After surgery, it’s important to check on patients to make sure they are healing well. Usually, nurses or other healthcare workers call patients to ask about their recovery and answer questions. This takes a lot of time. For example, a study showed that calling 100 patients by hand can take about 9.3 hours of work. Because of this, healthcare providers in the United States have a hard time keeping up with all the calls while managing busy schedules and costs.
New technology uses artificial intelligence (AI) with speech recognition and human voice simulation to help. These systems call patients automatically during set hours, such as from morning to evening. The AI can understand speech in many accents and speaks in a way that sounds like a real person. Patients answer questions about how they feel and their care through these calls.
The AI turns what the patients say into text right away. It then creates reports with the answers and satisfaction scores for doctors and nurses to check. This system can call hundreds or even thousands of patients each day without needing much human help.
A study with 270 orthopedic patients used an AI follow-up system and compared the results to 2,656 patients contacted manually. Here are the main points:
This shows that AI-assisted follow-up saves time and resources without losing quality in making contact or finishing follow-ups.
Both AI and humans connect with patients well, but the kinds of feedback they get are different.
Manual follow-ups had 87% of feedback about medical topics like complications, wound healing, medicines, and exercises.
AI follow-ups collected mostly non-medical feedback. Patients talked more about nursing care (28.6%), health education (7.1%), and the hospital environment (53.6%). Only 10.7% of feedback related to medical issues.
This may be because patients feel better asking detailed medical questions when talking to a live person who understands and responds with care. AI systems collect broader comments but can’t yet have deep medical talks.
Healthcare workers can use AI to get general feedback about the hospital and nursing care. They can spend their time on important medical questions with patients directly.
AI follow-up systems depend on a few key technologies working together:
Together, these tools allow AI to call many patients with follow-ups that feel personal and real, something hard to do by hand.
Hospital managers and IT staff can add AI follow-ups to their work routines easily. Here is how AI helps:
Using AI fits with moves to use more technology in health care, save money, and make patients’ experiences better.
Even though AI follow-up systems have benefits, some challenges remain in U.S. healthcare:
Studies from places like Peking Union Medical College Hospital offer useful examples for U.S. providers. Dr. Yanyan Bian’s work shows that manual calls gather more medical feedback because patients talk directly with people. Xisheng Weng points out that AI systems can call many patients at once thanks to special phone technology, which helps clinics handle more follow-ups.
By using similar AI systems, U.S. clinics might lower costs, get more patient feedback, and save staff time. Doing this will need changes in workflow and good IT support, but it can make post-surgery care more consistent and easier to manage.
Using speech recognition and human voice simulation tools for follow-ups can help medical clinics in several ways:
Clinic managers and IT heads should look for AI systems with strong speech recognition that works with different accents, can connect well with health records, and allows flexible call times depending on their patients.
By using speech recognition and human voice simulation technology for automatic post-surgery follow-ups, medical clinics in the United States can make patient checks easier, gather better data, and use their staff time more wisely. While AI can’t fully replace human calls yet, it supports clinic teams by letting them focus on patients who need more detailed care. This fits with how healthcare in the U.S. is becoming more digital and data-focused.
The primary objective is to compare the cost-effectiveness and quality of patient feedback between AI-assisted follow-up and traditional manual follow-up after surgery, aiming to enhance efficiency and gather comprehensive patient data automatically.
The system uses machine learning, speech recognition, and human voice simulation to call patients automatically, conduct surveys covering satisfaction and medical issues, convert voice feedback to text, and generate reports for clinicians to review.
Both methods had similar telephone connection and follow-up rates. However, AI-assisted follow-up required virtually no human time, significantly saving resources, and yielded a higher feedback collection rate.
AI-assisted follow-ups mainly collected feedback on nursing, health education, and hospital environment, while manual follow-ups focused more on medical consultations due to direct human interaction and deeper communication.
Manual follow-up took approximately 9.3 hours per 100 patients, while AI-assisted follow-up took close to zero human time since calls and data processing were automated.
Limitations include the short probation period limiting AI learning, the lack of integration with other communication methods like chatbots or apps, and less depth and pertinence in patient communication compared to human operators.
The AI system employs speech recognition technology capable of identifying different dialects within China, allowing accurate transcription and interaction with patients from various regions.
Differences suggest AI gathers broader but less in-depth feedback, primarily non-medical, whereas humans capture more detailed medical concerns due to empathetic, natural communication, impacting follow-up quality.
While AI-assisted systems are effective and resource-saving, they currently lack the depth and pertinence of communication that human interactions provide, indicating a complementary rather than complete replacement role.
Suggestions include integrating AI with chatbots and mobile apps for more personalized and interactive communication, extending machine learning duration to enhance intelligence, and developing multimodal communication methods for improved patient engagement.