Openai/69101fc6-f990-800a-9638-7716259af6c4
This conversation was exported from ChatGPT[1]
gpt-5-thinking edit
User: Can you go to the blueprint website and list out for each of the following items, all the incredients inside them. edit
Can you go to the blueprint website and list out for each of the following items, all the incredients inside them. Be as fully exhaustive as you possibly can be. Name this chat "Blueprint Products"
longevity protein longevity mix essetnail capsules essential antioxidants NAC Ginger curcumin metabolic protein collagen red yeast rice
Assistant: edit
Here’s the most exhaustive ingredient list I can pull from Blueprint’s own product pages/COAs for each item you named. I’ve split “actives” vs “other ingredients/excipients” where applicable, and noted flavor variants. edit
Ingredients (single list, per label): edit
Pea protein; hemp seed protein; allulose; flaxseed; cocoa powder; sunflower lecithin (from seeds); natural chocolate flavor with other natural flavors; cinnamon extract; grape seed extract; pomegranate fruit extract; monk fruit extract. Blueprint Bryan Johnson[2]
13 health actives per serving: edit
Calcium α-ketoglutarate (CaAKG); creatine monohydrate; glucosamine sulfate (as KCl); glycine; L-theanine; reduced glutathione; sodium hyaluronate; vitamin C (ascorbic acid); lysine; taurine; calcium; magnesium (as citrate); allulose (sweetener/active on label). Flavor system (“Other ingredients”) by flavor:
- Blood Orange: allulose; natural blood orange flavor with other natural flavors; citric acid; monk fruit extract; red radish (natural color).
- Pineapple Yuzu: allulose; natural pineapple yuzu flavor with other natural flavors; citric acid; monk fruit extract. Blueprint Bryan Johnson[3]
Actives (from Blueprint’s COA + product page; comprehensive list): edit
Ubiquinol (CoQ10, reduced form); nicotinamide riboside chloride (NR/NRC); fisetin; L-5-methyltetrahydrofolate (L-5-MTHF, vitamin B9); vitamin D3 (cholecalciferol); vitamin E (d-alpha tocopherol); vitamin B1 (thiamine); vitamin B2 (riboflavin); vitamin B3 (niacinamide); vitamin B5 (pantothenic acid); vitamin B6 (pyridoxal-5-phosphate); vitamin B7 (biotin); vitamin B12 (methylcobalamin); calcium; zinc; manganese; selenium; boron; iodine (as potassium iodide/iodate, per page); lithium (as lithium orotate); glucoraphanin (as broccoraphanin from broccoli seed); luteolin; Lactobacillus acidophilus (WECARE strain; ~4.6B CFU/serv). Other ingredients (capsule/excipients): vegetable cellulose capsule; rice hulls; starch; rice blend extract. Blueprint Bryan Johnson[4]
Key actives: Vitamin K1; vitamin K2 (MK-4); vitamin K2 (MK-7); lutein; zeaxanthin; astaxanthin; lycopene. edit
Other ingredients: MCT oil; hypromellose (veggie capsule); candelilla wax. Amazon[5]
Actives: N-acetyl-L-cysteine (NAC); ginger extract (standardized to 5% gingerols); curcumin (standardized to 95% curcuminoids). edit
Other ingredients: hypromellose (veggie capsule); dicalcium phosphate; rice hulls; starch; gum acacia; rice blend extract. Blueprint Bryan Johnson[6]
edit
Flavor-specific:
- Chai: natural chai flavor with other natural flavors; organic Ceylon cinnamon. Blueprint Bryan Johnson[7]
- Vanilla: natural vanilla flavor with other natural flavors; organic Ceylon cinnamon. Blueprint Bryan Johnson[8]
- Banana: natural banana flavor with other natural flavors (no cinnamon listed on this label). Healf[9]
Ingredients (no sweeteners/flavors/fillers): edit
Collagen peptides (Types I & III) from bovine hide; standardized chicken collagen providing undenatured Type II collagen. (20 g collagen peptides + 10 mg undenatured Type II per serving, per Blueprint.) Blueprint Help Center[10]Blueprint Bryan Johnson[11]
Actives: Red yeast rice extract; odorless garlic extract (12:1, from Allium sativum bulb). edit
Other ingredients: cellulose (veggie capsule); dicalcium phosphate; rice hulls; starch; gum acacia; rice blend extract. Healf[12]
- Formulas and flavor options can update; the COAs page hosts current certificate PDFs for each product if you ever want to double-check lots/batches. Blueprint Bryan Johnson[13] edit
- If you want, I can drop this into a CSV or table (by product → actives → excipients → flavor) for quick reference.
User: Okay and now for each of these products, what MEASURABLE effect can they have. edit
Okay and now for each of these products, what MEASURABLE effect can they have. Like if on day 1, I were to perform a bunch of measurements of my body and grab all these biomarkers (from whatever available means such as blood tests or whatever else I would be able to perform), and then take all these supplements, and then on day 90 re-measure those markers, what specific measurements would improve as a result of taking these supplements. Would I detect something changing? List out all the biomarkers that would improve for each product above, and whether I would be able to get that measurement with some product or service, and roughly what quantitiave amount of increase/decrease should I observe, and for each of those biomarkers improving, what specifically is happening in the body / changing for the better and how does it specifically affect health and longevity. Be exhaustive for all the above
Assistant: alright — let’s keep this under control but super practical. edit
alright — let’s keep this under control but super practical. below I go product-by-product and list measurable changes you could plausibly detect over ~90 days, how to measure them, a ballpark effect size (when evidence exists), and what’s changing in the body. when evidence is thin or inconsistent, I say so.
quick notes up front
- magnitudes below are averages from human trials/meta-analyses; your baseline, dose, adherence, diet, meds, and health status matter a lot. effects in healthy, already-optimized people are usually smaller.
- use the same lab/methods at day 1 and day 90 (Quest/Labcorp/InsideTracker/WellnessFX for bloods; Omron/Withings for BP; home finger-prick ketone/glucose meters; CGM like Libre; DXA/DEXA scan centers for body comp; corneometer/cutometer or clinic derm devices for skin; vascular lab for FMD).
- safety: red yeast rice (RYR) acts like a low-dose statin; monitor ALT/AST and CK, watch drug interactions, avoid in pregnancy.
(key actives: grape seed extract, pomegranate extract, often cinnamon extract, plus plant protein) edit
- Systolic/diastolic blood pressure ↓ ~1–5 mmHg in people with elevated BP Measure: home BP cuff (morning/evening averages) Why: grape seed proanthocyanidins improve endothelial NO availability & vascular tone. ScienceDirect[14]Taylor & Francis Online[15]PMC[16]
- Endothelial function (FMD) ↑ ~1–2 absolute % points Measure: brachial artery flow-mediated dilation at a vascular lab Why: pomegranate polyphenols enhance NO signaling and reduce adhesion molecules. PubMed[17]PMC[18]
- Glycemic control (if insulin-resistant/T2D) HbA1c ↓ ~0.1–0.3 % and FPG modestly ↓ with cinnamon; changes are small/heterogeneous in healthy folks Measure: HbA1c blood test; CGM metrics (mean glucose, time >140 mg/dL) Why: cinnamon may improve insulin signaling and slow gastric emptying. BioMed Central[19]PubMed[20]
(key actives: Ca-AKG, creatine, glycine, L-theanine, reduced glutathione, sodium hyaluronate, vitamin C, lysine, taurine, Ca/Mg) edit
- Blood glutathione (GSH) ↑ ~15–30% by 12–24 weeks (dose-dependent) Measure: whole blood/RBC GSH (specialty labs) Why: direct GSH + cysteine donors raise intracellular antioxidant capacity and improve redox status. Penn State[21]PubMed[22]
- Lean mass / strength ↑ small-to-moderate if you’re resistance training (e.g., +0.3–1.0 kg LBM; ↑ grip or 1RM) Measure: DXA for lean mass; dynamometer/1RM logs Why: creatine increases phosphocreatine stores, improving training volume and muscle accretion. (General RCT consensus; no single web source cited here.)
- Skin hydration/elastance ↑ within 8–12 weeks from oral hyaluronan Measure: corneometer (hydration), cutometer (elasticity) in derm clinics/devices Why: HA improves dermal water retention and extracellular matrix viscoelasticity. ScienceDirect[23]ClinicalTrials.gov[24]
- Blood pressure / stress markers: L-theanine may blunt stress responses (e.g., salivary α-amylase/HRV under stress), but everyday BP changes are inconsistent; taurine has small BP benefits in some trials → expect minimal to small effects at 90 d unless hypertensive. (Evidence mixed; not citing a single definitive source.)
- Ca-AKG (α-ketoglutarate): promising animal data; limited human RCT evidence for concrete biomarker shifts in healthy adults over 90 d. Treat as exploratory.
(“multi” with ubiquinol (CoQ10), probiotic L. acidophilus, flavonoids like fisetin/luteolin, B-vitamins, iodine, etc.) edit
- Plasma CoQ10 ↑; Endothelial function (FMD) ↑ ~1.5 % absolute on average Measure: plasma CoQ10; FMD at vascular lab Why: CoQ10 supports mitochondrial electron transport and endothelial NO bioavailability. PubMed[25]MDPI[26]
- LDL-C ↓ small amounts with Lactobacillus probiotics in dyslipidemic/overweight populations (e.g., ~0.1–0.3 mmol/L ≈ 4–12 mg/dL) over 8–12 weeks; effects are strain-dependent and variable in healthy people Measure: lipid panel; optional ApoB Why: bile-acid deconjugation, SCFA production, and cholesterol assimilation in the gut. PMC[27]ScienceDirect[28]NMCD Journal[29]
- Homocysteine ↓ if your folate/B12 were low (via methylated folate/Bs) Measure: plasma homocysteine Why: improved one-carbon metabolism; lower homocysteine is cardio-protective surrogate (general consensus; no single source cited).
- NAD+: if the capsule set includes nicotinamide riboside (NR) (often taken separately), expect blood/PBMC NAD+ ↑ ~60–140% in 6–8 weeks; cardiometabolic markers usually unchanged in healthy adults Measure: PBMC or dried blood spot NAD+ (specialty labs) Why: NR fuels NAD+ pools for redox and sirtuin/PARP activity. Nature[30]PMC[31]
- Fisetin/luteolin: human RCT evidence for hard biomarkers over 90 d in healthy adults is limited; ongoing trials target inflammation/senescence in specific conditions. PMC[32]
(key actives: vitamin K1/K2 (MK-7/MK-4), lutein/zeaxanthin, lycopene/astaxanthin) edit
- dp-ucMGP (vitamin-K status) ↓ ~30–50% in ~12 weeks with MK-7 (dose-dependent); sometimes pulse-wave velocity improves Measure: serum dp-ucMGP (calcification risk surrogate) Why: K-dependent carboxylation activates MGP, an inhibitor of vascular calcification; lower dp-ucMGP = better K status. ScienceDirect[33]PubMed[34]
- Undercarboxylated osteocalcin (ucOC) ↓ → better bone K status Measure: serum ucOC (or total/percent ucOC) Why: carboxylation of bone proteins improves bone metabolism. (Supported by K trials; dp-ucMGP citations above.)
- Macular Pigment Optical Density (MPOD) ↑ typically within 8–16 weeks on lutein/zeaxanthin (e.g., ~3–27% in one 16-wk study; many RCTs ≥12 wks show increases) Measure: heterochromatic flicker photometry or retinal imaging MPOD; serum carotenoids; skin carotenoids (RRS) Why: xanthophylls accumulate in the macula, filtering blue light and quenching ROS → potential visual function benefits. Nature[35]Advances in Nutrition[36]
- Systemic inflammation (hs-CRP) ↓ small-to-moderate (curcumin meta-analyses show reductions, especially if CRP is high at baseline) Measure: hs-CRP blood test Why: curcuminoids down-regulate NF-κB and inflammatory cytokines. ClinicalTrials.gov[37] edit
- Glutathione/redox status ↑ (via NAC precursor + any added glutathione in your stack) Measure: RBC/whole-blood GSH, GSH:GSSG ratio Why: NAC provides cysteine to synthesize GSH; oral GSH also raises stores. Penn State[38]PMC[39]
- Liver enzymes (ALT/AST) ↓ in people with elevated enzymes/NAFLD in some trials of NAC/curcumin; minimal change if normal Measure: CMP panel Why: antioxidant/anti-inflammatory effects in hepatocytes. (General RCT evidence base; curcumin/NAC data support.)
- Glycemic control (if insulin-resistant/T2D): ginger/curcumin show small improvements; expect modest HbA1c/fasting glucose drops at 12+ weeks if elevated at baseline Measure: HbA1c; CGM/fasting glucose Why: improved insulin sensitivity and inflammation. PubMed[40]
(key actives commonly include isomaltulose (low-GI carb), resistant maltodextrin (resistant dextrin), allulose, MCT oil, plant protein) edit
- Post-prandial glucose & insulin excursions ↓ (lower peak and iAUC vs sucrose/high-GI carbs) Measure: CGM metrics around shakes; standardized meal tests Why: isomaltulose has a slower digestion rate (low GI), allulose attenuates glycemic response, and viscous/resistant fibers slow absorption. Blueprint Bryan Johnson[41]
- Visceral fat ↓ small but measurable over ~12 weeks with resistant dextrin in some studies Measure: CT/DEXA visceral fat estimates; waist circumference Why: increased fermentation/SCFAs and improved satiety/glycemia. Blueprint Bryan Johnson[42]
- Ketones (β-hydroxybutyrate) ↑ transiently after doses with MCT Measure: finger-prick/urine breath ketone meters 1–3 h post-intake Why: MCTs rapidly convert to ketones in the liver (acute effect; not a 90-d chronic change). (General physiology; no single citation.)
- Skin elasticity/hydration ↑ over 8–12 weeks Measure: cutometer (elasticity), corneometer (hydration), high-freq ultrasound for dermal density Why: collagen peptides provide amino acids (glycine, proline) that can increase dermal collagen content and water-binding capacity. edit
- Bone turnover markers: P1NP (formation) ↑ and sometimes CTX (resorption) ↓ in postmenopausal women; BMD changes take longer (>6–12 mo) Measure: serum P1NP, CTX, later DXA Why: peptides may stimulate osteoblast activity / collagen matrix in bone. ScienceDirect[43]
- Joint comfort/function (if symptomatic): WOMAC/visual analog pain scores often improve by 12 weeks; not a blood biomarker but measurable. (Clinical RCTs support; not the main focus here.)
- LDL-C ↓ ~15–34% (often ~30–40 mg/dL) in 8–16 weeks; ApoB and non-HDL-C ↓ similarly Measure: lipid panel + ApoB Why: RYR’s monacolin K inhibits HMG-CoA reductase (statin-like). Effect size depends on monacolin content (varies by brand). MDPI[44]PMC[45]Frontiers[46] edit
- Blood pressure: small additional ↓ reported in some trials; garlic may contribute modest BP and LDL reductions Measure: home BP; lipid panel Why: garlic’s organosulfur compounds can improve NO and mildly affect lipids/BP. (Garlic meta-analyses; not cited above to save space.)
- Safety monitoring (very important): check ALT/AST and CK at baseline and ~8–12 weeks; avoid concurrent statins unless supervised; U.S. products with pharmacologic monacolin K are regulated like drugs. (Regulatory/safety consensus; RYR review discusses this.) PMC[47]
- Bloods (day 0 & 90): lipid panel + ApoB, hs-CRP, HbA1c, CMP (liver/kidney), homocysteine (if on B-vitamins), CoQ10 (if on ubiquinol), dp-ucMGP (if on K2), RBC/whole-blood GSH (if on NAC/GSH). edit
- Vitals/devices: home BP averages; CGM for 2 weeks at baseline and again at week 12 to quantify post-shake glycemic response; grip strength; DXA for lean mass (if using creatine/protein); skin measurements (derm clinic) for collagen/HA; vascular FMD if you want to detect endothelial changes.
- Expected “most visible” movers by 90 d: LDL-C/ApoB with RYR; dp-ucMGP with K2; MPOD with lutein/zeaxanthin; hs-CRP (small) with curcumin; PBMC NAD+ with NR; GSH with NAC/GSH; post-prandial glucose iAUC with isomaltulose/allulose/resistant dextrin; skin elasticity/hydration with collagen/HA.
- RYR → LDL/ApoB: reviews/meta-analyses show ~15–34% LDL-C drops and ApoB reduction. MDPI[48]PMC[49]Frontiers[50] edit
- Grape seed → BP: controlled-trial meta-analyses report small BP reductions. ScienceDirect[51]Taylor & Francis Online[52]
- Pomegranate → endothelial function: clinical review/meta-analysis indicates improved FMD / inflammatory markers. PubMed[53]PMC[54]
- Cinnamon → HbA1c/FPG: meta-analyses in T2D show modest improvements (smaller in healthy). BioMed Central[55]PubMed[56]
- K2 (MK-7) → dp-ucMGP / arterial stiffness: RCTs show marked dp-ucMGP decreases in ~12 weeks. ScienceDirect[57]PubMed[58]
- Lutein/zeaxanthin → MPOD: RCTs and reviews show MPOD increases by 8–16 weeks. Nature[59]Advances in Nutrition[60]
- CoQ10 → FMD: meta-analysis shows ~+1.45% absolute FMD. PubMed[61]
- NR → NAD+: human RCTs: PBMC NAD+ ↑ ~60–140% in weeks. Nature[62]PMC[63]
- GSH/NAC → glutathione: oral GSH raises blood/RBC GSH; NAC is a cysteine precursor. Penn State[64]PMC[65]
- Isomaltulose/allulose/resistant dextrin → glycemia/visceral fat: RCTs show lower post-prandial excursions; resistant dextrin reductions in visceral fat over 12 wks. Blueprint Bryan Johnson[66]
- Collagen/HA → skin & bone markers: RCTs/meta-analyses show improved skin biophysics; P1NP increases over months.
if you want, I can turn this into a one-page checklist with specific lab codes (Quest/Labcorp equivalents), device recommendations, and a tiny table you can reuse for day-0 vs day-90 logging.
User: Another thing I wonder is the safety of these interventions. edit
Another thing I wonder is the safety of these interventions. Perhaps there has been no evidence of any harm so far, but absence of evidence is not evidence of absence. How would one know that some of these interventions will not cause long term negative effects, measurable only after some many years. Is there ever a way to know that some intervention is absolutely 100% safe? Is there a method for determining safety thoroughly that is more than just observing that nothing bad has occurred so far?
Assistant: short answer: there’s no such thing as “absolutely 100% safe.” in biomedicine we can only bound risk, watch for signals… edit
short answer: there’s no such thing as “absolutely 100% safe.” in biomedicine we can only bound risk, watch for signals, and decide whether benefits outweigh the smallest plausible harms for you. below is how safety is actually established (beyond “nothing bad so far”), how to quantify “how safe,” and a pragmatic safety plan for the Blueprint-style stack you’re considering.
how do we establish safety (beyond “no news”)? edit
- Mechanism & off-target profiling (preclinical). In vitro/in silico screens (hERG, CYPs, receptor panels), animal toxicology, and modeling (PBPK) map plausible hazards before humans ever see an ingredient. Regulators then set reference points like NOAEL/BMD and derive margins of exposure/acceptable intakes. Modern guidance actually prefers benchmark dose (BMD) over old NOAEL because it uses the whole dose–response curve. EFSA Journal[67]US EPA[68]
- Human trials (premarket efficacy & safety). RCTs characterize common adverse events, but they’re underpowered for rare/long-latency harms. FDA’s current benefit–risk framework makes this explicit (uncertainty is part of the decision). U.S. Food and Drug Administration[69]
- Post-market active surveillance. Instead of waiting for case reports, regulators now query huge real-world databases (claims/EHRs) via systems like FDA Sentinel; spontaneous reports flow into FAERS for signal detection. These exist precisely to catch harms that trials miss. U.S. Food and Drug Administration[70]Sentinel Initiative[71]OpenFDA[72]
- Modern observational methods (causal “safety science”). To move beyond simple observation, analysts use target-trial emulation, active-comparator new-user designs, self-controlled case series, and negative-control outcomes/exposures to detect/correct bias and estimate real-world harm rates. (See OHDSI/LEGEND examples.) PubMed[73]ohdsi-studies.github.io[74]ohdsi.org[75]OHDSI[76]
- Triangulation with genetics. Mendelian randomization uses genetic proxies for long-term exposures (e.g., lifelong higher nutrient levels) to suggest whether very long-run risks exist when trials are infeasible. It’s not perfect, but it’s more than “we haven’t seen anything yet.” PMC[77]
- Standards for judging certainty. Frameworks like GRADE force you to rate certainty (risk of bias, inconsistency, imprecision, etc.). A low-certainty signal of harm can still outweigh a tiny, uncertain benefit. PMC[78]CDC[79]training.cochrane.org[80]
can we ever prove something is perfectly safe? edit
no. what we can do is quantify an upper bound on risk. a simple rule used in drug safety: if a study of n people sees zero events, the 95% upper confidence limit for the true event rate is roughly 3/n (“rule of three”). so zero serious events in 10,000 people still means “we’re 95% confident the true risk is <≈ 1 in 3,333,” not zero. Wikipedia[81]JVS Medic's Corner[82]
supplements add extra uncertainty edit
in the U.S., most supplements aren’t pre-approved like drugs. New Dietary Ingredients (NDI) only require a notification, not an approval, and many products rely on GRAS or legacy status. Quality and dose can vary a lot brand-to-brand, which directly affects safety. U.S. Food and Drug Administration[83]
focused risk notes for your stack (what we can know & how to reduce risk) edit
- red yeast rice (RYR): works because it contains monacolin K (lovastatin). That means statin-like risks (myopathy, liver injury) and major variability in strength across brands; contamination with citrinin (a nephrotoxin) has been common. EFSA (2018 and 2025 updates) could not define a safe daily monacolin level and the EU now limits monacolin K exposure and tightened citrinin limits (100 µg/kg). U.S. FDA treats high-monacolin RYR as an unapproved drug. If you choose RYR anyway, treat it like a statin: baseline and 8–12 wk ALT/AST and CK, avoid if pregnant, and only buy third-party tested (NSF/USP) products with a citrinin COA. EFSA Journal[84]European Food Safety Authority[85]EUR-Lex[86]PubMed[87]
- vitamin K (in “essential antioxidants”): generally safe but interacts strongly with warfarin—consistency of intake matters. If you’re anticoagulated, this requires clinician guidance and INR monitoring. Office of Dietary Supplements[88]Mayo Clinic[89]
- curcumin/turmeric & ginger (in “NAC + ginger + curcumin”): potential bleeding-risk interactions with anticoagulants/antiplatelets; plus a documented, real-world issue: lead-chromate adulteration of turmeric in parts of the supply chain has caused elevated blood lead in humans. Use reputable brands with heavy-metal COAs. PMC[90]Stanford News[91]PubMed[92]
- NAC: generally well-tolerated orally; potentiates nitroglycerin (can cause headache/hypotension)—important if you use nitrates. PubMed[93]AHJournals[94]ScienceDirect[95]
- creatine (in “longevity mix” or training stacks): consistent evidence it’s kidney-safe at typical doses in healthy people; can falsely raise serum creatinine without hurting GFR. If monitoring, include eGFR-cystatin C or measured GFR if concerned. PMC[96]BioMed Central[97]
- probiotics/garlic: rare but real bleeding interactions (garlic) and very rare infections in the severely immunocompromised (probiotics). Disclose to your clinician before surgery/anticoagulation. NCCIH[98]
a methodical way to vet long-term safety for your use edit
1) Pre-commit to a safety plan (like a mini-trial):
- Baseline → day 45 → day 90 labs: CMP (liver/kidney), CK (if using RYR), lipid panel + ApoB (RYR), INR if on warfarin and starting/stopping vitamin K or turmeric, lead level if using turmeric not verified for heavy metals, CBC if unexplained fatigue/bruising.
- Vitals/devices: home BP/HR; symptom diary (muscle pain, bruising, GI).
- Stop rules: e.g., ALT/AST >3× ULN, CK >10× ULN or rhabdo symptoms, unexpected bleeding, new neuro symptoms.
2) Choose products with independent quality checks. Look for USP Verified or NSF Certified for Sport; these verify identity, potency, and contaminants (and help avoid hidden monacolin swings or citrinin). Ask vendors for COAs (heavy metals, microbials, citrinin for RYR). USP[99]Quality Supplements[100]NSF[101]
3) Keep exposure consistent and document changes. Many risks come from dose jumps or stack interactions. Change one thing at a time for 4–8 weeks, then reassess.
4) Use evidence hierarchies to decide when to stop/continue. Map benefits/harms with GRADE ideas: if the benefit signal is small/uncertain and the harm signal is plausible (even if uncommon), consider discontinuing. PMC[102]
5) Watch the real-world signal over time. Periodically scan FAERS and regulator updates for your ingredients; serious but rare harms tend to surface there first, long before mainstream summaries. U.S. Food and Drug Administration[103]
the meta-point edit
- Absence of evidence ≠ evidence of absence. What you can get is a tightening upper bound on risk as sample sizes and follow-up grow, plus multiple independent lines of evidence (mechanism → trials → surveillance → causal inference).
- Supplements complicate things because dose, purity, and even the presence of the active can vary. For some (e.g., red yeast rice), the safest route to the same mechanism may actually be a prescription statin—it’s standardized, monitored, and lives inside Sentinel/FAERS with clearer risk communication. ScienceDirect[104]
if you’d like, I can turn this into a one-page “safety monitoring checklist” tailored to exactly which Blueprint products you’re taking (with which labs and thresholds to watch).
User: The benefits of the supplements you listed above does not seem compelling enough to take these supplements. edit
The benefits of the supplements you listed above does not seem compelling enough to take these supplements. Do you agree or no?
Assistant: Short answer: for a healthy, already-optimized person, I mostly agree—the average, outcome-relevant benefits for these … edit
Short answer: for a healthy, already-optimized person, I mostly agree—the average, outcome-relevant benefits for these supplements are modest, often surrogate-based, and usually smaller than what you’ll get from training, diet, sleep, BP control, and (when indicated) prescription meds.
Here’s the blunt take, product by product:
- Red yeast rice: Effective at lowering LDL/ApoB, but it’s a lightly regulated statin. If you need lipid lowering, a prescription statin/ezetimibe is safer, standardized, and better-studied. Otherwise, skip.
- Essential antioxidants (K1/K2 + carotenoids): Improves dp-ucMGP (K status) and MPOD (macular pigment). Useful if you’re low in K or have high eye strain/low carotenoid intake. Clinical outcome data in healthy adults are limited.
- NAC + Ginger + Curcumin: Can nudge hs-CRP down if elevated and help specific pain/NAFLD cases; effects are small and quality varies. Not compelling for most healthy users.
- Longevity protein / Metabolic protein: Good food replacements (protein, fiber, low-GI carbs). Measurable improvements are mainly post-prandial glucose smoothing—useful if you’re insulin-resistant. As “longevity” agents, weak.
- Essential capsules (multi with ubiquinol, Bs, fisetin/luteolin, probiotic): CoQ10 can help endothelial function in some, B-vitamins lower homocysteine if you’re deficient; otherwise benefit is uncertain. NR/NAD+ raises NAD+ but hasn’t shown clear clinical wins in healthy people.
- Longevity mix (Ca-AKG, creatine, glycine, HA, etc.): Creatine is the standout—worth it if you resistance train. HA/glycine are fine but provide cosmetic/subjective benefits. Ca-AKG in humans is not well proven.
- Collagen: Best for skin elasticity/hydration and possibly joint comfort; good if those outcomes matter to you. It’s not a mortality or disease-reduction play.
When they are worth it edit
- You have a specific, measured deficit and a supplement directly addresses it (e.g., high ApoB → statin/RYR; low carotenoids → lutein/zeaxanthin; high homocysteine/low folate → methyl-B complex).
- You value appearance/comfort outcomes (collagen/HA for skin; curcumin for aches).
- Creatine if you lift or sprint.
A cleaner decision rule edit
- Pick a single target biomarker/outcome you care about.
- Check baseline.
- Choose the highest-evidence lever (often lifestyle or Rx).
- If you still want a supplement, set a 90-day exit criterion (e.g., ApoB ↓ ≥20 mg/dL; hs-CRP ↓ ≥0.5 mg/L; MPOD ↑).
- If it doesn’t meet the bar (or causes side effects), stop.
If you want, tell me your top 1–2 goals (e.g., ApoB, glucose stability, skin, training), and I’ll propose a minimal, high-yield stack with concrete targets and stop rules.
References edit
- ↑ "Blueprint product ingredients". ChatGPT. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Amazon". amazon.com. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Healf". healf.com. Retrieved 2025-11-09.
- ↑ "Blueprint Help Center". Blueprint Help Center. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Healf". healf.com. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "Taylor & Francis Online". Taylor & Francis Online. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "BioMed Central". BioMed Central. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Penn State". Penn State. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "ClinicalTrials.gov". clinicaltrials.gov. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "MDPI". mdpi.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "NMCD Journal". NMCD Journal. Retrieved 2025-11-09.
- ↑ "Nature". nature.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Nature". nature.com. Retrieved 2025-11-09.
- ↑ "Advances in Nutrition". Advances in Nutrition. Retrieved 2025-11-09.
- ↑ "ClinicalTrials.gov". clinicaltrials.gov. Retrieved 2025-11-09.
- ↑ "Penn State". Penn State. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "MDPI". mdpi.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Frontiers". frontiersin.org. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "MDPI". mdpi.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Frontiers". frontiersin.org. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "Taylor & Francis Online". Taylor & Francis Online. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "BioMed Central". BioMed Central. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Nature". nature.com. Retrieved 2025-11-09.
- ↑ "Advances in Nutrition". Advances in Nutrition. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Nature". nature.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Penn State". Penn State. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Blueprint Bryan Johnson". Blueprint Bryan Johnson. Retrieved 2025-11-09.
- ↑ "EFSA Journal". EFSA Journal. Retrieved 2025-11-09.
- ↑ "US EPA" (PDF). US EPA. Retrieved 2025-11-09.
- ↑ "U.S. Food and Drug Administration". U.S. Food and Drug Administration. Retrieved 2025-11-09.
- ↑ "U.S. Food and Drug Administration". U.S. Food and Drug Administration. Retrieved 2025-11-09.
- ↑ "Sentinel Initiative". Sentinel Initiative. Retrieved 2025-11-09.
- ↑ "OpenFDA". open.fda.gov. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "ohdsi-studies.github.io". ohdsi-studies.github.io. Retrieved 2025-11-09.
- ↑ "ohdsi.org" (PDF). ohdsi.org. Retrieved 2025-11-09.
- ↑ "OHDSI". ohdsi.github.io. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "CDC". cdc.gov. Retrieved 2025-11-09.
- ↑ "training.cochrane.org". training.cochrane.org. Retrieved 2025-11-09.
- ↑ "Wikipedia". en.wikipedia.org. Retrieved 2025-11-09.
- ↑ "JVS Medic's Corner" (PDF). JVS Medic's Corner. Retrieved 2025-11-09.
- ↑ "U.S. Food and Drug Administration". U.S. Food and Drug Administration. Retrieved 2025-11-09.
- ↑ "EFSA Journal". EFSA Journal. Retrieved 2025-11-09.
- ↑ "European Food Safety Authority". European Food Safety Authority. Retrieved 2025-11-09.
- ↑ "EUR-Lex". eur-lex.europa.eu. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Office of Dietary Supplements". Office of Dietary Supplements. Retrieved 2025-11-09.
- ↑ "Mayo Clinic". Mayo Clinic. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "Stanford News". Stanford News. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "PubMed". pubmed.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "AHJournals". ahajournals.org. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "BioMed Central". BioMed Central. Retrieved 2025-11-09.
- ↑ "NCCIH". nccih.nih.gov. Retrieved 2025-11-09.
- ↑ "USP". usp.org. Retrieved 2025-11-09.
- ↑ "Quality Supplements". Quality Supplements. Retrieved 2025-11-09.
- ↑ "NSF". nsf.org. Retrieved 2025-11-09.
- ↑ "PMC". pmc.ncbi.nlm.nih.gov. Retrieved 2025-11-09.
- ↑ "U.S. Food and Drug Administration". U.S. Food and Drug Administration. Retrieved 2025-11-09.
- ↑ "ScienceDirect". sciencedirect.com. Retrieved 2025-11-09.