A procurement and clinical perspective for medical device distributors.
Author: ABeWER Clinical Team
Date: July 12, 2026
Prevention Is No Longer a Mattress Category
Hospital-acquired pressure injuries are still one of the hardest problems in modern care, and they are not getting easier. They cluster around immobility, frailty, critical illness, poor perfusion, malnutrition, moisture, and shear, and they punish prolonged loading of tissue that has lost its ability to tolerate it. As hospitals admit older, sicker, and more complex patients while nursing capacity tightens, the problem grows rather than shrinks.
The economics make the point bluntly. One widely cited analysis put the national cost of HAPIs in the United States above US$26.8 billion, with severe stage 3 and 4 injuries driving a disproportionate share of that figure (Padula and Delarmente, 2019). AHRQ has reached similar conclusions about per-patient treatment costs and the resulting litigation exposure (Agency for Healthcare Research and Quality, 2019).
None of this is lost on procurement. Hospitals have stopped buying mattresses in isolation. What they are actually purchasing is clinical support technology, something that helps reduce preventable harm, standardizes care, takes the weight off an overstretched nursing workforce, and aligns with international guidance. The 2025 International Pressure Injury Guideline says as much: redistribution surfaces matter, but repositioning remains necessary, individualized, and inseparable from the wider prevention plan (National Pressure Injury Advisory Panel, European Pressure Ulcer Advisory Panel, and Pan Pacific Pressure Injury Alliance, 2025).
Read in that light, the ABeWER multiTURN® 6 is not really an alternating pressure mattress at all. It is a prevention platform that puts automated lateral turning, alternating pressure therapy, redistribution, programmable cycles, and workflow support into a single system. We are not claiming it is the best surface on the market in some abstract sense. The argument is simpler and harder to dispute: prevention now demands several mechanisms working at once, and most surfaces only offer one.
What Distributors Actually Weigh Up
Anyone who has sold support surfaces for a living knows that brochure adjectives count for nothing. The real evaluation is whether a technology helps a hospital solve problems it can measure: clinical risk, nursing workload, ease of rollout, infection control, maintenance, total cost of ownership, and guideline compliance.
Start with the clinical question. Pressure injuries are not caused by pressure on its own; they emerge from a tangle of magnitude, duration, shear, tissue deformation, perfusion, temperature, moisture, and the patient’s own tolerance. A surface that redistributes load helps, but it cannot fix prolonged loading if the patient stays in one posture too long. That is exactly why the 2025 guideline insists that at-risk individuals be repositioned regardless of the support surface beneath them, and states plainly that no surface replaces repositioning (NPIAP, EPUAP, and PPPIA, 2025).
Then there is the matter of buying to the guideline. The 2025 edition points procurement toward individualized repositioning, proper offloading, friction and shear reduction, repositioning reminders, movement-monitoring sensors where budgets allow, and surfaces chosen against the patient’s risk, tissue response, mobility, posture, microclimate needs, and goals of care (NPIAP, EPUAP, and PPPIA, 2025).
Finally, the operational question, which is the one that keeps managers awake. Can the system actually deliver prevention when the ward is short-staffed? The WHO projects a global shortfall of 4.5 million nurses and 0.31 million midwives by 2030, spread unevenly across regions (World Health Organization, 2025). That is not a distant statistic. It is the reason two-hourly turning slips, ICU protocols drift, and documentation falls behind.
Why Automation Became the Differentiator
Manual repositioning is good clinical practice and a fragile operational reality at the same time. A two-hourly schedule lives or dies on staffing, patient weight, clinical stability, whatever emergency is unfolding two beds over, and the discipline to document it. In the ICU and long-term care, the gap between what was prescribed and what was delivered can widen quickly, usually at night.
Automation does not take the nurse out of the loop. It backs her up. A system that delivers small, regular, programmed positional changes can hold a schedule more reliably than human hands during the small hours and the chaotic shifts. That matters clinically, because the guideline calls for individualized intervals and small incremental shifts in unstable, critically ill patients, and warns against quietly stretching at-risk patients out to four, five, or six hours because nobody had time (NPIAP, EPUAP, and PPPIA, 2025).
This is where the category is heading. The next generation of surface is not defined by air-cell count or foam density. It is defined by whether the thing can run a repeatable prevention protocol on its own, redistributing load, assisting turns, cutting shear, managing the skin-surface environment, and easing the physical toll on nurses.
multiTURN® 6 as One Integrated System
What the multiTURN® 6 does is pull together prevention functions that are usually scattered across different devices and different parts of the care process. Alternating pressure therapy works on the duration and distribution of load by cycling inflation and deflation across cells. Automated lateral turning tackles the static-posture problem by moving the body itself. Redistribution lightens the focal load over bony prominences. Programmable cycles let the therapy bend to the patient’s condition and tolerance rather than the other way round. Put together, these functions drag the product out of the “mattress” bracket and into something closer to clinical infrastructure.
Clinical Advantages
Repositioning That Actually Happens
The strongest clinical case for the multiTURN® 6 is that it operationalizes the one thing manual care consistently fails to deliver. The 2025 guideline is unambiguous: repositioning should be individualized, should optimize offloading and redistribution, and should continue even when a redistribution surface is in use (NPIAP, EPUAP, and PPPIA, 2025).
Automated turning matters because it loosens the dependence on flawless manual compliance. The bed keeps the position changes coming while the nursing team focuses on where judgment is irreplaceable: assessment, skin inspection, escalation, and the patient-specific adjustments a machine cannot make. For an immobile, high-risk patient who cannot shift their own weight, that is the difference between passive prevention and an active protocol that runs around the clock.
Less Shear, Less Handling Damage
Shear does its damage when the skeleton slides against skin that stays put, deforming the tissue layers in between. Rushed manual turns, performed without the right equipment, are a classic source of it. The 2025 guideline specifically asks for equipment that reduces friction and shear during repositioning, and for handling techniques that minimize those forces wherever manual movement is unavoidable (NPIAP, EPUAP, and PPPIA, 2025).
Smooth, programmed lateral movement reduces abrupt dragging and uneven force that creep into hurried handling. It does not replace careful assessment, and nobody should pretend otherwise, but it gives the patient a more consistent mechanical environment than a tired pair of hands at 3 a.m.
Redistribution and Offloading Together
Conventional alternating pressure mattresses concentrate on redistribution, and that remains worthwhile. The guideline supports redistribution foam surfaces and suggests alternating or reactive air surfaces for at-risk patients (NPIAP, EPUAP and PPPIA, 2025). The catch is that redistribution alone may leave a vulnerable site loaded if the patient is stuck in a bad posture. The multiTURN® 6 closes that gap by applying alternating pressure and lateral turning simultaneously: the air cells change the interface load, while the turning function changes the body’s macro-position. Two mechanisms, coordinated, rather than one doing all the work.
Microclimate
Microclimate is the heat and moisture trapped where skin meets surface, and it quietly governs how well tissue tolerates everything else. Too much moisture makes the skin fragile, friction increases, and tolerance drops. The 2025 guideline advises clinicians to weigh microclimate management and shear reduction when choosing or changing a surface (NPIAP, EPUAP, and PPPIA, 2025). For procurement that turns the cover into a clinical component rather than an accessory; breathable, fluid-resistant, cleanable materials are part of how the system performs, and part of how it satisfies infection control.
Individualized Care
No two at-risk patients are the same. A ventilated ICU patient on vasopressors, a bariatric long-term care resident, a neurological patient with no protective sensation, and a palliative patient whose priority is comfort each need a different repositioning strategy. The guideline frames intervals around mobility, tissue tolerance, clinical condition, comfort, sleep, goals of care, and the surface in use (NPIAP, EPUAP, and PPPIA, 2025). Programmable cycles are what allow a single platform to serve all of them, which is also why a distributor can sell the same system across several departments rather than just one.
Built for the ICU
Intensive care concentrates risk like nowhere else: immobility layered on sedation, ventilation, hemodynamic instability, edema, poor perfusion, a thicket of devices, and a patient who often cannot tell anyone they are uncomfortable. A systematic review and meta-analysis across ICUs in the Eastern Mediterranean region found a high prevalence of HAPIs, underscoring the scale of the problem in critical care (Isfahani et al., 2024).
The 2025 guideline notes that patients in shock or with systemic hypoperfusion may need more frequent, smaller, incremental shifts when a full turn is not feasible (NPIAP, EPUAP, and PPPIA, 2025). That is precisely the scenario automated repositioning was built for: keeping movement going when a manual turn is difficult, delayed, or clinically out of the question. For settings where transferring the patient between surfaces is itself a risk event, the multiTURN® 6 EBT extends the same logic into patient handling.
What This Means for Distributors
An Easier Story to Tell Procurement
Hospitals now expect technology to justify itself through guidelines, evidence, and operational value. Sell a conventional alternating pressure mattress, and the conversation more or less stops at redistribution. Sell the multiTURN® 6, and you can talk about the whole prevention architecture: redistribution, offloading, automated turning, shear reduction, programmable care, and workflow support. Those map onto the framework procurement teams actually use: outcomes, staffing pressure, risk management, rollout, and long-run cost.
Lower Barriers to Adoption
Prevention technology only works if staff use it, and complicated systems that demand endless retraining or constant troubleshooting tend to gather dust. Embedding repositioning support into the surface itself removes a lot of that friction. A clean interface and programmable cycles let a ward adopt a standardized protocol without surrendering clinical oversight.
Real Differentiation
Most alternating pressure mattresses offer a single trick: dynamic redistribution. Useful, but increasingly thin as a standalone pitch. By pairing dynamic therapy with automated turning and workflow support, the multiTURN® 6 sits closer to healthcare technology than to commodity bedding, and that is a far more defensible position to sell from.
Value Over the Lifetime, Not the Invoice
The financial case for advanced prevention should never rest on sticker price alone. Procurement increasingly thinks in terms of total cost of ownership: serviceability, durability, parts, modular maintenance, cleaning compatibility, staff time, rental dependence, and the cost of the adverse events you avoid. Severe pressure injuries eat clinician time, complicate care, and run up real money (Padula and Delarmente, 2019). A premium system earns its keep by reducing operational friction year after year, which beats competing on price.
Infection Control and Maintenance
Support surfaces are now judged through an infection-prevention lens as much as a clinical one. Covers have to resist fluid ingress, survive approved disinfectants, and turn over quickly between patients. Welded seams, fluid-resistant materials, and genuinely cleanable construction earn their place in ICU and long-term care, where contamination risk and cleaning frequency are both high. There is a hidden-cost angle too: a mattress that performs mechanically but falls apart under cleaning protocols is expensive in ways the purchase order never shows. The guideline also reminds organizations to maintain their surface inventories in accordance with manufacturer specifications (NPIAP, EPUAP, and PPPIA, 2025).
Where the Market Is Going
Pressure injury prevention is drifting toward smarter, more connected systems: automated repositioning, movement monitoring, sensor integration, digital documentation, and AI-assisted nursing support. The 2025 guideline already nods to repositioning reminders and movement-monitoring sensors as legitimate tools where resources permit (NPIAP, EPUAP, and PPPIA, 2025).
That does not mean every hospital will buy a fully connected platform tomorrow. It means the expectations behind the purchase order are shifting. Buyers will increasingly ask whether a device supports clinical workflow, informs or captures care activity, takes manual burden off staff, and slots into a standardized prevention pathway. Automated repositioning fits that trajectory because it addresses a known clinical requirement and a known failure point simultaneously. Repositioning is necessary; manual adherence is hard; nursing resources are thin. Anything that narrows that gap has strategic value.
How the multiTURN® 6 Lines Up
The multiTURN® 6 aligns with that direction because it folds several prevention principles into one platform: active air therapy for redistribution, automated lateral turning for offloading, programmable cycles for individualized care, and a reduction in repeated manual handling, giving nursing workflow some breathing room. Its features align with guideline-aligned clinical needs rather than float free of them. The honest claim is not that it is “the best”. It is at the design points where prevention itself is shifting from passive surfaces to active clinical support.
Conclusion
The next chapter of pressure injury prevention will not be written by the mattress. It will be written by how well technology helps clinicians deliver consistent care, head off preventable harm, stretch scarce nursing resources, keep pace with international guidance, and improve the long-run economics of care.
The multiTURN® 6 is built for that shift. By combining automated repositioning, alternating pressure therapy, redistribution, individualized programming, and workflow support, it provides distributors and health systems with a coherent answer to how care actually runs today. Its value is not in big claims. It is an integration of several evidence-based strategies brought together on one platform, designed for high-risk patients in high-pressure settings.
References
Agency for Healthcare Research and Quality (2019) Preventing pressure ulcers in hospitals. Available at: https://www.ahrq.gov/patient-safety/settings/hospital/resource/pressureulcer/tool/pu1.html (Accessed: 26 June 2026).
Isfahani, P. et al. (2024) ‘Prevalence of hospital-acquired pressure injuries in intensive care units of the Eastern Mediterranean region: a systematic review and meta-analysis’, BMC Nursing. Available at: https://link.springer.com/article/10.1186/s13037-023-00383-8 (Accessed: 26 June 2026).
National Pressure Injury Advisory Panel, European Pressure Ulcer Advisory Panel and Pan Pacific Pressure Injury Alliance (2025) Prevention and Treatment of Pressure Ulcers/Injuries: Quick Reference Guide. The International Guideline: Fourth Edition. Edited by E. Haesler. Available at: https://internationalguideline.com (Accessed: 26 June 2026).
Padula, W.V. and Delarmente, B.A. (2019) ‘The national cost of hospital-acquired pressure injuries in the United States’, International Wound Journal, 16(3), pp. 634–640. doi: https://doi.org/10.1111/iwj.13071.
University of Sheffield Library (2023) Harvard referencing. Sheffield: University of Sheffield Library.
World Health Organization (2025) Nursing and midwifery. Available at: https://www.who.int/news-room/fact-sheets/detail/nursing-and-midwifery (Accessed: 26 June 2026).