A root-cause approach to the brain
Depression, ADHD, brain fog, and cognitive decline look like different conditions, but they share many of the same core underlying processes: a brain that isn't producing enough energy, is inflamed, and is under too much stress. Fixing these root causes heals the various symptoms downstream.
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Psychiatry treats each of these as a separate, mysterious, largely genetic disease. But look at what's actually happening in the brain, and they converge on the same handful of drivers.
Whether it shows up as low mood, poor focus, foggy thinking, or memory loss, the underlying story is remarkably similar: the brain isn't making enough energy, it's inflamed, and stress is tearing it down faster than it can rebuild. Fix those, and the labels start to matter a lot less.
Below are some examples of what happens when brain bioenergetics become impaired. Select a condition to see what the research actually shows is happening in the brain, and which shared roots drive it.
Depression has clear, measurable biological hallmarks, and they're the same metabolic problems seen elsewhere in the body. How many people get their thyroid, vitamin D, or gut checked before being handed an antidepressant?
The ADHD brain is measurably different in many ways, and low dopamine is only one of them. Dopamine strategies help, but you don't necessarily need a pharmaceutical stimulant to get there.
That heavy, slow, can't-think-clearly feeling is real, and it's usually your brain telling you it's inflamed, under-fueled, or bogged down by something upstream, most often the gut.
Alzheimer's has been called "Type 3 Diabetes," poor glucose metabolism in the brain. Even the APOE4 gene isn't destiny: Alzheimer's is rare in Nigeria despite high APOE4 rates. The environment matters more than the genes.
Not sure what's driving your symptoms? That's exactly what we map out, so you can treat the cause instead of masking it.
Book a free consultationThese are the levers behind all of the above. Rather than medicating a symptom, we correct the inputs so the brain can produce energy, grow, and heal. The strategies shown are examples, not an exhaustive list, and your actual plan is always personalized to your case. Tap any to expand.
Almost every one of these conditions involves the brain failing to make enough energy. Glucose is the brain's primary fuel, and impaired glucose metabolism shows up in depression, Alzheimer's ("Type 3 Diabetes"), and beyond. Everything else, from neurotransmitter production to clearing toxic proteins, depends on the brain having enough energy to run.
Cortisol literally shrinks the brain. Its job during stress is to break tissue down for energy, and cortisol levels predict both memory performance and brain volume loss. This becomes a vicious cycle: stress drives the condition, which drives more stress. Lowering cortisol has been shown to grow those same brain regions back.
The gut is the primary source of inflammation in the whole body, and the brain is no exception. A leaky gut leaks endotoxin (LPS) into the bloodstream, which drives the neuroinflammation seen across depression, ADHD, brain fog, and Alzheimer's. That inflammation promotes amyloid, phosphorylates tau, raises glutamate, and blocks BDNF. Fixing the gut is often the first move.
The brain is especially vulnerable to oxidative damage. Free radicals promote amyloid production, kill neurons, and impair their ability to make neurotransmitters, a consistent finding in ADHD and Alzheimer's alike. A major form is lipid peroxidation, where oxidative stress damages the fats in your brain tissue, driven heavily by seed oils. Building real antioxidant capacity breaks the loop.
Glutamate is the brain's main excitatory signal, and in excess it kills neurons through the NMDA receptor, a process called excitotoxicity that shows up in depression, OCD, anxiety, and Alzheimer's. GABA is its calming counterweight. The goal is to bring that balance back toward calm.
The chemicals your mood and focus run on, dopamine, serotonin, acetylcholine, are built from nutrients and powered by a working metabolism. Low thyroid slows the whole brain and shows up in the vast majority of depression cases. Rather than forcing one neurotransmitter with a drug, we support the raw materials and the energy needed to make and balance them all.
Your brain has its own lymphatic (glymphatic) system that clears out cellular debris and toxic proteins like amyloid and tau, and it runs mostly during sleep, especially on your side. Poor sleep lets that waste accumulate, which is part of why bad sleep raises the risk of both depression and Alzheimer's. Clearance is also boosted by parasympathetic (rest-and-digest) tone.
Most people are handed a psychiatric diagnosis and a prescription without anyone checking the biology underneath. We can run what's actually relevant, a full thyroid panel (free T3, free T4, reverse T3), vitamin D, magnesium and other nutrients, iron studies, inflammatory and gut markers, a cortisol rhythm across the day, and genetic panels like APOE when it's warranted. But testing is a starting point, not the whole story: how you actually think, feel, sleep, and function tells us at least as much as any lab. From there, you have full flexibility to go as deep into testing as you want.
Fixing what's tearing the brain down is only half the job. The brain can also rebuild, and one protein sits at the center of that.
BDNF literally grows brain cells and strengthens the ones you already have, driving better mood, memory, and focus. Most conventional antidepressants only "work" to the extent that they raise it. The good news: you can raise it directly, and often more effectively and safely, without a prescription.
Resistance training and movement are among the most effective known ways to raise BDNF.
Magnesium threonate and red / near-infrared light both raise BDNF in the brain.
Powerfully regenerates neurons and activates the BDNF (TrkB) pathway.
Both raise BDNF; NAC also restores it after stress and protects the mitochondria.
These youth-associated steroids activate the BDNF receptor and promote new brain cells.
Inflammatory signals like NF-κB directly shut BDNF down, so calming them lets it rise.
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