Low-Cost Ventilator Supports Developing Economies Needs
|
By HospiMedica International staff writers Posted on 02 Sep 2020 |

Image: The PocketVent affordable ventilator (Photo courtesy of NPL)
A low cost, easy to manufacture ventilator meets the requirements for affordable device technologies in emerging markets during the COVID-19 pandemic.
Developed at The National Physical Laboratory (Teddington, United Kingdom), the national measurement standards laboratory for the United Kingdom, the PocketVent is a compact, low power ventilator that is compatible with pressurized oxygen. At an estimated manufacturing cost of just USD 1300, the device can provide an alternative to expensive, bulky standard ventilators for developing economies, without sacrificing key functionality. All parts are either made with common machine tools, are easily sourced off-the shelf-components, or can be shipped by multiple global suppliers.
Features includes a manual control panel and detailed data display enabling clinicians to maintain a high quality of care; dual purpose use as a continuous positive airway pressure (CPAP) respiratory device; a limited training time for healthcare professionals to learn to operate the ventilator; widely available cheap parts for rapid repair turnaround time; and performance requirements that meet UK Medicines and Healthcare products Regulatory Agency (MHRA) specifications for ventilation. Initial production is scheduled in Nigeria, to be followed by other African countries.
“Working collaboratively on this project with several colleagues from different disciplines meant there were a broad range of ideas that ultimately lead to the design of this easy to produce and affordable ventilator,” said NPL team leader research engineer Jean Morris, MPhys. “We were encouraged to give this project as much time as required, which gave us the freedom to explore new ways of working as a team.”
“Creating a low cost and easy to produce ventilator in short duration and from a standstill would seem an impossible task, though that is what the NPL Ventilator team have achieved. The foundation of this instrument development has been NPL’s measurement and test capabilities,” said Professor Paul Shore, PhD, head of engineering at NPL. “This testing ability at NPL guided the design of the PocketVent which was created by staff within NPL’s Instruments Group. The dedication of the whole NPL Ventilator team during the pandemic has been inspiring.”
Related Links:
The National Physical Laboratory
Developed at The National Physical Laboratory (Teddington, United Kingdom), the national measurement standards laboratory for the United Kingdom, the PocketVent is a compact, low power ventilator that is compatible with pressurized oxygen. At an estimated manufacturing cost of just USD 1300, the device can provide an alternative to expensive, bulky standard ventilators for developing economies, without sacrificing key functionality. All parts are either made with common machine tools, are easily sourced off-the shelf-components, or can be shipped by multiple global suppliers.
Features includes a manual control panel and detailed data display enabling clinicians to maintain a high quality of care; dual purpose use as a continuous positive airway pressure (CPAP) respiratory device; a limited training time for healthcare professionals to learn to operate the ventilator; widely available cheap parts for rapid repair turnaround time; and performance requirements that meet UK Medicines and Healthcare products Regulatory Agency (MHRA) specifications for ventilation. Initial production is scheduled in Nigeria, to be followed by other African countries.
“Working collaboratively on this project with several colleagues from different disciplines meant there were a broad range of ideas that ultimately lead to the design of this easy to produce and affordable ventilator,” said NPL team leader research engineer Jean Morris, MPhys. “We were encouraged to give this project as much time as required, which gave us the freedom to explore new ways of working as a team.”
“Creating a low cost and easy to produce ventilator in short duration and from a standstill would seem an impossible task, though that is what the NPL Ventilator team have achieved. The foundation of this instrument development has been NPL’s measurement and test capabilities,” said Professor Paul Shore, PhD, head of engineering at NPL. “This testing ability at NPL guided the design of the PocketVent which was created by staff within NPL’s Instruments Group. The dedication of the whole NPL Ventilator team during the pandemic has been inspiring.”
Related Links:
The National Physical Laboratory
Latest Critical Care News
- Eye Imaging AI Identifies Elevated Cardiovascular Risk
- Noninvasive Monitoring Device Enables Earlier Intervention in Heart Failure
- Automated IV Labeling Solution Improves Infusion Safety and Efficiency
- First-Of-Its-Kind AI Tool Detects Pulmonary Hypertension from Standard ECGs
- 4D Digital Twin Heart Model Improves CRT Outcomes
- AI Turns Glucose Data Into Actionable Insights for Diabetes Care
- Microscale Wireless Implant Tracks Brain Activity Over Time
- Smart Mask Delivers Continuous, Battery-Free Breath Monitoring
- Routine Blood Pressure Readings May Identify Risk of Future Cognitive Decline
- CGM-Based Algorithm Enhances Insulin Dose Adjustment in Type 2 Diabetes
- Fish Scale–Based Implants Offer New Approach to Corneal Repair
- Dual-Function Wound Patch Combines Infection Sensing and Treatment
- Smartwatch Signals and Blood Tests Team Up for Early Warning on Insulin Resistance
- Smart Fabric Technology Aims to Prevent Pressure Injuries in Hospital Care
- Standardized Treatment Algorithm Improves Blood Pressure Control
- Combined Infection Control Strategy Limits Drug-Resistant Outbreak in NICU
Channels
Artificial Intelligence
view channelAI Analysis of Pericardial Fat Refines Long-Term Heart Disease Risk
Accurately identifying long-term cardiovascular disease risk in asymptomatic adults remains challenging for clinicians. Missed or underestimated risk delays preventive therapy and increases the chance... Read more
Machine Learning Approach Enhances Liver Cancer Risk Stratification
Hepatocellular carcinoma, the most common form of primary liver cancer, is often detected late despite targeted surveillance programs. Current screening guidelines emphasize patients with known cirrhosis,... Read moreSurgical Techniques
view channel
Fiber-Form Bone Graft Expands Intraoperative Options for Spinal Fusion
Spinal and orthopedic fusion procedures often require bone graft materials that handle predictably and support bone formation. Surgeons face added complexity in difficult anatomy and challenging fusion environments.... Read more
Ultrasound‑Aided Catheter Treatment Cuts Early Collapse in Pulmonary Embolism
Acute pulmonary embolism can cause rapid hemodynamic deterioration and early death in hospitalized and emergency patients. Systemic thrombolysis can dissolve clots but is limited by a high risk of major... Read morePatient Care
view channel
Wearable Sleep Data Predict Adherence to Pulmonary Rehabilitation
Chronic obstructive pulmonary disease (COPD) is a long-term lung disorder that makes breathing difficult and often disturbs sleep, reducing energy for daily activities. Limited engagement in pulmonary... Read more
Revolutionary Automatic IV-Line Flushing Device to Enhance Infusion Care
More than 80% of in-hospital patients receive intravenous (IV) therapy. Every dose of IV medicine delivered in a small volume (<250 mL) infusion bag should be followed by subsequent flushing to ensure... Read moreHealth IT
view channel
Voice-Driven AI System Enables Structured GI Procedure Documentation
Documentation during gastrointestinal (GI) procedures often competes with real-time clinical decision-making and imposes a significant cognitive burden on physicians. Manual data entry and post-procedure... Read more
EMR-Based Tool Predicts Graft Failure After Kidney Transplant
Kidney transplantation offers patients with end-stage kidney disease longer survival and better quality of life than dialysis, yet graft failure remains a major challenge. Although a successful transplant... Read more
Printable Molecule-Selective Nanoparticles Enable Mass Production of Wearable Biosensors
The future of medicine is likely to focus on the personalization of healthcare—understanding exactly what an individual requires and delivering the appropriate combination of nutrients, metabolites, and... Read moreBusiness
view channel







