Blog
Technology plays a crucial role in improving active medical devices. Among the technological marvels, they hold a prominent position. These devices, powered by electrical or mechanical energy, are indispensable in hospitals, clinics, and even homes. In this article, we delve into the most common types of active medical devices. In the end ask yourself some questions: Is there a space for yet another innovation? What innovation actually is: another piece of hardware or using existing technology for a different purpose?
Medical device manufacturing represents a nexus of advanced technology, rigorous regulatory oversight, and critical attention to safety and reliability. The stakes couldn’t be higher: patients’ health and lives often depend on the flawless performance of these devices. From innovative diagnostic tools to life-sustaining implants, the journey from concept to market is fraught with challenges that test the limits of engineering, compliance, and strategic decision-making.
Rehabilitation space is undergoing a transformative shift, led by rehabilitation startups that are reshaping how patients recover. These innovative companies are introducing advanced devices that make recovery faster, smarter, and more tailored to individual needs. Through cutting-edge robotics, AI-driven applications, and smart wearables, patients can now access high-quality rehabilitation support from home. This evolution not only empowers patients but also enables more accurate and responsive therapy for a wide range of conditions, from neuromotor impairments to osteopathies.
IVD devices (In Vitro Diagnostic) encompass a wide range of tests and analyses performed on samples taken from a patient’s body, such as blood, saliva, urine, or tissue. Traditionally limited to laboratory settings, there is a growing trend to move diagnostics to point-of-care (POC) environments or even to patients’ homes, significantly reducing the time required to obtain results. The applications of IVD devices are extensive, covering diagnostics, health monitoring, and therapy effectiveness assessment.
In recent years, pain management medical devices have been gaining increasing popularity in the MedTech market. One key factor driving this trend is the desire to minimize the reliance of medications and opioids, which can lead to addiction. The appeal of these solutions is especially evident among individuals leading sedentary lifestyles, where lumbar and neck pain have become common issues. Devices such as TENS (Transcutaneous Electrical Nerve Stimulation) offer a non-invasive alternative to traditional pharmacological therapies by using nerve stimulation to block ache.
Cardiovascular medical devices are essential tools in diagnosing and treating heart conditions, as cardiovascular diseases remain a leading cause of mortality worldwide. With the rising need for early detection and management of heart conditions, startups are stepping up to develop cutting-edge solutions that revolutionize how we monitor, treat, and improve heart health.
Medical Device Project Management Operations are responsible for ensuring that unnecessary delays, and the resulting costs, are avoided. Optimizing the project plan, budget, and improving work efficiency – that’s the real-life story. Every new project should begin with a well-structured plan, something they stakeholders fully understand. People of PMO also make sure that all resources are allocated efficiently, preventing the waste of both team potential and materials. I decided to talk with Kamil Bobrowski – Consonance Head of PMO to find out where the drill is.
Neonatology startups aim to take care of newborns, especially premature babies. These highly vulnerable beings require exceptional care, as even the smallest changes can significantly impact their health and development. Sometimes, even the experience and knowledge of doctors aren’t enough to save the little one. Therefore, in a world where technology plays an increasingly vital role, neonatology startups become invaluable support for medical care.
3D bioprinting technology is an advanced integration of several engineering disciplines, including electronic engineering, tissue engineering, and bioengineering. It is based on the use of so-called bioinks, which consist of hydrogel, biomaterials, and patient cells. Layers of bioink are precisely applied in specialized printers, creating three-dimensional structures that can later be introduced into the body.
Isn’t a drug-device combination the best possible approach to join BioTech and MedTech innovations, despite their differences? They share a common goal: to support medicine in providing the best possible care and opportunity for speedy recovery. In most cases, a single approach to a disease is sufficient: either drug therapy or the use of medical devices. However, sometimes this is not enough for a complex problem, and a combined effort is required. The task theoretically seems simple, but in practice, it often proves to be more challenging.