The Migraine Treatment Guide Podcast
Medications, Procedures, and Surgery Explained for the management of chronic headaches, including migraine, tension headache, cluster headache, NDPH, and other headache diagnoses. Created and edited by Dr. Adam Lowenstein of the Migraine Surgery Specialty Center, this podcast covers diagnosis, medication, surgical, and non-surgical alternatives to headache medication in order to educate patients with chronic headache pain on their options for headache relief.
The Migraine Treatment Guide Podcast
Hormone Related Menstrual Headaches Explained
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Menstrual migraines get framed as an invisible hormone math problem, but that story breaks down the moment you ask a simple question: if estrogen and progesterone circulate everywhere, why does the pain keep bottlenecking in the same square inch above your eyebrow or the same band at the base of your skull? We follow a different path and treat hormone-related migraines like an anatomy puzzle, where soft tissue swelling and reactive blood vessels can physically crowd and irritate specific peripheral nerves.
We unpack how an estrogen drop can make small scalp and facial arteries more reactive, turning a normally quiet “neighbor” into a pulsing source of rhythmic pressure on nearby nerves. Then we add progesterone’s downstream fluid retention effects, explaining how perineural edema can tighten fascial and muscular tunnels that have almost no spare room. Along the way we map the classic trigger points: the superorbital and supratrochlear nerves at the brow, the zygomaticotemporal nerve at the temple, and the greater occipital nerve where muscle, fascia, and the occipital artery can collide at the base of the skull.
We also connect the dots across life stages, from predictable premenstrual migraines to the severe postpartum cliff and the chaotic swings of perimenopause migraines, where timing stops helping and location becomes the real clue. Finally, we cover why hormone therapy may reduce frequency but not erase pain when chronic compression leaves lasting narrowing, how a diagnostic nerve block can act as the “smoking gun,” and what peripheral nerve decompression surgery is designed to change for carefully selected patients.
If you’ve ever felt dismissed with “it’s just hormones,” this conversation gives you a sharper vocabulary and a better map. Subscribe for more deep dives, share this with someone who tracks their cycle and their pain, and leave a review with the one trigger spot you want explained next.
If you have questions about nerve decompression for severe chronic menstrual headaches, learn more at headachesurgery.com.
Chemistry Is Only Half The Story
SPEAKER_00You know, when we usually talk about hormone related migraines, there's this um this underlying assumption that we are entirely dealing with an issue of chemistry.
SPEAKER_01Right. Like it's all just invisible molecules.
SPEAKER_00Exactly. We tend to picture this very abstract chemical process, specifically like a drop in estrogen that's somehow affecting the pain processing pathways deep inside the brain.
SPEAKER_01Yeah, that's the standard narrative.
SPEAKER_00Right. And you've probably heard this standard explanation, you know? The hormones drop, the brain gets angry, and bam, you get a headache.
SPEAKER_01That's what everyone is told.
SPEAKER_00But I mean, what if we told you that that chemical equation is really only half the story?
SPEAKER_01It's a pretty big paradigm shift.
SPEAKER_00It really is. So welcome to the deep dive. Today we are exploring this really fascinating medical document compiled by Dr. Adam Lowenstein, who's a physician at the migraine surgery specialty center.
SPEAKER_01And it's such an important document, honestly.
SPEAKER_00Yeah, and our mission today is to uncover something that gets almost no attention in standard headache clinics. Like we're looking at the hidden physical, mechanical triggers behind hormone-related migraines.
SPEAKER_01Because it's a critical shift in perspective, right? It is just remarkably common to stop the investigation right there at the chemical level.
SPEAKER_00Like, oh, your estrogen dropped. Here's a pill.
SPEAKER_01Exactly. But stopping there leaves a lot of people without real answers. What we are really talking about today is how vascular changes and fluid retention literally physically crush the peripheral nerves in your head and neck.
SPEAKER_00Okay, let's unpack this. Because if hormones are circulating everywhere in your body, like literally swimming through your entire bloodstream from your toes to your scalp.
SPEAKER_01Yeah, they go everywhere.
SPEAKER_00Right. So why does the pain of a menstrual migraine almost always seem to bottleneck in the exact same spot, like right above the eyebrow, or specifically at the base of the skull? If it's just a systemic chemical issue floating through the blood, I mean why is the pain so hyperlocalized to these specific square inches of the head?
SPEAKER_01That is exactly the right question to ask. And it completely validates the need to look beyond just standard blood tests, you know. What this deep dive will reveal is how the structural physical anatomy of your head interacts with those invisible chemical swings.
SPEAKER_00The actual architecture of the face.
SPEAKER_01Yeah. We are talking about physical spaces, little anatomical tunnels. And well, what happens when they get too crowded?
SPEAKER_00And this matters so much for you listening because whether you suffer from cyclical headaches yourself, or maybe you have a partner or a friend who does so common. Extremely common. Or even if you just love a really good medical puzzle, understanding this structural layer completely changes how we think about treating chronic pain.
SPEAKER_01It really does.
SPEAKER_00It takes it from this mysterious invisible brain chemistry thing to a very tangible physical problem.
SPEAKER_01Aaron Ross Powell Exactly. So let's look at the physical reality of what estrogen and progesterone actually do to your tissues.
SPEAKER_00Aaron Powell Because they're not just doing reproductive stuff.
SPEAKER_01No, not at all. These aren't just reproductive hormones that stay in the reproductive system. They have receptors all over your body. Right. Including the blood vessel walls and the connective tissues that actually surround the nerves in your face and neck.
SPEAKER_00Let's start
Estrogen Drop And Throbbing Vessels
SPEAKER_00with estrogen, I think, because most of us know estrogen is generally protective for your cardiovascular health during, you know, your reproductive years.
SPEAKER_01Right. It's great for the heart.
SPEAKER_00Yeah. And a big reason for that is estrogen naturally relaxes the smooth muscle lining your blood vessels. It keeps the walls of your arteries supple, allowing blood to just flow easily.
SPEAKER_01It's like a constant calming signal to the blood vessels.
SPEAKER_00Exactly. But when estrogen levels drop sharply, like they predictably do right before your period, that relaxing effect just vanishes.
SPEAKER_01Gone. And that sudden loss of relaxation is where the mechanical problem begins. The small arteries in your scalp and your face suddenly become highly reactive.
SPEAKER_00Because they don't have that estrogen telling them to chill out anymore.
SPEAKER_01Right. Because they've lost that steady relaxing signal, they start dilating and constricting erratically. Now, I want you to picture a tiny blood vessel that travels right alongside a sensory nerve in your forehead.
SPEAKER_00Okay, I'm picturing it.
SPEAKER_01Normally, that blood vessel is what we'd call a loose neighbor.
SPEAKER_00A loose neighbor, I like that.
SPEAKER_01Yeah. It minds its own business, quietly doing its job. But when estrogen drops, that vessel loses its structural discipline. It swells, it gets reactive, and suddenly it becomes a very tight neighbor.
SPEAKER_00Oh man.
SPEAKER_01With every single heartbeat, that swollen, throbbing vessel is applying rhythmic physical pressure directly onto the nerve right next to it.
SPEAKER_00So you're literally feeling the pulse of your own artery beating against a sensory nerve.
SPEAKER_01Yes.
SPEAKER_00That explains the throbbing sensation perfectly. I mean, it makes so much sense. But it's not just the blood vessels acting up, is it?
SPEAKER_01No, it's not.
SPEAKER_00Because estrogen isn't acting alone here. Yeah. We also have to factor in progesterone.
SPEAKER_01Right. At the exact same time the vascular tone is going haywire from the estrogen drop, progesterone and its downstream effects are stepping into the spotlight. Well, progesterone influences a hormone called aldosterone, which basically tells your kidneys to hold on to sodium. Okay. And wherever sodium goes,
Progesterone Fluid Retention Squeezes Nerves
SPEAKER_01water follows. This is the physiological mechanism behind that classic, completely normal premenstrual bloating that you know so many people experience.
SPEAKER_00The famous water weight. But we usually think of that in terms of like our genes feeling tight around the waist or maybe breast tenderness. We don't typically think about our forehead bloating.
SPEAKER_01No, we don't. But it does. That same fluid shift happens in the sock tissues and the fascial planes all over your body, including your forehead, your temples, and the posterior scalp. Wow. And when this fluid builds up in the tissue directly surrounding a nerve, it creates something called perineural edema.
SPEAKER_00Paraneural edema. Let me break that down. Go for it. Simply put, peri means around, and neural means nerve. So it's tissue swelling immediately encasing the nerve itself.
SPEAKER_01Exactly.
SPEAKER_00So it's like um trying to run a garden hose through a tight PVC pipe, but suddenly the hose swalls up with extra water pressure from the inside.
SPEAKER_01Right.
SPEAKER_00And the inside of the pipe is shrinking from fluid retention at the exact same time.
SPEAKER_01Yeah.
SPEAKER_00The nerve is literally trapped in the middle of this anatomical vice grip.
SPEAKER_01That is a perfect way to visualize it. What's fascinating here is that these two mechanisms, the vascular engorgement pushing from one side and the tissue fluid retention squeezing from the other, they happen together.
SPEAKER_00At the exact same time.
SPEAKER_01Bring the exact same hormonal window. That dual squeeze is a huge part of why hormone-related migraines feel so incredibly intense. And frankly, why they are historically so hard to treat.
SPEAKER_00Because it's a physical crush.
SPEAKER_01You aren't just dealing with the stray chemical signal. You are dealing with the nerve being physically compressed from two different directions simultaneously.
SPEAKER_00Okay, so if the swelling is the underlying mechanism, the location has to be the variable, right?
SPEAKER_01How do you mean?
SPEAKER_00Because if my body is retaining water everywhere and my blood vessels are getting reactive all over, why don't I get a migraine in my arm? Or my back? Why is it always the head?
SPEAKER_01Uh yes. Because it comes down to the specific anatomical architecture of the head and neck. The sensory nerves we were talking about in the face and scalp, they don't just float freely.
SPEAKER_00They aren't just swimming around.
SPEAKER_01No, they travel through very specific anatomic tunnels. And crucially, these tunnels are bounded by fascia and muscle, not bone.
SPEAKER_00Okay, wait, let's pause there. Why does the not bone part matter so much in this context?
SPEAKER_01Well, because bone doesn't swell.
SPEAKER_00Oh, right.
SPEAKER_01If a tunnel is completely enclosed by bone, it's rigid. But when a tunnel is made of dense muscle and fascia, which is that tough, web-like connective tissue wrapping our muscles, it can get thickened and engorged with fluid.
SPEAKER_00So it puffs up.
SPEAKER_01Yeah. When fascia and muscle retain water, they swell inward, choking off the empty space inside the tunnel. And these specific tunnels in the head have essentially zero extra capacity to accommodate that extra fluid.
SPEAKER_00So any inward swelling immediately hits the nerve.
SPEAKER_01Instantly.
SPEAKER_00Let's map this out for the listeners so they can really picture it. Let's start with the front of the head, like the classic forehead migraine.
SPEAKER_01Sure. Let's look at the frontal region. You have two main nerves here, the soup orbital and super trochlear nerves. They exit through these tiny little notches right above your eyebrow. To get to the surface of your skin, they have to weave directly through the corrugator and frontalis muscles.
SPEAKER_00Which are the exact muscles you use to frown or raise your eyebrows,
Forehead And Brow Trigger Points
SPEAKER_00right?
SPEAKER_01Exactly those one.
SPEAKER_00So when that premenstrual fluid shift happens, the frowning muscle gets slightly waterlogged, and that specific exit point above the eyebrow literally swells shut around the nerve.
SPEAKER_01Precisely. That swelling directly narrows the exit point. It's why patients will frequently describe a very sharp specific pain and pressure right behind or just above the eyebrow.
SPEAKER_00It's so localized.
SPEAKER_01And interestingly, if you look closely, you can sometimes even see it.
SPEAKER_00Wait, really?
SPEAKER_01Yeah, there will be visible puffiness in that exact area during that specific window of their cycle.
SPEAKER_00That is wild. But wait, I have to push back slightly here to make sure we're totally tracking.
SPEAKER_01Sure.
SPEAKER_00My arms are full of muscles and fascia. My legs are full of fascia. If I'm retaining water systemically, why don't my elbows or my shins get migraines? What makes these specific tunnels in the head so uniquely vulnerable compared to the rest of the body?
SPEAKER_01It's a great point of comparison. It's basically because the nerves in your arms and legs generally travel through much larger compartments. They have a bit more give.
SPEAKER_00Extra space.
SPEAKER_01Right. There's literal breathing room. But these specific areas in the head are classic migraine trigger sites, well recognized in peripheral nerve surgery, precisely because they lack that extra space.
SPEAKER_00They're just too tight to begin with.
SPEAKER_01Exactly. The superorbital nerves or the greater occipital nerve at the back of the head, they're sensory nerves crammed into tiny high traffic intersections. There is literally no room to spare.
SPEAKER_00So they are uniquely set up to fail if there's even a millimeter of extra swelling.
SPEAKER_01Unfortunately, yes.
SPEAKER_00Aaron Powell Let's look at the back of the head then. Because I know a lot of people who don't get the forehead pain, but they get this unbearable throbbing pain right at the base of the skull.
SPEAKER_01Yes, the posterior scalp and neck. The main player here is the greater occipital nerve.
SPEAKER_00Okay.
SPEAKER_01To reach the scalp, it has to travel through a thick, dense muscle called the semispinalis capetus, and then
Base Of Skull Compression Explained
SPEAKER_01pierce through the trapezius fascia right at the base of your skull.
SPEAKER_00That sounds like a lot of tissue to get through.
SPEAKER_01It is. So when hormone-driven fluid thickens those tissue planes, the space gets very tight. But here is the real kicker.
SPEAKER_00Uh-huh.
SPEAKER_01The occipital artery actually crosses right over the nerve at almost this exact same bottleneck.
SPEAKER_00Oh wow. So you have the muscle swelling from fluid retention on one side and the artery crossing directly over it on the other side.
SPEAKER_01Exactly. So when those hormone-driven vascular changes cause that crossing artery to swell and pulse, it's beating directly against a nerve that is already being squeezed by water logged muscle. Ouch. Yeah. That structural collision creates that intense throbbing band of pressure at the base of the skull. And we also see a very similar mechanism happen at the temples with another nerve called the zygomaticotemporal nerve.
SPEAKER_00Causing that classic temple headache. It's honestly a marvel of engineering when things work, but it's kind of terrifying to visualize when things swell.
SPEAKER_01It really is.
SPEAKER_00So we've established the anatomy. We had these specific, vulnerable pinch points above the brow, at the temples, and at the base of the skull. Let's map this biology onto the actual timeline of someone's life.
SPEAKER_01Okay.
SPEAKER_00How does this mechanical compression change depending on what stage of life a patient is in?
SPEAKER_01Aaron Ross Powell Well, according to Dr. Lowenstein's document, there are three main hormonal windows across the lifespan where this mechanical compression becomes highly evident.
SPEAKER_00Let's start with the first one.
SPEAKER_01The first is the one most people are familiar with, the classic menstrual migraine. This is driven by that sharp estrogen drop about two to three days before menstruation begins.
SPEAKER_00So this one is highly predictable.
Three High Risk Hormone Windows
SPEAKER_00I mean, a patient can look at a calendar, track their cycle, and know exactly when the swelling is going to hit.
SPEAKER_01Exactly. It features moderate reactive vasodilation in the scalp vessels and very high classic premenstrual fluid retention. Because the hormone cycle is regular, the pain reliably hits those frontal or occipital trigger sites every single month on schedule. Clockwork. But the second window is quite different, and that's the postpartum period right after childbirth.
SPEAKER_00Oh, right. Because the hormone drop there isn't just a monthly dip, it's an absolute cliff.
SPEAKER_01It is an abrupt, massive decline in both estrogen and progesterone. During pregnancy, the body retains an immense volume of extra fluid and blood.
SPEAKER_00A huge amount.
SPEAKER_01After childbirth, you have a very rapid shift in vascular tone and huge physiological fluid shifts as the body mobilizes and tries to shed all that pregnancy fluid.
SPEAKER_00So the sheer volume is just overwhelming the tunnels.
SPEAKER_01Exactly. Because the magnitude of the hormone drop is so extreme and the fluid volume is so high. Postpartum headaches are often the most severe presentation of this mechanical squeezing.
SPEAKER_00That makes total physiological sense given the amount of water weight shifting around.
SPEAKER_01It does.
SPEAKER_00But then we get to the third window, which I think is where a lot of patients feel incredibly frustrated and, quite frankly, isolated. Perimenopause.
SPEAKER_01Yes. Perimenopause is characterized by erratic, highly unpredictable estrogen fluctuations that can last for months or even years.
SPEAKER_00It's a roller coaster.
SPEAKER_01You have intense vasomotor instability. Think of the sudden vasodilation that causes hot flashes, and highly variable fluid retention that just doesn't follow any set schedule.
SPEAKER_00I can imagine someone in perimenopause thinking they suddenly have a brand new neurological disease.
SPEAKER_01Oh, absolutely.
SPEAKER_00Because it's no longer tied to a predictable monthly calendar.
SPEAKER_01Yeah.
SPEAKER_00Like one week you're fine, the next you have a throbbing occipital headache for three days, then nothing for a month, then a forehead headache.
SPEAKER_01A pattern disappears.
SPEAKER_00Right. Without the calendar to anchor them, how do they even know it's still a hormone-related migraine? The emotional toll of that unpredictability of like not trusting your own body must be exhausting.
SPEAKER_01It is. And if we connect this to the bigger picture, it explains why just keeping a basic headache diary based on dates isn't always enough, especially later in life.
SPEAKER_00The dates aren't helpful if the dates are random.
SPEAKER_01Exactly. This is why tracking your symptom site specifically is far more telling than just tracking the calendar during erratic life stages.
SPEAKER_00Okay, so mapping where it hurts, not when.
SPEAKER_01Right. If the pain is consistently localized to that specific spot over the right eyebrow, or that exact trigger point at the base of the skull, that site-specific pain points to a mechanical bottleneck.
SPEAKER_00That is such a good point.
SPEAKER_01It's the location that gives away the diagnosis, regardless of how chaotic the hormonal timing has become.
SPEAKER_00That totally reframes how a patient should track their symptoms. Instead of looking at the date, map the exact square inch of the pain.
SPEAKER_01Yes, exactly.
SPEAKER_00Okay, but this brings up a really crucial turning point in this discussion. If hormones are the initial trigger causing the swelling, shouldn't giving the patient hormone-stabilizing pills just fix the problem entirely?
SPEAKER_01It's the logical assumption. And to be clear, hormonal stabilization, things like continuous birth control, estrogen patches, or hormone replacement
When Hormone Therapy Is Not Enough
SPEAKER_01therapy is a very good first step. It calms things down. For a lot of people, smoothing out that chemical trigger reduces the fluid retention enough to relieve the pressure on the nerve.
SPEAKER_00But not for everyone.
SPEAKER_01No. For many others, the pain stubbornly persists. And understanding why requires us to look at the long-term physical consequences of chronic nerve compression.
SPEAKER_00Because we aren't just talking about one single swelling event that happens once. We're talking about years of an ongoing cycle.
SPEAKER_01Exactly. Years of repeated hormonal cycling. Imagine years of that tissue swelling, crushing the nerve, and then retreating over and over again.
SPEAKER_00That's a lot of wear and tear.
SPEAKER_01The body responds to friction and pressure. Eventually, the anatomic tunnel itself responds to all that chronic inflammation by developing permanent tightness. It's thickening the fascia or creating actual scar tissue around the nerve.
SPEAKER_00So it's kind of like um if you wear a really tight pair of shoes, it gives you a blister every single month for 10 years. Okay. Eventually your foot stops just getting a blister and builds up a permanent thick callus. Even if you completely stop wearing those tight shoes, or you know, you stabilize the hormones in our case.
SPEAKER_01You still have the callus.
SPEAKER_00Right. You still have this tough, tight callus left behind on your foot that hurts every time you walk.
SPEAKER_01That is a perfect analogy. The trigger, the hormone fluctuation, or the tight shoe might be entirely smoothed out by medication, but the physical damage, the scarred, thickened tunnel left behind remains.
SPEAKER_00The space is just gone.
SPEAKER_01The space is permanently narrowed, so the nerve is still trapped.
SPEAKER_00Which perfectly explains why a patient might go on continuous birth control or HRT, and they report back to their doctor, like, well, my headaches are maybe a little less frequent, but they definitely didn't go away, and it still throbs in this exact same spot above my eye.
SPEAKER_01Yes. And Dr. Lowenstein points out several clinical diagnostic clues that signal this structural mechanical component is still at play.
SPEAKER_00What are the clues?
SPEAKER_01The first is sight-specific pain rather than a diffuse whole headache. The second is headaches that persist despite aggressive hormone therapy.
SPEAKER_00Makes sense.
SPEAKER_01Third is visible puffiness around the eyes. And finally, a pattern that grows less tied to the calendar over time, precisely because that permanent callus or scar tissue is now the main problem.
SPEAKER_00Because it requires less and less swelling to trigger the pain. Exactly. So if a patient has these clues and they suspect a permanent bottleneck, how does a doctor know for sure? I mean, you can't exactly see a microscopic scarred tunnel on a standard MRI, right?
SPEAKER_01No, usually you can't.
SPEAKER_00So how do you prove it's the physical tunnel causing the pain and not just the brain chemistry?
SPEAKER_01The clinical smoking gun is a diagnostic nerve block.
SPEAKER_00What's that?
SPEAKER_01A physician will inject a tiny amount of local anesthetic directly into that specific trigger point, say right into the muscle at the superorbital notch. Oh wow. If the patient experiences a temporary but significant relief of their headache within minutes, it proves the peripheral nerve itself is generating the pain at that exact physical location.
SPEAKER_00Because the numbing agent
Nerve Blocks As The Proof
SPEAKER_00turned the nerve off and the pain stopped. So if a patient has been left with this permanent scarred bottleneck, well, a pill isn't going to fix that. You can't medicate away a physical scar. What is the structural fix?
SPEAKER_01Which brings us to the ultimate solution outlined in this document: peripheral nerve decompression surgery. Surgery. Yes, this procedure completely bypasses the chemistry and directly addresses the anatomy. It is typically an outpatient procedure done under sedation or general anesthesia.
SPEAKER_00Okay, so you're not in the hospital for days.
SPEAKER_01No,
Decompression Surgery And Who It Fits
SPEAKER_01you go home the same day. The surgeon literally goes in and physically releases the muscle, the tight fascia, or untangles the vascular structures that are compressing the affected nerve.
SPEAKER_00So what does this all mean? They're essentially clearing out the bottleneck. Right. They go to the superorbital notch and widen the exit, or they go to the base of the skull and separate that throbbing occipital artery from the nerve.
SPEAKER_01Precisely. Now I should probably throw on a quick disclaimer here, as always.
SPEAKER_00Yeah, please do.
SPEAKER_01We are discussing this for general educational purposes. Individual candidacy and surgical outcomes vary, and anyone dealing with chronic pain should, of course, consult a board-certified specialist to see if surgical or non-surgical options are right for them.
SPEAKER_00Aaron Powell Standard medical disclaimer, but very important.
SPEAKER_01Yes. But generally, candidacy for this specific surgery requires a chronic history of headaches, imaging that rules out other structural causes like tumors, a failed trial of conservative and hormone therapies, and critically, a positive response to those diagnostic nerve blocks or targeted Botox.
SPEAKER_00Okay, so just to be totally clear on the outcome, having this decompression surgery doesn't stop your normal hormonal cycle, right?
SPEAKER_01No, not at all.
SPEAKER_00You still get the normal physiological fluid retention and the vascular changes every month.
SPEAKER_01Aaron Powell You've got it exactly. The hormonal swelling still happens. Your body still retains some water before your period or during perimenopause. Right. But because the surgeon went in and gave the nerve a little extra breathing room by releasing that tight fascia, all that fluid just expands harmlessly.
SPEAKER_00Because the wall of the tunnel isn't there to crush it anymore.
SPEAKER_01Exactly. The painful mechanical consequence of that swelling is completely neutralized. The bottleneck is gone, so the nerve doesn't get pinched.
SPEAKER_00Man, that fundamentally reframes the entire condition. To think of a cycle-driven migraine, not just as some, you know, mysterious cloud of brain chemicals we have to endure, but as a trapped nerve physically crying out for space.
SPEAKER_01It's a huge shift.
SPEAKER_00We've gone on quite a journey today, moving from a purely chemical understanding of hormone-related migraines to a heavily mechanical
A New Lens On Chronic Pain
SPEAKER_00physical one.
SPEAKER_01We really have.
SPEAKER_00If you were listening to this and dealing with site-specific, cycle-driven pain, it might not just be in your head, figuratively speaking. It might quite literally be a pinched nerve in your head.
SPEAKER_01It's a vital shift in perspective. When we recognize that hormones influence the physical architecture of our tissues just as much as our internal chemistry, we empower patients.
SPEAKER_00It gives them a new path.
SPEAKER_01It opens up entirely new, tangible avenues for finding relief.
SPEAKER_00And we want to end today's deep dive with a lingering question for you to ponder on your own.
SPEAKER_01A little food for thought.
SPEAKER_00Yeah. If our bodies can physically adapt to internal chemical cycles by building up scar tissue and tightness around the tiny nerves in our forehead and neck, which we now know happens. Right. What other unexplained chronic daily pains in the human body might just be microscopic mechanical bottlenecks hiding behind a chemical label?
SPEAKER_01Oh, that's a great question. It makes you wonder how many other anatomical mysteries are just waiting for us to look closely enough at the structural details.
SPEAKER_00It really does. Thank you for joining us on this deep dive. Keep questioning those assumptions. Keep looking for the physical roots of things, and keep exploring the incredible mechanics of your own body. We'll catch you next time.
SPEAKER_01Take care.
SPEAKER_00Remember, whether it's a broken arm on an X ray or a swollen nerve hiding in a fascial tunnel. Wait, no elopsis. I mean, whether it's a broken arm on an X ray or a swollen nerve hiding in a fascial tunnel sometimes, you just have to know exactly where to look for the jagged line.