The healthcare field in the U.S. faces many ongoing challenges. One major issue is a shortage of nurses and staff burnout. This happens because more people need healthcare, many are elderly, and patient care is becoming more complex. Experts predict a shortage of 4.5 million nurses by 2030. This shortage affects care quality because busy nurses must do repetitive and tiring tasks like delivering medicine, moving samples, and managing supplies. These tasks take time away from taking care of patients directly.
To handle these problems, hospitals in the U.S. are using robots powered by artificial intelligence (AI) to help with both front-office and clinical work. These robots reduce staff work, make operations more reliable, and help keep patient services good. But to run these robots well, hospitals need technology that can make quick decisions, navigate accurately, and work smoothly in busy hospital spaces. This is why advanced AI and edge computing technologies are important.
Healthcare robots must work safely and well in crowded hospital places. These places have patients, doctors, wheelchairs, and other equipment all around. For robots to do this, they need smart skills to see, decide, and move. AI supports these skills. A good example is Foxconn’s Nurabot, a nursing robot that helps by moving things around so nurses have less work.
Nurabot uses NVIDIA’s Isaac for Healthcare platform, a special AI system made for hospitals. It gives the robot:
This ability to understand and react immediately helps the robot move safely on its own. That is very important in busy hospital areas.
Edge computing means robots handle their data close to where they are instead of sending it to far-away cloud servers. This lowers delays between sensing information and acting on it. Fast response is very important for safety and timing in hospitals.
For example, Nurabot uses NVIDIA’s Jetson AGX Orin for edge AI computing. This small but strong device processes data right away. It helps the robot to:
By using edge computing with AI, hospitals can run healthcare robots on-site without relying heavily on internet connections or remote servers. This makes the robots more reliable and safer to use.
Before robots are used in real hospitals, they must be tested carefully for safety and efficiency. Engineers use digital twins, which are virtual copies of real hospital areas, to simulate how robots behave. Foxconn used NVIDIA Isaac Sim and Omniverse to make a digital twin simulation of hospital wards to improve Nurabot’s work.
This testing method helps in many ways:
Hospitals in the U.S. can use these simulation tools to help make sure AI robots fit well with existing work in clinics.
Using AI-driven robots to automate everyday tasks brings clear benefits to hospital work. Healthcare robots help with front-office phones, answer calls, and manage internal deliveries. These AI tasks take some work off nurses and staff, reducing tiredness and slowdowns.
Some benefits of workflow automation are:
For healthcare leaders in the U.S., combining AI phone services with robots for logistics can create a strong automation system. Robots handle deliveries inside hospitals, while AI manages patient calls smoothly.
Nurse burnout is a big problem now. Many nurses quit or work less because of stress and tiredness. Robots designed to work on their own can help by doing the repetitive and hard physical tasks.
Foxconn’s Nurabot shows how this works by doing things like:
Thanks to this automation, nurses save many hours that they used for errands and physical work. They can then spend more time with patients. Shu-Fang Liu, Deputy Director at Taichung Veterans General Hospital, said, “For nurses, having a robot assistant reduces physical tiredness, saves many trips to supply rooms, and lets them focus more on patients.”
If hospitals in the U.S. use robots like these, they could keep more nurses, lower mistakes caused by tiredness, and improve care quality.
Building a good robot system means more than just the robot and AI. Robots also must work together with hospital computer systems. They need to connect with digital patient records, medicine management, staff schedules, and security software to be useful.
Nurses and staff find it easier when robots update tasks automatically and fit smoothly with existing hospital workflows. AI platforms that work with current electronic health records (EHR) and hospital networks help robots add value without causing problems.
For hospital IT managers in the U.S., ensuring smooth and safe integration means:
Testing with digital twins and simulations also helps by checking system connections and workflows before robots start work in real hospitals.
AI robotics in healthcare is changing quickly. Companies like Foxconn keep adding new features to their robot helpers. Planned updates include:
With new technologies like AI, Internet of Things (IoT), and digital twins, these robots are expected to be used more widely. Hospitals in the U.S. can learn from early users abroad and modify robots to fit local needs.
Using Industry 4.0 technologies like healthcare robots brings new questions about saving resources and working with staff changes. AI and robots help by cutting waste and improving supply chain efficiency. Hospitals that use these technologies can also benefit from:
Experts say it is important to balance fast technology changes with policies that help staff learn and prevent job losses. Teaching healthcare workers digital skills is key to working well with AI.
The use of advanced AI frameworks and edge computing helps healthcare robots work by themselves in hospitals right away. For healthcare leaders and IT managers in the U.S., these tools offer practical solutions for nurse shortages, better patient care, and smoother hospital work.
Tests in virtual setups and good IT links make robot use safer and more efficient. Hospitals that use these technologies update how they operate and let clinical staff spend more time with patients instead of doing repeated physical jobs.
As healthcare robots keep improving, they are likely to play a bigger role in U.S. hospitals, shaping how care is given and improving patient results.
Nurabot automates repetitive and physically demanding tasks like transporting medication, delivering specimens, and administrative duties, saving nurses 2–3 hours daily, resulting in a 30% reduction in overall nursing workload, reducing fatigue, and enabling nurses to focus more on direct patient care.
Nurabot is built on NVIDIA’s Isaac for Healthcare framework utilizing NVIDIA Jetson AGX Orin for edge AI, Holoscan for real-time sensor processing, Isaac Sim and Omniverse for simulation and training, and DGX systems for AI model training, enabling safe integration and real-time autonomous operation.
Simulation-driven validation and digital twin environments using Isaac Sim and Omniverse allow virtual training, testing, and workflow optimization before actual deployment, reducing deployment time by 40% and ensuring operational safety and efficiency.
Nurabot achieves a 98% accuracy rate in navigation tasks, ensuring safe and reliable movement throughout hospital wards as it delivers medications and specimens autonomously.
Besides reducing nurse workload by 30%, Nurabot enhances staff satisfaction, improves patient experience, decreases nurse burnout, optimizes operational efficiency by simulating and improving workflows, and supports scalability to multiple medical centers.
There is a global shortage of 4.5 million nurses projected by 2030, driven by burnout and repetitive physical tasks. Reducing nurse workload addresses staff shortages, improves well-being, and maintains quality patient care by freeing nurses from routine chores.
Nurabot integrates through multimodal AI enabling natural language communication, real-time environment modeling, and autonomous operation, all validated via simulations to ensure seamless support within existing nursing duties without disrupting care delivery.
Foxconn plans to enhance Nurabot with multilingual communication abilities and support for patient mobility, expanding its functional scope to improve interaction and assistive care in diverse hospital settings.
Digital twins enable modeling of hospital layouts and workflows before implementation, optimizing task scheduling and route planning, which improves operational efficiency, reduces errors, and helps in the validation and rollout of new healthcare technologies.
Foxconn contributes AI models like CoroSegmentater for cardiac imaging to the open-source medical community, fostering worldwide collaboration and innovation in healthcare AI, thereby supporting the global advancement of smart hospital technologies.