The Internet of Things in healthcare means a network of connected medical devices, sensors, and software that can collect, send, and analyze patient health data right away. These tools let healthcare workers watch vital signs and treatment results from afar, act quickly when needed, and support care plans made just for each patient.
A review of over 100 studies on IoT in healthcare showed some main ways it is used. The biggest one is remote patient monitoring (RPM). This lets patients with long-term illnesses like heart failure, lung disease, and asthma be watched outside the hospital. Wearable devices and smart sensors keep track of things like heart rate, blood pressure, oxygen levels, and sugar levels. This data goes in real-time to healthcare teams so they can check how patients are doing and step in early if problems appear.
RPM helps cut down on unnecessary hospital visits and admissions. This is very useful because the healthcare system often has high demand and limited space for patients. Especially in rural or hard-to-reach areas, IoT-based telehealth helps by giving remote check-ups and monitoring when seeing a doctor in person is hard. Studies show IoT in healthcare helps patients by allowing quick care updates and better medicine-taking through connected pill boxes and mobile reminders.
Besides monitoring, IoT helps create custom treatment plans by gathering detailed patient data over time. This steady data flow lets healthcare providers adjust care based on each patient’s health patterns and lifestyle. For example, a maternity health system studied real-time data from over 9,000 pregnant women using AI cloud platforms to predict risks for mothers and babies. This shows how IoT’s data-gathering helps move healthcare in the U.S. toward more personalized and data-based care.
IoT also helps make healthcare operations run more smoothly. Hospitals and clinics in the U.S. often have trouble managing equipment, staff tasks, and patient appointments efficiently. IoT systems can automate many everyday jobs, such as tracking where medical equipment is using sensors or watching patient flow to cut wait times.
Data from IoT devices in real time helps management use resources better. This means staff and equipment get sent to the places where they are most needed. For example, IoT can track bed use and turnover to help get patients through busy emergency rooms or clinics faster.
IoT also allows for more accurate and automatic data collection. This reduces the work of manual charting and cuts down errors. Faster and more accurate information helps doctors diagnose and treat patients more quickly.
A study on digital changes in healthcare management showed that technologies like IoT and AI had a strong effect on supporting managers. These tools help healthcare leaders make better decisions by combining real-time data with existing systems. This makes the healthcare system more responsive and efficient overall.
Even though IoT offers many benefits, there are important challenges in healthcare, mainly about data security and interoperability. Patient health information is very sensitive, and connected devices can open many spots where hackers might attack or gain access without permission. Keeping data safe and private is very important.
Recent research in the U.S. and other places tries to fix these security problems by linking blockchain technology to IoT systems. Blockchain is a decentralized platform that can keep data safe from changes, control who can get access, and allow secure sharing of patient data among healthcare teams.
Another big issue is interoperability. This means how well different IoT devices and healthcare systems can work together and exchange data. Many U.S. healthcare places still use old electronic health records (EHRs) and devices from many makers, which creates barriers where data cannot move freely. Fixing these problems is important to improve care coordination, especially in health networks and accountable care groups.
Using IoT in healthcare also involves artificial intelligence (AI) and workflow automation. AI can study large amounts of data from IoT devices, find useful patterns, and help with clinical and administrative decisions.
For example, AI can use IoT data to spot early warning signs in a patient’s health. It can predict when diseases might get worse and suggest quick action. This helps lower hospital stays and emergency visits, improving patient outcomes and cutting costs.
AI-driven automation also makes everyday tasks easier. It can handle appointment scheduling, patient check-ins, and answering phone calls. For instance, AI phone systems in clinics reduce call numbers and let staff focus more on patients. These systems work all day and night to book appointments and answer questions, making operations run better and patients more satisfied.
Machine learning models help hospitals and clinics plan staff schedules, manage equipment, and organize supplies. They analyze patterns and guess demand to help managers use resources well.
Studies about digital changes in healthcare point out that workers’ skills are very important for using AI and IoT well. U.S. healthcare groups know that training their staff in new technology is key to getting the most from these tools.
Medical practice administrators who want to use IoT can focus on these areas for clear improvements:
IT managers in healthcare have an important role in picking IoT solutions that work smoothly with existing EHR systems and meet data safety rules. They also keep the network ready to handle large amounts of data from connected devices and ensure the system follows laws like HIPAA.
Research shows that U.S. healthcare keeps adopting IoT, guided by moves toward value-based care and digital-first services. Work is ongoing to combine IoT with AI and cloud systems to support deeper data analysis and health predictions.
Several funded projects led by experts have shown how IoT and AI affect healthcare management processes. These studies find that just adopting technology is not enough; having a ready organization and skilled workers is also necessary for success.
Examples include Tenovi’s FDA-approved remote patient monitoring devices made for chronic care and telehealth support. These show the shift toward integrated, data-driven patient care systems.
By carefully choosing and using IoT and AI tools, healthcare leaders and IT managers in the U.S. can make real progress in making patient care better and running healthcare operations more efficiently. The ongoing work includes solving data safety, device communication, and training issues to fully benefit from these advanced tools in everyday healthcare.
The paper provides a detailed examination of IoT adoption in healthcare, exploring specific sensor types and communication methods.
Successful applications include remote patient monitoring, individualized treatment strategies, and streamlined healthcare delivery.
Challenges include data security concerns, ensuring seamless interoperability, and optimizing the use of IoT-generated data.
IoT enhances patient care by enabling real-time monitoring, personalized medicine, and more efficient resource allocation.
IoT can significantly improve healthcare efficiency by automating processes and providing timely data for decision-making.
The paper offers a systematic theoretical analysis of IoT applications in healthcare alongside general summaries of existing works.
The paper analyzes more than 103 references from top journals in the field.
The paper emphasizes the need to optimize the use of IoT-generated data for better healthcare outcomes.
The authors aim to inspire practitioners and researchers by highlighting the practical implications of IoT in healthcare.
The keywords include IoT, Healthcare, and Remote monitoring.