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Episode
I'm No Longer Insulin Resistant, Here's 12 Things I Did to SHUT IT DOWN Fast
~64 min
Episode Brief·YouTube

I'm No Longer Insulin Resistant, Here's 12 Things I Did to SHUT IT DOWN Fast

Thomas DeLauer
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TL;DR

The four things you'd lose by not watching

4 items

TL;DR

The four things you'd lose by not watching

4 items
1

Insulin resistance is fundamentally an inflammatory condition, not just a carbohydrate problem; reducing inflammation is the key to restoring insulin sensitivity.

2

Carnosine at 4–6 grams per day blocks glycation — the chemical reaction between sugars and proteins/fats that drives oxidative stress and insulin resistance.

3

Resistance training targets muscle as a metabolic signaling organ, which is where insulin resistance often originates; cardio alone isn't enough.

4

Allulose, high-protein preloads at breakfast, and the probiotic Seed (use code for 25% off) can manipulate GLP-1 and the second-meal effect to dramatically blunt glucose spikes all day.

Protocols

Concrete recipes — what, when, how much, and why

12 items

Carnosine for blocking glycation

WhatSupplement with 4–6 grams of carnosine daily to inhibit advanced glycation end-product formation.
WhenDaily, not tied to a specific meal time.
Dose4 to 6 grams per day.
For whomAnyone with insulin resistance or symptoms of glycation (foggy, achy, inflamed).
WhyReduces glycation-driven oxidative stress and inflammation that underlie insulin resistance symptoms like brain fog, joint pain, and poor glucose control.
CaveatsNo specific caveats mentioned beyond typical supplement tolerability.
Mechanism

Carnosine acts as a sacrificial molecule that intercepts reactive carbonyl groups from sugars before they can bind to proteins or fats, thereby blocking the formation of AGEs. This preserves cellular protein function and drastically lowers the inflammatory burden that impairs insulin signaling.

Personal experience

DeLauer called it 'a game changer for me' and noted many viewers reported significant improvements.

Carnosine blocks the very root of glycation.

Also said
“Four to six grams of carnosine per day was a game changer for me and a lot of other people that watch my channel have said it's made a tremendous difference for them.”— Confirms the specific dose and personal plus audience validation.

Resistance training to restore muscle metabolic signaling

WhatEngage in resistance training to stress muscles, triggering a metabolic feedback loop that eases insulin resistance.
WhenRegularly, in place of or in addition to cardio, especially if insulin resistant.
DoseNot specified; consistent resistance exercise sessions.
For whomAnyone with insulin resistance, particularly those who only do cardio.
WhyMuscle tissue is a signaling organ; training it improves whole-body glucose disposal and insulin sensitivity from the source.
CaveatsNone mentioned.
Mechanism

Skeletal muscle contraction releases myokines and activates AMPK and other pathways that increase GLUT4 translocation independent of insulin, while also improving mitochondrial function. This reduces systemic inflammation and restores the body's ability to respond to insulin.

Personal experience

DeLauer admits he used to only do cardio and saw limited progress; shifting to resistance work made a massive difference.

If we resistance train, if we train the muscles, if we stress the muscles, it begins a feedback loop that allows insulin resistance to start to ease up.

Also said
“The muscle is more of a signaling organ, it's an organ that has metabolic function that sends out signals and tells the body and the brain to do different things.”— Frames muscle as a metabolic regulator, not just a calorie burner.

Calcium intake via quality dairy for insulin sensitivity

WhatConsume adequate calcium through healthy dairy sources like aged cheeses, heavy cream, and other quality dairy fats.
WhenAs part of daily nutrition, not overboard.
DoseNo specific dose, just 'adequate amounts'.
For whomThose with insulin resistance who may be undereating dairy due to fat phobia.
WhyCalcium deficiency may drive appetite increases and worsen insulin resistance; dairy also provides conjugated linoleic acid (CLA) that aids insulin sensitivity.
CaveatsDon't overdo it; moderate intake.
Mechanism

Micronutrient deficiencies, particularly calcium, signal the body to increase appetite in an attempt to obtain missing nutrients. Adequate calcium is involved in insulin receptor signaling cascades and pancreatic beta-cell function. Additionally, CLA in dairy fat improves insulin sensitivity by modulating inflammatory pathways and fat metabolism.

Personal experience

DeLauer shares that when he started consuming more healthy dairy — aged cheeses, heavy cream — his appetite changed and his insulin sensitivity improved.

I started to make really big changes with my insulin resistance when I would consume more healthy dairy, when I would consume more good quality aged cheeses, when I would consume heavy cream.

Also said
“It changed my appetite and it changed my insulin sensitivity.”— Direct causal link from personal trial.

Separating high-fat and high-carb meals

WhatAvoid consuming large amounts of saturated fat and high-glycemic carbohydrates in the same meal to prevent mitochondrial substrate overload.
WhenAt every meal, especially if eating a traditional diet.
DoseLifestyle, no specific duration.
For whomAnyone eating a higher-carb diet who wants to improve insulin sensitivity without fully eliminating fat.
WhyCombining high fat and high carb creates a substrate abundance problem where mitochondria can't partition fuel, leading to lipid-induced insulin resistance.
CaveatsLow-carb or carnivore diets naturally avoid this issue; a small amount of overlap is fine.
Mechanism

When large amounts of both fatty acids and glucose flood the cell simultaneously, the mitochondria struggle to process both, creating a 'traffic jam.' Excess fatty acids and their metabolites (like ceramides and DAGs) activate PKC, which phosphorylates serine residues on IRS-1, blocking insulin signaling. By separating macros, you avoid this competition and reduce insulin receptor inhibition.

Personal experience

DeLauer says that once he started partitioning macros better, 'everything fell into place.'

High amounts of trans fats, high amounts of saturated fats, these can trigger mitochondrial traffic jams... the simplest thing is you separate them out.

Also said
“When I did that, everything fell into place.”— Personal confirmation of the protocol's effectiveness.

Allulose, protein, and soluble fiber to stimulate GLP-1

WhatConsume allulose (a rare sugar), high protein, and soluble fiber at meals to naturally increase GLP-1 secretion.
WhenWith meals, especially the first meal of the day.
DoseNo specific allulose dose given, but consistent inclusion.
For whomAnyone with insulin resistance or poor post-meal glucose control.
WhyGLP-1 improves glucose control and insulin dynamics, not just appetite. Boosting it naturally with foods mimics the early insulin-sensitizing benefits of GLP-1 agonists.
CaveatsNone mentioned.
Mechanism

Allulose, protein, and soluble fiber stimulate L-cells in the gut to release GLP-1, which enhances glucose-dependent insulin secretion, slows gastric emptying, and reduces glucagon release. This leads to better postprandial glucose handling and reduced insulin demand.

Personal experience

He started using allulose and eating more protein and soluble fiber and saw a 'major difference in my glucose.'

When I got a grasp on that and I sort of realized this is not about appetite suppression, it's about glucose modulation. I started using allulose.

Also said
“I started having high amounts of soluble fiber in one serving just to kind of induce that response and I saw a major difference in my glucose.”— Adds the fiber tactic and personal result.

Probiotic (Seed) for gut microbiome and glucose homeostasis

WhatTake a synbiotic probiotic (Seed) daily to support gut microbiome, which sends signals for glucose metabolism.
WhenDaily.
DoseAs per product; he's used it 4-5 years.
For whomThose with insulin resistance looking for an additional edge.
WhyGut bacteria produce short-chain fatty acids that influence glucose homeostasis. A disrupted microbiome contributes to insulin resistance.
CaveatsNone except the product recommendation comes with an affiliate link.
Mechanism

Gut microbiome ferments fibers into short-chain fatty acids (acetate, propionate, butyrate), which bind to FFAR2/3 receptors and stimulate GLP-1 and PYY release, improving glucose tolerance and insulin sensitivity. A healthy mucosal layer reduces endotoxin leakage that triggers inflammation and insulin resistance.

Personal experience

DeLauer has noticed a significant change in his own glucose control over 4-5 years on Seed, and many viewers report similar improvements.

The microbiome plays such a strong position when it comes to insulin resistance.

Also said
“Adding a probiotic in is usually really darn good, too... I've noticed a pretty significant change myself for the last four or five years of using it.”— Personal long-term anecdote.

Protein preloading at breakfast to reduce subsequent meal glucose response

WhatEat a high-protein, low-glycemic, high-fiber breakfast to lower glucose area-under-the-curve for lunch and dinner (the second meal effect).
WhenFirst meal of the day.
DoseNo specific protein amount, but a protein-centric first meal.
For whomAnyone who wants to control daily glucose without micromanaging every meal.
WhyThe second meal effect shows that the glycemic impact of a meal is heavily influenced by the prior meal. A low-GI, high-protein breakfast can reduce lunch glucose by 30-40%.
CaveatsNone mentioned.
Mechanism

A low-glycemic, high-protein breakfast slows gastric emptying and promotes a lower insulin release in the morning. This primes the gut and pancreatic beta cells to respond more gradually to subsequent meals, likely via GLP-1 and improved insulin sensitivity in the liver and muscle, reducing the glycemic response of the next meal.

Personal experience

DeLauer calls this 'the lowest hanging biggest lever that you can pull.'

If you can change your breakfast, you can change your glucose impact by 30 to 40% with the next meal.

Also said
“What you eat for breakfast can significantly impact how your lunch reacts.”— Simplifies the second meal effect concept.

Time-restricted feeding, fermented foods, and sprinting for visceral fat and insulin resistance

WhatPractice periodic time-restricted feeding, eat fermented foods, and perform sprints/high-intensity work instead of long endurance cardio.
WhenOngoing lifestyle pattern.
DosePeriodic time-restricted windows; sprint sessions instead of steady-state cardio.
For whomThose with insulin resistance, fatty liver, or visceral adiposity.
WhyThis triad, credited to Dr. Shawn Omera, specifically targets visceral fat, fatty liver, and insulin resistance — all interconnected.
CaveatsLong-duration endurance work adds extra stress and should be minimized.
Mechanism

Time-restricted feeding lowers insulin levels and allows hepatic fat oxidation, reversing fatty liver. Fermented foods improve gut microbiome diversity and reduce systemic inflammation. Sprinting preferentially burns glycogen and stimulates catecholamines, targeting visceral fat without the chronic cortisol elevation of endurance training.

Dr. Shawn Omera ... recommends periodic time-restricted feeding ... fermented foods ... periods of sprinting and avoiding sort of long duration endurance work because that's extra stress on the body.

Also said
“Focus more on sprints and focus more on high intensity work. And of course those periods of time without food that are really important to restore that sensitivity.”— Summarizes the protocol's components.

Magnesium for insulin receptor phosphorylation

WhatEnsure adequate magnesium intake to support insulin receptor autophosphorylation and sensitivity.
WhenDaily via diet or supplementation.
DoseNot specified, but sufficient to avoid deficiency.
For whomAnyone with insulin resistance, especially if symptoms recur.
WhyMagnesium deficiency impairs the ability of insulin receptors to activate properly, leading to increased insulin resistance and symptom return.
CaveatsNone mentioned.
Mechanism

Magnesium is a cofactor for tyrosine kinase activity of the insulin receptor. In deficiency, the receptor fails to autophosphorylate, reducing downstream signaling and glucose uptake. Adequate magnesium restores this phosphorylation, improving insulin sensitivity at the receptor level.

Personal experience

DeLauer noticed that if he was deficient in magnesium, some of his insulin resistance symptoms would come back.

Magnesium helps influence our receptors to be more sensitive to insulin, allowing us to control our glucose better.

Also said
“If I was deficient in magnesium, some of my symptoms would come back.”— Direct causal link from his own maintenance.

Rapid insulin sensitivity reset with short fasting and low-carb periods

WhatUse 4–5 days of intermittent fasting/time-restricted feeding, periodic low-carb intake, and exercise to quickly improve insulin sensitivity.
WhenAs a short-term reset when insulin resistance flares or to kickstart improvement.
Dose4–5 days of time-restricted feeding or intermittent fasting; low-carb periods.
For whomThose looking for rapid wins in insulin sensitivity.
WhyInsulin resistance can improve dramatically in a few days independent of calorie balance, simply by giving the pancreas a rest.
CaveatsNone mentioned.
Mechanism

A break from food lowers chronic insulin secretion, reduces pancreatic beta-cell workload, and decreases intracellular lipids that block insulin signaling. This rapid offloading can restore receptor sensitivity in a matter of days.

Personal experience

DeLauer emphasizes he's seen huge improvements 'shockingly fast' in many people, not just himself.

Insulin resistance ... can quite frankly be corrected shockingly fast. ... Huge changes in insulin sensitivity with just like four or five days of intermittent fasting or time-restricted feeding.

Also said
“Independent of calories in, calories out, the fact that you're taking a break from food allows your pancreas to get a chance to reset.”— Underscores the non-caloric mechanism.

Sleep aids: theanine (or magnesium), glycine, saffron extract

WhatTake 200–400 mg of a calming compound (likely theanine or magnesium), 3–5 g glycine, and 20–30 mg saffron extract before bed to improve sleep and next-day insulin sensitivity.
WhenBefore bedtime.
DoseTheanine/magnesium: 200-400 mg; glycine: 3-5 g; saffron extract: 20-30 mg.
For whomAnyone with insulin resistance exacerbated by poor sleep.
WhyPoor sleep can worsen insulin resistance by 20-40% the next day; these compounds promote calm and restorative sleep.
CaveatsThe first compound is not clearly named; could be magnesium or theanine based on serotonin affinity.
Mechanism

Glycine lowers core body temperature and promotes sleep onset; it also relaxes the bladder, reducing nocturia. Saffron extract increases serotonin and shifts the nervous system from sympathetic to parasympathetic tone. The unclarified 200-400 mg compound increases serotonin affinity, calming the brain. Collectively, they improve sleep quality, which lowers cortisol and overnight sympathetic drive, directly enhancing insulin sensitivity the next day.

Improving sleep is the short-term literal best thing that you can do... when you're sleep-deprived, it can make insulin resistance 20 to 40% worse in that next day.

Also said
“3 to 5 g of glycine. Glycine helps you fall asleep and stay asleep... also helps relax your bladder in a way that you're not getting crazy signals that you have to get up and pee.”— Specific dose and a unique benefit of glycine.
“20 to 30 milligrams of a saffron extract ... helping you feel more calm and tilting that GABAergic state.”— Dose and mechanism for saffron.

Red light therapy for mitochondrial function and GLUT4 translocation

WhatExpose the body to red light (from sunlight or devices) to enhance mitochondrial cytochrome c oxidase activity and improve glucose uptake.
WhenDaily, ideally timed with or after meals if targeting GLUT4 translocation.
DoseAdequate sunlight or red light therapy sessions; no specific duration given.
For whomThose with insulin resistance or mitochondrial dysfunction.
WhyRed light directly stimulates complex IV of the mitochondria, improving electron transport and fuel utilization, and also facilitates glucose entry into cells via GLUT4.
CaveatsNone mentioned; speaker emphasizes it's 'very real stuff, not random woo woo.'
Mechanism

Red and near-infrared light photons are absorbed by cytochrome c oxidase (complex IV), which dissociates inhibitory nitric oxide and accelerates electron flow, increasing ATP production and reducing oxidative stress. Additionally, red light has been shown to acutely enhance GLUT4 translocation to the plasma membrane after a carbohydrate meal, facilitating glucose clearance.

Personal experience

He was initially resistant to the idea but now sees the metabolic research.

Red light therapy actually works... it influences what's called cytochrome c oxidase which is complex 4 in the mitochondria... that's a fancy way of saying it helps the electrons from fuel get through the mitochondria and turn into actual energy better.

Also said
“We're also now seeing that red light can help GLUT4 translocation. So after a high carbohydrate meal, it can actually help get the translocator to pull the glucose into the cell where it needs to be.”— Specific, post-meal application.

What's new

Personal practice updates, fresh positions, predictions

4 items

Inflammation as the root cause of insulin resistance

0:00-1:30

Insulin resistance is not primarily a carbohydrate intolerance but an inflammatory state where the body loses the ability to respond to insulin's signal.

Why this matters: Shifts the focus from carb restriction alone to overall inflammation control, which was a personal epiphany for the speaker.

Background

Conventional thinking often treats insulin resistance as a direct result of eating too many carbohydrates, leading to extreme low-carb approaches that can increase stress and inflammation.

Thomas DeLauer emphasizes that for years he believed insulin resistance was simply about carbs, so he restricted them to unhealthy extremes. He learned that the real driver is systemic inflammation, which physically blocks insulin signaling. When inflammation is controlled, the body can once again process carbohydrates effectively — or even thrive without them. He notes that many people feel so good on low carb they never go back, but the key is addressing inflammation first rather than fearing carbs forever.

Personal experience

He recalls eating carbs and instantly putting on weight, feeling foggy, achy joints, night sweats, and sleeplessness — all symptoms of inflammation, not just carbohydrate intake.

Inflammation is at the root of insulin resistance.

Also said
“It's an inflammatory condition where your body has so much inflammation that you're not able to receive the signal from insulin.”— Explains the mechanism: inflammation interferes with insulin signaling.

Glycation blocked by carnosine

1:30-2:00

Advanced glycation end-products (AGEs) from sugars combining with proteins or fats drive oxidative stress and insulin resistance; carnosine blocks this process.

Why this matters: Provides a specific molecular target — glycation — and a highly effective supplement dose that the speaker credits as a game-changer.

Background

Glycation is often discussed in the context of aging and diabetes, but the speaker highlights it as a direct cause of the achy, foggy symptoms of insulin resistance.

DeLauer explains that when carbs and sugars mix with proteins or fats in the body, they undergo glycation, producing AGEs that dramatically increase oxidative stress and inflammation. This is what causes the brain fog, joint pain, and systemic discomfort associated with insulin resistance. Carnosine, a dipeptide, intercepts this reaction at its root. He personally noticed a huge difference with 4–6 grams per day and says many viewers have reported the same.

Personal experience

He states, 'four to six grams of carnosine per day was a game changer for me and a lot of other people that watch my channel have said it's made a tremendous difference for them.'

Carnosine blocks the very root of glycation.

Also said
“Four to six grams of carnosine per day was a game changer for me.”— Specifies the effective dose and personal outcome.

Insulin resistance originates in muscle tissue

2:00-2:45

Muscle is a signaling organ that regulates whole-body metabolism; resistance training corrects insulin resistance at its source.

Why this matters: Challenges the view that insulin resistance is solely a pancreatic or liver issue and reframes muscle as a metabolic organ.

Background

Many people focus on cardio to lose weight, but overlook that muscle mass and muscle contraction are crucial for restoring insulin sensitivity.

DeLauer notes he used to think his pancreas was broken. He now understands that skeletal muscle isn't just for movement; it sends signals that modulate organ function and metabolism. When you resistance train, you stress the muscle, which triggers a feedback loop that eases insulin resistance. He admits he spent years just doing cardio, but that only addresses one aspect. True reversal requires restoring the muscle's metabolic role.

Personal experience

He admits, 'for so long, I just did cardio... but that's just scratching one of the itches. The other major itch is actually restoring the organ that helps insulin resistance go away in the first place.'

Insulin resistance starts in the muscle... if we resistance train, if we train the muscles, if we stress the muscles, it begins a feedback loop that allows insulin resistance to start to ease up.

Also said
“The muscle is more of a signaling organ that has metabolic function that sends out signals and tells the body and the brain to do different things.”— Underlines the non-mechanical role of muscle.

Carbohydrates are a side effect, not the root cause

13:00-14:30

Having difficulty with carbs is a consequence of insulin resistance, not the cause; avoiding them entirely can make the intolerance permanent.

Why this matters: Pushes back on the popular 'carbs are evil' narrative and introduces a nuanced approach of training the body to handle both fuels.

Background

Many low-carb adherents believe that carbs are inherently damaging; DeLauer argues that insulin resistance creates carb intolerance, and total avoidance can worsen the metabolic inflexibility.

DeLauer explains that if you never eat carbs, your body loses the enzymatic machinery to process them, so any occasional carb meal will cause severe symptoms. He advocates for metabolic flexibility: using periods of low carb and time-restricted feeding to reset sensitivity, then deliberately reintroducing carbs in a controlled way so that the body retains the ability to use glucose. He clarifies this isn't mandatory — if someone wants to remain keto/carnivore forever, they can — but they must accept the physiological intolerance. This final realization came late in his journey and changed his whole perspective.

Personal experience

He warns, 'if you go to Thanksgiving and you have a slice of pumpkin pie, you're going to have a very hard time dealing with it and you're going to feel like garbage' if you don't train your body to handle carbs.

Carbohydrates often times aren't even the cause of insulin resistance. They are a side effect.

Also said
“If you go long enough without carbs, you're just going to be forever insulin resistant because your body is going to have no enzymatic or survival reason to use carbs in the first place.”— Explains why carb avoidance can backfire.
“You want to train your body to use both fuels.”— Summarizes the goal of metabolic flexibility.
Disclosed sponsorships1speaker disclosed

Seed Daily Synbiotic

Supplement Sponsored · disclosed

A probiotic/synbiotic that supports gut microbiome health, which in turn influences glucose homeostasis and insulin sensitivity. DeLauer has used it for 4-5 years and reports significant glucose improvements.

DisclosureThomas DeLauer provides a link below the video that gives 25% off, indicating an affiliate relationship.

DeLauer emphasizes that the microbiome is critical to insulin resistance, not just digestion. Short-chain fatty acids from probiotics signal glucose metabolism. He highlights Seed's capsule-in-a-capsule technology as particularly effective and interesting, and notes that many viewers corroborate glucose benefits. The product is his top gut health recommendation for those battling insulin resistance who need that extra edge.

vs alternatives

He alludes to its technology (dual capsule) making it particularly viable compared to other probiotics that may not survive stomach acid, but doesn't directly compare to other brands.

Personal experience

He states, 'I've noticed a pretty significant change myself for the last four or five years of using it.'

I put a link to the one that I recommend. It's called Seed. That is a daily symbiotic. I definitely recommend that one.

Also said
“The technology with seed is really fascinating. I find it very interesting how they're using that capsule inside of a capsule technology.”— Highlights a specific feature that might set it apart.
“That link is down below. It gets you 25% off.”— Confirms the promotional relationship.
Find Seed

Notable quotes

Lines worth pulling out — contrarian, specific, or perfectly phrased

5 items
Insulin resistance starts in the muscle... if we resistance train, it begins a feedback loop that allows insulin resistance to start to ease up.
Directly counters the pancreas-centric view and gives a clear actionable insight.
Carbohydrates often times aren't even the cause of insulin resistance. They are a side effect.
Provocative reframe that challenges entrenched low-carb ideology and invites metabolic flexibility.
If you can change your breakfast, you can change your glucose impact by 30 to 40% with the next meal.
Ultra-specific, data-backed, and immediately implementable; embodies the second meal effect power.
Think of it like a jumper cable for your mitochondria in so many ways.
Vivid analogy for methylene blue that makes a complex bioenergetic concept stick.
If you go long enough without carbs, you're just going to be forever insulin resistant because your body is going to have no enzymatic or survival reason to use carbs in the first place.
A stark warning against permanent carb avoidance and a call for metabolic training.

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Topics covered

inflammationcarnosineglycationmuscle-metabolismresistance-trainingcalciumdairy-fatmacronutrient-partitioningalluloseglp-1microbiomeprobiotic-seedsecond-meal-effectprotein-preloadvisceral-fatfermented-foodssprintingmagnesiumintermittent-fastingtime-restricted-feeding
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Educational summary of the cited expert source — not medical advice. Open the source recording linked above and consult a qualified physician before acting on any protocol.