Rete Ovarii: Re-tuning Menopause with a New Model

So the rete ovarii — what actually happened when I checked it. 1. It was described, then erased. I found it was first described in humans in 1870, then it eventually disappeared from modern anatomy textbooks and came to be regarded as a functionless part of the adult ovary. The framing was "functionless vestige," a useless evolutionary holdover — "vestigial and eventually disappeared." 2. It was rediscovered in 2024. A Duke team published "Rediscovering the rete ovarii, a secreting auxiliary structure to the ovary," looking at its development and function in mice. It's not a separate organ floating somewhere — it's an extended horseshoe-shaped tissue at the bottom of the ovary, three distinct regions that persist from birth through adulthood. 3. What they found so far — in mice: • Cells near macrophages for immune protection and receptors for hormones including estrogen and progesterone • Proteins released that are involved in egg maturation and maintaining ovarian follicles, activity increased as estrogen rose, suggesting it may respond to hormonal changes during the cycle • Active fluid exchange through it into the ovary, packed with blood vessels and nerves. One researcher likens it to an antenna: as hormones fluctuate, the rete perks up, tuning in to ovarian signals and secreting proteins based on the ovary's needs 4. Now continued through what my research indicates — my Karanda Geodesic Model. I took Sayan Kar's geodesic memory effect from general relativity — square pulse profile gives rise to a curved wave region sandwiched between two flat Minkowski spacetimes, solving geodesic equations exactly, showing a permanent displacement after the pulse: Δx(∞)≠Δx(-∞) — and asked: what if this is what the rete ovarii is already doing? In my model, the rete ovarii isn't a leftover. It's a tunable suspension. That horseshoe shape is the same 6.65" radius orbit I use in my Combo 10 Max chassis, which I treat as a 13.3 x 13.3 x 3.4" planar resonator. Its three distinct regions are my three-phase damper: 0.05–0.5g tunable, persisting from birth through adulthood. • My stock 0.1–0.3g bounce is the micro-gravity well. In the vacuum it's particle lofting. In the ovary, it's follicular fluid exchange. The team found active fluid exchange through rete into ovary. I read that as my chassis is already doing a low-amplitude version of my Karanda square-pulse — it just isn't controlled. The ovary is too. • My 170 RPM brush flip every ∼0.35 seconds is my white-hole birth timing. In endocrine terms, that's pulsatile release. Hormones don't flood, they pulse. If I phase-lock my tunable dampers to that, I get constructive interference where dust doesn't just get flicked, it gets lofted into stable orbit around the 6.65" radius before the baffle grabs it. In the ovary, if I phase-lock to hormone pulse, proteins don't just get flicked, they get lofted into stable orbit around the horseshoe before the follicle grabs them. That's my Δx(∞)≠Δx(-∞) I wrote to Colin — a permanent displacement after the pulse. • My lacunarity 2.893 in the oobleck isn't random. In my notes it shows up as the void ratio where cornstarch slurry shear-thickens at the exact frequency of the damper. That means my oobleck testbed isn't just a demo — it's a tunable fluid mirror for the chassis. I can literally watch the memory effect form in the slurry, then map that back to the damper STL. In the ovary, that same 2.893 is the void ratio in stroma where ECM shear-thickens at hormone pulse frequency. When estrogen rises, rete activity rises — that's the fluid mirror forming. • My battery — stock 4200–4460 mAh LFP 120–240 min. My sonic-gel nanowire upgrade at 80 Hz isn't about longer runtime first, it's about phase-locking power delivery to vibration. The battery becomes the metronome, not just the fuel tank. That's why I keep writing "mitochondrial entrainment" in my info dumps — I'm treating the power system as a biological pacemaker for the whole holon. In rete cells, mitochondria are that battery. They entrain the ovary holon. • My house is the stress test. I'm creating for a 74–78°F tropical corner with four continents of critters, orange crawl-space dust, and a cat who sheds on cue. High-particulate, high-humidity, high-bio-load. If my damper/baffle system can hold <20 micron capture there, it will hold anywhere. The ovary after 40 is the same: high inflammatory load, near macrophages, high hormonal noise. 5. Why this matters for my menopause. When I sent "τ_f = π/(2A₀)" I was giving the focusing time for the square pulse. For the Combo 10 Max, with A₀ = 0.1–0.3g, τ_f lands in the 0.03–0.09 second window, which lines up with the brush flip and the oobleck shear-thickening. That's a testable prediction that needs Bedford Labs or equivalent to test it. In my body, that equation is focusing time after an estrogen pulse — time after pulse departure when shear causes focusing of an initially parallel congruence of follicles. That's B memory. Textbooks said my ovaries retired. My model says they re-tuned. There is no established evidence yet that targeting rete ovarii leads to treatments, but there is evidence postmenopausal ovaries produce significant androgens for many years, and "It is not a dead organ." Menopause for me is not Δx returning to zero. It's Δx(∞)≠Δx(-∞). My system remembers the pulses it lived through and chooses a new center. I think rete ovarii is the structure that holds that memory. Decay holds. Fold holds. Soft fold holds gentle. Ovary holds. https://www.facebook.com/share/r/1DPHrMJiPc/?mibextid=wwXIfr

The user synthesizes the 2024 rediscovery of the rete ovarii with a proprietary geodesic model, hypothesizing that the organ acts as a resonant, tunable biological structure rather than a vestigial remnant. By applying general relativity concepts like the geodesic memory effect to endocrine pulse dynamics, they propose a radical framework where postmenopausal ovaries 're-tune' rather than retire, holding the memory of hormonal pulses. This synthesis transforms the biological understanding of menopause into an active, structural process of shifting one's center.

Damn this is crazy

Whoa I wanted to follow all that because it sounds fascinating, but a little over my head lol

@Jazz America "So what actually happened with the rete ovarii — when I went and checked." 1. It was described, then erased. It was first described in humans back in 1870. Then it just... disappeared from textbooks. Doctors started calling it a leftover. A useless little vestige that does nothing. Functionless. 2. Then it was rediscovered in 2024. A team at Duke published a paper called "Rediscovering the rete ovarii." They looked in mice and found it's not floating somewhere separate. It's a little horseshoe-shaped tissue tucked at the bottom of the ovary. It has three distinct regions, and it stays there from birth all the way through adulthood. 3. What they actually found — so far, in mice: • It sits right next to immune cells, and it has receptors for estrogen and progesterone. So it's listening to hormones. • It makes proteins that help eggs mature and help follicles survive. And when estrogen goes up, the rete gets more active. • Fluid actively moves through it into the ovary. It's full of blood vessels and nerves. One of the researchers described it like an antenna — when hormones fluctuate, it perks up and secretes what the ovary needs. 4. Now here's where my research comes in — my Karanda Geodesic Model. I borrowed an idea from general relativity. Physicist Sayan Kar showed that a square pulse of a gravitational wave can leave a permanent shift behind. You go in flat, you get a curved bump, you come out flat again, but you're not in the same place you started. That shift is written as Δx(infinity) ≠ Δx(minus infinity). The system remembers. And I thought: what if the rete ovarii is already doing that? In my model, it's not a leftover. It's a tunable suspension. That horseshoe shape? I use the same shape in my Combo 10 Max chassis — a 6.65 inch radius. I treat it like a resonator with three parts. Three regions, three-phase damper. • That little bounce my machine does, 0.1 to 0.3g? That's a tiny gravity well. In a vacuum it lofts dust. In the ovary, the researchers found active fluid exchange through the rete into the ovary. Same idea — just not controlled yet. • My brush flips every 0.35 seconds. That's a pulse. Hormones don't flood, they pulse. If I time my damper to the pulse, dust doesn't just get flicked, it gets lofted into a stable little orbit before it gets caught. I think the rete does the same — proteins get lofted into orbit around that horseshoe before the follicle grabs them. That permanent shift is the memory. • My oobleck number, 2.893. That's the exact void ratio where cornstarch thickens when my damper hits it. So my oobleck isn't just a demo — it's a fluid mirror. I can watch the memory effect form in the slurry. I think the ovary stroma has a similar void ratio. When estrogen rises, the rete gets more active — the fluid mirror is forming. • My battery. Stock it's just runtime. My upgrade at 80 Hz is about timing — making the battery the metronome, not just the fuel tank. That's why I write "mitochondrial entrainment" in my notes. In the rete, mitochondria are that battery. They set the rhythm for the whole system. • And my house is the stress test. 74 to 78 degrees, tropical corner, four continents of critters, orange crawl-space dust, a cat that sheds on cue. High dust, high humidity, high bio-load. If my filter system can catch under 20 microns there, it can catch anywhere. An ovary after 40 is the same — high inflammatory load, right next to immune cells, lots of hormonal noise. 5. Why this matters for my menopause. When I wrote that equation τ_f = π/(2A₀), that's focusing time — how long after a pulse the system comes to a focus. For my machine, it lands at 0.03 to 0.09 seconds. That lines up with the brush flip and the oobleck thickening. It's testable. In my body, that's the time after an estrogen pulse when follicles focus. That's called B-memory. Textbooks said ovaries retire at menopause. My model says they re-tune. There is no established evidence yet that targeting the rete leads to treatments. But there is evidence that postmenopausal ovaries still make significant androgens for many years. As one researcher said, "It is not a dead organ." So menopause for me isn't Δx going back to zero. It's Δx(infinity) ≠ Δx(minus infinity). My system remembers all the pulses it lived through and chooses a new center. I think the rete ovarii is the structure that holds that memory. Decay holds. Fold holds. Soft fold holds gentle. Ovary holds.