Quick Answer: A taller athlete carries more mass and falls from a higher centre of gravity, so the same jump produces more kinetic energy to absorb on landing. Longer limbs also mean longer lever arms and more joint travel required to absorb it. The fix is not jumping less — it is a deliberately longer landing: more hip and knee flexion, a quieter foot, and enough posterior-chain strength to control the deceleration.

You land next to someone six inches shorter doing the identical drill, and yours is the one you can hear across the gym.

Why does height increase landing force?

Three compounding factors, none of which are about technique yet.

More mass. Taller athletes are heavier at the same build, and landing force scales directly with mass. This is the simplest term and often the largest.

A higher centre of gravity. In any drop or jump, your centre of mass starts higher and travels further before your feet arrive, which means more speed at contact. More speed at contact means more energy to dissipate in the same amount of time.

Longer limbs, which cut both ways. Long legs give you more available joint travel to absorb force through — potentially an advantage. They also mean longer lever arms, so the same ground reaction force produces a larger moment at the knee and hip. The muscles have to work harder to control the same landing, purely because of geometry.

Then the practical factor that ties them together: absorption distance. Force is energy divided by the distance you spend absorbing it. A landing that stops in 4 inches of knee flexion generates far higher peak force than the same landing absorbed over 10 inches. This is the entire lever available to you, and it is completely trainable.

Which is why the loud landing matters. Sound is a proxy for a short absorption distance — a slap means the deceleration happened fast, in a small range, through a stiff joint. A quiet landing means it was spread out.

And the honest framing: you cannot change your mass distribution or limb length, and you can change how long you take to land. That single variable is worth more than every other item on this page.

What does a hard landing actually cost you?

Two things: joint load over time, and performance in the next repetition.

Joint load first. Repetitive high-force landing is associated with patellar and Achilles tendon irritation and with anterior knee pain, and the mechanism is straightforward — tissue adapts to load, and load applied faster than it adapts causes trouble. Volume matters as much as magnitude. A hundred hard landings a session is a different exposure than ten.

Landing mechanics also matter for knee position under load. A landing where the knees travel inward — valgus collapse — is more demanding on the joint than one where they track over the feet, and it is more common when someone is absorbing a lot of force in a short range because the stiff position leaves less control available. This is worth attending to for its own sake.

Then performance. A hard, stiff landing wastes elastic energy rather than storing and reusing it. In any repeated-jump context — basketball, volleyball, plyometrics, agility drills — the athlete who lands well gets more out of the next jump. Stiff landings also mean longer ground contact times, which is directly slower.

And fatigue. Absorbing force with a short range means high peak muscular demand each rep, which accumulates faster. Tall athletes often report the back half of an agility session feeling disproportionately hard, and this is part of why.

One reassurance: none of this means tall athletes are fragile. It means the landing deserves the same deliberate coaching that the jump gets, and it usually does not receive it.

What does a good landing look like?

Longer, quieter, and more hip than knee. Five checkpoints.

1. Foot contact: mid-foot to forefoot, then heel down. Landing flat or heel-first sends force straight up the chain with the ankle unable to contribute. The ankle is your first absorber and it needs to be in a position to work.

2. Ankle, knee, and hip all flex together. The most common fault is knees-only — the knee bends and the hips stay high, which puts the whole demand on the quads and patellar tendon. Push the hips back as the knees bend, as if starting a squat.

3. Depth: at least a quarter squat, more for higher drops. This is the absorption distance and it is where the force reduction actually comes from. Tall athletes generally need more depth than shorter athletes for the same drop, not less.

4. Knees track over the feet. Not inward. Cueing the knees out slightly over the middle of the foot is usually enough, and if it is not, that is a strength and control issue to address directly.

5. Quiet. Use sound as your feedback tool — it requires no equipment and it correlates well with what you want. If you can hear it across the room, the absorption was too short.

And an intent cue that works better than a list: land like you are trying not to wake someone. Most athletes fix three of the five checkpoints at once with that instruction, because it makes them lengthen the landing without having to think about joints individually.

What Nobody Tells You About Tall Athletes and Plyometrics

Box height should be lower than you think, and lower than your shorter teammates’. Drop height determines landing force, and a taller athlete arrives with more energy from the same box. The standard practice of matching box height across a squad quietly gives the tall athletes the hardest version of the drill. Start lower and progress by quality, not height.

Volume is the variable that hurts people, not intensity. Plyometric injury risk tracks total contacts far more than individual jump height. A session of 120 contacts on tired legs is riskier than 40 hard ones fresh. Counting contacts is unglamorous and it is what the research supports.

Landing should be trained before jumping. Drop-and-stick landings — step off a low box, land, hold — are a separate skill and they belong first. Most programmes teach jumping and assume landing arrives free. It does not, and it is the half that costs you.

Fatigue destroys landing mechanics before it destroys jump height. You will still jump nearly as high when tired and land considerably worse, which is exactly the wrong combination. This is a strong argument for putting plyometric work early in a session and stopping it on quality rather than on a rep count.

Shoes matter more than for shorter athletes. A worn-out midsole absorbs less, and a heavier athlete compresses one faster. Tall, heavier athletes get less life out of the same shoe, and running a cushioned trainer past its useful life is a genuine change in landing load.

And surface is a free variable. A sprung floor, a track, or grass absorbs force that concrete does not. Where you do your jump work is worth as much attention as how you do it, particularly in higher-volume sessions.

How do you build the strength to land well?

Eccentric strength through the posterior chain, plus calves, plus deliberate landing practice. Three or four sessions a fortnight is enough.

Train the deceleration specifically:

• Tempo squats with a 3 to 4 second lowering phase — 3 sets of 5. This is the most direct transfer available, because a landing is a fast eccentric squat.
• Romanian deadlifts for hamstrings and hip control — 3 sets of 8. The hamstrings resist the knee travelling forward and they are frequently the weak link.
• Split squats or step-downs, slow on the way down — 3 sets of 8 per leg. Single-leg control is what most landings actually require.
• Calf raises, including the slow lowering — 3 sets of 12, both bent-knee and straight-knee versions. The Achilles and calf are the first absorber and the most commonly undertrained.

Then practise landing as a skill, at low volume:

1. Drop-and-stick from a low box — 3 sets of 5, focusing entirely on quiet and depth. Stop the set when it gets loud.
2. Single-leg drop-and-stick, once the two-leg version is genuinely quiet.
3. Only then add jumping-and-landing combinations, and keep total contacts modest — roughly 60 to 100 per session for most athletes, less when you are starting.

Progress by quality markers, not by height. Move up a box only when the current one is silent and controlled for every rep of every set.

And film it once. Thirty seconds from the front and thirty from the side, on a phone, tells you more about your knee tracking and hip flexion than any amount of internal sensation. Most athletes see something obvious immediately.

Seasonal note: as indoor season starts and court and gym volume goes up sharply over the next couple of months, contact counts rise without anyone deciding they should. That is the period when landing quality is worth actively monitoring rather than assuming. If you have pain rather than fatigue — particularly at the front of the knee or in the Achilles — get it assessed rather than training around it. This is general information, not medical advice.

FAQ: Tall Athletes and Landing, Answered

Should tall athletes avoid plyometrics?

No — plyometric training is valuable for exactly the qualities tall athletes need, including elasticity and rate of force development. What should change is the dosing: lower boxes, fewer total contacts, landing trained as its own skill first, and quality-based stopping rules rather than fixed rep counts.

Is a loud landing always bad?

It is a reliable signal that the absorption happened over a short distance, which usually means a stiff, knee-dominant landing. In some sporting contexts — a fast rebound where ground contact must be minimal — a stiffer landing is the correct choice, and the athlete should have the option of a soft one available and trained. As a default in training, quiet is what you want.

Why do my knees hurt after jump sessions when my legs feel strong?

Strength in a slow squat and control in a fast eccentric are related but not the same, and landing is the fast one. Knee-dominant landing mechanics, high contact volume, worn shoes, and hard surfaces all contribute. Persistent pain at the front of the knee or in a tendon is worth a proper assessment by a physiotherapist rather than more strength work applied hopefully.

TL;DR:

• More mass, a higher centre of gravity, and longer lever arms all raise landing force at the same jump
• The one variable you control is absorption distance — a longer, deeper landing cuts peak force substantially
• Land mid-foot, flex ankle, knee, and hip together, push the hips back, keep knees over the feet, and aim for quiet
• Use lower boxes than your shorter teammates, count total contacts, and train drop-and-stick landings before jumping
• Build tempo squats, RDLs, split squats, and slow calf raises; progress on silence, not on height

The physics is fixed and the landing is not. Give yourself a few more inches of hip and knee travel and the loud landing that carries across the gym quietly stops happening.