Boots are the piece of riding gear people skip most, and the usual argument for them — “protection” — is too vague to persuade anyone. So here is the specific version.
There is a European standard for motorcycle footwear, EN 13634, currently in its 2017 revision. SATRA, the test house, publishes a breakdown of what it actually involves, and it is worth reading closely, because it tests properties no other category of footwear is tested for.
What EN 13634 actually tests
Whole-boot tests cover the “height of the upper and the type of seam constructions”, the “bond strength between upper and outsole”, and — the one that explains the whole category — the “transverse rigidity of the boot”.
Component tests cover impact cut resistance and abrasion resistance on the upper materials, abrasion resistance on the lining, abrasion resistance plus water absorption and desorption on the insole, and resistance to abrasion and hydrolysis on the outsole.
Read the list again and notice what is being described. Transverse rigidity is resistance to being crushed sideways. Bond strength is whether the sole stays attached when it is dragged. Impact cut resistance is whether the upper survives something hard arriving at an angle. Those are not hiking properties, or work-boot properties, or safety-toe properties. They are a description of what happens to a foot in a motorcycle crash, turned into tests.
Why the ankle, specifically
The ankle is a hinge with almost no soft tissue over it, it sits exactly where a bike’s weight lands, and it is loaded in two directions footwear is not naturally built to resist.
Torsion is the foot twisting relative to the leg — the mechanism in a low-side where the foot catches and the body keeps going. No sneaker resists it at all, and a tall lace boot barely does, because height alone does not stop rotation. A TPU ankle brace is a structure placed specifically to limit how far the joint can travel.
Crush is the bike’s own mass arriving on top. This is the one riders underestimate most, because it does not require speed: the single most common motorcycling incident of all is dropping the bike at a standstill or at walking pace, and the machine lands on a foot. Transverse rigidity is the tested property that addresses exactly this, and it is tested on no other kind of boot.
The catch nobody mentions: impact protection is optional
Here is the detail that should change how you shop, and it is in SATRA’s own summary. EN 13634:2017 includes five optional properties a manufacturer may choose to test for — and impact protection is one of them, alongside slip resistance.
That means a boot can be perfectly legitimately CE certified to EN 13634 and contain no impact protector at all. The certification tells you the boot survived the abrasion, cut, rigidity and construction tests. It does not, by itself, tell you there is an ankle protector in it.
So the practical rule is the same one we apply to every other piece of CE-marked gear: read the hardware list, not the sticker. Both boots we list name their protectors individually — a TPU lateral ankle brace, dual-density ankle protectors and a race-derived shin plate on one; TPU medial and lateral protectors, a heel counter, a double-density medial ankle protector and a replaceable screw-in forefoot slider on the other. A boot that says only “CE certified” and lists no protectors is telling you something by omission.
What to look for, in order
One: over the ankle. Below the ankle bone the boot cannot brace the joint, whatever else it has in it. This is the non-negotiable one and it is why a certified low-cut shoe is still a compromise.
Two: a published EN 13634 clause. With the year if you can get it. One of our two picks prints “CE certified to EN 13634:2017”; the other prints “CE Cat 2”, which is less specific, and we record the difference rather than smoothing it.
Three: named protectors. Per the section above. An ankle brace or dual-density ankle protector, a heel counter, and ideally a shin plate on a taller boot.
Four: a replaceable slider. A toe or forefoot slider is a consumable — it is meant to wear down — so a screwed-in replaceable one is worth more than a moulded-in one. It also tells you the maker expects the boot to touch down.
Five: whether you can walk in it. This is not a soft criterion. A boot you cannot walk in is a boot you leave at home on the days you have somewhere to be, and the gear you wear beats the gear you own. Front-flex and back-flexion zones, accordion panels and a short cut are what make a protective boot wearable — which is the entire design argument of both boots on this page.
Six: the fastening. Long laces near a chain or a shift lever are a real hazard. Prefer a boot with a hook-and-loop flap over the laces, or tuck them properly every single time.
So are they necessary?
Our honest answer: they are the cheapest place in a kit to buy a protection you cannot get any other way, and they protect the part of you that is closest to the road and underneath the bike rather than beside it. We are not going to tell you a fifteen-minute commute in sturdy work boots is reckless — height and a stiff sole are genuinely better than trainers, and we would rather you rode in work boots than told yourself you would buy proper ones eventually.
What we will say is that boots are where the gap between “good enough” and “tested” is unusually wide and unusually cheap to close, and that the thing you are buying — transverse rigidity, impact cut resistance, a bonded sole, a braced ankle — genuinely does not exist in footwear built for anything else. In the buying order we recommend in our first gear checklist, boots come after a helmet, gloves and a jacket. They should not come after nothing.
We own neither of the boots below and have ridden in neither of them. Here is exactly what we do instead. Every spec is read from the page named on each card, on the date recorded there, and prices come from the live layer with their own date stamp.