Category: Movement & Technique

Most masters skiers can name the day a strength number changed. You remember when the deadlift stopped moving, when the squat got harder to keep deep, when a weight that used to be a warm-up became the working set. Strength loss announces itself. You can measure it, and because you can measure it, you train against it.

Range of motion does not work that way. It leaves quietly. A hip that used to drop into a deep squat gives up a few degrees a year, and no single year is noticeable. You compensate without deciding to. The stance narrows a little. The turn finishes a little higher. You reach the bottom of a movement and simply stop earlier than you used to, and because nothing hurts and nothing fails, you never file it as a loss. Then one day a position you used to own — a full hip hinge, a deep edge angle, an honest overhead reach — is gone, and you find out on snow, at the worst possible moment, that it left years ago.

This is range of motion debt. It accumulates slowly, it compounds, and by the time you feel it, you are paying interest on a decade of small withdrawals. For a masters skier trying to keep skiing hard into the next decade, it is one of the more consequential and least tracked variables in the whole picture.

Why the debt builds faster after 50

The tissue math changes with age, and it changes in a direction that quietly narrows your usable range. Collagen in the connective tissue cross-links and stiffens. Muscle tissue loses some of its passive extensibility. The joint capsule tolerates less if it is asked for less. None of this is dramatic on any given day, which is exactly the problem — the losses are small enough to absorb and steady enough to accumulate.

The behavioral side makes it worse. After 50, most skiers spend more of the year sitting than they did at 35. A hip that spends nine hours a day in 90 degrees of flexion adapts to 90 degrees of flexion. The body is efficient. It does not maintain range it is not asked to use, so the range you stop visiting is the range you stop keeping. Chapter 4 of Ski Strong for Life, on the masters athlete difference, makes the point plainly: the recovery and adaptation rules that governed your training at 35 do not carry forward unchanged, and mobility is one of the places that shift shows up first.

The reason this matters for skiing specifically is that skiing is a sport played at the ends of your range, not the middle. A deep, angulated turn asks for hip flexion, hip abduction, and internal rotation at the same time. Absorbing a roller asks the ankles, knees, and hips to fold and then extend fast. Staying centered in variable snow asks the ankles to dorsiflex freely inside the boot. When the available range shrinks, the skier does not stop doing these things — they do them from a shorter runway, with less margin, and the compensations show up as fatigue, a back seat you cannot escape, and turns that feel like work.

How the debt hides — the compensation problem

The reason range of motion debt goes unpaid for so long is that the body is very good at borrowing range from somewhere else. Lose hip internal rotation and the knee will rotate to make up the difference, or the lower back will. Lose ankle dorsiflexion and the knee drifts forward or the heel lifts. The movement still happens. It just happens through a joint that was not built to supply it.

On snow this is the difference between a skier who angulates from the hip and one who banks from the whole body because the hip will not give the angle. Both get down the run. One is loading the structure the way it is designed to be loaded, and one is quietly spending resilience they will want later. This is why “I can still do everything I used to do” is not evidence that the range is intact. It is often evidence that the compensations are working — for now.

Finding the debt before it finds you

You cannot pay down a debt you have not measured, and the whole trap of mobility loss is that it hides from casual attention. This is what movement screening is for. Chapter 5 of Ski Strong for Life lays out the screening approach: a small set of honest positions you test on a schedule so that the slow leak becomes visible before it becomes a surprise.

You do not need a lab. A few positions tell most of the story for skiers:

• A deep bodyweight squat, heels down, held for a breath. Watch whether the heels lift, the knees cave, or you simply cannot get low.
• A half-kneeling ankle test — knee tracking over the toes to a wall — measured the same way each time on each side.
• A standing hip hinge with a neutral spine, checking how far the hips travel back before the low back rounds.
• An overhead reach against a wall, checking whether the arms get vertical without the ribs flaring.

Test them the same way, film from the side, and compare month to month and side to side. The asymmetries matter as much as the absolute numbers. A right ankle that gives you two inches of forward travel and a left that gives you one is a debt you are already paying with a turn you quietly avoid.

Buying the range back

Here is the part that surprises people: for masters skiers, the most durable way to restore range is not to stretch the tissue longer but to load it through the range you want to keep. Passive stretching can create a temporary window. Strength work through a full range makes that window the new normal, because it teaches the nervous system that the end range is safe and it builds tissue that can produce force there.

This is why the mobility work in the CoreSkiing approach lives inside the strength training rather than in a separate stretching session that gets skipped. In the Summer Strength Build, Phase 1 (Foundation and Form, weeks 1 through 4) is not just about learning the lifts before adding load — it is about establishing the full range first, so that everything loaded afterward is loaded through positions you actually own. A goblet squat to honest depth, a single-leg Romanian deadlift through a full hip hinge, a split squat that lets the trailing hip open: these are strength exercises and range-of-motion insurance at the same time. The tempo discipline built into that phase does double duty here, because a slow, controlled eccentric forces you to spend time at the bottom of a movement instead of bouncing out of it.

None of this replaces the daily maintenance, and the daily maintenance is smaller than most people think. A few minutes of the right positions before you train, repeated across a week, holds more range than an occasional long stretching session. The warm-up protocols exist for exactly this reason — they front-load the specific ranges a session is about to demand.

The longevity math

Range of motion debt is a longevity problem more than a performance problem, though it is both. The skier who lets ankle dorsiflexion, hip rotation, and thoracic extension leak away across their fifties does not fall off a cliff. They narrow, run by run and season by season, until the terrain they used to enjoy becomes the terrain they manage. The decade of hard skiing you want on the other side of 60 is built or lost, in part, in the positions you keep or surrender in the years before it.

The good news in all of this is that the debt is payable at almost any point. Connective tissue is slow to change in both directions, which is frustrating on the way down and reassuring on the way back — the range does not come back in a week, but it comes back, and consistent loaded work through full range is remarkably effective at reclaiming positions you thought were gone. It is one of the more encouraging things you learn if you keep training seriously into your sixties: capability is more available than the calendar suggests.

If you want to go deeper on where mobility loss comes from and how the individual joints connect to what happens on snow, two earlier posts pair well with this one: Hip Mobility for Skiers: Why Your Hips Are the Bottleneck and Thoracic Spine Mobility for Skiers: Why Your Upper Back Is Holding You Back on Snow. And for the broader physiological picture of what shifts after 50 and why training has to adapt, start with What Actually Changes After 50 — and What to Do About It.

Most masters skiers have spent serious training time on hips, hamstrings, and quads. A smaller group has paid attention to ankle mobility. Almost nobody trains the foot.

The foot is the part of the body buckled into the boot. It is the only direct point of contact between the skier and the equipment that controls the ski. Whatever pressure the lower leg generates has to pass through the foot before it shows up on the edge. Whatever feedback the snow sends back has to register through the foot before the rest of the body has a chance to respond.

A weak, unintelligent foot is not a small detail. It is a bottleneck the rest of the kinetic chain cannot work around. And after 50, the foot quietly accumulates the same losses every other body part does — fewer working motor units, slower proprioceptive response, smaller intrinsic muscles — without ever getting a training stimulus that addresses it.

This is the part of ski-specific preparation that almost every program skips, including most ski-specific programs. It deserves a separate look.

What the Foot Actually Does Inside a Ski Boot

A modern ski boot is rigid by design. That rigidity is what allows precise edge control — the boot transmits lower-leg input to the ski with very little loss. But rigid does not mean immobile. Inside the boot, the foot is continuously doing work that the skier rarely thinks about.

Pressure distribution across the sole. When the ski engages an edge, the load on the foot is not even. It shifts forward through the ball of the foot during turn initiation, then redistributes back through the heel during the fall-line phase, then travels to the inside or outside of the foot as the edge angle changes. A foot that cannot consciously redistribute pressure ends up giving the ski blunt, late inputs that the boot can only translate so well.

Toe drive. The forefoot — particularly the big toe — is the part of the foot that pressures the front of the ski during turn initiation and on steeper terrain. Skiers who rely on the boot tongue to push them forward instead of using active toe drive end up loading the cuff rather than the front of the ski. This shows up as a slow, late edge engagement.

Intrinsic foot stability. The arch is held up by small muscles inside the foot that fire reflexively when the body senses load. If those muscles are weak or chronically inhibited, the arch collapses inward under ski loads. That collapse rolls the entire lower leg into internal rotation, which weakens the outside knee position, which softens the edge.

Proprioceptive feedback. The foot has a high density of mechanoreceptors. These are the sensors the central nervous system uses to know where the body is in space and what the surface beneath it is doing. A foot whose sensors are dulled — by years of cushioned shoes, lack of stimulus, or simple disuse — sends back a low-resolution signal to the rest of the system. The skier feels the snow less precisely. Adjustments come later.

These functions matter most when conditions are demanding. On groomed runs in good light, a sloppy foot does not show up obviously. On variable snow, late in the day, in flat light, with fatigue building, the difference between a foot that contributes and a foot that just sits there becomes visible.

What Changes for the Foot After 50

The foot follows the same pattern as the rest of the body. Type II fiber loss in the intrinsic muscles. A measurable decline in mechanoreceptor density. Slower neural response. Decades of cushioned, supportive shoes that have done the foot’s stability work for it. Most masters skiers arrive at 55 with feet that are functionally weaker than they were at 35, and they have no idea — because feet are not something most fitness assessments ever check.

The good news is that the foot responds to training quickly. The intrinsic muscles are small, and small muscles adapt fast. Proprioception, in particular, can show meaningful improvement in two to four weeks of consistent input.

The bad news is that no amount of squatting fixes a weak foot. Bilateral, shod, supported strength work does not load the foot’s stabilizers in any meaningful way. The training has to be specific.

What to Train

The work below is low equipment, can be done barefoot at home, and integrates naturally into existing warm-ups or accessory blocks. None of it should replace heavy lower-body strength work. It supplements.

Toe spreading and intrinsic activation

Sit or stand barefoot. Spread the toes apart actively, hold for two seconds, release. Then try to lift only the big toe while keeping the other four pressed into the floor. Then reverse — keep the big toe down, lift the other four. Most masters skiers cannot do either cleanly the first time they try. That inability is the whole point. The intrinsic foot muscles have not been asked to do isolated work in years and require deliberate retraining.

Do this for two minutes a day for the first three weeks. Cleanliness improves before strength does.

Short foot

A foundational drill from physiotherapy and barefoot-training literature. Stand on one foot. Without curling the toes, contract the small muscles of the arch to draw the ball of the foot toward the heel — shortening the foot along its long axis. The arch should rise visibly. Hold for five to ten seconds, release.

Three sets of five reps per side, performed barefoot, builds the activation pattern that the foot is supposed to use reflexively under load. Once the basic pattern is established, layer it underneath single-leg balance work and step-up work — short foot held throughout the rep is the real version of the exercise.

Big toe extension and flexion under load

The first metatarsophalangeal joint — the big toe joint — is the lever the foot uses to drive into the ski. If it is stiff or weak, toe drive is not available regardless of what the rest of the body is doing.

A simple loaded version: stand barefoot, place a folded towel under the big toes only, and perform calf raises. The setup forces the big toe into extension during the rise and into flexion against the floor at the bottom. Two sets of fifteen, performed deliberately. The forefoot should feel worked the next day.

Single-leg balance, barefoot, eyes closed

The most direct training for foot proprioception is single-leg balance with the visual system removed. Eyes-open balance is largely a vestibular and visual task. Eyes-closed balance moves the burden to the ankle and foot proprioceptors. This is exactly the system that needs the stimulus.

Start with thirty seconds per side, eyes closed, barefoot, on a firm floor. Most masters skiers will struggle. Within two weeks of daily practice, thirty seconds becomes manageable. From there, progress to standing on a folded towel for slightly more challenge, then to a thin foam pad. The progression for this work — and the larger balance progression it sits inside — is detailed in Chapter 14 of Ski Strong for Life.

Integration: short foot under single-leg work

Once short foot and single-leg balance are competent in isolation, combine them. Hold short foot during single-leg Romanian deadlift work. Hold short foot during step-ups. Hold short foot during Bulgarian split squats. The cue is simple: do not let the arch collapse, do not let the toes claw. The foot stays organized while the rest of the leg works.

This is where the foot training stops being a standalone block and becomes part of every meaningful unilateral movement in the program. By the time a skier reaches Phase 2 of the Fall Transition program, the foot should be active under load by default.

Where This Fits in the Year

Foot work is too small to be a primary training variable. It is also too important to leave to chance. The practical placement is straightforward.

In the off-season, foot drills go in the warm-up. Two to three minutes of toe spreading, short foot, and barefoot single-leg balance before each lower-body session is enough. The work is daily-eligible — there is no recovery debt to manage.

In the pre-season — the Fall Transition phase — foot organization should be cued during every unilateral movement. Step-ups, single-leg RDLs, lateral lunges, balance progressions: all of them are opportunities to reinforce active foot engagement under load.

In-season, foot drills become part of the pre-ski warm-up. Sixty seconds of toe spreading and short foot in the lodge before clicking in primes the system that has to do the work all day. This integrates cleanly with the rest of the warm-up protocol described in Chapter 29.

The full progression for balance and proprioception — including the single-leg, eyes-closed, and unstable-surface progressions that the foot work feeds into — is in Chapter 14 of Ski Strong for Life, with specific sequencing across the off-season, pre-season, and in-season phases.

The Quiet Variable

The foot rarely shows up in a training conversation because nothing about it is dramatic. It is not a heavy lift. It is not a measurable PR. The improvements are felt on snow rather than seen in a session.

But the skier who has trained the foot has a different connection to the ski. Edge inputs land earlier and cleaner. Pressure shifts through the turn are more deliberate. Variable snow that used to feel disorienting becomes information rather than noise. None of this is the result of a foot program by itself — it is the result of the foot finally doing its job inside a body that was already strong everywhere else.

For masters skiers looking for the next training variable to add, the foot is one of the few that consistently rewards the time spent.

Related Reading

For more on the joint above the foot, see Ankle Mobility and Strength for Skiers. For the broader balance progression these foot drills feed into, see Balance Training for Skiers: What Transfers and What Is Just Gym Entertainment and You’re Losing Your Balance — And You Don’t Even Know It.

Steep terrain separates skiers who have trained for it from skiers who have not. The separation is not about courage or line selection — it is about what the body can produce under specific physical demands that flat and moderate terrain never impose.

On a steep pitch, the forces change. The fall line pulls harder. The commitment window for each turn shrinks. The margin for incomplete edge engagement narrows. And the physical qualities that allow a skier to manage these demands are trainable — but only if you understand what the terrain is actually asking.

Most skiers who struggle on steeps assume the problem is mental. Sometimes it is. More often, the body simply cannot produce the rapid, high-force movements the terrain requires, and the mind correctly registers that as danger. Training for steeps means closing the gap between what the terrain demands and what the body can deliver.

What Steep Terrain Demands That Moderate Terrain Does Not

The physical differences between skiing a groomed blue run and committing to a sustained 35-degree pitch are not incremental. They are categorical. Three demands define steep skiing, and each has a training analog.

Eccentric Strength Under High Load

On moderate terrain, the quadriceps absorb turn forces at manageable loads. On steeps, the same muscles absorb dramatically greater force because gravity is pulling the skier down the fall line with more authority. The quads, hamstrings, and hip extensors must decelerate the body eccentrically — controlling the descent rather than simply absorbing it.

This is not the same as squatting heavy in the gym. It is the ability to control a loaded descent under time pressure, on one leg, while maintaining edge angle. Bilateral squat strength provides the foundation, but the transfer to steep skiing depends on eccentric control in single-leg patterns.

The practical test: if a skier can squat 225 pounds but struggles to perform a slow, controlled single-leg step-down from a 12-inch box without the knee collapsing inward, the eccentric chain is not prepared for what steep terrain will impose.

Rapid Weight Transfer and Edge Commitment

On moderate terrain, weight transfer between turns can be gradual. On steeps, the transition from one edge to the next must be decisive and fast. A half-committed edge on a steep pitch means the ski chatters, washes out, or sends the skier into the fall line without control.

The physical quality behind rapid weight transfer is unilateral hip power — the ability to drive explosively from one leg while the other engages the new edge. This is a lateral power demand, not a sagittal one. Most gym training happens in the sagittal plane (squats, deadlifts, lunges). Steep skiing happens in all three planes simultaneously, with the frontal plane — side-to-side — carrying the highest consequences.

Chapter 12 of Ski Strong for Life covers lateral movement training in detail, including the Cossack squat, lateral step-downs, and lateral lunge variations that build the specific frontal-plane strength and mobility steep skiing demands.

Sustained Core Anti-Rotation Under Load

Every turn on a steep pitch creates a rotational force that tries to spin the upper body downhill. The core must resist this rotation while the lower body redirects. This is not a crunch. It is not a plank. It is anti-rotation under dynamic, high-force conditions — the same quality trained by the Pallof press, suitcase carries, and the anti-rotation components of the Turkish Get-Up.

On moderate terrain, incomplete core anti-rotation produces minor inefficiency. On steeps, it produces a body position that is open to the fall line with the shoulders facing downhill — the posture that precedes every “I got in the back seat and couldn’t recover” story.

The Training Framework for Steep Skiing

Training for steeps is not a separate program. It is an emphasis within the existing strength and movement framework — a set of priorities that prepare the body for the specific loads, speeds, and planes of movement that steep terrain imposes.

Eccentric Single-Leg Work

The Peterson and Poliquin step-up progressions are the foundation here. Both variations build single-leg eccentric control, but with different emphases. The Peterson Step-Up targets the VMO and terminal knee extension — the quality that keeps the knee tracking cleanly under high eccentric load. The Poliquin Step-Up emphasizes hip extension under single-leg loading — the quality that allows the hip to absorb and redirect force on steeps without collapsing.

For steep-specific preparation, add a tempo prescription to both: 3-1-X. Three seconds on the eccentric (lowering phase), one second pause at the bottom, explosive concentric. The slow eccentric directly mimics the absorption demands of steep terrain. The pause removes the stretch reflex and forces the muscles to produce force from a dead stop — the same demand placed on the legs when transitioning between turns on a steep pitch where there is no momentum to borrow.

Chapter 22 of Ski Strong for Life details the full progression for both step-up variations, including box heights, tempo prescriptions, and sequencing across training phases.

Lateral Power Development

Lateral power training addresses the frontal-plane deficit that most gym programs create. For steep skiing, two exercises deserve specific attention.

Lateral Hops With a Stick Landing

From a single-leg stance, hop laterally to the opposite leg and stick the landing for a two-second hold. The hop trains explosive lateral power. The stick landing trains rapid deceleration and single-leg stability upon arrival — the same physical event that occurs when the outside ski engages on a steep turn. Start with modest distance (12-18 inches) and build as balance and landing stability improve.

Lateral Step-Downs With Control

Standing on a box (8-12 inches), lower the non-stance leg to the ground laterally under a slow, controlled tempo (3 seconds down). The stance leg is performing an eccentric lateral deceleration — the same demand placed on the outside leg during a carved turn on steeps. This exercise also reveals hip and ankle stability deficits that steeps will expose with less forgiveness.

Anti-Rotation Under Fatigue

The anti-rotation demand on steeps is relentless — every turn, every transition, every moment the fall line tries to pull the upper body into rotation. The training must reflect this by placing anti-rotation work under conditions of moderate fatigue, not just when the body is fresh.

Core training beyond crunches covers the foundational anti-rotation exercises: Pallof press, dead bug variations, and suitcase carries. For steep-specific preparation, progress to performing Pallof press holds at the end of a leg-strength circuit — after Bulgarian split squats and step-ups, when the legs are working and the core must still resist rotation cleanly.

The loaded carry variations are also directly relevant. A heavy suitcase carry — one kettlebell or dumbbell held on one side — forces the core to resist lateral flexion for the duration of the carry. This is the same anti-lateral-flexion demand imposed by steep terrain where the skier must maintain an upright, stacked posture while gravity pulls them sideways.

Chapter 13 of Ski Strong for Life provides the full core training framework, including the anti-rotation, anti-extension, and anti-lateral-flexion progressions that build the specific core stability steep skiing requires.

Where This Fits in the Training Year

Steep-specific training emphasis belongs in the pre-season and in-season phases — Phases 2 and 3 of the Fall Transition program, specifically. The off-season builds the bilateral strength foundation and introduces single-leg work. The Fall Transition program converts that foundation into the power, lateral capacity, and eccentric control that steep terrain demands.

During the season, maintaining single-leg eccentric strength and anti-rotation capacity is the priority. Two to three sets of step-ups with a 3-1-X tempo and one set of suitcase carries per training session is enough to preserve what the pre-season built. The goal in-season is maintenance, not progression — ski the steeps, and let the training support what the snow demands.

The Honest Assessment

Most skiers who feel tentative on steep terrain attribute it to confidence. Some of that is fair. But confidence on steeps is inseparable from physical preparation. The skier whose body can produce rapid, powerful, controlled movements under high eccentric load skis steeps with a different quality of confidence than the skier who is operating at the edge of what their body can produce.

If you can perform a controlled single-leg step-down from a 12-inch box with a 3-second eccentric and no knee collapse, hold a suitcase carry at half your bodyweight for 40 meters per side, and stick a lateral hop landing for two clean seconds — you have the physical foundation for steep skiing. If any of those are missing, the terrain will find it.

The lower back that aches after a long ski day is not usually a lower back problem. The knees that feel progressively less reliable in the afternoon are often not a knee problem. In a large percentage of masters skiers, the source is the hips — specifically, restricted hip internal rotation and hip flexor length that forces the joints above and below to compensate for what the hips can’t do.

After 50, the issue becomes more acute. Tissue stiffness increases. The hip joint’s connective tissue capsule becomes less compliant. Sitting drives hip flexors into chronically shortened positions. And skiing — which demands repeated hip flexion, extension, and rotation under load — exposes every restriction.

What Hip Mobility Actually Means for Skiing

Hip mobility for skiing involves three distinct movement capacities:

Hip flexion with rotation: The ability to move the femur into a flexed, externally or internally rotated position — the foundation of angulation and hip separation in a carved turn. Restricted rotation here means the lower back has to compensate.

Hip extension: The ability to extend the hip fully through the load phase of a turn and into the transition phase. Limited hip extension compresses the lower lumbar spine in extension and limits gluteus power output.

Hip flexor length and anterior chain mobility: Hip flexors in a chronically shortened position tilt the pelvis anteriorly, shift the low back into lordosis, and increase lower back loading during skiing.

Most masters skiers have restrictions in all three. Addressing them takes a few targeted exercises, done consistently.

The Hip Mobility Exercises That Transfer

90/90 Hip Stretch

Sit on the floor with both knees bent to roughly 90 degrees — one leg forward (external rotation), one leg back (internal rotation). Stay tall through the torso and let the weight shift forward over the front hip.

What it trains: hip external and internal rotation simultaneously, in the exact combined demand that ski turns require.

Duration and frequency: hold 60-90 seconds per side, then alternate. Do this daily if restriction is present.

Hip Flexor Lunge Stretch (with Posterior Pelvic Tilt)

A standard hip flexor stretch positions the rear knee on the ground, front foot forward. The critical addition: posteriorly tilt the pelvis — tuck the tailbone slightly — before sinking into the stretch.

Cue: “Tuck your tailbone, then lean in.” Not “lean in and feel your lower back arch.” The distinction matters.

Duration: 60-90 seconds per side. Adding a slight lateral lean deepens the stretch through the iliopsoas.

Cossack Squat

Stand with feet substantially wider than shoulder width. Shift your weight to one side, sinking into that leg while keeping the other leg straight.

What it trains: hip adductor length, hip internal rotation, ankle dorsiflexion, and lateral hip loading all in one movement. For a skier, the cossack squat replicates the lateral hip loading that occurs at the bottom of a turn.

Three sets of 5-8 reps per side, controlled throughout.

Hip Internal Rotation — Supine

Lie on your back with knees bent and feet flat. Allow both knees to fall outward (external rotation), then deliberately drive them both inward (internal rotation) past center.

Why this matters: internal hip rotation is the specific capacity that tends to decline most significantly after 50, and it is the same motion that occurs during angulation in a carved turn.

Sets and reps: 3 sets of 10 deliberate repetitions, holding the internal rotation end point for 1-2 seconds.

When to Do This Work

1. Before strength training: A 5-8 minute hip mobility sequence before squats, deadlifts, or step-ups increases the available range and improves movement quality during the session.
2. In the morning: Five minutes of 90/90 and cossack squats before a day of skiing produces measurably different first-run quality.
3. After a ski day: Using hip circles, 90/90 holds, and gentle hip flexor stretches after skiing keeps tissue from accumulating tension overnight.

The Connection to Skiing Performance

A masters skier with open hips moves differently than one with restricted hips, and the difference is visible.

The skier with adequate hip internal rotation can angulate by dropping the hip independently of the torso — producing a clean, balanced platform over the outside ski. The skier with restricted internal rotation compensates by rotating through the lower back or dropping the inside shoulder.

The skier with full hip flexor length enters the fall line in a neutral spine position with the pelvis level. The skier with tight hip flexors enters with an anteriorly tilted pelvis, which increases lower back loading on every turn.

The hip mobility protocols — including progressions for skiers at different starting ranges — are covered in Chapter 24 of Ski Strong for Life. The Fall Transition program sequences mobility work into the warm-up and recovery phases of each training week.

The Practical Starting Point

If you’re not currently doing any targeted hip mobility work, the entry point is straightforward: 90/90 for 60-90 seconds per side, hip flexor lunge for 60-90 seconds per side, three to four times per week. That’s less than ten minutes.

If restriction is significant — especially in hip internal rotation — daily work is warranted. The tissue response to mobility training is real but slow. Consistency over months produces change that sporadic effort over years does not.

The question is not whether you need hip mobility work. At 50+, the answer is almost certainly yes. The question is whether you build that work into your training deliberately, or continue compensating through your back and knees until those structures voice their objection.