Fascia and Hypermobility: What the Research Actually Says, and What’s Being Sold

You’ve been told, at some point, that your fascia is the problem. Maybe a practitioner said it, maybe you read it online, maybe someone in a hypermobility group mentioned fascial release and it was the first explanation that ever seemed to join the dots. Why you hurt everywhere, why your joints feel too loose and somehow restricted at the same time, why stretching doesn’t do what everyone promises. And why your pain is so far out of proportion to anything a scan can find.

I do get it. Those with hypermobility spend years being told their symptoms are functional, exaggerated or simply unexplained, and a lot of people are still carrying the weight of that dismissal years later. So an explanation that points at a real, physical structure and says there, that’s the thing, is enormously powerful, as it takes the body seriously, it has anatomy behind it, and it has treatments you can actually book. That’s not nothing, and I’m not going to pretend otherwise.

The trouble is what happens between the laboratory and the Instagram carousel. Fascia science is real and some of it is very good indeed. The version sold to this community has run a long way ahead of it, and a treatment built on the wrong model doesn’t just fail to help, it sends people off in a direction that costs them years.

So here is the honest version, with one scope note first: this is about fascia and systemic connective tissue conditions, not plantar fasciitis, pelvic floor fascia or surgical adhesions.

What fascia actually is

Fascia is the soft connective tissue running through the whole body, and the word covers at least three different things in any given conversation, which does a lot of quiet work for the wellness industry. Deep fascia is the dense fibrous layering that wraps muscles. Superficial fascia is the looser stuff between skin and muscle. Then there’s the wrapping round the organs, the flat sheets that tendons spread into, and the covering on single muscle fibres. Different structures, different properties, one word for the lot.

Underneath it all it’s collagen, elastin and the gel they sit in, arranged into layers and planes. The thoracolumbar fascia, the big sheet across your lower back, is the most studied piece in the whole pain literature, as it’s tough, layered and heavily supplied with nerves.

Fascia is genuinely innervated. In rats, that sheet carries around three times the nerve fibre density of the big back muscle it blends into ^[3]. Free nerve endings, a lot of them nociceptors, turn up in deep fascia generally, and in the lower back sheet they’ve been counted properly in rats and given only a first look in human tissue ^[12].

It isn’t a uniform tissue, though. The encapsulated receptors that handle vibration and sustained deformation show up in the fasciae of the arm, and they’re far scarcer in the lower back sheet ^[3][13], so where someone puts their hands changes what they’re actually stimulating.

Then there’s hyaluronan. Between the layers of deep fascia sits a sublayer of loose tissue full of it, and that’s what lets the planes slide over one another ^[4]. Bend forward and your thoracolumbar fascia doesn’t stretch in isolation, it slides against whatever is above and below it. Thicken the hyaluronan, make it gluier, and the sliding gets worse. That’s the idea behind densification.

Thicker fascia and worse sliding have both been measured in living people in pain. The hyaluronan itself hasn’t, so that step is still anatomy rather than evidence.

None of this is fringe, and the people doing the careful work are generally pretty careful about what they claim. The problem is the layer of selling built on top of it.

What the hEDS imaging studies actually found

There are three fascia papers specific to hEDS and all three come from the same research group. They’re the ones doing the rounds in hypermobility groups at the moment, so they’re worth going through slowly.

The first scanned sixty five people with ultrasound and elastography, some with hEDS and all of those women, the rest with chronic neck, knee or back pain and no hEDS ^[5]. There was no healthy comparison group, which gets lost every time this one is quoted. Everyone scanned was already in pain. So it can tell you how hEDS differs from other chronic pain, and it can’t tell you how either differs from a neck that doesn’t hurt.

The finding surprised people, as the naive expectation had been that hypermobile tissue would come out thin and floppy. Instead the deep fascia at the sternocleidomastoid, the muscle running down the side of your neck, was thicker on average in the hEDS group. At the hip and the iliotibial band there was no clear difference.

Nobody found hEDS fascia was stiffer. Nobody measured stiffness on its own at all, as what the scan gives you is a ratio of fascia to muscle ^[5]. On that ratio the non-hEDS pain group showed the usual pattern, softer fascia over stiffer muscle, and the hEDS group showed less of that split rather than more. In hEDS both the fascia and the muscle often go soft ^[7], and that word often is doing a lot of work.

So whatever is going on in hypermobile tissue, your fascia has gone tight is not a fair description of what the scanner found. It’s very close to the opposite of it.

The second paper looked at how well the layers of the iliotibial band slide over each other during movement ^[6]. The hEDS group’s planes slid well under half as much as the healthy group’s, with knee and lower limb pain but no hEDS sitting in between, which fits densification rather neatly.

It was also three people per group. Nine in total, one site, one leg, one movement cycle, and nobody tested whether that gap could have been chance. The limitations say plainly that the data are preliminary and exist to guide larger studies, and I want to be fair here, as they have been careful and the people quoting them haven’t.

The single most repeated claim in this whole space, that hEDS fascia doesn’t glide, currently rests on three people.

The third is a narrative review ^[7], the fullest synthesis there is and the one most likely to get waved about as though it settles something. It pulls the scans together with lab work on fibroblasts, mast cell involvement and TGF beta signalling, and proposes a fascia centred framework for hEDS.

A framework is a proposal. It’s candid about the gaps, as the tissue work is thin and the tendon findings don’t agree, though it never once criticises the imaging, which is the part being quoted hardest.

There’s a diagnostic layer under all of it. hEDS is the one Ehlers-Danlos subtype with no confirmed molecular cause, so it gets diagnosed entirely on clinical criteria ^[1][2]. Everyone in these studies was grouped by how they present rather than by a gene, which is just the situation the whole field works in.

Why a difference on a scan isn’t a cause

Imaging that catches two groups at one moment tells you they differ. It can’t tell you which difference arrived first, and no number of before and after ultrasound clips at a conference is going to change that.

The low back pain research has been running far longer and hit exactly the same wall. In chronic low back pain the connective tissue wrapped around the muscles of the lower back came out around a quarter thicker than in people with no pain, with no difference at all in the layer just under the skin ^[8]. Shear strain across the same sheet came out lower in the pain group too ^[9].

One detail almost never gets quoted. The thickness didn’t track how bad the pain was, how often it flared, how long flares lasted, or how disabled anyone was ^[8]. The one thing it did track, weakly, was how many years someone had been in pain, which is a point for the guarding story rather than against it.

The conversation nearly always runs backwards from there. Thickened fascia, therefore fascia causes the pain, reduced gliding, therefore gliding causes the instability.

There are at least three explanations for thick, poorly gliding fascia in someone who has hurt for years, and only one of them makes fascia the villain.

Guarding changes tissue. When pain makes someone stiffen a movement, hold a joint still or stop loading a region, that tissue is living in a completely different mechanical world. Sustained guarding and reduced sliding are exactly the conditions you’d expect to thicken hyaluronan over time, so the pain changed the movement and the movement changed the tissue.

Long term irritation changes tissue. In rats, twelve days of induced inflammation in the lower back sheet left denser and longer substance P nerve endings than intact fascia had ^[13]. The total nerve supply didn’t go up and the sympathetic fibres went down, so one kind of ending increased rather than the nerve supply in general. That is a rat finding rather than a human one, as the human tissue in the same work was never inflamed.

The connective tissue biology changes tissue directly. The matrix disorder in hEDS may well alter fascia regardless of pain, as part of the condition itself, and that is likely at least partly true. It still doesn’t follow that fascia is the thing to treat, as a difference you can see on a scan is not a target you can do anything useful with.

That three way split is my framing rather than the review’s. What it proposes is one loop, with matrix biology, mechanical load and immune signalling feeding each other ^[7], and it never discusses guarding at all. On inflammation it’s far more careful than the people quoting it, calling this not a primarily inflammatory process.

That is a genuine fascia centred claim, and it’s a proposal from one group rather than a settled position. It’s also a long way from your pain is a fascia problem and fascia treatment is the fix.

That distance matters, and not in a philosophical way. Tell someone her fascia is stuck and that’s why she hurts, and you’ve handed her a model that implies damage, implies passive treatment, and implies her body needs someone else’s hands to be alright. That changes what she does and how much she fears moving, which is not a neutral outcome for a nervous system already on high alert.

Fascia can hurt, and that still doesn’t make it the driver

One of the more useful experiments in this field injected hypertonic saline, a reliably painful chemical that leaves no lasting damage, into three tissues in the low back: the thoracolumbar fascia, the erector spinae muscle, and the loose tissue just under the skin ^[10]. All three hurt, and the fascial injections produced pain that lasted longer, spread further and was more unpleasant than the same injection into muscle or into the layer under the skin. Push the dose up and down and fascia still produced more peak pain than the identical dose into muscle, at every volume tried ^[11].

So deep fascia is genuinely nociceptive. It has the wiring to send signals that matter, it hurts in a way that’s qualitatively its own, and anyone telling you fascia is irrelevant to pain is wrong.

What gets dropped is the mechanism. Even in healthy volunteers, in a laboratory, the spreading and disproportionate part of the response was the central nervous system amplifying rather than anything ongoing in the tissue. The fascia set the alarm off, and the alarm system produced the experience.

In someone whose alarm is already running hot, an ordinary input gets amplified far past what the tissue state would predict, which is what you’d expect from the work on hyperalgesia in chronic pain. And that amplification isn’t theoretical in hypermobility, it’s been measured.

Pressure pain thresholds taken at fourteen sites around the body in women with hEDS came out lower than in matched healthy women at every site but one ^[14]. Not just the sore ones, the pain free ones too. Lowered thresholds in a body part with nothing obviously wrong with it is the signature of central sensitisation rather than local tissue damage.

Later work went at the machinery directly ^[15]. The hEDS group wound their response up more over repeated identical pokes, and got less of the pain relief exercise normally gives. The brain’s own dampening system didn’t clearly differ from controls, and that’s flagged as inconclusive rather than reassuring. So the gain side is clearly up, the braking side is murkier, and none of it is about how well a fascial plane slides.

What Woolf described, and it’s the sentence the whole field rests on, is that input from nociceptors can trigger a long lasting but reversible rise in the excitability of neurons in the central nociceptive pathways ^[16]. Ehlers-Danlos turns up as one of the conditions where that’s seen ^[17].

Fascia may well be one input into that system. Once the system is running, it doesn’t need the input to keep going.

Can anyone actually release it?

Everything else hangs off the mechanical question, so take that first. Can you change the physical state of deep fascia with your hands, a roller, a Graston tool or a cupping set?

Not the dense stuff, no, and we know that because one of the most prominent researchers in the entire field went and did the maths himself.

A three dimensional model of fascial deformation under manual therapy asked what force it would take to produce even the slightest compression in the fascia lata, the plantar fascia and the very soft superficial fascia of the nose ^[18]. For the fascia lata the answer came back at around 925 kilograms, which is roughly a small car delivered through a thumb. The plantar fascia isn’t much kinder.

This isn’t a critic sniping from outside. Schleip is on that author list, in a peer reviewed osteopathic journal, with biomechanics specialists alongside him, and their own conclusion is that the palpable sensations of tissue release reported by manual therapists cannot be due to deformation of the firm tissues.

Soft superficial fascia deforms easily. The dense structures everyone is talking about do not.

So what happens in a session that leaves someone feeling better? Schleip’s own answer, from 2003, is that the release people feel is unlikely to be tissue deformation at all, and is far more plausibly mechanoreceptor driven changes in autonomic tone and local viscosity ^[19]. That needs no tissue deformed, it needs sensory input travelling up the nervous system and changing pain processing and muscle tone from the top down. That’s his proposal rather than a settled finding, and the autonomic half of it has proved much harder to pin down than the story suggests.

Which is a real and interesting mechanism, and has nothing whatsoever to do with releasing anything.

The fuller model of manual therapy lays it out as a chain ^[20]: mechanical input, then nerve effects, then spinal cord effects, then brainstem pain control, then the brain, then the outcome. The tissue technique is the first link and contributes the least of it. Only short lived mechanical effects hold up, and improvements routinely turn up a long way from where the hands were. Treat the mid back and the neck improves.

Which predicts the finding that keeps turning up across conditions and treatments. Pretty much any hands on therapy involving sustained, intentional touch gives short term pain relief and better movement, whatever story is attached to it. Fascial release, deep tissue, sports massage, trigger point work, the lot.

The contact, the interaction and the temporary rise in movement tolerance, that’s the engine.

One piece of work gets quoted as though it settles this. Pool every manual therapy trial with a sham arm, pull out the soft tissue techniques, then split them by how well each trial blinded its people. The badly blinded ones found a difference between technique and sham. The properly blinded ones didn’t ^[21].

Read the line before it, though, and the two halves weren’t actually distinguishable from each other, the properly blinded arm is five trials, and pooled as a whole that result modestly favoured technique over sham. The soft tissue family in there is massage and thumb pressure, with no fascial work in it at all, so reading it as evidence about fascia is my stretch rather than theirs.

It points the right way, and it isn’t the knockout it gets used as, mine included.

What the tools actually do, one at a time

Foam rolling

Pool the foam rolling work and the effects before exercise come out small: a slight gain in flexibility, a slight one in sprinting, nothing worth mentioning on jumping or strength ^[22]. The people who pooled it are refreshingly blunt, saying outright that it cannot be definitively determined whether the sprint effects were really down to the rolling.

Then someone put foam rolling and stretching up against every other warm up going, from walking and cycling to calisthenics, vibration, strength work and a heat pack ^[23].

On range of motion there was no meaningful difference, and that half is solid. The stiffness half rests on a handful of comparisons with a spread so wide the authors call their own result not interpretable, in those words. Everyone in it was healthy, and they go out of their way to say they aren’t telling anyone to stop rolling.

So the gains from a roller are real, and they’re also just what you get from moving about for five minutes first. You’d honestly have more luck stretching the tyres on your car, and the case for stretching hits the same wall for the same reason.

What you can do is hand your nervous system an input that shifts tone and buys you some movement tolerance, which is worth having.

Myofascial release

The evidence on practitioner applied myofascial release is mixed in both its quality and its results ^[24]. That doesn’t mean it does nothing, it means the benefit can’t be pinned on a fascia specific mechanism when the nervous system and context explanations above cover it perfectly well.

Instrument assisted soft tissue work

This is Graston and the various metal scrapers, and it’s where the gap gets a bit embarrassing. The largest pooling of it, in 2022, found no clinically meaningful improvement in function, in pain or in range of motion, and the people doing the pooling rated their own evidence very low quality ^[25]. That is the best read of the trials available to them rather than a closed file. What has held up more firmly is the comparison against other active treatment, where nothing measurable is left over. The proposed mechanism is breaking down adhesions, which runs into the same force problem as everything else.

Dry needling

Dry needling into trigger points buys short term pain relief ^[26]. That’s in localised myofascial pain rather than in hypermobility, where it hasn’t been properly studied. What it buys beyond the short term, for disability or for the things people actually care about later on, isn’t established either, and the bigger complication is the target itself.

Trigger points, and why the target is shakier than the treatment

The trigger point model proposes discrete taut bands of hypersensitive muscle that produce characteristic referred pain and respond to compression or needling. It has been enormously influential for fifty years across physiotherapy, osteopathy and manual medicine, and it sits on much shakier ground than most of the people using it realise.

Two pain physicians and a neurologist published a critical evaluation of the whole phenomenon, arguing the construct has no credible scientific basis under it ^[27]. They got argued back at in the same journal, which tells you something on its own. Fifty years in, whether a trigger point is a real thing is still being fought over by the people who study pain for a living.

The practical problem is reliability. Pooled work on finding them by hand found agreement between clinicians inconsistent, with only a couple of the signs reproducible at all ^[28]. Two experienced therapists can usually agree that something is tender. Ask them to say independently where it is, and quite often they can’t.

The whole model depends on reliably finding the thing you’re treating, and any trial comparing trigger point therapy against a control is testing a loosely defined technique aimed at an unreliably located target.

For hypermobility there’s an extra wrinkle. If pressure pain thresholds are down across the whole body ^[14], a spot that’s tender under a thumb may not be a local tissue problem at all. It may be a place where a sensitised nervous system is doing what sensitised nervous systems do, and needling that is aiming at the wrong level entirely.

The claim that trauma is stored in fascia

The Body Keeps the Score is a book about the brain and the nervous system. Muscles that never switch off, posture that changes, a body you can’t read very well any more, and all of those are put down to how the nervous system is processing things. It doesn’t claim trauma is stored in fascial collagen, and it doesn’t claim that working on tissue processes a traumatic memory.

A critical review went through 122 of the book’s claims one at a time ^[29]. It found repeated places where the evidence cited was incomplete, selectively presented or simply at odds with the wider research, and concluded that what’s there doesn’t show body based treatments beating established ones like CBT. The fascia version has taken a metaphor about the body and turned it into a tissue mechanism nobody ever proposed.

There’s a simpler problem underneath the whole idea. To store a memory you need neurons, and the free nerve endings in fascia are the far ends of neurons whose cell bodies sit in the dorsal root ganglia, with their wiring running up the spinal cord into the brain.

Those endings report. They don’t remember.

What does have early evidence is body oriented trauma therapy working through the nervous system, as Somatic Experiencing has promising early results on a literature that’s mixed and short of numbers ^[30]. The mechanism there is settling the nervous system and getting better at reading your own body, not adhesions.

For those carrying trauma histories, whether that’s years of medical dismissal or early life experiences that shaped the pain system, the trauma in fascia story probably feels validating because it takes the body seriously. It still points at the wrong tissue and the wrong treatment.

Why the wins are real, and what’s actually producing them

Something does happen when people feel better after these sessions. The pain drops, the movement improves, the body feels a bit more like it belongs to them again, and I’m not about to tell anyone their experience didn’t happen.

What I would say is that what we think is producing it likely isn’t, which matters, as getting the mechanism wrong builds a model that needs someone else’s hands forever and never builds the person’s own capacity.

Four things are doing most of the work.

Turning the gain down. Any input the brain files as safe rather than threatening can settle a sensitised system for a while, and it settles it everywhere rather than just where the hands were. That’s why people so often report feeling better all over after a session rather than only in the bit that got worked on.

Autonomic settling. The system that runs your heart rate, your blood pressure and your gut without asking you first doesn’t run smoothly in a lot of people with hypermobility. The fight or flight side sitting too high at rest turns up again and again. The other half of it, responding too little when the system is called on, comes from one set of testing rather than from the literature as a whole ^[31].

The symptom load came out heavier than in healthy controls, heavier than in two other EDS subtypes, and in much the same range as fibromyalgia, though that four way comparison has only been run once ^[32]. The broader review of POTS in this population takes in the gut, the bladder and temperature control as well ^[33].

So when hands on work leaves someone calmer, breathing more easily, with a heart rate that has settled, the likeliest route is the rest and digest side of the same system, coming up through the skin. It’s short lived, and it isn’t specific to fascia work. Fascia is part of the route, it isn’t the destination.

Clearer positional information. Joint position sense is measurably worse in hypermobility. The leg is where that’s best established. The arm is patchier, with the shoulder usually coming out no different and the fingers coming out worse ^[35][36]. A separate experiment in a small group with EDS found it wasn’t a fixed offset so much as a loss of precision, so a noisier signal rather than one that simply points the wrong way ^[37].

When the signal is noisy, prediction gets harder. Anything that sharpens it for a while, so pressure, compression, taping, or slow deliberate movement with your attention on it, buys better coordination and less guarding. The receptors in fascia feed that signal, and the win is a nervous system one.

Context, expectation and being taken seriously. How much of the result comes from everything other than the technique has never been pulled apart, as the trials weren’t built to separate it out ^[20]. Someone who has spent years being told there’s not much wrong with her walks in, gets examined properly, and has something applied that’s described as aimed at her exact problem. That moves pain through expectation and attention rather than through the fascia under the hands.

Knowing which of the two you’re getting matters, as only one of them comes home with you.

There’s a fifth thing, much less glamorous and likely bigger than any of them. A lot of fascia branded work involves moving in ways the person has been avoiding, slowly, with support, and for a nervous system that’s been treating a shoulder as dangerous for three years that is graded exposure.

It’s one of the better evidenced things we have, and it isn’t fascia specific in the slightest.

Fascial Manipulation, the serious end of the field

It would be lazy to treat all of this as equivalent, as it really isn’t. Fascial Manipulation has a more developed research programme behind it than any other fascia specific approach, and a more coherent model underneath it. It works off a map, where named points at which the pulls from different muscles meet, and where hyaluronan is most likely to have thickened, get worked with deep friction.

The aim is to get fluid moving between the layers again rather than to deform the dense tissue at all. That hangs together, it’s built on anatomy someone has gone and looked at, and it’s a good deal more sophisticated than pressing on something until it gives.

The trial evidence is genuinely interesting and genuinely limited. In neck pain, the study everyone quotes scanned people before and after, and the fascia in the neck did thin as the pain came down ^[39].

In chronic low back pain, with twenty four people finishing, pain scores beat standard physiotherapy and stayed better out to three months ^[38]. The raw disability scores never separated the groups, though an analysis of percentage improvement did at two of the three timepoints, and the quality of life difference had gone within a month. Both are small, neither has a proper sham, and three of the authors on the low back trial belong to the association that teaches the technique it was testing.

For hypermobility it’s interesting for two reasons. It fits what the imaging actually shows, which is thicker and less mobile between the layers rather than everything being loose ^[5][6], and it doesn’t depend on the breaking down adhesions theory the force calculations rule out ^[18]. One of the leading hEDS clinicians is a co-author on that review ^[7], so the interest in applying it here is real enough, and whether it works in hEDS needs properly sized trials in people who have hEDS, which don’t exist yet.

What this means if you teach movement

A fair number of people reading this work with hypermobile clients and have built something real around fascia, so this part is for you. Most of what you do stands up fine: the contact matters, the attention matters, and the slow supported movement into ranges someone has been avoiding is graded exposure, which is one of the better evidenced things any of us have. The short term change in tone and movement tolerance is real, repeatable and worth having.

What doesn’t stand up is the explanation.

You aren’t melting anything, you aren’t breaking down adhesions, and you aren’t lengthening dense tissue, as the force simply isn’t available to a human hand ^[18]. I’ve been on the wrong end of this myself, as I once had the mechanism behind my own programme taken apart in front of me, and it was not the greatest feeling in the world. The results it got were exactly the same the following week.

That isn’t a downgrade of your work, if anything it’s a promotion. Producing a real change in someone’s nervous system through skilled, attentive, well judged touch is a harder and more interesting thing to do than squashing collagen, and it’s the thing you’re actually doing.

So describe what you did and describe what changed, and don’t attach a mechanism the tissue can’t support. Above all, don’t tell her that her fascia is stuck.

That last one is the bit that costs, as she leaves with a model in which her body is damaged, needs someone else’s hands and shouldn’t be loaded. So she moves less, fears more, books in weekly for three years, and you’ll both think it’s working.

The company hypermobility keeps

Generalised joint hypermobility turns up alongside fibromyalgia far more often than chance allows, and telling the two apart isn’t always straightforward. Hypermobility was more common in women with fibromyalgia than in matched controls, and the hypermobile ones tended to have worse clinical findings, though that gap was small enough that it could have been chance ^[40].

The most economical explanation for the overlap isn’t shared fascial pathology, it’s shared pain processing. Both show widespread hyperalgesia and both show autonomic involvement. Head to head, women with hypermobility type EDS came out worse than women with rheumatoid arthritis on physical and social function, while fibromyalgia matched them on physical function and came out worse on social function, pain severity, life interference and distress ^[43].

That mismatch between how much tissue damage there is and how much it hurts is the signature of a sensitised system rather than a structural one.

The most careful look at this lands somewhere slightly deflating, as the pain here reflects a mix of mechanical and social factors, with a great deal of variation between people and not much clarity yet ^[42]. Fascia is part of the peripheral load in that picture, it isn’t what keeps it running.

Then there’s the autism and ADHD finding, which is striking. About half of one neurodivergent adult group met the criteria for generalised hypermobility, against under a fifth of the comparison group, and how many hypermobile joints a person had sat statistically in between being neurodivergent and having pain and autonomic symptoms ^[41].

That’s a relationship rather than a proven cause, so take the mechanism gently. What it points at is a whole body biology that turns up in the fascia among a lot of other places.

And mast cells, which co-occur with hEDS often enough to have their own literature, though that literature puts no figure on how often ^[34]. Mast cells sit in connective tissue and gather around nerves and blood vessels, and on activation they release histamine, proteases, prostaglandins and a range of cytokines. Whether those go on to sensitise nociceptors here is a reasonable thing to suspect, and that review doesn’t demonstrate it.

What it does set out is management, which runs to H1 and H2 antihistamines first, mast cell stabilisers on top, and working out the triggers, diet among them. If you hold both diagnoses, long term steroids are singled out as an especially poor choice when EDS is in the picture.

Either way, it isn’t a roller.

What to actually do with any of this

Your fascia may well be different, and that changes how you move rather than what you treat. Thicker in places, sliding less, and quite possibly softer rather than stiffer. That points towards varied movement through range under load rather than long static holds, towards staying hydrated, and away from long spells of not moving at all.

The fascia is not your main pain driver, and that’s good news. Lowered thresholds at body parts with nothing wrong with them, and a response that winds up under repeated poking ^[14][15], are nervous system findings, and they respond to nervous system approaches. Pain neuroscience education has reasonable evidence across the reviews for reducing pain and disability ^[44], mostly where it’s added to exercise rather than done on its own, although the long term picture is much less convincing than the short term one ^[45].

Understanding your pain as a system running at high gain rather than as tissue that needs releasing isn’t a dismissal of it. It’s the version that connects to things you can actually do.

Position sense work is the most undervalued thing you have. A noisy positional signal isn’t going to be fixed by any amount of hands on work, but it can be trained. Slow, deliberate, attended movement, where you’re paying attention to where the joint is and what it feels like, is how the brain gets a better signal to work with.

Better signal, fewer surprises, less joint stress, less feeding the alarm.

Graded loading is the only tissue intervention you actually have. Connective tissue responds to progressive load over weeks and months and there’s no shortcut through it, so for someone deconditioned and sensitised, that means starting where the nervous system can cope and building from there. Better muscular support around a hypermobile joint cuts the nociceptive load going into the system, not by fixing the fascia but by making the whole thing better at handling what you ask of it.

Use manual therapy as a tool and not as the plan. If a roller or a session reduces your pain enough that you can do the work that actually changes things, that’s a perfectly legitimate use of it. Attending weekly for three years with no change in the underlying picture is not, as the aim is to need it less over time rather than more.

Where the marketing breaks

Fascia is real, it’s innervated, it feeds position sense, it can generate nociceptive signals, and in hEDS it does behave differently. None of that is in dispute. What follows is where the selling leaves the evidence behind.

That manual therapy permanently remodels deep fascia, that scraping tools break down adhesions, that trigger points are reliable findable structures, that trauma is stored in fascial tissue. Not one of those holds up ^{[18][25][27][28][29]}, and the force calculations that sink the first two came from inside the fascia field rather than from outside it.

Then the big one, that hEDS is fundamentally a fascia disorder. That’s a live proposal from one research group ^[7] rather than a finding, and it’s being sold as though it were settled.

The pain in hEDS is far better explained by a sensitised nervous system, a noisy positional signal and autonomic involvement, and all three of those respond to things you can do rather than things done to you.

The wellness industry likes a clean story. Your fascia is stuck, we can release it, you’ll feel better. It has enough true parts in it to be convincing, which is what makes it so durable, and what it lacks is any precision about which of those parts is doing the work. Without that it sells treatments that work for reasons other than the ones on the tin, and leaves people without the understanding they’d need to build something for themselves.

It isn’t the only corner of this world where the studies turn out to be written largely by people selling the thing, as our look at grounding and earthing found a near identical pattern.

Where to go from here

The short version is that your fascia is a real tissue that probably is behaving differently, that the difference matters for how you move and load your body, and that it isn’t where your pain is coming from. The work that changes things is building a clearer signal, a calmer system, and a body that can handle a bit more than it could last month. The anxiety and the fog that travel alongside all of this sit in the same picture and respond to the same approach.

None of this means don’t book the massage. It means know what you’re buying.

If you want to work through it with some structure, you can find out more about our studios and online programmes below. We work with those with hypermobility, hEDS, fibromyalgia, POTS and chronic pain using a framework built out of this kind of evidence, and without the insane marketing.

The Fibro Guy

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References

[1] Malfait, F., Francomano, C., Byers, P., Belmont, J., Berglund, B., Black, J. et al. (2017) ‘The 2017 international classification of the Ehlers-Danlos syndromes’, American Journal of Medical Genetics Part C: Seminars in Medical Genetics. https://doi.org/10.1002/ajmg.c.31552

[2] Tinkle, B., Castori, M., Berglund, B., Cohen, H., Grahame, R., Kazkaz, H. et al. (2017) ‘Hypermobile Ehlers-Danlos syndrome (a.k.a. Ehlers-Danlos syndrome Type III and Ehlers-Danlos syndrome hypermobility type): Clinical description and natural history’, American Journal of Medical Genetics Part C: Seminars in Medical Genetics. https://doi.org/10.1002/ajmg.c.31538

[3] Suarez-Rodriguez, V., Fede, C., Pirri, C., Petrelli, L., Loro-Ferrer, J.F., Rodriguez-Ruiz, D. et al. (2022) ‘Fascial Innervation: A Systematic Review of the Literature’, International Journal of Molecular Sciences. https://doi.org/10.3390/ijms23105674

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