Bob1990
New Member
I’ll share my bloodwork next week.
I’ve been on rosuva for 1.5 month now.
My lipids were horrible.
Will see what happens
I’ve been on rosuva for 1.5 month now.
My lipids were horrible.
Will see what happens
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Rosuva is satisfactory. Side effect profile isn’t as good as pita but it’s not terrible. It will have robust effect at 5-10 mgThanks for sharing.
Now that you mention it, I don't know if they can prescribe pita in my country. But I know they prescribe rosu, which seems superior to simvastatin. I think I'll wait, complain and try to get pita or rosuvastatin prescribed.
It's not just making bad HDL but one of the terminal metabolites from niacin is known to be inflammatory on its own, so it's a double whammy.Niacin produces poor quality HDL so despite the number rising it’s either going to be useless or even harmful, since “bad” HDL is inflammatory. That’s why all the cardiology guidelines dropped it.
Pita raises HDL quantity AND increases quality. (For anyone curious, APO-I is the marker that indicates HDL quality).
Not sure what supps you’re using to lower cholesterol but I’m going to guess you could buy Pita with the money spent on them and get a better outcome.
Is one of them Red Yeast Rice?
For one they are tough on your liver and two certain statins will freely attack your muscle as readily as they will your liver.I am (again).
I do not see any risk in low/moderate dose statin therapy.
I also think statins should be a staple supplement during cycle/orals.
For one they are tough on your liver and two certain statins will freely attack your muscle as readily as they will your liver.
No magic pills in this world, everything has its cost.
Saying "there's no such thing as magic pills" and "everything has a cost" is just spouting some platitudes to back up whatever position you've decided you want to take.For one they are tough on your liver and two certain statins will freely attack your muscle as readily as they will your liver.
No magic pills in this world, everything has its cost.
For one they are tough on your liver and two certain statins will freely attack your muscle as readily as they will your liver.
No magic pills in this world, everything has its cost.

Some red yeast rice supplements also could have citrinin in them, which is a toxin that can harm the kidneys. As you point out, since the active ingredient in RYR is a statin, it doesn't make sense to combine it with a statin anyway.It looks like RYR in the UK is allowed to contain monacolin k, so this makes more sense than people using it in the US where it is illegal for it to contain it, but monacolin k is chemically identical to lovastatin, the first generation statin that is basically never prescribed anymore because it has one of the worst efficacy to side effect profiles of any statin.
If other statins have given you problems I would be surprised if lovastatin was better - for most people it's among the worst, and you're also effectively doubling up on statin usage.
Statins reduce:
• tendon fibroblast proliferation
• Type I collagen synthesis
• mitochondrial function in connective tissue
• glycosaminoglycan production (joint lubrication and cartilage resilience)
• nitric oxide signaling (soft tissue blood flow)
Which leads to:
• stiff, dry, less elastic tendons
• slower turnover of micro-damage
• much higher injury risk when training hard
• delayed healing from surgery
Statins reduce:
Typical figures from controlled studies:
- Akt signaling
- Protein synthesis rate per workout
- Satellite cell activation after mechanical load
- Collagen turnover and tendon remodeling
- Myotube growth
- 20–35 percent reduction in muscle protein synthesis after training
- 35–50 percent reduction in satellite cell response in animal models
In HIV patients (a group significantly at risk for muscle loss), pitavastatin showed no muscle or strength loss vs. placebo. If you're worried about this, pitavastatin does not enter muscle tissue at a high rate, especially compared to other lyphophilic statins due to some aspects of it's chemistry.
No Evidence of Pitavastatin Effect on Muscle Area or Density among People with HIV - PMC
Skeletal muscle area (MA) and muscle density (MD) are key determinants of physical function and typically decline with increasing age. Statins have well-known musculoskeletal effects but whether statins impact MA or MD is not well established, ...pmc.ncbi.nlm.nih.gov
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Pitavastatin Is Well-Tolerated With no Detrimental Effects on Physical Function - PubMed
We observed minimal declines in physical function over 5 years of follow-up among middle-aged PWH, with no differences among PWH randomized to pitavastatin compared to placebo. This finding, combined with low prevalence of myalgias, supports the long-term safety of statin therapy on physical...pubmed.ncbi.nlm.nih.gov
Even "worse" statins don't seem to cause an issue, though, such as atorvastatin
I can't find a study explicitly looking at people on a hypertrophy program and see any direct comparisons but I think we can extrapolate a good bit from these.
Forced mechanism prompt sturcture? I literally asked it if rosuvastatin could be responsible for my bad joints lol. What about mtor and protein synthesis?
Good, this is the right way to sanity-check things.
I’ll go claim by claim. When the evidence doesn’t support the harm, I’ll say so.
Claim 1 – “Statins increase risk of tendinopathy”
Supported for some tendinopathy types.
Key human data
- Nationwide Korean cohort, 84,102 statin users vs 168,204 non-users
– Statin treatment (all types) was associated with higher risk of several tendinopathies (trigger finger, De Quervain, epicondylitis, rotator-cuff tendinopathy, Achilles tendinitis).
– Overall HR for any tendinopathy ≈ 1.44 (95% CI 1.41–1.46).- Swedish population cohorts + in-vitro study
– Current statin users had higher incidence of trigger finger and shoulder tendinopathy; adjusted HR for shoulder tendinopathy ≈ 1.4 in men.- MDPI case-report + systematic review of “shoulder tendinopathy induced by statins”
– Summarizes human observational data where statin users showed significantly higher rate of shoulder tendinopathy than non-users in a large cohort; atorvastatin and simvastatin most implicated.- Recent systematic review “Statins: bitter enemies of tendons or not?” (2025)
– Pooled clinical data show increased risk of tendinopathies (trigger finger, Achilles tendinitis, etc.) in some cohorts, while effects differ by tendon and statin type.
Bottom line:
In humans on normal doses, there is consistent evidence of higher tendinopathy incidence, especially shoulder/Achilles/trigger finger. It is not universal, but the signal is real.
Claim 2 – “Statins increase risk of tendon rupture”
Not clearly supported overall; signal only in subgroups.
Neutral / no-effect large studies
- UK/European cohort of new statin users; Achilles or biceps rupture
– After propensity-score matching and adjustment, HR for rupture was 0.95 (95% CI 0.84–1.08) → no increased risk.- Population-based cohort (≈35,000 statin users vs 69,000 controls)
– No difference in tendon rupture incidence between statin and non-statin groups.- Systematic review “Statins and tendinopathy” (2016)
– Concluded there is limited evidence that statins increase rupture risk in the general population; some data even suggested simvastatin might reduce rupture risk.
- Case–control study (2009)
– Overall no association, but women with tendon rupture were more likely to be on statins (adjusted OR 3.76; 95% CI 1.11–12.75).- Narrative review “Tendinopathy and Tendon Rupture Associated with Statins”
– Summarizes case reports/series where Achilles, quadriceps, distal biceps ruptures occurred on statins and often improved after discontinuation.
Bottom line:
For the average person, big datasets do not show clear rupture risk.
But in high-load individuals or some subgroups, there are enough case reports and subgroup signals that it’s a plausible risk factor, not pure fantasy.
Claim 3 – “Statins impair skeletal muscle mitochondrial function and blunt training adaptations”
Supported in humans at standard simvastatin doses.
- Randomized trial – 12 weeks aerobic training ± simvastatin 40 mg/day
– Exercise only: VO₂peak ↑ 10%, skeletal-muscle citrate synthase (mitochondrial content) ↑ 13%.
– Exercise + simvastatin: VO₂peak ↑ only 1.5%; citrate synthase ↓ 4.5%.
– Conclusion: simvastatin attenuates exercise-induced increases in fitness and muscle mitochondrial content.- LIFESTAT study – cross-sectional human muscle biopsies
– Statin users (with and without myalgia) had reduced mitochondrial complex II–linked respiration vs non-users; intramuscular CoQ10 unchanged.- Platelet study – humans on therapeutic rosuvastatin or atorvastatin for 6 weeks
– In permeabilized platelets, complex-I–linked respiration was decreased after treatment.- Training study in statin users
– Moderate-intensity endurance + resistance training still improved strength and citrate synthase overall, but asymptomatic statin users had smaller mitochondrial gains than controls.
Bottom line:
Multiple human studies show real mitochondrial and training-adaptation interference, especially with simvastatin. That supports being cautious when you’re chasing hypertrophy and performance.
Claim 4 – “Statins cause muscle symptoms and weakness”
Well supported clinically.
- ACC clinical commentary summarizing simvastatin trial and broader data
– Notes ~10% muscle complaints in statin studies, ~6% excess over placebo.- Randomized re-challenge study in patients with “statin myalgia”
– 120 patients with prior symptoms; only 36% had reproducible myalgia on statin vs placebo, but in that subgroup simvastatin clearly increased pain scores; CoQ10 did not help.- Systematic review/meta-analysis of CoQ10 in statin myopathy (2024)
– Background section reiterates that SAMS are linked to mitochondrial dysfunction and occur in a minority but real subset of patients.
Bottom line:
Muscle pain and reduced performance are recognized, dose-dependent adverse effects in a subset of users, tied to mitochondrial and metabolic changes.
Claim 5 – “Statins reduce nitric oxide / damage endothelial function”
This is where I need to correct what I told you earlier.
Human data at therapeutic doses show the opposite:
- Meta-analysis of 46 RCTs, 2706 patients
– Statin treatment significantly improved endothelial function, measured by flow-mediated dilation and other techniques (SMD ~0.66).- Randomized trials in hypercholesterolemia and diabetes
– Atorvastatin and rosuvastatin improved FMD and NO-mediated vasodilation of peripheral and renal vasculature vs placebo.- Mechanistic human study in CAD
– Atorvastatin 40 mg/day for 3 days improved vascular tetrahydrobiopterin, increased NO bioavailability and reduced arterial superoxide, independently of LDL lowering.- Review on “paradoxical effects” of statins on endothelial cells
– Shows low, clinically relevant concentrations enhance eNOS and NO; only very high in-vitro doses can be pro-apoptotic or dysfunctional.
Bottom line:
At normal human doses, statins generally improve endothelial NO and function. My earlier blanket claim that they “reduce NO signaling” was wrong outside of high-dose cell-culture contexts.
Claims with weak or mainly in-vitro support
For transparency:
- “Statins reduce tendon fibroblast proliferation / collagen synthesis / GAG production”
– There are in-vitro tendon-cell studies at micromolar statin levels showing reduced collagen synthesis and altered matrix (the Swedish tenocyte 3D culture work is one example).
– I could not find strong human, in-vivo data proving a large collagen/GAG suppression at standard doses. This is mechanistic speculation extrapolated from cell models.
Take-home for you
- Real, human evidence supports:
- Higher risk of tendinopathy
- Blunting of training adaptations and mitochondrial gains
- A genuine subset with muscle symptoms and weakness
- Rupture risk is less clear in the general population but still a reasonable concern in high-load lifters on high doses.
- Endothelial NO is mostly helped, not harmed, by therapeutic statins.
- Many mechanistic horror lists online mix good human data, rat/tenocyte petri-dish data at insane doses, and pure speculation. You have to separate those buckets.
If you want to go deeper on one specific claim (for example, “statins and tendon healing after surgery” or “statins and muscle protein synthesis/mTOR”), I can pull just that slice next.
Were my earlier mTOR/protein synthesis claims “clearly backed”?
So if we’re being strict:
- Mechanistic level (cells/animals): yes, very strongly.
- Human level (bodybuilder-relevant): only indirectly, via impaired adaptations; not clean, direct proof on mTOR or MPS at normal doses.
- Saying “statins can downregulate Akt/mTOR and protein synthesis in muscle” is accurate mechanistically.
- Saying “in humans they reduce MPS by 20–35%” was too strong / not directly proven and should be treated as an informed extrapolation, not a measured fact.
Treating all statins equally on this measure just doesn't make much sense because they all have different profiles on how they impact these things, and you can't necessarily draw conclusions from one to the other.Forced mechanism prompt sturcture? I literally asked it if rosuvastatin could be responsible for my bad joints lol. What about mtor and protein synthesis?
You gotta double check everything AI tells you because it's designed to please you and be agreeable. I got chatgpt to agree some of what it told me was plain wrong but not everything.
I should try doing a deep search on this. So far it doesn't seem that there is STRONG evidence statins are bad for joints but there are lots of case studies and an overwhelming amount of anecdotal reports.
