
One of our customers, Anne*, a 39-year-old mentor, fisher and outdoor enthusiast living with an incomplete spinal cord injury at the C1–C2 level and Brown-Sequard Syndrome, could only sit comfortably for 30 minutes to an hour before needing to recline for hours or exit her chair completely. This recline dependency limited her ability to drive safely and made it difficult to participate fully in daily life. After two decades of cycling through every cushion on the market, she had resigned herself to choosing between pain and participation.
Anne’s experience illustrates a fundamental problem in the Complex Rehab Technology industry: Seating systems optimized for one activity inevitably sacrifice performance in others, often forcing users into impossible trade-offs between clinical safety and functional goals.
Assistive Technology Professionals and clinicians work hard to understand users’ primary activities, functional goals and the environments they navigate daily. The assessment process aims to identify features that meet needs across all areas of life. However, the features needed to address a goal in one area frequently conflict with those required in another.
A cushion height that provides optimal pressure relief might prevent someone from fitting under their dining table. Firmness ideal for transfers might compromise comfort during prolonged sitting. When products can’t address all goals simultaneously, prioritization becomes necessary.
Assessment limitations can compound the problem: Pressure mapping occurs only in clinical settings (if at all), evaluations can only capture limited positions and activities rather than the real-world complexity and trial periods are often inadequate or nonexistent.
The consequences extend beyond discomfort. We’ve had to remake cushions because users needed more height to reach kitchen cabinets or less height in their thighs to fit under their dining room table. These aren’t just edge cases. They’re the everyday realities where clients have to prioritize their goals and make trade-offs.
When prescribed seating doesn’t meet real needs, users improvise. They cut sections out of cushions, add donut pillows on top or glue their own foam together for extra firmness. These do-it-yourself workarounds create service issues, compromise pressure management and often make problems worse. But they reveal something important — users are desperately seeking adaptability that their equipment doesn’t provide.
Different activities demand fundamentally different support. Eating requires lowering thigh height to fit under tables. Different shoe heights change pressure distribution. Some users need maximum firmness for side transfers, while others use entirely different techniques. The variables are endless, yet we’ve been providing single-configuration solutions.
Manual adjustments aren’t the answer. They require a cognitive load users don’t have bandwidth for, physical capabilities many lack and time that daily life doesn’t allow. When adjustments require tools, caregiver assistance or complex procedures, they simply don’t happen, even when they’re clinically necessary.
The convergence of sensor technology, advanced materials and mobile apps is finally making truly adaptive, completely customized seating possible.
Sensor technology provides the foundation through real-time pressure-distribution tracking, which automatically maintains ideal settings and adjusts across a range of activities. Unlike one-time clinical pressure mapping, which most wheelchair users have never even experienced, continuous monitoring has the potential to catch problems before they become injuries.
Advanced materials make physical adaptation possible. Programmable air bladders adjust firmness and support zones on demand. Unlike static foam that simply reacts to body weight, smart materials respond to commands and adapt to physical and weight changes over time. This means seating systems that maintain clinical effectiveness throughout the day and across years of use.
Mobile applications put control in users’ hands, which is critically important for people whose agency is too often removed from their care. One-touch transitions between configurations let users shift from desk work to transport to recreation without manual adjustments. Customizable presets remember optimal settings for frequently performed activities, while usage data shows what actually works in real-world conditions. In the near future, the same connectivity can enable clinicians, ATPs, and technicians to adjust settings without requiring users to travel for appointments.
Automation ties it together through learning algorithms that recognize patterns and adjust based on detected activities. System diagnostics continuously monitor performance, alerting clients to maintenance needs when failures occur.
For Anne, adaptive technology changed everything. After finding a custom smart cushion, she gained consistent relief for the first time in 20 years. When hypersensitivity flares up, she uses the app to make small adjustments, usually once every one to two weeks. These real-time, user-controlled pressure changes allow her to stay in her chair all day with minimal discomfort, a dramatic improvement from her previous routine of frequent, hours-long reclines.
She can drive safely. She can participate in activities without planning around recline schedules. She has autonomy and flexibility that manual, caregiver-dependent cushions never provided. Now Anne can do what she loves — being outside whenever the temperature dips below 90 — with a seating solution that finally keeps up with her life.
Adaptive seating technology represents more than better outcomes for users. It’s a new value proposition for ATPs and technicians in an increasingly competitive market.
Instead of selecting the single “best compromise” solution, ATPs can configure multiple activity profiles that match users’ actual lifestyles. They can set safe parameter ranges for different use cases and access real-world usage data to optimize configurations over time. This ongoing optimization relationship creates value far beyond traditional one-time evaluations: It reduces re-orders and increases client satisfaction tenfold.
The opportunity extends industrywide. Users accustomed to adaptive technology in phones, cars and smart homes now expect the same from mobility devices. Demonstrating value through better outcomes strengthens reimbursement cases. And equipment that prevents complications rather than treating them shifts the value proposition from cost to investment.
Static seating solutions haven’t matched the dynamic lives of wheelchair users for decades. Fortunately, technology now exists to eliminate the false choice between clinical safety and functional participation.
For ATPs and technicians, this represents an opportunity to move the industry forward by developing new skills, offering new services, and evolving from equipment providers to technology partners. In turn, we can deliver better outcomes and empower users to live fully without compromise.
*Name changed for anonymity

Tim may be reached at timb@kalogon.com.
Tim Balz, CEO and founder of Kalogon, is a former SpaceX engineer with a proven passion and a patent portfolio focused on improving sitting. Through empathy-driven design, he leads his team in developing products that help everyone live an active, seated life. Balz has been working with individuals with a variety of mobility disabilities for almost 15 years, focusing on providing technology access for independence. In addition to a nonprofit he started in high school, Balz created the first smart wheelchair in partnership with Intel, which was endorsed by Stephen Hawking and named the No. 1 IOT device of 2014. He is the co-inventor on an all-terrain wheelchair patent and has designed a wheelchair suspension system for the world’s largest wheelchair company, Permobil.