Distal Fibular Fracture

Distal fibular (lateral malleolus) fractures are the most common type of ankle fracture, affecting a wide bimodal distribution of patients—from younger individuals experiencing high-energy trauma to older adults who have suffered a simple fall.

In this episode, we dive into the comprehensive clinical management of acute ankle injuries with a suspected distal fibular fracture. We guide clinicians through the critical steps of assessment, from initial inspection to determining exactly who needs radiography using the Ottawa Ankle Rules. While most acute ankle injuries can be managed conservatively, it is vital to identify the minority of unstable injuries that require surgical intervention.

Key topics covered in this episode include:

• Initial Assessment & Red Flags: Key questions to ask about the mechanism of injury (such as supination-external rotation), weight-bearing ability, and how to spot severe red flags like neurovascular compromise, infection, or deep vein thrombosis.
• Physical Examination & Imaging: How to inspect and palpate effectively, what to look for on plain AP, lateral, and mortise radiographs, and how to assess for syndesmotic tears and talar shift.
• Classification & Differential Diagnosis: Distinguishing between stable Weber A avulsions, potentially unstable Weber B fractures, and highly unstable Weber C fractures.
• Conservative vs. Surgical Management: Practical protocols for conservative treatment using a walking boot, RICE (Rest, Ice, Compression, Elevate), and early mobilization for stable fractures (less than 2 mm displacement). We also cover the strict criteria for surgical referral, including medial instability or displacement greater than 2 mm.
• Safety Netting & Patient Recovery: Guidance on 6-week recovery timelines, follow-up care, and practical advice for patients on when they can safely return to driving.

Whether you are a general practitioner evaluating acute injuries or a medical student brushing up on orthopedics, this episode provides a clear, evidence-based pathway for managing ankle fractures safely and effectively.

Transcript

SPEAKER_01 0:00

Have you ever been walking down the street? Maybe you're uh a little distracted for just a split second and you step off a curb completely wrong.

SPEAKER_00 0:08

Oh, yeah. It happens all the time.

SPEAKER_01 0:09

Right. Your ankle rolls and your entire body weight just comes crashing down on that one tiny awkward angle. And as you're, you know, wincing in pain, that immediate thought flashes through your mind. Like, is this just a bad sprain, or did I actually just break something?

SPEAKER_00 0:24

Yeah, it is a completely universal panic. Yeah. And today we are going to look at the exact medical protocol that doctors use to actually solve that mystery. Because uh, well, it turns out the pain level you're feeling in that moment is actually a terrible lie detector.

SPEAKER_01 0:40

Which makes this the perfect deep dive for us. We're looking into the clinical guidelines for assessing and managing distal fibular fractures. So, for you listening, the distal fibula is that hard bony bump on the very outside of your ankle.

SPEAKER_00 0:52

Exactly. And it's actually the most common type of ankle fracture there is.

SPEAKER_01 0:55

Wow, really? The most common.

SPEAKER_00 0:57

Oh, by far. We're getting into the weeds today on how medical professionals figure out what is actually happening under all that swelling. You know, why a broken bone might be treated exactly like a sprained ankle, and why your most natural instincts on how to like soothe the pain could actively destroy your body's internal healing process.

SPEAKER_01 1:18

Aaron Powell Which is terrifying, honestly. But I mean, the ankle really is just this marvel of biomechanical engineering. Trevor Burrus, Jr.

SPEAKER_00 1:24

It is, but it's also incredibly vulnerable. I mean, the real puzzle for a physician isn't just taking a picture and spotting a crack in the bone.

SPEAKER_01 1:31

Right.

SPEAKER_00 1:32

The true clinical challenge is identifying the minority of injuries that are structurally unstable while, you know, sparing everyone else from unnecessary interventions.

SPEAKER_01 1:42

Aaron Powell Which requires understanding the mechanics of the joint itself. Like I always picture the ankle as this incredibly high spake hinge.

SPEAKER_00 1:48

Trevor Burrus, that's a great way to put it.

SPEAKER_01 1:50

Yeah, because it's a relatively small structure, but it's tasked with supporting our entire body weight and absorbing the shock of every single step, every jump, you know, every sudden stop we make.

SPEAKER_00 2:00

And the way that hinge breaks tells us a whole lot about the forces at play. Because the incidence of these distal fibular fractures, it reveals a distinct bimodal distribution.

SPEAKER_01 2:12

Bimodal. Meaning uh two peaks.

SPEAKER_00 2:15

Right. We were basically seeing two entirely different populations suffering the exact same injury, but through completely different mechanical pathways.

SPEAKER_01 2:23

Aaron Powell Okay. So it's the difference between, say, hitting a completely healthy, solid tree with a baseball bat versus like a rotting tree just collapsing under its own weight.

SPEAKER_00 2:32

Aaron Powell That is a highly accurate way to look at it structurally. On the younger end of the spectrum, the bone is healthy, it's dense. Makes sense. So it takes high energy trauma to break it, motor vehicle accidents, aggressive tackles in sports, or you know, major falls. The physical forces involved basically have to overpower a strong bone.

SPEAKER_01 2:48

Aaron Powell But on the older end of the curve, you don't need a tackle or a car crash.

SPEAKER_00 2:52

No, not at all. You just need a simple fall from standing height, like a trip over a living room rug.

SPEAKER_01 2:58

Wow. Just a rug.

SPEAKER_00 2:59

Yeah. As we age, the prevalence of osteoporosis weakens the internal density of the bone. It becomes brittle. So a low energy, minor twist that a 20-year-old would just, you know, walk off ends up literally shattering the fibula in a 70-year-old.

SPEAKER_01 3:14

Aaron Powell And the incidence is rising because our population is aging. Though looking at the protocol, age and osteoporosis aren't the only risk factors, right?

SPEAKER_00 3:23

No, they aren't.

SPEAKER_01 3:23

Because obesity makes intuitive mechanical sense to me. I mean, more physical weight means more loading stress on that high-stakes hinge. But the data also heavily points to cigarette smoking.

SPEAKER_00 3:36

It does.

SPEAKER_01 3:36

Which is wild. How does an airway habit affect the structural integrity of your ankle bone?

SPEAKER_00 3:41

Well, it really comes down to systemic vascular health. Smoking heavily impairs your blood vessels.

SPEAKER_01 3:46

Oh, the blood flow.

SPEAKER_00 3:47

Exactly. It restricts the flow of oxygen-rich blood to tissues and bones throughout the entire body. And poorer blood flow means weaker bone remodeling over time.

SPEAKER_01 3:56

Aaron Powell Which makes the bone more susceptible to structural failure in the first place. Aaron Ross Powell Right.

SPEAKER_00 4:00

And it also means that when a fracture does occur, the body really struggles to deliver the biological materials needed to knit the bone back together.

SPEAKER_01 4:07

Trevor Burrus So you are weakening the structure and simultaneously cutting off the supply lines for repairs. That's a bad combination. Let's look at the actual moment of injury, though. Like what is the physical motion that snaps this specific bone on the outside of the ankle?

SPEAKER_00 4:23

Aaron Powell So the vast majority are inversion injuries, meaning the foot rolls inward.

SPEAKER_01 4:27

Okay.

SPEAKER_00 4:28

But the most commonly described specific mechanism in the medical literature is a rotational force known as supination external rotation.

unknown 4:37

Okay.

SPEAKER_01 4:37

Supination external rotation. Let me visualize this. The foot is rolling inward, so that's the supination part.

SPEAKER_00 4:43

Right.

SPEAKER_01 4:43

But the external rotation implies a twisting motion happening at the exact same time.

SPEAKER_00 4:47

Yes. Think of your foot being planted on the ground, rolling over onto its side, while the momentum of your body twists your shin away from it.

SPEAKER_01 4:55

Oh man. Yeah.

SPEAKER_00 4:56

That combination of an inward roll and an outward twist creates this massive shearing stress. The fibula simply cannot withstand that torque.

SPEAKER_01 5:04

Aaron Powell Just picturing that makes my own leg ache. But um this brings up a huge point of confusion for me.

SPEAKER_00 5:09

What's that?

SPEAKER_01 5:10

Well, if the fibula bone is literally snapped from that twisting force, how on earth are some people able to just stand up right after it happens? I mean, a broken leg usually means you are, you know, immobilized on the sidewalk waiting for paramedics.

SPEAKER_00 5:24

Aaron Powell And this is where the anatomy of the lower leg really surprises people. The fibula is the smaller bone on the outside of the leg.

SPEAKER_01 5:32

Okay.

SPEAKER_00 5:32

Your tibia, the shin bone, is the massive thick pillar that actually bears your body weight. If the tibia is intact and the ligaments holding the overall ankle joint together haven't completely ruptured, the architectural integrity of the joint might actually still be secure enough to support your weight.

SPEAKER_01 5:51

Wait, really? So the tibia is doing all the heavy lifting and the broken fibula is just sort of an outrigger along for the ride.

SPEAKER_00 5:56

In what we call a stable fracture, yes. Because of this structural redundancy, a patient might actually walk right into the emergency room on a freshly broken ankle.

SPEAKER_01 6:05

That is insane.

SPEAKER_00 6:06

And when the doctor examines them, the presentation is almost completely indistinguishable from a severe ankle sprain. I mean, they both feature immediate pain, reduced range of motion, massive bruising, and intense swelling.

SPEAKER_01 6:21

Okay, I have to stop you there because my immediate reaction to that scenario is absolute frustration.

SPEAKER_00 6:26

How so?

SPEAKER_01 6:27

If a patient walks in and a literal broken bone can perfectly masquerade as a simple sprain with the exact same swelling, I mean, I don't want a doctor guessing. If I am the patient, I want an x-ray immediately. Let's look inside and be absolutely sure.

SPEAKER_00 6:42

I get that, but actually that gut instinct is exactly what modern emergency medicine has to fight against.

SPEAKER_01 6:48

Really? Why?

SPEAKER_00 6:49

Because x-raying every swollen ankle that walks through the door clogs up emergency rooms, wastes massive amounts of healthcare resources, and blasts hundreds of thousands of people with completely unnecessary radiation.

SPEAKER_01 7:00

Okay, fair point on the radiation.

SPEAKER_00 7:01

Yeah. And the medical protocol proves that most patients with an acute ankle injury do not require imaging and can be managed safely without it.

SPEAKER_01 7:08

But if the visual symptoms are identical, how can a doctor possibly know who actually has a broken bone without taking a picture? It feels incredibly risky to just send someone home with a swollen ankle and hope for the best.

SPEAKER_00 7:21

Well, they don't just guess, they rely on a highly validated clinical filter known as the Ottawa Ankle Rules.

SPEAKER_01 7:27

The Ottawa Rules.

SPEAKER_00 7:28

Right. These guidelines demonstrate that you can diagnose safely and effectively with just your hands and a very specific set of functional tests.

SPEAKER_01 7:36

Okay, so let's play this out. I am the doctor. A patient limps in with a grapefruit-sized bruised ankle. What am I doing with my hands to rule out a fracture?

SPEAKER_00 7:46

Aaron Ross Powell You are palpating, which means pressing firmly on very specific geographical points. The rules require doctors to check for bony point tenderness on the posterior edges, meaning the back edges or the tips of both malleoli.

SPEAKER_01 7:59

The malleoli, that's the bony bump on the outside and the corresponding bump on the inside of the ankle, right?

SPEAKER_00 8:04

Exactly.

SPEAKER_01 8:04

But why the back edge specifically? I mean, if the bone is broken, shouldn't it the whole bump hurt?

SPEAKER_00 8:09

You would think so, but the posterior edges are where the major ligaments attach to the bone. When you twist your ankle severely, the ligament itself often doesn't actually snap. It doesn't. No. Instead, it pulls so violently that it tears a chunk of the bone right off.

SPEAKER_01 8:24

Oh, ouch. Yeah.

SPEAKER_00 8:26

That is called an avulsion fracture, and it happens right at those ligament anchor points on the back edge.

SPEAKER_01 8:31

That sounds brutal. The protocol also mentions checking midfoot zones, right? Pressing on the navicular bone and the base of the fifth metatarsal. I assume that is following the exact same logic. Like those are the structural anchor points further down the foot where the twisting forces might have traveled.

SPEAKER_00 8:47

That is exactly the underlying mechanism. And if there is no extreme tenderness at those specific bony anchors, the doctor moves to the functional test, which is weight bearing. The patient basically must attempt to take four consecutive steps.

SPEAKER_01 9:00

Taking four steps and a swollen, agonizing ankle sounds like medieval torture.

SPEAKER_00 9:05

I mean, it is definitely uncomfortable, but it is functionally revealing. If you don't have point tenderness in those specific ligament anchor zones and you can bear weight to take four steps, the statistical likelihood of a clinically significant fracture is vanishingly small.

SPEAKER_01 9:21

So you don't get the x-ray?

SPEAKER_00 9:23

Nope. Get sent home to rest.

SPEAKER_01 9:24

It really filters out the noise. And I noticed advanced imaging like an MRI isn't even mentioned as a first step here.

SPEAKER_00 9:31

Because it would just pick up useless static. An MRI might show a tiny bone bruise that causes the patient intense anxiety, but it wouldn't change the treatment plan at all. So we rely on functional markers.

SPEAKER_01 9:43

Right. Okay, let's say I fail a functional test. I can't take the four steps and the back of my fibula is screaming in pain. Okay. I finally get my x-ray. But if a broken bone is a broken bone, why does the doctor care so much about where the crack is? Isn't the treatment always the same?

SPEAKER_00 9:58

Not at all. The location of the brake changes everything about the path forward, because the ankle isn't just a static pillar. The doctor orders specific angles on the x-ray, including the front view, the lateral side view, and most importantly, the mortise view.

SPEAKER_01 10:12

Mortise. Like in woodworking, a mortise and tendon joint.

SPEAKER_00 10:16

Exactly. The human ankle is literally a mechanical mortise. The bottom ends of the tibia and fibula form a rectangular socket. The mortise and the talus bone of your foot sits perfectly inside it, acting as the tendon.

SPEAKER_01 10:29

Oh, I see. So the X-ray is checking to see if that socket is holding together.

SPEAKER_00 10:32

Yes. The primary job of the assessment physician is to evaluate the syndismosis.

SPEAKER_01 10:37

The syndismosis.

SPEAKER_00 10:38

Right. This is a dense, highly complex web of fibrous connective tissue and ligaments that tightly binds the tibia and the fibula together just above the ankle joint.

SPEAKER_01 10:48

Okay.

SPEAKER_00 10:49

It is the crucial structural tape keeping the socket intact. Doctors use what's called the Weber classification system to categorize the fracture based entirely on where the bone broke relative to this syndismosis.

SPEAKER_01 11:00

Okay, I want to try an analogy here to make sure I am visualizing this right. Let's say the syndismosis, you know, that dense tissue holding the bones together is like the heavy rubber seal on a watertight door of a submarine.

SPEAKER_00 11:12

Oh, I like that. The integrity of that seal dictates the survival of the structure.

SPEAKER_01 11:17

Right. So the protocol mentions a Weber A fracture. This is an avulsion fracture below the syndismosis. Using the submarine analogy, that would be like a dent or a crack on the metal doorframe down near the floor, entirely below that crucial rubber seal.

SPEAKER_00 11:33

Exactly.

SPEAKER_01 11:34

The seal itself is completely untouched, the door is still watertight.

SPEAKER_00 11:37

Precisely. Because the fracture happens below the syndismosis, the primary ligaments holding the tibia and fibula together are perfectly intact. Weber A fractures are incredibly stable. Okay. They might hurt, but mechanically behave almost exactly like a severe ankle sprain.

SPEAKER_01 11:53

Got it. So if Weber A is safe below the seal and a Weber C fracture, which the protocol says happens high up above the syndismosis, completely blows the entire door apart, then a Weber B fracture must be the crack going right through the middle of the rubber seal itself.

SPEAKER_00 12:07

Yeah, the Weber B is the ultimate gray area. The fracture line runs exactly at the level of the syndismosis. So the seal might still be holding, keeping the joint stable, or it might be slightly torn and unstable. It really requires a highly nuanced assessment by the medical team.

SPEAKER_01 12:21

Aaron Powell Which brings us back to the Weber C. If the break happens high up on the fibula, above the syndismosis, the twisting force was so severe that it had to rip entirely through that connective tissue before snapping the bone. The rubber seal is completely destroyed.

SPEAKER_00 12:36

Exactly. And without a syndismosis holding the tibia and fibula together, the joint space widens. The socket simply falls apart. The talus bone starts to slide out of place, which we call a taller shift.

SPEAKER_01 12:48

Oh, that sounds bad.

SPEAKER_00 12:50

It is. Doctors will measure the medial clear space, which is the gap on the inner side of the ankle. If that gap is greater than four millimeters, it strongly suggests the thick deltoid ligament on the inside of the ankle has ruptured as well. A Weber C is highly unstable.

SPEAKER_01 13:03

I noticed the text mentions stress radiographs. If a Weber B is in that gray area, do doctors physically push and pull on the ankle while taking the x-ray to see if the socket wiggles?

SPEAKER_00 13:14

They can, yes. Yeah. Often under anesthesia so the patient doesn't resist the pain. But the protocol offers a fascinating warning about this.

SPEAKER_01 13:22

What's that?

SPEAKER_00 13:22

Stress radiographs can actually overestimate the need for surgery.

SPEAKER_01 13:26

Really?

SPEAKER_00 13:26

Yeah. If a doctor artificially forces the joint open while the patient is sedated, it might look absolutely terrifying on the screen. But that doesn't necessarily reflect the patient's actual functional stability when they are awake, walking around, with all their leg muscles actively engaged in supporting the joint.

SPEAKER_01 13:44

Oh wow. So you have to treat the human being not just what the forced image implies.

SPEAKER_00 13:49

Exactly.

SPEAKER_01 13:49

That totally dictates the entire treatment plan. So if I have a stable fracture, a Weber A or a sturdy Weber B, I'm looking at conservative management. How long am I immobilized for?

SPEAKER_00 13:59

Well, the modern gold standard is a walking boot. It provides mechanical support while allowing you to walk, which promotes blood flow and healing. Okay. The typical timeline is about six weeks.

SPEAKER_01 14:09

Okay.

SPEAKER_00 14:09

Though the data shows that for a stable Weber B fracture, taking the boot off at three weeks is completely non-inferior to waiting six weeks.

SPEAKER_01 14:17

Three weeks for a broken bone is incredibly fast. But the instructions for that first week are where things get highly specific. Like we all know the Rice C protocol, right? Rest, ice specifically, 20 minutes every two hours, compression and elevation. Right. But right next to it, the protocol demands that you avoid the harm protocol for the first seven days. Harm stands for heat, alcohol, reinjury, and massage.

SPEAKER_00 14:42

Yes, and it is a critical physiological warning.

SPEAKER_01 14:44

I completely understand avoiding alcohol. I mean, you don't want to impair your balance and fall again. Reinjury is obvious. But heat and massage. Yep. If my leg is incredibly sore, swollen, and throbbing, applying a warm heat pack and gently rubbing the muscle is exactly what my brain tells me to do to find relief. Why on earth is that dangerous?

SPEAKER_00 15:02

Aaron Ross Powell Because swelling is the body's natural response. It is rushing blood and inflammatory fluids to the trauma site to initiate the healing cascade. If you apply heat to that area, you trigger vasodilation.

SPEAKER_01 15:14

Vasodilation. Opening the blood vessel.

SPEAKER_00 15:17

Exactly. You are opening the blood vessels up even wider, driving massive excessive blood flow into a space that is already incredibly congested. It drastically exacerbates the swelling, which increases your pain and can even cause secondary tissue damage from the sheer internal pressure.

SPEAKER_01 15:33

Okay, heat makes the pressure worse. Got it. But what about massage? Shouldn't rubbing the ankle help physically push that excess fluid out of the joint?

SPEAKER_00 15:42

You have to think about what is happening right between the broken ends of the bone. The very first step of bone healing is the formation of a fragile hematoma, which is a localized blood clot.

SPEAKER_01 15:53

Okay.

SPEAKER_00 15:53

This clot acts as the crucial biological scaffolding for new bone cells to actually begin growing. If you massage the tissue over a fresh break, you risk physically disrupting and tearing that delicate clot apart. You are essentially resetting the cellular healing clock back to zero.

SPEAKER_01 16:10

You are literally rubbing away the foundation of your new bone.

SPEAKER_00 16:12

Essentially, yes.

SPEAKER_01 16:13

Yeah. That is a horrifying mental image, but it makes perfect sense. Message received, do not touch it. But while I am trapped on the couch in my walking boot, trying not to disrupt my cellular scaffolding, I am assuming there is a risk of the rest of my body breaking down from the sudden lack of mobility.

SPEAKER_00 16:30

There is. The protocol highlights several severe red flags that require an immediate trip to the emergency room. And the most pressing mechanical risk of immobilizing a lower limb in a boot is the formation of a deep vein thrombosis, or DVT.

SPEAKER_01 16:45

So a blood clot in the calf.

SPEAKER_00 16:47

Yes. Because the leg muscles aren't contracting and pumping blood back up to the heart normally. Blood can pool and coagulate in the deep veins. And the physiological danger is that if this clot breaks loose from the calf, it travels directly through the bloodstream into the lungs, creating a pulmonary embolism.

SPEAKER_01 17:03

Which can be instantly fatal.

SPEAKER_00 17:05

Absolutely.

SPEAKER_01 17:05

It really underlines that a broken ankle isn't just an isolated foot problem. It is a full-body cardiovascular stress event.

SPEAKER_00 17:12

Very well said.

SPEAKER_01 17:13

So assuming I avoid a blood clot and the bone knits back together, returning to normal life brings up some incredibly practical guidelines, specifically driving.

SPEAKER_00 17:23

Uh, yes. The medical clearance to drive is entirely dependent on the specific mechanical demands of your vehicle.

SPEAKER_01 17:30

Which is fascinating.

SPEAKER_00 17:31

If you drive an automatic car and you fractured your left ankle, you can technically resume driving immediately, since the left foot just remains idle.

SPEAKER_01 17:39

It is just wild to think that medical clearance hinges on whether your car has an automatic or a manual transmission. But the rule for a manual car or a right ankle fracture is waiting around six weeks. And it comes with a major functional caveat, right? The boot has to be off and you must be able to perform an emergency stop.

SPEAKER_00 17:59

Right. Which brings the entire healing process into sharp focus. Can you violently slam your foot into the brake pedal if a child runs out into the road without the bone refracturing? The medical protocol isn't just checking if you can, you know, gently press the gas pedal to cruise down the street.

SPEAKER_01 18:14

You are testing that biomechanical hinge at its absolute maximum capacity. If you can't survive an emergency stop, your ankle isn't actually healed yet.

SPEAKER_00 18:22

Exactly. Mobility is about restoring the mechanical strength required for real-world split-second reactions.

SPEAKER_01 18:29

Wow. We have traced a massive mechanical journey today. We started with the sheer panic of stepping off a curb and learned that a fully broken bone can perfectly masquerade as a simple sprain.

SPEAKER_00 18:41

Yes, we did.

SPEAKER_01 18:42

We broke down the bimodal demographic, realizing that a high-speed car crash and a slow-motion trip over a rug can result in the exact same structural failure, all depending on the density of the bone.

SPEAKER_00 18:52

And we examined the clinical brilliance of the Ottawa ankle rules, proving the doctors can use four steps and specific anatomical anchor points to safely avoid unnecessary radiation and resource waste.

SPEAKER_01 19:03

And we mapped out the submarine door of the ankle mortise using the Weber classifications to understand when a joint is stable and when the socket completely falls apart. And crucially, for anyone listening with a fresh injury, we learned why applying heat or a soothing massage will actively destroy your body's delicate internal scaffolding.

SPEAKER_00 19:24

It really showcases the value of evidence-based medical protocols. They guide us away from our flawed instincts and to genuine structural repair. But uh there is one final, incredibly profound note buried in the treatment guidelines that I think is totally worth considering.

SPEAKER_01 19:40

Oh, what is it?

SPEAKER_00 19:41

The protocol explicitly states that conservative treatment, meaning no surgery, just a boot, may still be appropriate for older, less active, or unhealthy patients, even with highly unstable Weber C fracture patterns.

SPEAKER_01 19:53

Wait, really? Even if the mortise is blown completely apart, even if the ankle heals slightly out of alignment.

SPEAKER_00 19:58

Think about the philosophy behind that decision. Modern medicine is not solely about achieving anatomical perfection on a screen. Sometimes a perfectly aligned, screwed together bone isn't the primary goal. Especially if the intense trauma and cardiovascular stress of the surgery itself poses a greater risk to a frail patient than a slightly misaligned ankle does.

SPEAKER_01 20:21

That is profound. The ultimate art of medicine lies in matching the treatment, not to the x-ray, but to the life the patient actually lived.

SPEAKER_00 20:28

Exactly. The goal isn't just fixing the bone, it's preserving the patient.

SPEAKER_01 20:32

So it all comes back to that curve. It's not just about how you stepped off of it, but where you need that ankle to take you next.