SBL

This is a guide to building muscle, getting lean, and designing training that can actually be repeated.

Not a list of random exercises. Not a collection of rules copied from a fitness influencer. A playbook for deciding what to eat, how to train, how to recover, and how to change the plan when the data says it is not working.

The exact numbers change from person to person. The principles are simpler:

Create enough stimulus to grow, keep fatigue low enough to repeat it, and use nutrition to make the adaptation possible.

This is a training guide, not medical advice. Pain, diagnosed conditions, eating-disorder history, or unusually rapid changes in weight should be handled with a qualified professional.

Mechanisms before outcomes

A useful training explanation asks why an adaptation happened instead of treating correlation as causation. If someone eats cheese and it rains afterward, the two events occurred together, but the cheese did not cause the weather. Fitness studies can be misread the same way when an exercise is declared universally optimal without asking what changed mechanically: tension, leverage, range of motion, fatigue, stability, or progression.

The two Clark Kent podcasts that inform this guide take that mechanism-first approach. They connect training decisions to anatomy, physiology, leverage, and stimulus-to-fatigue ratio. These are useful models, not laws, and they still have to be tested against individual results.

observed outcome
  -> ask what changed mechanically and physiologically
  -> test whether the explanation fits other situations
  -> apply it with individual context

What makes a muscle grow

Resistance training creates mechanical tension and stimulates muscle protein synthesis, including synthesis of contractile proteins inside the myofibrils. A review of skeletal muscle remodeling explains the role of resistance exercise in myofibrillar protein synthesis (Skeletal muscle and resistance exercise training).

MPS versus myoPS

Muscle protein synthesis, or MPS, is the broad remodeling signal. Myofibrillar protein synthesis, or myoPS, is more specific to the contractile machinery that makes muscle produce force.

MPS = broad protein remodeling signal
myoPS = contractile protein remodeling signal
hypertrophy = the long-term result that actually matters

An acute increase in MPS or myoPS is not a direct measurement of future muscle growth. More muscle damage can keep broad MPS elevated while creating a larger recovery problem without proportionally more contractile tissue.

The low-volume model is that the first hard sets create a large useful myoPS response, while later sets may add less stimulus and more fatigue or damage. This supports a high-frequency, low-volume approach, but it does not prove a precise 48- to 72-hour growth timer or mean that the body flips between growth and atrophy on a schedule. Training status, exercise novelty, volume, nutrition, and recovery all change the response.

The practical conclusion is simple: every additional set has to earn its recovery cost.

Nutrition

Protein

A practical starting target is 1.6 to 2.2 grams of protein per kilogram of bodyweight per day. A large meta-analysis found that gains in fat-free mass become less responsive to additional protein once intake is high enough, with around 1.6 g/kg/day close to the point where extra benefits become small for many people (Protein supplementation and resistance training-induced gains).

Stay near the high end when dieting aggressively or trying to preserve muscle while lean. Spread protein across three to five meals. Total daily intake matters more than perfect timing.

Dietary fat

Fat provides essential fatty acids, supports fat-soluble vitamin absorption, contributes to cell membranes and nervous-system function, and makes a diet easier to sustain.

A reasonable starting range is about 20 to 35% of total calories, or roughly 0.6 to 1.0 g/kg/day. These are practical guardrails, not precise biological minimums. The correct amount depends on body size, calories, preference, training, and energy availability.

Cuts often create a problem: protein stays high, carbohydrates are reduced, and fat gets pushed so low that almost every meal is lean meat and vegetables. Very low-fat diets can reduce sex-hormone concentrations in some studies, although the evidence is mixed and total energy availability is also important. A review found small reductions in several testosterone measures in men assigned to low-fat diets, while low energy availability is associated with broader endocrine and performance problems (Low-fat diets and testosterone in men, Low energy availability).

Fat also slows gastric emptying. That helps satiety but can make a large high-fat meal feel heavy before training. Put enough fat in the day, but place more of it farther from training when digestion or performance is a problem.

Calories and energy balance

energy balance = energy intake - energy expenditure

energy expenditure =
  resting energy expenditure
  + thermic effect of food
  + exercise activity
  + non-exercise activity

Resting expenditure depends on body size, body composition, age, sex, and recent energy balance. Activity includes formal exercise and everyday movement. Maintenance is therefore an observed output, not a permanent number printed on the body (Energy balance and its components).

To estimate it:

1. Choose a reasonable starting intake.
2. Weigh under similar conditions most mornings.
3. Track a seven-day average.
4. Hold the intake for two or three weeks.
5. Adjust from the trend, not one weigh-in.

A deficit loses weight, maintenance holds it, and a surplus gains it. Adaptive thermogenesis and changing bodyweight can reduce expenditure during a diet, but they do not invalidate energy balance.

Carbohydrates, insulin, and glycogen

Carbohydrates are broken down into sugars. Glucose can be used directly or stored as muscle and liver glycogen. Fructose is handled substantially by the liver. Galactose is found with glucose in lactose. Starches are chains of glucose, while fiber is carbohydrate that is not fully digested in the small intestine.

The labels simple and complex are not complete nutrition judgments. A potato, sports drink, and bowl of oats can all provide carbohydrate while differing in fiber, digestion, satiety, and micronutrients.

An insulin response after carbohydrate is normal physiology. Insulin helps move glucose and nutrients into tissues and supports storage and remodeling. It does not switch fat loss off, and carbohydrates do not cause fat gain unless total energy intake supports weight gain over time.

Glucose and fructose use different intestinal transport systems. Combining them can improve carbohydrate absorption and use during prolonged endurance exercise, but it is not required for a normal hypertrophy session (Fructose co-ingestion to increase carbohydrate availability).

Muscle glycogen supports demanding training. Low glycogen does not make every session useless, but depletion can reduce the quality of longer or repeated sessions. Carbohydrates are therefore usually most valuable around hard training, especially high-volume lower-body work (Carbohydrate intake and strength training performance).

Digestion and pre-workout nutrition

There is no universal digestion timer. Digestion begins in the mouth and continues through the small intestine, where monosaccharides are absorbed. Low-fiber liquids and refined carbohydrates usually leave the stomach faster than a large meal containing fat, protein, and fiber. A small snack may feel usable within 30 to 60 minutes, while a large mixed meal may still be digesting several hours later.

A useful schedule is:

• Three to four hours before training: normal mixed meal with carbohydrate, protein, and moderate fat.
• One to two hours before: smaller meal with easily digested carbohydrate and moderate lean protein; reduce fat and fiber if needed.
• Thirty to sixty minutes before: optional small, low-fiber carbohydrate serving if energy is low or the previous meal was long ago.
• After training: a normal meal is enough for most people. Urgency matters more when another demanding session is coming soon.

During a cut, a large protein-and-fat meal right before lifting can spend many calories without providing fast usable energy and can leave the lifter full or slow. A small fast-digesting carbohydrate feeding can be a better trade: banana, rice cereal, toast, bagel, cereal, fruit, or a sports drink. Protein does not need to be eliminated, but a huge serving of protein, fat, and fiber is usually unnecessary immediately before hard training (Pre-Exercise Nutrition).

Daily planning and cycling

set weekly calorie target
  -> set a protein floor
  -> set a minimum fat intake
  -> place remaining calories into carbohydrates
  -> move more carbohydrates near training if useful
  -> adjust from weight and performance trends

Training days can contain more carbohydrate and calories. Rest days can keep protein constant, reduce carbohydrate modestly, and increase fat or fiber-rich foods if that improves satiety. This is optional calorie and carbohydrate cycling, not a metabolic requirement. Weekly energy intake still determines the weight trend.

A person eating 3,000 calories with about 300 grams of carbohydrate who is losing roughly 0.5 pounds per week does not need to drop to 2,700 simply because a lower number sounds more serious. The highest intake that produces the desired loss is the best cutting intake. Lower calories can reduce performance, movement, mood, sleep, and cognitive bandwidth.

Body composition

Height, weight, body fat, fat-free mass, and activity level all change how a physique and calorie target should be interpreted. Fat-free mass index is calculated as:

fat-free mass = bodyweight × (1 - body-fat fraction)
FFMI = fat-free mass in kilograms / height in meters²

FFMI can normalize fat-free mass for height, but it is only as accurate as the body-fat estimate behind it and is not a muscle-quality score (FFMI reference study). Use weight averages, waist, photos, performance, and clothing fit together instead of reacting to a smart-scale decimal.

Cardio, sleep, and caffeine

Cardio supports health, work capacity, recovery between sets, and energy expenditure. It does not automatically kill gains. Interference depends on modality, frequency, duration, intensity, exercise order, and recovery. An early meta-analysis found more disruption with higher-frequency and longer endurance work, especially running in the included data, than with cycling (Concurrent training).

Useful rules:

• Use cardio for health and activity, not punishment for eating.
• Keep hard lower-body cardio away from the hardest lower-body lifting when possible.
• Prefer low-impact options when joints or recovery are limiting.
• If lifting performance falls, reduce cardio before adding more food restriction.
• Do not treat watch calorie estimates as exact.

Walking, incline treadmill work, cycling, and easy steady-state work can fit well around lifting.

Sleep is part of recovery. In one controlled study, five nights with four hours in bed reduced myoPS compared with normal sleep, while high-intensity interval exercise maintained it (Sleep restriction and myofibrillar protein synthesis). That extreme protocol does not mean one bad night destroys gains, but chronic restriction is a poor trade. Teenagers should generally aim for eight to ten hours.

Caffeine can improve alertness and resistance-training performance through effects on the nervous system and adenosine receptors, but it should remain optional (Effects of Caffeine on Resistance Exercise). Do not use it to hide chronic sleep loss, take more as tolerance rises, or accept worse sleep for a slightly better session. Teenagers should be especially conservative with stimulant products.

How lifting is programmed

Warm-ups and rest

Warm-ups prepare the movement without becoming hidden working volume. Use a light practice set, then a few controlled ramp-up sets with fewer reps as the load rises. Warm-ups should not approach failure.

Rest is part of set quality. A useful starting point is 2 to 4 minutes for heavy compounds, 2 to 3 minutes for stable machine compounds, and 1 to 3 minutes for isolations. Take more rest when the previous set was close to failure or performance is falling. Longer rest supported better strength and hypertrophy than very short rest in resistance-trained men (Longer Interset Rest Periods Enhance Muscle Strength and Hypertrophy).

Frequency and the infinite upper/lower rotation

Training each muscle or joint action at least twice per week is a useful default because frequency distributes hard work and provides more movement practice. When volume is matched, the difference is smaller than internet debates suggest, but frequent exposure often improves set quality.

The distinctive version of this approach is an infinite upper/lower rotation:

Upper -> Lower -> Upper -> Lower ->
  keep going while performance and recovery are acceptable
  insert rest when the system needs one

There is no forced rest day when performance, joints, sleep, and motivation are still good. No-rest does not mean ignoring recovery. It means letting recovery signals decide when the break occurs.

This works best with low volume. Each muscle receives frequent, relatively small exposures instead of one enormous session followed by several days of damage and reduced performance. For the lifter who developed this plan, the deadlift rose from 315 to 405 pounds after switching to the rotation, alongside several other personal records. That is an impressive personal result, not proof that the split is universally superior.

It is the best split for a lifter who enjoys frequent training, recovers well from low volume, and can keep form consistent. It is not a shortcut around sleep, calories, technique, or time.

The first set, order, and intensity

The first hard set for a muscle or joint action is usually the highest-value exposure of the session: the lifter is fresh, neural drive is higher, and fatigue has not changed the movement. Later sets can still help, but they usually carry diminishing returns and higher recovery cost.

This makes exercise order important. The first exercise receives the best attention, stability, load, and technique. Put a priority muscle early and a strong point later. The same weekly volume can produce a different result depending on where it is placed.

Most moderate rep ranges can build muscle when sets are hard and technique is controlled. The School Gym plan uses mostly 4 to 12 reps:

• Compounds: usually 4 to 7 or 5 to 9.
• Stable isolations: usually 7 to 10.
• Smaller or fatigue-sensitive movements: sometimes 8 to 12.

Progressive overload, form, and failure

Progressive overload is not only adding weight. It can mean more reps with the same load, more load with the same reps, better range of motion, cleaner control, greater stability, or making the target muscle do more of the work.

choose a rep range
  -> reach the top with consistent technique
  -> add a small amount of weight
  -> repeat without changing the exercise

Egolifting is shorter range of motion, faster eccentrics, momentum, changed joint angles, or using a stronger muscle to finish. The number rises while the target stimulus may fall.

Form is the constraint that keeps the exercise connected to the chosen muscle. On an incline press, the chest should limit the set rather than triceps locking out early, unstable shoulders, or the lower body changing the movement. On a row, the upper back or lats should limit the set rather than the hips and lower back.

Good form is not one rigid technique. It is repeatable technique that keeps the target tissue loaded, makes progress measurable, and avoids unnecessary joint stress.

Technical failure means another clean rep cannot be completed with the intended range and joint path. Stable isolations can often reach failure. Machine compounds may do so safely. Free-weight compounds should stop at technical failure and leave a rep in reserve when fatigue makes form unsafe.

A meta-analysis found no significant hypertrophy difference between failure and non-failure training across included studies (Resistance training to repetition failure or non-failure). Failure is useful here because low volume requires each set to have a clear endpoint. It is an allocation choice, not a universal law.

Fatigue, deloads, and tracking

Warning signs of accumulated fatigue include repeated performance drops, deteriorating range of motion, unusually heavy warm-ups, persistent joint irritation, poor sleep or appetite, mood changes, and needing more momentum to match previous numbers. One bad session is not overtraining. Check sleep, calories, hydration, stress, and exercise order first.

A deload does not need to be automatic. When fatigue is clearly limiting output, reduce volume by roughly half for several sessions, stay farther from failure, and reduce load if joints or technique need it.

Track exercise, equipment setup, load, reps, range of motion, RIR, bodyweight trend, waist, sleep, pain, and unusual fatigue. The log should answer one question: is the intended muscle receiving more repeatable work over time?

Strength versus hypertrophy

Strength includes muscle size, neural coordination, technique, leverage, confidence, and skill with a specific lift. Someone can get stronger without much new tissue by becoming better at the movement, and a muscle can grow without a large one-repetition maximum increase.

Use strength as evidence of progress, not as permission to change the exercise into a different movement. For hypertrophy, also track reps, load, controlled ROM, target-muscle loading, photos, and measurements.

Muscles, joint actions, and biomechanics

Muscles do not work in isolated boxes. Their contribution changes with joint position, grip, line of pull, stability, and the strength of synergists.

Moment arms and neuromechanical matching

The Neuromechanical Matching: A Biomechanical Overview podcast explains this through moment arms.

A moment arm is the perpendicular distance between a force’s line of action and the joint axis. A longer moment arm gives the force more leverage and creates more torque.

external torque = external force × external moment arm
internal torque = muscle force × internal moment arm

The external moment arm comes from the load, cable, machine arm, gravity, and body position. It is not simply the visible distance from the weight to the joint. The force vector matters.

The internal moment arm is the perpendicular distance from a muscle’s line of pull to the axis of rotation. It changes as the joint moves. Relative leverage compares the internal moment arms of muscles sharing a joint action. During elbow flexion, biceps, brachialis, and brachioradialis all contribute, but their leverage changes with elbow angle and forearm position. Murray, Delp, and Buchanan found substantial variation in elbow-flexor moment arms across the range of motion (Variation of muscle moment arms with elbow and forearm position).

Neuromechanical matching is the idea that neural drive tends to favor the muscle with the best relative leverage for the demanded joint action. The practical rule is:

Make the target muscle’s useful joint action the hardest thing the exercise asks it to do.

This is a guiding principle, not a complete theory. Individual insertions, limb lengths, muscle size, architecture, stability, skill, and synergist strength all matter.

Angles, inhibition, and resistance profiles

One exercise will not challenge every region equally. Incline pressing can bias shoulder flexion and upper-chest fibers, while a fly or press focused on horizontal adduction provides a different line of pull. Lats can be trained through both shoulder extension and adduction. Hamstrings need both hip extension and knee flexion. Triceps can be trained through different shoulder positions and elbow-extension patterns.

Antagonist inhibition and the long head

Reciprocal inhibition can reduce antagonist activity during an action, but co-contraction still helps stabilize joints. The long head of the triceps crosses the shoulder and elbow and contributes to shoulder extension. In this model, a JM press is not treated as a reliable long-head growth movement because the shoulder is flexed and the press-like elbow-extension pattern makes other triceps heads more useful limiters.

A cuffed single-arm pushdown with the humerus close to the body and relatively still removes grip as a limiter and makes elbow extension the main task. In this setup it can bias the long head better than a JM press, and can be more useful than an overhead extension when shoulder stabilization makes the movement difficult to standardize. The exercise that lengthens a muscle most is not automatically the exercise that gives it the most useful tension.

A resistance profile describes where an exercise is hardest:

• Descending: hardest earlier, often closer to the lengthened position.
• Ascending: hardest later, often closer to the shortened position.
• Bell-shaped: hardest around the middle.

same load
  + different force vector
  + different joint position
  -> different external torque

A chest press that is hardest near the lockout can become triceps-limited as chest leverage falls. A descending or middle-loaded profile can keep more of the challenge in the chest’s lengthened-to-mid range, depending on the machine, seat, grip, torso angle, and anatomy. A longer muscle length is useful evidence, not a guarantee: a systematic review found broadly similar hypertrophy across longer and shorter average muscle lengths in included regional measures (Does Muscle Length Influence Regional Hypertrophy?).

Exercise-selection examples

Seated leg curl versus lying leg curl. The hamstrings cross the hip and knee. Hip flexion in the seated curl lengthens the biarticular hamstrings before knee flexion begins. In a 12-week within-person study, seated curls produced greater growth of the whole hamstrings and biarticular muscles than prone curls, while the monoarticular hamstring did not show the same difference (Greater Hamstrings Muscle Hypertrophy). Seated curls are a strong default for biarticular hamstring growth; lying curls can complement them.

Straight-knee versus bent-knee calf raises. The gastrocnemius crosses the knee and ankle. A straight knee lets it contribute strongly while lengthened across the knee. A bent knee reduces its contribution and shifts more work to the soleus, which only crosses the ankle. Standing knee-extended raises produced more gastrocnemius and whole-triceps-surae growth than seated knee-flexed raises, while soleus growth was similar (Triceps surae muscle hypertrophy). Straight-knee work deserves priority for gastrocnemius size; both variations can be used for complete lower-leg development.

Stability. Balancing a dumbbell, controlling a free bar, or keeping the torso still can become the limiting task before the target muscle. Stable machines and cuffs can improve force application, repeatability, and progression. Free weights are not automatically worse: they can train skill and more stabilizers. The best choice is the least complicated setup that lets the intended muscle become the limiter (Free-weight versus machine-based strength training).

The School Gym plan

The plan is documented in School Gym. It uses low volume, high effort, frequent exposures, and different joint-action biases across the week. It contains 48 counted working sets across four sessions. Direct sets are counted separately from overlap, but overlap still informs fatigue.

Upper A: upper chest, upper back, and biceps

Lower A: hamstring focus

Upper B: back, upper chest, and biceps

Lower B: quad focus

Weekly direct-set map

Design logic

• Incline pressing biases shoulder flexion and upper-chest work.
• Rows and pulldowns cover upper-back and lat functions without making every pull identical.
• Recline curls load elbow flexion while the shoulder is extended.
• Cuffed lateral raises reduce grip and body English as limiting factors.
• Stiff-leg deadlifts train hamstrings through hip extension; curls train knee flexion directly.
• Pendulum squats and leg extensions combine compound and stable quad work.
• Straight-knee calf raises prioritize gastrocnemius contribution.
• Exercise order prioritizes a weak point without automatically adding volume.

If an exercise hurts, stops progressing, or is no longer repeatable, change the exercise before assuming the body is broken.

Cutting, bulking, and recomposition

Recomposition is most realistic for new or returning lifters, people with more body fat to lose, or people improving training and protein at the same time. It becomes slower as someone gets leaner and more advanced.

Cut

1. Estimate maintenance from current intake and weight trend.
2. Start with a modest deficit.
3. Set a protein floor and keep lifting.
4. Keep enough carbohydrate for the most important sessions.
5. Judge weekly averages, not daily water changes.
6. Make the smallest adjustment that restores the desired trend.
7. Use a maintenance phase when diet fatigue becomes the main problem.

The highest calorie intake that produces the desired rate of loss is the best cutting intake. Fat loss has a cost in performance, mood, energy, and attention.

Bulk

Use a small surplus so weight gain is gradual and the next cut remains reasonable. Track weight trend, waist, performance, and appetite. If weight rises too quickly, reduce calories. If weight is flat for several weeks and performance is not improving, increase them slightly.

The goal is not to gain as much weight as possible. It is to gain enough to support muscle growth without making the next cut erase the year.

Muscle takes time

Strength can improve quickly from technique, coordination, confidence, and neural adaptation before much new tissue is built. Bodyweight can also rise from glycogen, food volume, inflammation, and water.

A meta-analysis of resistance training in healthy adult men found an average increase of roughly 1.5 kilograms of muscle-related mass across studies lasting from two weeks to one year, with a wide range from no gain to more than 7 kilograms (Resistance training and whole-body muscle growth). The result shows that training works and that individual responses vary. It is not a promise for one person’s next year.

These rough coaching ranges are planning estimates, not scientific ceilings:

The first year usually offers the largest opportunity. Progress slows in years two and three and becomes smaller after several years. Fat-free mass also includes water and glycogen, so measurements cannot prove that a specific amount of contractile muscle was added.

first 8 to 12 weeks -> better skill, strength, work capacity, early visible change
first year          -> large beginner opportunity
years 2 to 3        -> slower but meaningful progress
years 4 and beyond  -> smaller gains requiring more precision

Steroids, peptides, and GLP-1 cutting drugs

Anabolic-androgenic steroids, testosterone used outside prescribed medical treatment, growth hormone, IGF-1, SARMs, and performance-oriented peptide compounds are pharmacological aids. Under the usual bodybuilding definition, using them means the person is no longer natural.

Peptide is not a safety category. Some peptides are approved medicines, some are experimental, and some online products are mislabeled or contaminated. Anabolic steroids can suppress natural hormone production and increase risks involving cholesterol, blood pressure, heart attack, stroke, liver, kidneys, fertility, mood, dependence, and depression after stopping. In adolescents, exogenous hormones can interfere with normal development. NIDA notes that steroid damage can be severe, long-lasting, and sometimes irreversible (Anabolic Steroids and Other Appearance and Performance Enhancing Drugs).

Growth hormone, IGF-1, insulin, SARMs, and experimental peptides have different risk profiles, but stronger effects are not free. Risks can include impaired glucose control, abnormal tissue growth, fluid retention, joint or nerve symptoms, endocrine suppression, organ stress, and unknown long-term effects. Unregulated sources add incorrect concentration, contamination, and injection-related infection.

Semaglutide and tirzepatide are prescription medicines for specific medical indications. Retatrutide, often called reta online, is an investigational triple agonist, not an approved casual cutting compound. The FDA says retatrutide is not a component of an FDA-approved drug and has not been found safe and effective for any condition. It also warns about unapproved or falsely labeled GLP-1 products (FDA’s Concerns with Unapproved GLP-1 Drugs Used for Weight Loss).

GLP-1 drugs are not anabolic muscle-building agents. They reduce appetite and can produce medically valuable weight loss for eligible patients, but rapid weight loss can include lean mass and make it harder to eat enough protein and train well. Nausea, vomiting, diarrhea, constipation, and dehydration are important concerns. A healthy teenager should not use these drugs for cosmetic cutting without medical supervision.

Time, consistency, and effort create elite results

There is no elite outcome without an elite accumulation of ordinary sessions.

Consistency means returning across months and years. Effort means making hard sets demanding while keeping the form that makes them useful. Time allows skill, tissue adaptation, and progressive overload to compound.

time
  × consistency
  × effort
  × recovery
  -> the chance of becoming exceptional

The infinite upper/lower rotation can create many quality exposures, but it cannot replace sleep, calories, technique, or patience. The split may be the best tool for a lifter who thrives on frequent low-volume training. It is not a shortcut around the years required to become elite.

Sources

• Energy balance and its components: implications for body weight regulation, American Society for Nutrition panel review
• Skeletal muscle and resistance exercise training; the role of protein synthesis in recovery and remodeling, Phillips and colleagues
• Protein supplementation and resistance training-induced gains, Morton et al., 2018
• Dietary Fat and Sports Nutrition: A Primer, sports nutrition review
• Low-fat diets and testosterone in men, systematic review and meta-analysis
• Low energy availability, endocrine and performance review
• Role of Skeletal Muscle in Insulin Resistance and Glucose Uptake, Sylow et al., 2021
• Carbohydrates in Sports Nutrition, German Nutrition Society position paper
• Pre-Exercise Nutrition, Ormsbee et al., 2014
• Carbohydrate intake and strength training performance, systematic review
• Fructose co-ingestion to increase carbohydrate availability, sports nutrition review
• Restoration of Muscle Glycogen and Functional Capacity, review
• Concurrent training, Wilson et al., 2012
• Sleep restriction and myofibrillar protein synthesis, Saner et al., 2020
• Effects of Caffeine on Resistance Exercise, Grgic, 2021
• Longer Interset Rest Periods Enhance Muscle Strength and Hypertrophy, Schoenfeld et al., 2016
• Effects of resistance training performed to repetition failure or non-failure, Grgic et al., 2022
• A Systematic Review of The Effects of Different Resistance Training Volumes, Baz-Valle et al., 2022
• Effects of range of motion on muscle development, systematic review
• Does Muscle Length Influence Regional Hypertrophy?, systematic review and meta-analysis
• Does Varying Resistance Exercises Promote Superior Muscle Hypertrophy and Strength Gains?, Kassiano et al., 2022
• Greater Hamstrings Muscle Hypertrophy, Maeo et al., 2021
• Triceps surae muscle hypertrophy, Maeo et al., 2023
• Free-weight versus machine-based strength training, systematic review and meta-analysis
• Variation of muscle moment arms with elbow and forearm position, Murray, Delp, and Buchanan, 1995
• FFMI reference study, fat-free mass index reference data
• Resistance training and whole-body muscle growth, systematic review and meta-analysis
• Anabolic Steroids and Other Appearance and Performance Enhancing Drugs, National Institute on Drug Abuse
• FDA’s Concerns with Unapproved GLP-1 Drugs Used for Weight Loss, U.S. Food and Drug Administration
• Neuromechanical Matching: A Biomechanical Overview, Clark Kent, 2026
• Hypertrophic Principles of Upper Lower Without Rest, Clark Kent, 2026
• School Gym, Ege Uysal’s current training plan