Hospitals today are awash in data. Every department from the emergency department to the operating room to post-acute care generates information on patient census, bed availability, staffing, and discharge status. Yet, despite this abundance of data, most health systems struggle to act on it in real time. The result is a daily tug-of-war between capacity constraints and patient demand, where bottlenecks in discharges delay admissions, emergency departments board patients for hours, and staff feel stretched to the breaking point.
Artificial intelligence, combined with real-time operational visibility, offers a path forward. By helping hospitals better match supply and demand, AI can help optimize patient flow, support staff in making more informed decisions, and ultimately create a smoother, more efficient system for patients and providers alike.
Visibility Is the First Step
Before AI can make a difference, health systems need visibility into their current and expected patient load. At its most basic level, this means knowing which beds are occupied, which will be freed soon, and which patients are likely to arrive next. Today this information lives on dashboards that only show the problem, but don’t make active recommendations to solve it.
However, though not always actionable, the data in those dashboards is the first step in creating a shared visibility into capacity, upon which AI-based decision tools can be layered to move from simple awareness to actionable workflow improvements.
Discharge Optimization: Where AI Adds Value
One of the most critical levers for improving patient flow is timely discharge. Access starts with discharges: without freeing beds, hospitals can’t admit new patients, whether from the ED, surgery, or transfers from other facilities.
Historically, nurses and care teams have worked on discharges based on experience, intuition, or whichever case seems most pressing. But not all discharges are equal. Some patients, when discharged, free up a bed type that is urgently needed for incoming admissions. Others may already be close to completion in their discharge milestones, making them “low-hanging fruit” for accelerating throughput.
Hospitals don’t just need to decide who should leave; they also need to know who is coming in. The real breakthrough happens when AI can marry the “supply side” of beds with the “demand side” of admissions.
Imagine a system that predicts which beds will open at what times, pairs that with the type of patients that may need a bed, and then recommends both the discharge sequence for current patients and the optimal placement of those incoming. This level of orchestration can reduce delays, improve patient experience, and ensure that the “right patient is in the right bed at the right time.”
This is where AI makes a difference. Discharge optimization models analyze patient data, staffing, and upcoming demand to recommend which discharges will have the greatest impact if prioritized. Instead of simply showing a list of pending discharges, AI can recommend: “These are the five patients to focus on next, and why.”
The benefit isn’t that AI makes the decision for clinicians, it’s that it reduces the cognitive load of weighing dozens of factors simultaneously, giving frontline staff a clear starting point for action.
Optimizing the Entire Workflow
Patient flow doesn’t depend only on nurses or physicians. Transporters, environmental services (EVS), imaging, pharmacy, etc. all play critical roles. A delay in cleaning a room or delivering discharge medications can create a ripple effect that slows the entire system.
AI can optimize these workflows as well. For example, rather than waiting for a dispatcher to assign tasks, transport staff can receive dynamic, AI-driven instructions on their phones: “Go directly to Room 412 to move this patient, then proceed to 318 for the next task.” The same approach applies to EVS teams, ensuring that beds most needed for incoming admissions are cleaned first. By reducing idle time and wasted trips, hospitals can maximize productivity without burning out their staff.
Keeping Humans in the Loop
While AI can dramatically improve efficiency, it’s important to remember that healthcare is fundamentally human.
That’s why AI should be seen as an assistant, not a replacement. By handling complex but non-clinical calculations around patient flow, AI frees clinical teams to focus on what matters most: caring for patients. Keeping humans in the loop also ensures trust, transparency, and accountability as hospitals adopt new technologies.
Change Management: Building Trust and Adoption
Perhaps the biggest barrier to AI in healthcare isn’t the technology itself but gaining staff confidence and adoption. Teams need to trust why the system is recommending a specific action, and leaders need to be transparent about how AI is being used.
Health systems that succeed will be those that:
- Empower staff by showing how AI supports, rather than replaces, their judgment.
- Provide transparency into the data and logic behind recommendations.
- Set clear governance models to ensure consistent, safe adoption.
So far, hospitals have moved cautiously, and for good reasons. The pace of AI innovation over the past few years has felt overwhelming, and many organizations are deliberately slowing adoption to establish governance frameworks. That’s not a sign of resistance; it’s a necessary step toward safe, sustainable integration.
AI’s potential to improve patient flow is enormous. By aligning discharges with admissions, optimizing workflows for frontline staff, and providing real-time recommendations, AI can help hospitals operate more efficiently, reduce bottlenecks, and create a better experience for both patients and providers.
The healthcare industry may not be there yet, but with the right combination of automation, AI, and human leadership, the path forward is within reach.

Mike Coen
Mike Coen, Chief Product & Technology Officer at TeleTracking Technologies, is a seasoned engineering executive with experience developing web-scale platforms, consumer cloud services, and enterprise products while building world class, high performing global engineering teams.
Prior to TeleTracking, Mike was the Director of Engineering at Leidos in the Commercial Healthcare Group. He was also Sr. Manager of Software Development at Amazon and was a key individual leading the design and implementation of Amazon’s Advertising Analytics Platform. At the time of his departure, this platform was one of the largest Apache Hadoop clusters in the world. Mike has also held various Architect and Engineering roles at Lockheed Martin and Koch Industries.
Mike holds a Bachelor of Science in Computer Engineering and a Bachelor of Science in Electrical Engineering from West Virginia University and attended Syracuse University in Graduate Studies in Computer Engineering.