What You Will Learn
FES cycling is powerful, but it is not a standalone cure. Chapters 9 and 10 looked at the single session and the long arc of progression; this chapter zooms out further, to the programme that surrounds the cycling. We look at why rehabilitation after a neurological injury needs to be thought of as a system rather than a shopping list of devices, why the training dose required to change a nervous system can only realistically be met by combining therapies, and how FES cycling fits alongside standing, stretching, upper-limb work, transcutaneous spinal cord stimulation (tSCS), vagus nerve stimulation (tVNS), and the ordinary work you do with your physiotherapist. By the end of the chapter, the aim is a mental model for putting the pieces together so that the time, money, and effort you invest at home pull in the same direction.
Rehabilitation as a System
It helps to start with a picture. Imagine the body after a spinal cord injury, stroke, or other neurological event as a complex system in which every part influences every other. The cardiovascular system, the muscles, the bones, the nervous system, the bowel and bladder, the skin, the mood, the sleep, and the home environment all interact. You cannot fix any one of them in isolation, because the weakest link limits the whole.
This is why a rehabilitation programme that leans on a single therapy, however good, tends to stall. FES cycling addresses muscle bulk, cardiovascular fitness, circulation, and spasticity in the lower limbs. It does not, on its own, address standing tolerance, bone density at the hip, contracture at the ankles, hand function, autonomic regulation, or the psychological work of rebuilding a life. A good programme takes cycling seriously precisely because it is only one component of a coordinated whole.
There is a related warning. Many homes of people with SCI end up cluttered with devices that were bought in hope and abandoned in frustration. A bike in one corner, a standing frame folded against a wall, a hand cycle in the hallway, a TENS unit in a drawer. Each was a reasonable idea on its own; together, they never became a programme. The question worth asking before any piece of equipment enters the house is not "is this a good device?" but "does it combine well with what I am already doing, and does it plug a specific gap?"
Why No Single Therapy Is Enough
It's not hard to imagine that after a neurological injury, there are two things that we could aim for. One is to strive to recover lost function; the other is to compensate, perhaps with assistive technology, for what has been lost. As we look back in history, we can see that medical science would not expect much in the way of functional recovery after a serious injury. The attention would turn quickly toward compensation strategies. Things are not so black and white these days since knowledge of neuroplasticity emerged into the public consciousness. Although neuroplasticity is still not well understood, it has changed many clients' expectations of what functional recovery might mean for them. Although a detailed discussion of neuroplasticity is beyond the scope of this book, we can think of it as a learning process that requires many carefully crafted 'lessons' to make progress.
The training literature is fairly blunt about what it takes to drive lasting neurological change. Estimates vary, but the numbers are sobering. Studies in upper-limb stroke rehabilitation find that around eighty to ninety hours of intensive, repetitive practice are needed before meaningful gains become reliable, and many hundreds to thousands of task-specific repetitions per day are in the territory where cortical change starts to stick. Constraint-induced movement therapy protocols ask for roughly five hours a day for several weeks. Contracture-prevention research suggests that prolonged stretch, measured in tens of minutes to hours per day, is what keeps tissues pliable; 30 minutes of hand-applied stretching once a week does not.
Hospital-based physiotherapy cannot, on its own, deliver volumes of this kind. An hour with a physio three times a week is valuable for assessment, adjustment, and teaching, but it is not enough on its own to produce the changes patients want. This is the gap that well-chosen home technology fills. FES cycling, standing, tSCS, stretching programmes, and upper-limb devices all exist because the brain and spinal cord respond to dose, and dose is what the clinic day alone cannot provide.
Framed this way, FES cycling is not a shortcut to recovery. It is a way of banking hundreds of extra hours of useful movement each year that would otherwise be impossible. The same logic applies to every other element of the programme.
Standing: The Natural Partner to FES Cycling
If there is one therapy that sits most comfortably alongside FES cycling, it is regular standing. The two address different deficits and complement each other cleanly.
FES cycling produces repeated, controlled contractions of the lower limbs, driving cardiovascular and metabolic adaptations and increasing muscle bulk. It moves joints through a range of motion but does not load them vertically. Standing does the opposite: it loads the long bones of the legs, the pelvis, and the spine, provides prolonged stretch to the hip flexors, hamstrings, and calves, and shifts pressure off the ischial tuberosities for the duration of each stand.
The evidence on standing is unusually concrete for this field. International guidelines recommend 30 to 60 minutes per session, 4 to 6 times a week, with strong evidence of benefits across circulation, bowel and bladder function, skin integrity, joint range, spasticity, bone density, and mental well-being. Approximately 87% of SCI patients who stand regularly report improvements in general well-being; more than half report better circulation; around a third report pain reduction; roughly a quarter report improvements in bowel regularity, bladder function, and sleep. Spasticity reduction after a stand lasts, on average, a little over a day, which is one reason frequent, shorter stands are often preferred to rare, longer ones.
For practical purposes, standing before a cycling session helps to warm the tissues and settle spasticity; standing on non-cycling days keeps the bones and soft tissues honest. Many of our clients build a weekly rhythm of cycling three times a week and standing on the other days, or standing briefly every day with cycling layered in. The order matters less than the fact that both are happening.
One small detail is worth stating plainly. Standing in front of a blank wall is not ideal. The psychological and cognitive benefits of being upright, looking out at the world, and engaged in a task matter as much as the mechanical ones. If you are going to stand, stand where something is happening.
Keeping the Joints Open: Stretching, Positioning, and Contracture Prevention
FES cycling moves the hips, knees, and ankles repeatedly through a useful range. This does real work to slow the shortening of soft tissues that happens when limbs are unused. It is not, however, a complete answer. Contracture prevention is stubborn: the tissues respond to how long they are held at length, not only how often they are moved.
Animal studies suggest that as little as ten days of immobilisation in a shortened position can reduce muscle length by around ten per cent. The implication for humans, though less precisely quantified, is the same in direction: tissues left short for long periods get shorter, and the ankle, knee, and hip flexors are particularly vulnerable in people who spend most of their day seated.
This is where positioning programmes, night splints, ankle-foot orthoses such as the PRAFO, and dedicated stretching routines earn their place. A good programme uses FES cycling and standing to provide dynamic, loaded movement, and uses positioning to provide the prolonged, low-load stretch that tissue remodelling requires. Your physiotherapist will often recommend specific positions to hold for specified times each day. These are not optional extras; they are the other half of the contracture story.
The Upper Body Is Not an Afterthought
For people with cervical-level injuries, incomplete paraplegia, stroke, or any condition that affects the arms, lower-limb FES cycling is one half of a two-sided problem. The same principles that make cycling useful for the legs, namely repeated, paired, meaningful activation, apply to the arms, hands and shoulders.
The available technologies for upper-limb work have grown in recent years. FES cycling of the arms is one option, often using the same stimulator with different electrode placements. We commonly use the Active Hand product to allow a user to grip handles and, at a minimum, stimulate the biceps and triceps. Additional muscles, such as the anterior and posterior deltoids, rhomboids, and other shoulder-stabilising muscles, can be incorporated into FES movement exercises. Care should be taken with shoulder joints at risk of instability or subluxation, and guidance from a competent person is important.
Hand-and-wrist FES systems drive grasp and release in functional tasks. Robotic gloves such as Carbonhand add strength to weak grips and allow a patient to hold a drink, a toothbrush, or a tool for longer than they otherwise could. Mirror therapy, bilateral training, and constraint-induced approaches all contribute in the right patient. Increasingly, cervical tSCS is being combined with upper-limb training to further enhance recovery.
The details of upper-limb rehabilitation sit outside the scope of this book. The principle is worth carrying across: if the aim is a whole person, the programme needs to address the whole person. A fit cardiovascular system and strong legs in a body with progressively weakening hands is not the goal.
Pairing FES Cycling with Transcutaneous Spinal Cord Stimulation
Transcutaneous spinal cord stimulation, or tSCS, is the most interesting new neighbour FES cycling has acquired. Whereas FES activates muscles directly through motor nerves, tSCS acts on the spinal cord itself, electrically "priming" the neural networks below the level of injury. A primed spinal cord appears to respond more strongly to the repetitive inputs of cycling, standing, or walking practice.
The combination is elegant in principle. Cycling provides repeated, meaningful movement. The tSCS increases the excitability of the circuits that see that movement. In practice, the published protocols and clinical experience to date suggest several things worth knowing.
First, expect changes in spasticity and pain before you see functional gains. A single thirty-minute tSCS session often produces an immediate drop in spasticity that lasts up to two hours; six weeks of regular use can produce carry-over effects lasting several days. Some users find that their FES stimulation currents can be reduced by fifteen to thirty per cent during combined sessions, because the muscles respond more readily.
Second, the cycling protocols studied with tSCS typically run for 45 to 60 minutes, three times a week, with tSCS delivered during cycling rather than before. Your clinical team will choose parameters and electrode placements appropriate to your injury and goals.
Third, tSCS included in the Stim2go system is approved in Europe as a medical device for the temporary reduction of spasticity of spinal origin and neuropathic pain. It is not approved as a treatment to restore walking, grasping, or any other function. The emerging evidence on functional recovery is genuinely encouraging, but it is still emerging, and any honest clinician will distinguish between what the device is approved for and what it may, in time, be shown to do.
For a reader weighing whether to add tSCS to an existing cycling programme, the sensible order is: cycle consistently for long enough to know what cycling alone is doing for you, then discuss with a clinician whether adding tSCS is likely to address a specific goal (spasticity, function, tolerance, or training quality).
The Autonomic Layer: tVNS and Nervous System Regulation
Transcutaneous vagus nerve stimulation, or tVNS, is a newer, smaller part of the picture, but it deserves a mention. Where FES drives muscles, and tSCS excites spinal circuits, tVNS acts on the autonomic nervous system via the vagus nerve, nudging the balance between the sympathetic "accelerator" and the parasympathetic "brake" toward a calmer, more balanced state.
For people with SCI, this is not a cosmetic concern. Autonomic dysregulation is part of the condition for many users and affects sleep, digestion, blood pressure, heart rate variability, and mood. There is a growing body of research exploring tVNS in stroke rehabilitation, epilepsy, depression, and SCI, with the common thread being that a better-regulated autonomic system seems to create more favourable conditions for the rest of the rehabilitation work.
tVNS sits in a different place in the programme from cycling or standing. You do not cycle and stimulate the vagus simultaneously; you use tVNS in quiet windows (first thing in the morning, before sleep, or as part of a relaxation routine) to support the background state of your nervous system. As with tSCS, approvals and evidence vary by country and by indication. For most readers of this book, tVNS will be a topic to raise with a clinician rather than something to act on immediately, but it is worth knowing about as the field evolves.
At Anatomical Concepts, we are working with the only tVNS product regulated as a medical device and exploring its application in rehabilitation.
Working With Your Physiotherapist and Clinical Team
Home-based technologies do not replace a skilled clinician. They extend what a clinician can help you achieve. The division of labour that tends to work is roughly this.
Your physiotherapist assesses, sets goals, identifies the problems most worth solving, checks for complications, measures change over time, and adjusts the overall plan. They also do the hands-on work that cannot be replicated at home: specific mobilisations, detailed strength and balance work, gait practice, fitting orthoses, and fine-tuning posture.
The home programme delivers volume. Cycling, standing, stretching, positioning, and any added neuromodulation are repeated across the week, producing the cumulative hours that drive change.
The review loop connects the two. Every few months, you and your clinician look at how the programme is going, what has changed, and what to adjust. Between reviews, you get on with the work.
For this to function well, two habits help. One is keeping simple records: session dates, durations, settings, and any notable responses. Modern FES cycling systems log most of this automatically; a notebook covers the rest. The other is knowing when to ask for a check. New or changed spasticity, a skin problem that does not settle, equipment behaving differently, a plateau that is deeper than usual, or any change in overall medical condition, are all reasons to contact your clinician rather than wait for the next review.
Setting Goals and Choosing What to Add
Goals are what turn a collection of therapies into a programme. Vague intentions ("get stronger", "stand more") drift. Specific, layered goals ("stand for thirty minutes four times a week by the end of June, then add ten minutes of FES cycling beforehand") get met.
The practical question most users face is not "which therapy should I do?" but "in what order should I add them?" A sensible sequence, for most people, looks like this.
First, establish the cycling habit. Three sessions a week, sustained for two or three months, is the foundation. Until this is in place, adding other therapies tends to dilute the effort rather than extend it.
Second, layer in standing. If you are not already standing regularly, this is usually the most productive addition: low complexity, broad benefits, and a strong evidence base.
Third, address stretching and positioning. Work with your physiotherapist to identify the two or three most vulnerable joints and develop a short, specific daily routine focused on them.
Fourth, consider the higher-technology neighbours. tSCS, upper-limb FES, and the like come into play when the foundation is stable and there is a specific question they can answer for that individual ("I want to reduce my baclofen", "I want to regain better hand grip", "I want to see whether my walking can progress further").
This is not a rigid recipe. Some users, especially those still in the first year after injury and with access to an experienced clinical team, will sensibly run several elements in parallel from the start. The principle behind the sequence matters more than its exact shape: do not add a new therapy until the existing ones are actually happening.
Choosing What Not to Do
A good programme is defined as much by what it leaves out as by what it includes. Every hour you spend on rehabilitation is an hour you are not spending with family, at work, resting, or on the rest of your life. Three therapies done well will produce more than six therapies done badly.
The questions worth asking before adding anything new are plain ones. What specific problem will this address? Is the evidence for it robust or is it still promising? How does it combine with what I already do? What would I take out to make room for it? What will I measure to decide whether it is working? If those questions cannot be answered, the honest move is usually to wait.
Equally, therapies that are not earning their keep should be dropped without guilt. A bike that has not been used in six months, a standing frame that sits folded, or a hand device that sees a few minutes a week, are not serving you. Either bring them back into active use, pass them to someone who will, or accept that they are no longer part of the plan.
A Final Word on Integration
FES cycling is powerful. It is also incomplete on its own. The users who do best with it are, without exception, the ones who hold it in a wider programme: standing on the off days, stretching before bed, working with a physiotherapist on specific goals, adding neuromodulation where it earns its place, and keeping an eye on the whole person rather than any single outcome.
The underlying idea is simple, even if the execution takes years. The nervous system responds to what it repeatedly experiences. A programme that gives it consistent, varied, meaningful experiences across enough domains, often enough, for long enough, produces change. A programme that relies on any one piece of equipment to do the work alone does not.
Build the base with cycling. Add the partners deliberately. Protect the routine. Review honestly. That is what rehabilitation, done as a system, actually looks like.