The global microelectronic medical implants market size is predicted to value USD 57.12 billion by 2025. The market is subject to witness a substantial growth in upcoming years due to the rising occurrence of diseases like epilepsy, cardiac disorders, and Parkinson’s disease. Factors responsible for market growth are increase in the geriatric population, large number of administrative approvals for the use of latest advanced electronic devices in healthcare sector and advent of advanced technologies for healthcare. The microelectronic medical implants market is expected to grow at a CAGR of 9.8% in the years to come.
Rising occurrence of cardiac disorders are mainly responsible for high-end demand for microelectronic medical implants. Some of the cardiovascular disorders like cardiac arrest, heart failure, strokes, and ischemic heart disease (IHD) use microelectronic medical implants like pacemakers and defibrillators. Cardiovascular diseases (CVDs) and coronary heart disease are major cause of death in various regions of the globe, the critical importance of microelectronic medical implants to treat these diseases is substantially rising. Such key factors are spurring the growth of microelectronic medical implants market in forecast period.
Request A Free Sample - https://www.millioninsights.com/industry-reports/microelectronic-medical-implants-market/request-sample
Implantable medical devices are used for treatment a wide range of health conditions. The typical use of microelectronic medical implants occurs in monitoring as well as diagnosis purposes. Since last decades, the development of microelectronic medical implants witnessed remarkable progress with immense advancement in microelectronics & nano-electronics, electrode technology, and signal processing methodologies. The modern-day technology implemented in implantable medical devices offers wireless communication and charging.
The successful implementation of implantable medical devices consists of numerous problems faced during its operations. These problems are associated with viability, bidirectional data communication speeds, power supply and lower noise ratio. Other challenges faced during its operation are less efficient power delivery for the recording, and less safe stimulation technique in order to prevent nerve damage and electrode damage. The major emphasis is on neural recording and stimulation techniques that are appropriate for fabrication methods in advanced silicon processes and biotelemetry methods, implemented for power and data transfer, alongside substantial focus on techniques deployed for radio inductive coupling.
No comments:
Post a Comment