Date 01-03-2017 - Project End Date 31-03-2020
  • Covid-19 pandemic Social and Healthcare dynamic impact in Benin, Funded by: Warwick Global Research Priority on Health and Technology, Project Start Date 01-05-2020 - Project End Date 31-12-2020
  • Summer School on Design of Medical Device resilient to LMICs working conditions (2020, IAS&IFMBE) [Cancelled due to COVID-19]
  • Design of Medical Devices in LMICs (2016-2020, EPSRC/GCRF): design and regulatory framework of medical devices and location in Sub-Saharan Africa
  • Assessment of Medical Devices in LMICs (2016-2020, EPSRC/GCRF): HTA and HTM of medical devices and location in Sub-Saharan Africa, linkLink opens in a new window
  • WIRL COFUND (2019-2021) – Marie Sklodowska Curie Actions, Institute of Advanced Study, University of Warwick (UK)
  • Fernandes Fellowship (2019), Institute of Advanced Study, University of Warwick (UK)
  1. Stokes K, Busola O, Cappuccio F, Pecchia L., (accepted March 2022) Use of technology to prevent, detect, manage, and control hypertension in sub-Saharan Africa: a systematic review, BMJ Open

  2. Piaggio, D., Castaldo, R., Cinelli, M., Cinelli, S., Maccaro, A., & Pecchia, L. (2021). A framework for designing medical devices resilient to low-resource settings. Globalization and health, 17(1), 1-13.
  3. Williams, E., Piaggio, D., Andellini, M., & Pecchia, L. (2022). 3D-printed activated charcoal inlet filters for oxygen concentrators: A circular economy approach. Development Engineering, 100094.
  4. Piaggio, D., Andellini, M., Taher, M., & Pecchia, L. (2021, June). A vest for treating jaundice in low-resource settings. In 2021 IEEE International Workshop on Metrology for Industry 4.0 & IoT (MetroInd4. 0&IoT) (pp. 122-127). IEEE.
  5. Pecchia, L., Piaggio, D., Maccaro, A., Formisano, C., & Iadanza, E. (2020). The inadequacy of regulatory frameworks in time of crisis and in low-resource settings: personal protective equipment and COVID-19. Health and Technology, 10(6), 1375-1383.
  6. Maccaro, A., Piaggio, D., Pagliara, S., & Pecchia, L. (2021). The role of ethics in science: a systematic literature review from the first wave of COVID-19. Health and technology, 11(5), 1063-1071.
  7. Piaggio, D., Medenou, D., Houessouvo, R. C., & Pecchia, L. (2019, May). Donation of medical devices in low-income countries: preliminary results from field studies. In International conference on medical and biological engineering (pp. 423-427). Springer, Cham.
  8. Medenou, D., Fagbemi, L. A., Houessouvo, R. C., Jossou, T. R., Ahouandjinou, M. H., Piaggio, D., ... & Pecchia, L. (2019). Medical devices in sub-Saharan Africa: optimal assistance via a computerized maintenance management system (CMMS) in Benin. Health and Technology, 9(3), 219-232.
  9. Medenou, D., Ahouandjinou, M. H., Piaggio, D., Houessouvo, R. C., Pecchia, L., & Jossou, T. R. (2020). New intelligent network approach for monitoring physiological parameters: the case of Benin. Health and Technology, 10(5), 1311-1322.
  10. Maccaro, A., Piaggio, D., Dodaro, C. A., & Pecchia, L. (2020). Mental illness in some Sub Saharan African communities: the perspective of Bioethics and transcultural nursing. Medicina e Morale, 69(4), 493-502.
  11. Stokes, K., Castaldo, R., Franzese, M., Salvatore, M., Fico, G., Pokvic, L. G., ... & Pecchia, L. (2021). A machine learning model for supporting symptom-based referral and diagnosis of bronchitis and pneumonia in limited resource settings. Biocybernetics and Biomedical Engineering, 41(4), 1288-1302.
  12. Pecchia, L., Pallikarakis, N., Magjarevic, R., & Iadanza, E. (2019). Health technology assessment and biomedical engineering: global trends, gaps and opportunities. Medical Engineering & Physics, 72, 19-26.
  13. Jossou, T. R., ET-Tahir, A., Medenou, D., Bybi, A., Fagbemi, L., Sbihi, M., & Piaggio, D. (2021). Methods to distinguish labour and pregnancy contractions: a systematic literature review. Health and Technology, 11(4), 745-757.
  14. AHOUANDJINOU, M. H., MEDENOU, D., PECCHIA, L., HOUESSOUVO, R. C., & JOSSOU, T. R. (2020). Modeling an Integrated Network for Remote Patient Monitoring, Based on the Internet of Things for a More Preventive and Predictive Health System in West Africa. Global Clinical Engineering Journal, 3(2), 19-31.
  15. Jossou, T. R., Et-Tahir, A., Tahori, Z., El Ouadi, A., Medenou, D., Bybi, A., ... & Piaggio, D. (2021). Electrodes in external electrohysterography: a systematic literature review. Biophysical Reviews, 13(3), 405-415.
Key enabling technologies to address the non-communicable disease burden in Africa

78% of global deaths due to cardiovascular diseases (CVDs) occur in low- to middle-income countries (LMICs), and the Pan-African Society of Cardiology (PASCAR) identifies high blood pressure (hypertension) as the highest priority area for reducing heart disease and stroke in Africa. We have recently performed a systematic literature review of the use of key enabling technologies (KETs), such as mobile phones, Internet of Things devices (IoT), and Artificial Intelligence (AI) for hypertension healthcare in sub-Saharan Africa (currently under review with an Open Access journal). We found very few publications relative to the wealth of research in high-income regions. However, initial results indicate promising use of KETs for screening for hypertension and for reducing and controlling blood pressure, although key barriers are clearly still evident. We plan to contribute to research in this area, evaluating the feasibility of leveraging AI for the design of novel blood pressure monitoring methods and screening tools, suitable for use in low resource settings with minimal training or expertise.

AI for pneumonia detection via symptoms

Sub-Saharan Africa experiences the highest global mortality from pneumonia. We are developing an AI system to detect pneumonia from easily measured symptoms and signs. We have designed a predictive Machine Learning model for distinguishing pneumonia from bronchitis based on patient symptoms and signs, using data collected by our collaborators in Bosnia and Herzegovina, characterized by the World Bank as a low to middle income country (LMIC). The model was designed to be interpretable and simple enough to be suitable for incorporation into a screening tool such an application for use on a mobile phone. Such tools can be used to alleviate pressure on healthcare services in low-resource settings. We are planning to acquire data from other LMICs, with a focus on African countries experiencing high disease burden, for further validation and improvement of this model. There is the potential to expand to detection of other respiratory diseases, such as COVID-19, as data becomes available.

Read about the model in our recent publication:

Stokes K, Castaldo R, Franzese M, et al. A machine learning model for supporting symptom-based referral and diagnosis of bronchitis and pneumonia in limited resource settings. Biocybernetics and Biomedical Engineering 2021;41(4):1288-302. doi: https://doi.org/10.1016/j.bbe.2021.09.002

COVID and LMICs

The one described above are all Global Challenges. Our activities are directly/indirectly the result of our experiences in previous EPSRC GCRF and IAA funded projects. We were considering these topics for limited resources settings (i.e., telemedicine, AI, minimum requirements, regulatory framework, heath technology assessment…) and to many extends a pandemic crisis create a situation that is, de facto, a limited resource one (not enough beds, not enough devices, not enough experiences staff…)

Here our latest publication on similitude between COVID-19 and LMICs, in regard to the limits of current international regulatory frameworks for PPE. The same probably applies to medical devices. Here is the paperLink opens in a new window.