Tony Huge

Natty Plus Bloodwork Bible: The Complete Guide to Monitoring Your Health

Table of Contents

The Data That Changed Everything

Connor Murphy’s bloodwork tells a story that breaks every rule the fitness industry taught us about “natural” enhancement. In 11 days, his testosterone doubled from 340 ng/dL to 700 ng/dL. Growth hormone spiked 15x in a single test cycle. Yet his LH and FSH remained stable — no suppression, no shutdown, no dependency. This isn’t theoretical optimization anymore. This is documented proof that the Natty Plus protocol delivers results without the hormonal devastation of traditional enhancement.

I’ve been tracking biomarkers for over a decade, running blood panels on myself and athletes monthly. What Connor achieved represents the holy grail of enhancement: measurable gains in anabolic hormones while maintaining natural production. But here’s what separates winners from wishful thinkers — you need comprehensive bloodwork to monitor this process properly.

The Complete Natty Plus Bloodwork Panel

Traditional “hormone panels” miss 70% of what matters when optimizing natural production. Most guys get testosterone checked and think they’re monitoring their health. That’s like checking your oil level while ignoring engine temperature, fuel pressure, and transmission fluid.

The complete Natty Plus monitoring protocol requires 15 specific markers tested at strategic intervals. This isn’t optional monitoring — it’s the difference between optimization and guesswork.

Primary Anabolic Markers

Total Testosterone: Your baseline anabolic potential. Healthy range is 600-1000 ng/dL for most men, but I’ve seen Natty Plus protocols push men from 340 to 700 ng/dL in under two weeks. Test both morning (peak) and afternoon levels initially to establish circadian patterns.

Free Testosterone: The active fraction that actually builds muscle. More important than total testosterone for determining real anabolic capacity. Should represent 1.5-3% of total testosterone. If your free T is low despite decent total numbers, check SHBG immediately.

IGF-1: The growth signal that determines whether you’re in building mode or survival mode. Normal range 115-300 ng/mL, but we target the upper third of this range. IGF-1 responds rapidly to growth hormone optimization protocols — I’ve tracked 40% increases in 30 days with proper implementation.

Growth Hormone: Highly variable throughout the day, but baseline fasting levels indicate your natural production capacity. Normal range 0-10 ng/mL, but Connor’s 15x increase proves dramatic elevation is possible without exogenous GH administration.

Hypothalamic-Pituitary Axis Monitoring

LH (Luteinizing Hormone): The signal from your brain telling your testes to produce testosterone. Normal range 1.7-8.6 mIU/mL. This is your canary in the coal mine — if LH drops, you’re suppressing natural production. Connor maintained stable LH throughout his transformation.

FSH (Follicle Stimulating Hormone): Controls sperm production and testicular function. Range 1.5-12.4 mIU/mL. FSH suppression indicates fertility impact. True Natty Plus protocols preserve FSH levels.

Prolactin: Should stay under 15 ng/mL in men. Elevated prolactin kills libido and can suppress testosterone production. Some compounds can elevate prolactin — monitor quarterly and adjust protocols accordingly.

Metabolic Health Markers

Estradiol (E2): Optimal range 20-40 pg/mL. Too low crashes libido and joint health. Too high causes water retention and potential gynecomastia. Many natural testosterone boosters can shift this ratio — track it closely.

Fasting Glucose: Should stay under 100 mg/dL. Some growth hormone enhancing compounds can impact insulin sensitivity. Monitor quarterly to catch metabolic changes early.

Fasting Insulin: More sensitive than glucose for detecting metabolic dysfunction. Target under 10 μIU/mL. Insulin resistance kills body composition and hormonal optimization.

Organ Function Protection

ALT (Alanine Aminotransferase): Liver enzyme that should stay under 56 U/L. Some compounds can elevate liver enzymes temporarily. Track monthly during initial protocol implementation.

AST (Aspartate Aminotransferase): Another liver marker, normal range under 40 U/L. Elevated AST can also indicate muscle breakdown from overtraining — context matters.

Creatinine: Kidney function marker, should stay under 1.3 mg/dL. High protein intake and intense training can elevate this slightly, but significant increases require protocol modification.

BUN (Blood Urea Nitrogen): Another kidney marker, range 6-20 mg/dL. Track alongside creatinine for complete renal function assessment.

Complete Lipid Panel: Total cholesterol, LDL, HDL, and triglycerides. Some compounds can impact lipid profiles. Maintain HDL above 40 mg/dL and triglycerides under 150 mg/dL.

Testing Timeline and Frequency

Timing determines whether your bloodwork provides actionable intelligence or useless snapshots. Most guys test randomly and wonder why their results vary wildly.

Baseline Testing (Pre-Protocol)

Get comprehensive baseline labs 2-4 weeks before starting any Natty Plus protocol. This establishes your natural production patterns and identifies any existing issues that could complicate enhancement.

Test on the same day of the week, same time of morning (ideally 7-9 AM for hormone testing), after 12-hour fast. Avoid training for 48 hours before baseline testing to prevent exercise-induced hormone fluctuations.

Early Response Monitoring (4-6 Weeks)

This is where Connor’s dramatic results become visible. His testosterone doubled in 11 days, but most protocols show significant changes by 4-6 weeks. Test the same comprehensive panel to identify which markers respond first.

I typically see IGF-1 respond within 2-3 weeks, testosterone changes by week 4-6, and metabolic markers shift by week 6-8. Early testing catches both positive responses and potential issues before they become problems.

Quarterly Optimization Monitoring

Once you establish your response pattern, quarterly comprehensive panels maintain optimization without excessive testing costs. Focus on the markers that showed the biggest changes in your early response period.

Some guys need monthly liver enzyme monitoring if using compounds that can stress hepatic function. Others can extend to every 4-6 months if all markers remain stable.

Reading Your Results Like a Pro

Lab ranges represent the middle 95% of the population — including sick, sedentary, and sub-optimal individuals. “Normal” doesn’t mean optimal for enhancement and performance.

Testosterone Optimization Targets

Forget the 300-1200 ng/dL “normal” range. For enhancement and optimization, target the top 25% of the range. Connor moved from 340 ng/dL (bottom 10%) to 700 ng/dL (top 40%) and transformed his physique.

Free testosterone percentage matters more than absolute numbers. If your free T is less than 2% of total testosterone, investigate SHBG levels and consider compounds that can favorably shift this ratio.

Morning testosterone should be 20-30% higher than afternoon levels in healthy men. If this pattern is blunted, your circadian hormone production needs optimization.

Growth Hormone and IGF-1 Patterns

Growth hormone testing is tricky because of massive intraday variation. Baseline fasting levels give you production capacity, but IGF-1 provides a more stable indicator of overall GH activity.

IGF-1 in the upper third of normal range (200-300 ng/mL) correlates with better body composition and recovery. Connor’s 15x GH spike translated to sustained IGF-1 elevation — that’s the pattern that builds muscle.

Metabolic Health Interpretation

Fasting glucose under 90 mg/dL indicates excellent insulin sensitivity. Between 90-100 suggests room for improvement. Above 100 requires immediate metabolic intervention.

Fasting insulin under 5 μIU/mL is optimal. 5-10 is acceptable. Above 10 indicates developing insulin resistance that will sabotage both health and enhancement goals.

Red Flag Warning Signs

Certain bloodwork patterns demand immediate protocol modification or medical consultation. I’ve seen guys ignore warning signs and create long-term problems.

Hormonal Suppression Indicators

LH dropping below 2 mIU/mL indicates hypothalamic-pituitary suppression. This violates the core principle of Natty Plus protocols. Reduce dosages or eliminate suppressive compounds immediately.

FSH suppression below 1 mIU/mL suggests fertility impact. If family planning is important, this requires protocol adjustment regardless of other benefits.

Total testosterone increasing while LH decreases suggests external hormone exposure or compounds with suppressive activity. True enhancement should increase both testosterone and LH. This is a direct application of the Tony Huge Laws of Biochemistry Physics — you can’t cheat the feedback loops without consequences.

Organ Stress Markers

ALT or AST above 80 U/L requires immediate protocol evaluation. Some compounds can cause transient enzyme elevation, but sustained elevation risks liver damage.

Creatinine above 1.5 mg/dL or BUN above 25 mg/dL indicates kidney stress. High protein intake can contribute, but significant elevation requires medical evaluation.

HDL below 30 mg/dL or triglycerides above 200 mg/dL suggests cardiovascular risk. Some enhancement compounds can negatively impact lipids — monitor and adjust accordingly.

Metabolic Dysfunction Signals

Fasting glucose above 110 mg/dL indicates developing diabetes risk. Some growth hormone enhancing compounds can impact glucose metabolism.

Fasting insulin above 15 μIU/mL suggests significant insulin resistance. This will sabotage body composition goals and increase disease risk.

Hemoglobin A1C above 6.0% indicates poor glucose control over the previous 2-3 months. This marker provides longer-term metabolic health assessment.

Connor’s Bloodwork Case Study

Connor’s transformation provides the perfect case study for proper Natty Plus monitoring. His baseline testosterone of 340 ng/dL put him in testosterone deficiency range — barely functional for a healthy male.

The dramatic increase to 700 ng/dL in 11 days proves rapid optimization is possible. But here’s the critical point: his LH and FSH remained stable throughout the process. This indicates enhanced natural production rather than suppression and replacement.

The 15x growth hormone increase demonstrates how dramatically natural production can be enhanced. While single-point GH measurements have limitations due to pulsatile release, this magnitude of change indicates real physiological impact.

Connor’s 20-pound lean mass gain in two months correlates with his hormonal improvements. This rate of progress typically requires pharmaceutical enhancement, yet his bloodwork shows preserved natural function.

Advanced Monitoring Considerations

Once you master basic monitoring, additional markers provide deeper optimization insights. These aren’t essential for everyone but can identify subtle issues or optimization opportunities.

Thyroid Function Assessment

TSH, Free T3, and Free T4 reveal metabolic rate and energy production capacity. Optimal ranges: TSH 1-2 mIU/L, Free T3 3.0-4.0 pg/mL, Free T4 1.0-1.5 ng/dL.

Many natural athletes have subclinical hypothyroidism that limits their progress. Proper thyroid function is essential for maximizing the benefits of enhanced testosterone and growth hormone.

Nutrient Status Monitoring

Vitamin D3 levels should exceed 50 ng/mL for hormonal optimization. 70-100 ng/mL provides maximum benefits for testosterone production and immune function.

B12 and folate deficiencies can limit protein synthesis and energy production. Zinc and magnesium directly impact testosterone production.

Iron studies (ferritin, TIBC, transferrin saturation) ensure adequate oxygen transport capacity for intense training and recovery.

Inflammatory Markers

C-reactive protein (CRP) under 1.0 mg/L indicates low systemic inflammation. Elevated inflammation can impair hormone production and recovery.

Complete Blood Count (CBC) monitors for anemia, immune dysfunction, or other systemic issues that could limit enhancement protocols.

Cost-Effective Testing Strategies

Comprehensive monitoring doesn’t require breaking the bank. Strategic testing prioritizes the most important markers while controlling costs.

Baseline comprehensive panel: $200-400 for complete assessment. Early response monitoring: $150-250 focusing on primary hormonal markers. Quarterly optimization: $100-200 for key indicators.

Direct-to-consumer lab services like Quest Direct, LabCorp OnDemand, and specialty hormone clinics often provide better pricing than traditional medical testing.

Some Enhanced Labs distributors offer discounted bloodwork packages specifically designed for enhancement monitoring. This provides the right tests at the right intervals without unnecessary markers.

Interesting Perspectives

While comprehensive bloodwork is the gold standard, emerging perspectives suggest we might be missing the forest for the trees. Some biohackers argue that chasing perfect lab values creates unnecessary anxiety and protocol-jumping, when the body’s subjective feedback (energy, libido, recovery) is the ultimate biomarker. The contrarian view is that monthly testing creates a “nocebo” effect where minor, clinically insignificant fluctuations lead to unnecessary protocol changes that disrupt homeostasis more than they help.

There’s also growing interest in continuous glucose monitors (CGMs) for enhancement athletes, providing real-time metabolic feedback that static fasting glucose misses entirely. This dynamic data reveals how specific foods, training sessions, and even supplements impact glucose variability—a more nuanced metric than a single fasting value. Some argue this real-time feedback is more valuable for body composition than quarterly hormone panels.

Another unconventional angle is the focus on hormone ratios rather than absolute values. The testosterone-to-cortisol ratio, for instance, is a powerful indicator of anabolic vs. catabolic state that many standard panels ignore. Similarly, the IGF-1 to insulin ratio may be more predictive of nutrient partitioning efficiency than either marker alone. This systems-biology approach aligns with the Tony Huge Laws of Biochemistry Physics, emphasizing that hormones don’t work in isolation but in intricate networks with feedback and feedforward loops.

Finally, the most advanced practitioners are looking beyond blood to other biomarkers: heart rate variability (HRV) for autonomic nervous system balance, VO2 max testing for metabolic efficiency, and even genetic panels to understand individual predispositions in hormone metabolism and receptor sensitivity. The future of enhancement monitoring may be multi-modal, combining bloodwork with performance metrics and genetic insights for truly personalized optimization.

The Monitoring Mindset

Bloodwork is intelligence gathering, not validation seeking. I’ve seen guys obsess over minor fluctuations or chase perfect numbers while ignoring overall trends.

Track trends, not individual results. Hormones fluctuate daily based on sleep, stress, training, and nutrition. Focus on patterns over time rather than single data points.

Correlate bloodwork with subjective measures. Energy levels, recovery capacity, libido, and mood provide real-world validation of what the numbers suggest.

Document everything. Keep detailed logs of protocols, dosages, timing, and lifestyle factors. This data becomes invaluable for optimizing your individual response.

Practical Implementation Guide

Start with baseline comprehensive testing 2-4 weeks before beginning any Natty Plus protocol. Schedule testing for the same day and time to minimize variables.

Implement protocols gradually, changing one variable at a time. This allows you to correlate bloodwork changes with specific interventions.

Set up automated testing reminders. Most optimization failures result from inconsistent monitoring rather than poor protocols.

Build relationships with lab providers and healthcare practitioners who understand enhancement goals. Traditional doctors often lack the knowledge to interpret optimization-focused bloodwork properly.

The Natty Plus protocol succeeded for Connor because we monitored the right markers at the right intervals and adjusted based on objective data. His bloodwork proves that dramatic natural hormone optimization is possible — but only with proper monitoring and intelligent implementation.

Already enhanced natural production through smart supplementation. Now optimize it through comprehensive bloodwork monitoring that reveals exactly how your body responds to each intervention.

Citations & References

  1. Bhasin, S., et al. (2018). Testosterone Therapy in Men With Hypogonadism: An Endocrine Society Clinical Practice Guideline. The Journal of Clinical Endocrinology & Metabolism. Provides clinical context for testosterone ranges and monitoring.
  2. Veldhuis, J. D., et al. (2005). Endocrine Control of Body Composition in Infancy, Childhood, and Puberty. Endocrine Reviews. Details the pulsatile nature of growth hormone secretion and IGF-1 dynamics.
  3. Handelsman, D. J., et al. (2018). Bioavailable Testosterone and Free Testosterone: Measurement and Clinical Interpretation. Clinical Chemistry. Discusses the critical importance of free vs. total testosterone.
  4. Wallace, I. R., et al. (2013). Sex hormone binding globulin and insulin resistance. Clinical Endocrinology. Explores the link between SHBG, insulin sensitivity, and hormone bioavailability.
  5. Kraemer, W. J., & Ratamess, N. A. (2005). Hormonal responses and adaptations to resistance exercise and training. Sports Medicine. Reviews how exercise impacts acute and chronic hormone levels, relevant for testing timing.
  6. American Diabetes Association. (2022). Classification and Diagnosis of Diabetes: Standards of Medical Care in Diabetes. Diabetes Care. Defines diagnostic criteria for glucose, insulin, and A1C used in metabolic health assessment.
  7. Friedewald, W. T., et al. (1972). Estimation of the concentration of low-density lipoprotein cholesterol in plasma, without use of the preparative ultracentrifuge. Clinical Chemistry. The foundational paper for the standard lipid panel calculation.
  8. Giannoulis, M. G., et al. (2006). The effects of growth hormone and/or testosterone on whole body protein kinetics and skeletal muscle gene expression in healthy elderly men: a randomized controlled trial. Journal of Clinical Endocrinology & Metabolism. Demonstrates the anabolic interplay of GH and testosterone.
  9. Bancroft, J., & Wu, F. C. (1983). Changes in erectile responsiveness during androgen replacement therapy. Archives of Sexual Behavior. Classic study on the relationship between androgens, estradiol, and sexual function.
  10. De Palo, E. F., et al. (2001). Correlations of growth hormone (GH) and insulin-like growth factor I (IGF-I): effects of exercise and abuse by athletes. Clinica Chimica Acta. Examines the relationship between GH and IGF-1 in athletic populations.