Key takeaways
- Staff leave patient rooms for supply runs, and that time adds up across every shift.
- Nursing research reports that about 40% of nurse time goes to non-nursing tasks such as tray and equipment trips.
- A six-month hospital study with ten robots cut delivery time by 32% to 36% compared with manual delivery.
- Start with a free site assessment, then review a quote that includes financing.
How can delivery robots for hospice care centers help?
Delivery robots for hospice care centers take scheduled supply runs off the people who are already stretched thinnest. In a facility-based hospice, a nurse or aide who leaves a patient room to fetch gloves, linens or a supply cart can be gone long enough to matter, and that trip repeats many times on every shift.
A delivery robot follows a set route between the storage room and the care wings. Staff load it, it carries the items on a schedule or on request, and the receiving team confirms the delivery at the other end. The staff member still decides what goes where. The robot takes over the walk, the wait and the return trip, which is where much of the lost time sits.
The benefit is not a smaller team. It is more minutes at the bedside for the team you already have. This page covers the problem today, the main benefits, how a day runs, which areas the robot works in, how it fits alongside staff, what drives the savings, what it cannot do, and how to get started. It is written for facility-based hospice, meaning freestanding buildings and hospice units inside larger care settings. Most hospice care is given in a patient's private residence, and a delivery robot is built for a building with fixed routes, so it does not fit a patient's home.
What do supply runs cost a hospice team today?
According to the National Alliance for Care at Home's Facts and Figures 2024, 5,899 Medicare-certified hospices were operating in CY 2022, an increase of more than 500 from 2021. More hospices means more buildings, more units and more shifts that depend on the same few people moving supplies.
The staffing numbers are tight. According to the 2025 Hospice Salary and Benefits survey by Hospital & Healthcare Compensation Service, reported by McKnight's Home Care, the employee vacancy rate fell to 12.78% in 2025 from 14.03% in 2024. The same survey puts RN turnover at 25.48% and hospice aide turnover at 29.02%. Many teams are still working with open seats and new faces, and every walk to the storage room lands on someone already carrying a full caseload.
The visit load is the core of the job. The same survey reports that RNs average a caseload of 15.40 and log 4.65 visits per day, while aides and CNAs log 5.45 visits daily. Each supply run pulls time from that visit schedule, and it often does so at the worst moment, when a call light is on in another room.
Hospital research points the same way. An arXiv preprint on mobile robot routing, citing Yen et al. (2018), reports that non-nursing activities such as food tray delivery and equipment retrieval consume approximately 40% of nurses' time. That figure comes from hospital wards, so treat it as a reference point and measure your own building during a site assessment. A Springer chapter on a medication delivery case study reports that interviews with nurses and physicians put 75% of the workday on patient care and 25% as unproductive.
What are the main benefits?
The benefits are practical, and they show up on the floor first. These are the gains operators in care settings tend to notice.
The benefits are practical, and they show up on the floor first.
- Fewer staff trips out of patient rooms, because supply runs leave on a schedule instead of whenever someone remembers.
- Restock that happens before the shelf runs empty, since regular circuits replace last-minute fetches.
- Less walking for aides and nurses across a long shift, which matters on heavy days.
- A clear record of when supplies moved between storage and the wings, so a charge nurse can check what went where.
- Predictable timing for linens, meal trays and equipment, so the rest of the team can plan around it.
How does the robot work day to day?
A typical day starts before the first visit. Staff load sealed bins at the storage room with the items for the day, such as linens, supply kits and equipment, and the robot is sent on its route. It stops at a care wing, the receiving staff member confirms the delivery, and the robot moves on or returns to base to recharge. A charge nurse can send an on-demand run from the nurses' station when a need comes up between scheduled trips.
Scheduled runs carry most of the work. Morning restock, midday linen exchange, afternoon equipment return and evening stock check each follow a fixed route, so staff know when items will arrive. On-demand runs cover the gaps, such as a sudden need for extra gloves or a visitor supply. Patient room entry is a site decision, and most facilities keep the robot in corridors, supply rooms and the nurses' station area.
Which areas of the building does it cover?
The robot works in the spaces between storage and the people who need what is stored. Six areas tend to matter most, and the site assessment confirms which ones fit your floor plan, doors and elevators.
Plan the first routes around the busiest doors and the elevator schedule. Expect the robot to cover fewer areas in the first week while staff learn the pattern, then add routes once the team trusts the timing.
How does it work alongside existing staff?
The robot does not replace anyone. A delivery robot runs alongside a smaller team, not in an empty building. Staff still load it, receive items, answer calls, sit with families and provide every bit of hands-on care. The robot carries the boxes and makes the trips, and people keep the judgment and the touch.
Staff acceptance matters as much as the hardware. A preliminary simulated test with 30 nurses on isolation room duties, reported in a 2024 ScienceDirect paper, found that robots handled remote supply delivery and medication distribution efficiently, and the nurses rated them highly usable.
A 2024 study of a robotic nurse assistant on a hospital ward also shows where the friction is. According to the Journal of Medical Systems, nurses were skeptical about real time savings, and 50% of patients reported long waits caused by navigation errors and facial detection failures. Plan for those issues in the pilot: set clear pickup points, keep corridors clear and ask staff to log every delay.
What drives the savings?
Savings come from hours returned to care, not from headcount. The first driver is the share of each shift that goes to supply trips. Research cited above puts non-nursing tasks at approximately 40% of nurses' time in hospitals, and a Springer case study reports 25% of the workday as unproductive. Those are reference points, and the right number for your building comes from timing a few shifts before the pilot.
The second driver is trip time. In the six-month hospital study, delivery time was reduced by 32% to 36% compared with manual delivery. Apply the same logic to your routes: a trip that used to take a staff member off the floor now goes to the robot, and those minutes return to visits.
The third driver is the size of the labor pool. According to the U.S. Bureau of Labor Statistics, home health and personal care aides held 4,677,100 jobs in 2025, with 18% job growth projected for 2025 to 2035. That is a home care occupation rather than hospice specifically, but it shows the labor need will not go away, so hours returned to care matter. Savings stay estimates until measured, and the quote after a site assessment sets expected hours for your building.
What can the robot not do?
A robot cannot give care. It does not check a patient, manage pain, sit with a family or respond to a fall. It should not be the route for anything urgent, so keep emergency supplies on a separate path with staff in charge.
It cannot fix a blocked corridor. Route planning depends on clear paths, and a cart in the hallway or a closed door without a plan can add minutes instead of saving them. The Journal of Medical Systems study showed that navigation errors added to patient wait times, so paths must be checked and maintained.
It cannot run without people or a plan. A robot needs loading, charging, route checks and someone to respond when it stops. It also does not work outside its mapped areas or carry items beyond its design size and weight. A site assessment shows where it can go and where it should not.
How do you get started?
We are a US commercial robot integrator. We pick the right robot for the site, lease it through financing, deploy and integrate it into your routes and doors, train your staff and service it nationwide. The process starts with a free site assessment, where we map storage, care wings, elevators and the paths staff use today.
After the assessment we return a quote that covers the lease through financing, deployment, staff training and service. The payment comes in the quote, based on what your building needs. Start with one or two routes, measure the hours returned, and expand once the team trusts the pattern. Training covers the loading routine, the on-demand request process and what to do when the robot stops.
Frequently asked questions
Want a delivery robot at your hospice care center?
Tell us about your site. We will recommend the robot, quote the lease, and keep it serviced.
Sources
- NHPCO Facts and Figures 2024, National Alliance for Care at Home
- McKnight's Home Care, 2025-2026 Hospice Salary & Benefits Report coverage
- arXiv preprint on AMR routing (citing Yen et al. 2018)
- Springer chapter, ANDIS medication delivery case study (2025)
- Nature Scientific Reports, autonomous mobile robots in a tertiary hospital (2026)
- Journal of Medical Systems, robotic nurse assistant study (2024)
- ScienceDirect, simulated isolation-room robot test (2024)
- U.S. Bureau of Labor Statistics, Occupational Outlook Handbook: Home Health and Personal Care Aides
