Integrated healthcare is revolutionizing the way we approach patient care, and at the heart of this innovation lies an apparently benign but game-changing material: semiconductors.
By harnessing the power of sand – the natural source of silicon, the most common of the semiconductors – and the tiny but mighty “chips” it goes into, we’re unlocking a world of holistic healthcare and diagnostic capabilities like never before.
How Are semiconductors powering healthcare?
FitBits and smartwatches with built-in heart rate sensors represented some of the earliest renditions of medical wearables, and they’ve come a long way. The latest Apple Watch can track blood oxygen and glucose levels, ECG-based heart rate, etc., alongside overall activity and medications – and it’s no gimmick. A newbie smart wearable already measures clinical grade, bio-impedance-based body composition like muscle and fat mass, hydration level, skin hydration, and a few other parameters with direct bearing on the heart and kidney functioning. Hitherto, all these were only possible with large, immobile, and costly machines available in high-end gyms and hospitals. Wearables are increasing patient health engagement so much that they’re expected to cut hospital costs by 16% over the next five years, an astounding number that becomes even more eye-opening when you recognize that the medical sensors contained in these devices barely scratch the surface of what semiconductors are capable of doing.
The connected healthcare ecosystem is predictive, preventative, personalized, and participatory. It’s a combination of technologies, including 5G, cloud-based “Internet of Things” (IoT), robotics, and Artificial Intelligence (AI), all built on a foundation of semiconductors. The “lab-on–a-chip” concept is the culmination of many of these technologies, set to give individuals access to an entire high-end medical laboratory through a wearable device, but the future of care goes beyond at-home monitoring. The advancements of these technologies, both holistically and individually, have set the stage for some extraordinary opportunities in integrated health.
Revolutionary devices like a “Smart Pill” are already in their early stages, using sensors and tiny cameras to wirelessly track vitals, detect diseases, and monitor health concerns from inside the body. Caltech researchers recently introduced a new prototype whose location can be precisely identified within the body, marking a major milestone in its development. As tech continues advancing, the components necessary to produce such a pill are expected to continue being miniaturized and gaining new capabilities, making the notion even more promising. And, even for those who feel uneasy about biomedical engineering, integrated healthcare poses completely non-invasive possibilities.
With remote diagnostics and virtual emergency support, many important services are set to be more accessible and affordable for underserved and hard-to-reach populations than ever. Plus, the geographical reach of this technology will continue widening further with the help of satellite communications from providers like Starlink, which can achieve near-5G latencies essential for real-time operations.
Combine that with robotics, real-time data analysis, and AI, and doctors can perform surgery from another room or across the ocean, bringing emergency and critical care to every nook and corner of the globe. Not only can these services save lives, but integrated healthcare can improve life expectancy by hastening the diagnostic and triage process for conditions like strokes, which require immediate specialty care to minimize permanent complications like brain damage — and the list goes on.
What’s around the corner with advancing technology?
The continued expansion of telehealth alongside the development of 5G networks will guide the rollout of integrated healthcare technology, but it’s the yet-to-be-realized power of AI, big data, and supercomputing that’s set to totally reshape the healthcare ecosystem. For instance, high-fidelity haptics will help restore the “sense of touch” currently lacking to a great extent from telesurgery, but it will take far more powerful semiconductor chips and more reliable 5G networks to carry and process that humongous amount of data across the distance.
In the grand scheme of things, medical devices will become more and more like supercomputers, widening the possibilities beyond anything previously imagined. As these innovations are underway, companies like Quest Global, which have been already providing various engineering services to the healthcare industry for decades and are quick enough to enter the healthcare semiconductor space, find themselves on the cutting edge. With the capacity to continue expanding its lead over the late-to-the-game competitors, they’re in the best position to tap into integrated healthcare’s potential.
Sudipto Das
Sudipto Das is the Delivery & Competency leader at Quest Global. With 28 years of professional experience in the hi-tech semiconductor industry, Sudipto has expertise in design, management, execution, and operations. He excels in scaling domain-agnostic platforms, building organizations from scratch, and driving significant growth plans. Over the past 12 years, Sudipto has played key roles in creating three startups. In June 2017, he co-founded a company recognized as one of the Top 10 most disruptive startups in the electrical and electronics sector by the ELECRAMA Startup Awards 2018 for its AI-enabled IoT-based Smart Lighting solution. As a provider of IoT and AI-controlled solutions with social, financial, and environmental viability, Sudipto was acknowledged as the founder of one of the "20 Most Promising Electronic Design Service Providers 2018" by SiliconIndia. In 2020, Sudipto led a nationwide initiative to create a distributed hyper-local delivery system, providing groceries and medical aid to over 25,000 people affected by COVID-19. He currently serves on the board of Inbioz, a startup developing "Make-in-India" intelligent wearables that measure clinical-grade body composition metrics.
Frequently Asked Questions
Semiconductors are at the core of a revolution in integrated healthcare, enabling a shift towards predictive, preventative, personalized, and participatory care. They power technologies like smart wearables, AI, and IoT devices, which enhance patient engagement and reduce hospital costs. These devices facilitate real-time health monitoring and diagnostics, making healthcare more accessible and efficient. The integration of semiconductors in healthcare systems supports advancements such as remote surgery and telehealth, expanding the reach of critical medical services globally.
Smart medical devices rely heavily on semiconductor technology for their functionality and efficacy. Semiconductors allow these devices to process complex data, perform real-time health monitoring, and communicate with healthcare networks. Innovations like smart pills and advanced wearables are possible due to the miniaturization and increased capability of semiconductor components. These devices can track health metrics, detect diseases, and even assist in treatment, all while providing valuable data back to healthcare providers for better patient management.
Quest Global positions our company as a leader in the healthcare semiconductor space by leveraging extensive experience in engineering services and semiconductor technology. We offer turnkey solutions that accelerate development cycles and enhance time-to-market efficiency. With a focus on advanced automation and custom silicon expertise, Quest Global provides tailored solutions that meet the specific needs of industries such as aerospace & defense and automotive. Our global reach and resources ensure high-level integration and compliance with SEMI standards, placing Quest Global at the forefront of integrated healthcare innovation.
Semiconductors facilitate the seamless operation of telehealth and remote diagnostics by powering the necessary hardware and software. They enable the miniaturization of medical devices, allowing for lab-on-a-chip solutions that bring high-end diagnostic capabilities to wearable devices. This technology supports remote monitoring of vital signs and health conditions, providing real-time data to healthcare providers. The development of robust semiconductor chips enhances the reliability of telehealth services, making them viable for widespread adoption in remote areas.
The future of healthcare anticipates significant advancements with the continued evolution of semiconductor technology. Innovations such as high-fidelity haptics for telesurgery, advanced AI-driven diagnostics, and expanded telehealth capabilities are on the horizon. As semiconductor chips become more powerful and efficient, medical devices will increasingly resemble supercomputers, offering unprecedented diagnostic and treatment capabilities. This evolution will enhance the precision and reach of healthcare services, making them more accessible and effective globally.
