Why Your Recovery Protocol Should Include Getting Up a Mountain

The Prescription Nobody Writes

I spend most of my working life staring at lab results. Cortisol curves, DHEA ratios, organic acids, blood chemistry panels with sixty-plus markers. I love this work. It’s detective work — pattern recognition across systems, the slow untangling of why someone feels like they do. And yet some of the most significant clinical improvements I’ve seen in clients haven’t come from supplements, dietary changes, or even the lab-driven protocols I build for them.

They’ve come from someone going up a mountain.

Not metaphorically. Literally. Getting out of their house, out of their postcode, out of the entire electromagnetic, psychological, and environmental context in which their illness developed — and walking uphill in clean air with no phone signal for three or four days.

That’s not romanticism. It’s physiology. And the research supporting it has become substantial enough that ignoring it would be clinically negligent.

The HPA Axis Doesn’t Care About Your Supplement Stack

If you’ve worked with me, you know I talk about the HPA axis constantly. Hypothalamic-pituitary-adrenal. The stress response system that governs cortisol production, circadian rhythm, energy regulation, immune modulation, and — when it’s been hammered for long enough — pretty much everything that goes wrong.

Most of what I see clinically is some variant of HPA axis dysregulation. Not “adrenal fatigue” — that term is imprecise and the endocrinology community rightly pushes back on it. What I mean is a measurable disruption in cortisol rhythm: a blunted Cortisol Awakening Response, an inverted diurnal curve, elevated evening cortisol, depleted DHEA, or the full depletion pattern where both cortisol and DHEA have flatlined and the person is running on caffeine and willpower.

We can support this with adaptogens. We can address blood sugar dysregulation to reduce the cortisol demand. We can optimise magnesium status, B vitamins, vitamin C — all of which the adrenal glands consume at extraordinary rates under stress. These interventions work. They’re backed by evidence and I use them every day.

But here’s the uncomfortable truth: if someone remains in the same environment, the same routine, the same stimuli, the same relationships and the same inbox that drove the dysregulation in the first place, supplementation is bailing water from a boat that’s still taking on sea.

The HPA axis doesn’t reset because you took ashwagandha. It resets because the threat signal stops.

What Actually Happens in Nature — The Parasympathetic Shift

The autonomic nervous system has two major branches: sympathetic (fight or flight) and parasympathetic (rest, digest, repair). In the modern urban environment, most people are sympathetically dominant most of the time. Not dramatically — they’re not running from predators — but chronically. Low-grade, persistent sympathetic activation driven by noise, artificial light, screen time, electromagnetic fields, air pollution, traffic, deadlines, notifications, social media comparison, and the constant ambient anxiety of being permanently contactable.

Nature flips this. Not through willpower or meditation technique, but through sensory input that the human nervous system evolved to interpret as safe.

Green Space and Cortisol

The evidence base for green space exposure and cortisol reduction is now robust. A 2019 study published in Frontiers in Psychology found that just twenty minutes in a natural setting — even an urban park — was sufficient to produce measurable reductions in salivary cortisol. The effect was dose-dependent: more time, greater reduction, with diminishing returns beyond about 40 minutes per session. The key finding wasn’t the magnitude of the drop but the speed. Twenty minutes. No supplement achieves that.

The Japanese practice of shinrin-yoku — forest bathing — has been studied extensively since the 1980s. Research from Chiba University and the Japanese Society of Forest Medicine has demonstrated that time spent in forested environments reduces cortisol, lowers blood pressure, decreases heart rate, increases natural killer cell activity (an important immune marker), and shifts heart rate variability toward parasympathetic dominance. These aren’t marginal effects. The NK cell boost alone has been measured lasting for up to 30 days after a single three-day forest exposure.

Blue Space

The BlueHealth research programme, funded by the European Commission between 2016 and 2020, produced compelling evidence that proximity to water — rivers, lakes, coastline — has measurable effects on mental health outcomes independent of physical activity. The mechanisms appear to involve both visual processing (the brain responds differently to natural water patterns versus urban geometry) and auditory input (running water, wave sounds, birdsong all trigger parasympathetic activation through the vagal nerve).

Mountain environments combine both. Altitude brings you above the treeline into clean air; the descent brings you past streams, waterfalls, and glacial runoff. You get green space and blue space in one walk. That’s not a coincidence — it’s why mountain regions have been used therapeutically for centuries.

Vagal Tone

The vagus nerve is the primary parasympathetic highway — the longest cranial nerve in the body, running from the brainstem through the throat, heart, lungs, and gut. Vagal tone is a measurable index of parasympathetic function, typically assessed through heart rate variability. Higher vagal tone means greater capacity to recover from stress, better emotional regulation, stronger digestive function, and more effective immune surveillance.

Nature exposure improves vagal tone. Cold air, altitude, natural sounds, the visual complexity of non-urban landscapes — all of these stimulate vagal afferent pathways. When you walk at altitude and feel that particular calm that comes over you — the one that’s different from relaxation, deeper than relaxation, like your entire chest has opened up — that’s vagal activation. It’s measurable. And it’s one of the most therapeutically valuable states a chronically stressed person can access.

Allostatic Unloading

Bruce McEwen at Rockefeller University gave us the concept of allostatic load — the cumulative physiological cost of chronic stress adaptation. This isn’t a metaphor. Allostatic load is quantifiable through biomarkers including cortisol, DHEA-S, CRP, blood pressure, waist-to-hip ratio, HbA1c, HDL cholesterol, and epinephrine. High allostatic load predicts cardiovascular disease, metabolic syndrome, cognitive decline, and accelerated biological ageing.

What McEwen also showed was that allostatic load can be reduced. Not just managed — actually reversed. The interventions that do this most effectively are not pharmaceutical. They’re environmental. Sleep restoration, social connection, physical activity in natural settings, and removal from the stressor context.

When I talk about “allostatic unloading,” I mean the deliberate, temporary removal of a person from every environmental input that contributes to their load. Not just work stress — all of it. The blue light. The noise floor. The processed food environment. The sedentary workspace. The electromagnetic radiation. The social media. The news cycle. The commute.

A week in the mountains is allostatic unloading at scale. And while I can’t prescribe it on the NHS, I can tell you it’s more physiologically coherent than most things that do get prescribed.

Digital Detox — The Hardest Part

I’m going to be honest with you about something: I find this hard too. I run a clinical practice, I have a book being published, I manage a website, I’m building clinical tools, I answer emails, I post content. My phone is rarely more than arm’s length away. I know the dopamine mechanics of notification-checking. I know the cortisol cost of always being available. I know all of this intellectually, and I still find it difficult to put the phone in a drawer for 48 hours.

Which is precisely why it matters.

The research on screen time and cortisol is unambiguous. Smartphones increase baseline cortisol through multiple pathways: anticipatory stress (the phone might have a notification), blue light disruption of melatonin and circadian rhythm, social comparison via curated content, task-switching costs that exhaust executive function, and the dopaminergic reinforcement loop that makes checking your phone neurochemically identical to a slot machine pull.

A 2017 study from the University of Texas found that the mere presence of a smartphone in the room — even face down, even on silent — reduced available cognitive capacity. Not because participants were distracted. Because part of their executive function was devoted to not checking it.

Going somewhere with no signal isn’t just romantic. It removes the willpower cost entirely. You can’t check what doesn’t connect. The parasympathetic benefit of not having to resist is itself clinically significant.

Grounding and Earthing — Being Honest About the Evidence

I want to address this directly because it comes up constantly and the conversation around it is usually terrible — either uncritical enthusiasm or dismissive eye-rolling.

The hypothesis: direct physical contact with the earth’s surface (bare feet on soil, grass, or water) allows transfer of free electrons from the ground into the body, where they act as antioxidants, reduce inflammation, normalise cortisol rhythm, and improve sleep.

The evidence: mixed, limited, but not zero.

Clint Ober’s original work, and subsequent studies published in journals including the Journal of Environmental and Public Health and the Journal of Inflammation Research, have shown measurable changes in cortisol profiles, white blood cell counts, pain markers, and blood viscosity in grounded versus ungrounded subjects. Some of these studies are well-designed. Many are small, short-duration, and lack adequate controls. Several were funded by companies that sell grounding products, which is a legitimate conflict of interest worth noting.

Here’s my clinical position: the electron transfer mechanism is plausible but unproven at the level of robust, replicated, large-scale human trials. However — and this is the part the sceptics miss — the act of being barefoot outdoors on natural ground inherently involves multiple interventions simultaneously. You’re outside (vitamin D synthesis, fresh air, natural light). You’re moving (proprioceptive stimulation through the foot, which activates the cerebellum and vestibular system). You’re receiving textural and thermal sensory input (which engages the parasympathetic nervous system through somatosensory pathways). And you’re probably in a green or blue space environment, which we’ve already established has independent evidence for stress reduction.

Is the benefit electrons? Is it sensory input? Is it the sun? Is it the microbiome exposure from soil contact? Probably some combination. The mechanistic question is unresolved, but the clinical observation — that people who regularly spend time barefoot outdoors feel and function better — is consistent enough that I include it in my recommendations. Test your own response. That’s always the answer.

Altitude, Air Quality, and What Your Lungs Are Actually Breathing

In Edinburgh, the air quality is better than most UK cities, but it’s still urban air. Particulate matter, nitrogen dioxide, ozone, volatile organic compounds from traffic, construction, heating systems, and the off-gassing of literally everything manufactured in the last fifty years.

At altitude, particulate load drops dramatically. Above 1,500 metres, you’re breathing cleaner air than any urban environment can provide. The reduction in PM2.5 alone — the fine particulates that cross the blood-brain barrier and drive neuroinflammation — is significant. Add to that higher negative ion concentrations (which have modest evidence for mood improvement), reduced allergen load (fewer moulds, pollens, and dust mites at altitude), and increased UV exposure driving vitamin D synthesis, and you have a respiratory and immune environment that the human body responds to positively.

This isn’t mysticism. It’s atmospheric chemistry and pulmonary physiology. And it matters especially for people with chronic inflammatory conditions, autoimmune presentations, or the kind of persistent, low-grade systemic inflammation that shows up as elevated hs-CRP and unexplained fatigue.

The Environmental Change Effect

There’s something else operating here that goes beyond the individual physiological mechanisms, and it’s harder to quantify but clinically just as important: the power of environmental novelty.

When you stay in the same environment day after day, your nervous system habituates. It stops responding to inputs. This is adaptive — you don’t want to be startled by your own furniture — but it also means your stress patterns become entrenched. The same cues trigger the same cortisol responses. The same kitchen triggers the same eating patterns. The same desk triggers the same postural compensation. The same bed triggers the same sleep architecture.

Changing your physical environment disrupts all of these patterns simultaneously. New sensory input reactivates attention, which recruits executive function, which creates a window of opportunity for new behaviour. This is why people find it easier to eat well on holiday, sleep differently in a new bed, exercise when the landscape invites it, and break habits when removed from the context in which those habits formed.

In clinical terms, environmental change is a pattern interrupt for the entire nervous system. And for someone stuck in a chronic stress loop, it can be the single most powerful intervention available.

What This Looks Like in Practice

I’m not suggesting everyone needs to climb Mont Blanc. I’m suggesting that recovery protocols should include environmental prescription alongside supplement protocols, dietary changes, and lifestyle modifications. The prescription is simple: get somewhere different, get outdoors, move your body, reduce your screen exposure, and stay long enough for the parasympathetic shift to take hold — which means at least three days, ideally longer.

The specifics depend on the person. For some clients, that’s a walking weekend in the Highlands. For others, it’s three days in a cottage in Fife with no wifi and a dog for company. For someone with the budget and the inclination, it’s a guided walking week in the Alps. For someone in central Edinburgh, it’s an afternoon at Jupiter Artland, walking through 120 acres of woodland and contemporary art with their phone on airplane mode.

The common elements are: natural environment, physical movement, reduced technology, environmental novelty, and sufficient duration. Everything else is personal preference.

And If You’re Going to Drink While You’re There

I wrote a separate piece on alcohol — what it actually does to your liver, your gut, and your blood chemistry. I’m not going to repeat it here. But the short version: if you’re on a recovery week and you’re going to have wine in the evening, make it good wine. Biodynamic, organic, low-intervention, minimal sulfites. Not because wine is medicine — ethanol is ethanol — but because the non-alcohol components (sulfites, histamine, pesticide residues, added sugars) determine how much additional burden your liver, gut, and sulfation pathways have to manage on top of the alcohol itself.

Drink well or don’t drink. But don’t undo three days of parasympathetic activation with a bottle of industrially produced supermarket wine.

The Point

I build protocols for a living. Nutrient interventions, dietary changes, supplement stacks, lifestyle modifications — all informed by lab testing, all personalised, all evidence-based. I believe in this work. It’s what I do.

But I also know that some of the most transformative shifts I’ve seen have come from the simplest possible intervention: getting someone out of their usual environment and into a natural one, for long enough that their nervous system remembers what parasympathetic dominance feels like.

You can’t supplement your way out of an environment that’s making you ill. You can support the body’s capacity to cope. You can optimise the biochemistry. But at some point, you have to change what the body is coping with.

Get up a mountain. Or a hill. Or a forest. Or a coastline. Or a sculpture garden. Get somewhere that isn’t where you usually are, and stay long enough for it to matter.

Then come back, and let’s look at the bloodwork.