Why do people with hypermobility or dysautonomia crash after feeling better?

Crashes often happen because the nervous system is temporarily supported by adrenaline rather than true energy capacity. When that short-term support fades, symptoms can rebound hours or days later, especially in sensitive or hypermobile bodies.

Is sleep the main cause of low energy in hypermobility or POTS?

Sleep problems are common in hypermobility and autonomic conditions, but sleep alone is rarely the sole cause of low energy. Sleep stability helps reduce nervous system stress and supports recovery, but it does not replace individualized medical care.

Is it safe to rebuild energy with exercise if I have dysautonomia?

For some people with dysautonomia or POTS, carefully paced and consistent activity may help over time. Pushing too hard or changing routines too quickly can worsen symptoms, so gradual, individualized approaches are safer.

Protein at Menopause Isn't About Weight. Here's What It's Actually For

Jul 15

Written By Vanessa Weiland

I know, I know, we are absolutely inundated with protein advice in midlife.

Most of the conversation about protein at midlife lives inside diet culture. Hit your macros. Build a better body. Lose the weight you gained in perimenopause.

That framing misses almost everything that actually matters — especially for people managing hypermobility, dysautonomia, or MCAS alongside the menopause transition.

Protein is worth paying attention to right now. But not for the reasons most content suggests.

What estrogen has to do with your muscles

Estrogen isn't just a reproductive hormone. It plays an active role in how your body builds and maintains muscle tissue.

As estrogen declines across the menopause transition, the rate at which muscle mass is lost accelerates. Research shows meaningful reductions in lean and muscle mass across the perimenopausal and postmenopausal transition compared to earlier in life. Estradiol acts on muscle cells directly, and its decline affects how muscle protein is maintained and broken down. And unlike some of the other changes that come with this transition, muscle loss compounds — what you lose now affects your strength, stability, and metabolic function for years afterward.

Adequate protein intake is one of the most direct tools for slowing this process. It doesn't reverse declining estrogen. But it gives your body the raw material it needs to maintain muscle at a time when that maintenance requires more effort than it used to.

For hypermobile bodies, this matters more

Most people think about muscle in aesthetic terms, or in terms of general fitness. In hypermobile bodies, muscle plays a more specific role: it's structural support.

Joints in hEDS and HSD have less passive stability from connective tissue than average. Muscle picks up that slack. The muscles surrounding a hypermobile joint are doing a job that ligaments and tendons would normally share — and when muscle mass declines, that job doesn't disappear. It just gets harder to do with fewer resources.

This is part of why people with hEDS often notice joint pain and instability worsening during the menopause transition, even without a clear injury or new diagnosis. Hormonal sensitivity in this population is well-documented, and the shift in estrogen's influence on muscle maintenance is a plausible contributing factor — though the research specifically linking menopause to worsening joint instability in hEDS is still limited. What we do know is that muscle is central to the treatment approach for hypermobility at any stage, and that protecting it becomes more effortful after menopause.

Protein isn't a cure for hypermobility. But it's one of the foundational inputs for the muscle that does the stabilizing work.

Protein, mood, and energy

Protein is made up of amino acids, and some of those amino acids are precursors to neurotransmitters involved in mood and energy regulation — tryptophan feeds into serotonin pathways, and tyrosine into dopamine.

Although the relationship likely isn't as straightforward as a more-in, more-available equation, we do know that adequate protein intake is a necessary component for neurotransmitter production.

Not only that, but protein helps stabilize blood sugar. Adding protein to a carbohydrate-rich meal meaningfully reduces the post-meal glucose spike. For people whose energy is already variable and unpredictable, a flatter blood sugar curve is worth protecting — and that's a practical benefit with strong evidence behind it.

What "adequate" actually means

Protein recommendations vary across sources, and the research on exactly how much is optimal for people in the menopause transition is still developing. What's consistent across expert consensus is that general population guidelines tend to underestimate needs for this life stage. Most evidence in this area points toward something meaningfully above the standard daily reference value — at least 1.0–1.2 gram per kilogram of body weight per day for postmenopausal people. That typically translates to about 90 grams of protein daily. (Quick note: if you have advanced kidney disease, your protein goal might look different.)

A practical starting point without precision tracking: aim for a palm-sized portion of protein at each meal. Protein-rich foods include meats, fish, eggs, lentils, beans, tofu, cottage cheese, and Greek yogurt.

Some data suggest that spreading protein across meals rather than loading it toward dinner is associated with higher lean mass and muscle strength. It's a reasonable practical approach, but not a definitive rule. If high-protein breakfasts are a no-go for you, you can make up your intake throughout the day.

This is also where variable capacity makes things harder. On low-energy days, cooking a high-protein meal may not be realistic. On high-symptom days, appetite may be suppressed. Having a few reliable, low-effort protein options ready for those days — rotisserie chicken, hard-boiled eggs, collagen in your coffee or a pea protein smoothie — is a form of planning that matters as much as knowing the target.

MCAS considerations

For people with MCAS, some high-protein foods are also high-histamine: aged cheeses, canned fish, deli meats, and leftovers that have been stored for more than a day or two. This doesn't mean protein is off the table. It means the sources need to be chosen with your individual triggers in mind.

Freshly cooked meat and fish, eggs, legumes, and certain dairy products tend to be better tolerated. Freezing fresh meat and fish immediately and cooking from frozen can help reduce histamine accumulation. A protein shake with a short ingredient list may also be a useful tool on days when cooking isn't accessible — if you've found a brand you tolerate.

What this is not

This is not a macro-tracking protocol. It's not a weight loss strategy. It's not a recommendation to push through nausea or eat more than feels comfortable in order to hit a number.

It's a reframe: protein at this stage is structural and functional. It's the input your body uses to maintain the muscle that stabilizes your joints, supports your mood and energy, and gives your metabolism something to work with at a time when estrogen is no longer doing as much of that work as it used to.

More of what helps, at most meals, as often as capacity allows.

If you're managing hypermobility, MCAS, dysautonomia, or dysautonomia alongside perimenopause or menopause — and you're tired of advice that wasn't built for your body — The BENDY Method was designed specifically for you.

It's a 12-week habit-based course that builds nineteen evidence-informed habits across nutrition, sleep, nervous system regulation, movement, and long-term health planning. Each one is designed to flex with variable capacity, not demand consistency you can't always give.

Join the waitlist to be first to know when enrollment opens.

Trusted Resources

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