Welcome to The Set & Rep Journal πποΈ
One study. One practical takeaway. No noise.
π Who we are
I'm an exercise physiologist. My job is to read the science so you don't have to β but also to make sure you actually understand it.
No 30-page papers. No overhyped headlines. Just real research, broken down simply.
π― Our purpose
To bridge the gap between the lab and the gym β especially when it comes to resistance training.
Every post will cover one peer-reviewed study on:
Muscle growth πͺ
Strength development ποΈ
Training variables (sets, reps, load, rest, frequency)
And everything in between
π§ How we do it
Each study will include:
What they actually did π§ͺ
What they actually found π
What it means for YOUR training π―
No bro-science. No cherryβpicking. No fearβmongering.
π What you can expect
A new study every [week / 15 days β choose your pace]
Simple infographics or AIβgenerated visuals πΌ
Practical applications you can use in your next workout
π Our first study is coming soon
Hint: it's a classic β and it answers the question "how many sets do I really need?"
Until then β welcome. Grab your notebook. Your journal starts now.
β Your host, exercise physiologist & lifelong student of strength
The Set & Rep Journal
Resistance training, decoded.
One study. One practical takeaway. No noise.
π Who we are
I'm an exercise physiologist. My job is to read the science so you don't have to β but also to make sure you actually understand it.
No 30-page papers. No overhyped headlines. Just real research, broken down simply.
π― Our purpose
To bridge the gap between the lab and the gym β especially when it comes to resistance training.
Every post will cover one peer-reviewed study on:
Muscle growth πͺ
Strength development ποΈ
Training variables (sets, reps, load, rest, frequency)
And everything in between
π§ How we do it
Each study will include:
What they actually did π§ͺ
What they actually found π
What it means for YOUR training π―
No bro-science. No cherryβpicking. No fearβmongering.
π What you can expect
A new study every [week / 15 days β choose your pace]
Simple infographics or AIβgenerated visuals πΌ
Practical applications you can use in your next workout
π Our first study is coming soon
Hint: it's a classic β and it answers the question "how many sets do I really need?"
Until then β welcome. Grab your notebook. Your journal starts now.
β Your host, exercise physiologist & lifelong student of strength
The Set & Rep Journal
Resistance training, decoded.
β€1
The Set & Rep Journal π§ͺππ
Photo
π The Set & Rep Journal | Weekly Evidence-Based Insight No1.
How do muscles actually grow? And whatβs the best way to train for it?
This week, we break down a classic paper by Brad Schoenfeld on the mechanisms of muscle hypertrophy**βone of the most important topics in exercise physiology.
π¬ **The science (simplified):
Muscle growth isnβt driven by just one factor. The research highlights three key mechanisms:
β’ Mechanical Tension β Lifting heavy loads creates high tension in muscle fibers, which is a primary driver of growth.
β’ Muscle Damage β Training causes micro-damage, which can stimulate repair and adaptation (though itβs not the main driver).
β’ Metabolic Stress β The βburnβ you feel (from higher reps, shorter rest) contributes through cellular swelling and metabolic byproducts.
π‘ So what does this mean for your training?
Thereβs no single βperfectβ method.
βοΈ Heavy weights (like powerlifting) β maximize mechanical tension
βοΈ Moderate weights + shorter rest (like bodybuilding) β increase metabolic stress
βοΈ Both approaches can build muscleβjust through different pathways
π Key takeaway:
The most effective programs combine all three mechanisms through smart programming:
* Progressive overload
* Sufficient training volume
* Varied rep ranges and rest intervals
π Bottom line:
You donβt need to pick sides. The best results come from understanding the scienceβand applying it.
---
Follow *The Set & Rep Journal* for weekly breakdowns of research that actually improves your training.
#ExerciseScience #Hypertrophy #StrengthTraining #EvidenceBased #FitnessResearch #GymScience #ResistanceTraining
How do muscles actually grow? And whatβs the best way to train for it?
This week, we break down a classic paper by Brad Schoenfeld on the mechanisms of muscle hypertrophy**βone of the most important topics in exercise physiology.
π¬ **The science (simplified):
Muscle growth isnβt driven by just one factor. The research highlights three key mechanisms:
β’ Mechanical Tension β Lifting heavy loads creates high tension in muscle fibers, which is a primary driver of growth.
β’ Muscle Damage β Training causes micro-damage, which can stimulate repair and adaptation (though itβs not the main driver).
β’ Metabolic Stress β The βburnβ you feel (from higher reps, shorter rest) contributes through cellular swelling and metabolic byproducts.
π‘ So what does this mean for your training?
Thereβs no single βperfectβ method.
βοΈ Heavy weights (like powerlifting) β maximize mechanical tension
βοΈ Moderate weights + shorter rest (like bodybuilding) β increase metabolic stress
βοΈ Both approaches can build muscleβjust through different pathways
π Key takeaway:
The most effective programs combine all three mechanisms through smart programming:
* Progressive overload
* Sufficient training volume
* Varied rep ranges and rest intervals
π Bottom line:
You donβt need to pick sides. The best results come from understanding the scienceβand applying it.
---
Follow *The Set & Rep Journal* for weekly breakdowns of research that actually improves your training.
#ExerciseScience #Hypertrophy #StrengthTraining #EvidenceBased #FitnessResearch #GymScience #ResistanceTraining
β€4
π **THE SET & REP JOURNAL β WEEKLY STUDY BREAKDOWN** No2
π₯ **Does training closer to failure REALLY matter?**
This week we dive into a brand-new meta-analysis (2024) exploring the doseβresponse relationship between proximity to failure (RIR), strength, and muscle hypertrophy.
---
π§ Firstβwhat is RIR?
RIR = *Reps In Reserve*
π 0 RIR = you hit failure
π 2 RIR = you couldβve done 2 more reps
---
π¬ **WHAT THE SCIENCE FOUND:**
ποΈ 1. Strength Gains β NOT very sensitive to RIR
* Strength improved across a wide range of RIR
* Whether you stopped at 0, 2, or even 4+ RIRβ¦
π Results were similar
* All confidence intervals crossed βno effectβ β meaning no clear advantage
π‘ Translation:
You donβt NEED to train to failure to get stronger.
---
πͺ **2. Muscle Hypertrophy β VERY dependent on RIR**
* Clear dose-response relationship
* The closer you train to failureβ¦
β‘οΈ the more muscle growth you get
* Models showed negative slopes β fewer RIR = more hypertrophy
π‘ Translation:
π Effort matters A LOT for muscle growth.
---
π WHY THIS HAPPENS:
Closer to failure =
βοΈ Higher motor unit recruitment
βοΈ Greater fiber activation
βοΈ More mechanical tension across all fibers
π Especially important for maximizing hypertrophy
---
βοΈ PRACTICAL APPLICATION:
ποΈββοΈ For Strength:
* Stay 1β4 RIR most of the time
* Focus on:
βοΈ Progressive overload
βοΈ Good technique
βοΈ Managing fatigue
π₯ For Hypertrophy:
* Spend most sets around 0β2 RIR
* Push close to failure (but not always failure)
* Combine with:
βοΈ Enough volume
βοΈ Controlled tempo
---
π¨ KEY TAKEAWAY:
π Strength β Hypertrophy when it comes to effort
πͺ Strength:
βTrain smart, not always to failureβ
π₯ Hypertrophy:
βTrain HARD, close to failureβ
---
π BOTTOM LINE:
The best programs donβt guess effortβ¦
They CONTROL it using RIR.
---
Follow for weekly breakdowns of real research that actually improves your training π¬πͺ
#Hypertrophy #StrengthTraining #ExerciseScience #RIR #EvidenceBasedFitness #GymScience #TrainingToFailure
π₯ **Does training closer to failure REALLY matter?**
This week we dive into a brand-new meta-analysis (2024) exploring the doseβresponse relationship between proximity to failure (RIR), strength, and muscle hypertrophy.
---
π§ Firstβwhat is RIR?
RIR = *Reps In Reserve*
π 0 RIR = you hit failure
π 2 RIR = you couldβve done 2 more reps
---
π¬ **WHAT THE SCIENCE FOUND:**
ποΈ 1. Strength Gains β NOT very sensitive to RIR
* Strength improved across a wide range of RIR
* Whether you stopped at 0, 2, or even 4+ RIRβ¦
π Results were similar
* All confidence intervals crossed βno effectβ β meaning no clear advantage
π‘ Translation:
You donβt NEED to train to failure to get stronger.
---
πͺ **2. Muscle Hypertrophy β VERY dependent on RIR**
* Clear dose-response relationship
* The closer you train to failureβ¦
β‘οΈ the more muscle growth you get
* Models showed negative slopes β fewer RIR = more hypertrophy
π‘ Translation:
π Effort matters A LOT for muscle growth.
---
π WHY THIS HAPPENS:
Closer to failure =
βοΈ Higher motor unit recruitment
βοΈ Greater fiber activation
βοΈ More mechanical tension across all fibers
π Especially important for maximizing hypertrophy
---
βοΈ PRACTICAL APPLICATION:
ποΈββοΈ For Strength:
* Stay 1β4 RIR most of the time
* Focus on:
βοΈ Progressive overload
βοΈ Good technique
βοΈ Managing fatigue
π₯ For Hypertrophy:
* Spend most sets around 0β2 RIR
* Push close to failure (but not always failure)
* Combine with:
βοΈ Enough volume
βοΈ Controlled tempo
---
π¨ KEY TAKEAWAY:
π Strength β Hypertrophy when it comes to effort
πͺ Strength:
βTrain smart, not always to failureβ
π₯ Hypertrophy:
βTrain HARD, close to failureβ
---
π BOTTOM LINE:
The best programs donβt guess effortβ¦
They CONTROL it using RIR.
---
Follow for weekly breakdowns of real research that actually improves your training π¬πͺ
#Hypertrophy #StrengthTraining #ExerciseScience #RIR #EvidenceBasedFitness #GymScience #TrainingToFailure
π **THE SET & REP JOURNAL β WEEKLY STUDY BREAKDOWN**
No3
π₯ **Which HIIT method is actually better? Orβ¦ are they all the same?**
This week we break down a study comparing 3 different high-intensity training protocols and their effects on:
πͺ Body composition
β€οΈ Cardiorespiratory fitness
π§ Neuromuscular performance
---
## π¬ **THE PROTOCOLS (8 WEEKS)**
πββοΈ VICT (Continuous Training)
β’ 28 min steady at ~70% VOβpeak
β’ β No rest (continuous effort)
β±οΈ LI-HIIT (Long Intervals)
β’ 6 Γ 2 min @ ~85% VOβpeak
β’ π Rest: ~1β3 min between intervals
β’ π΅ Higher perceived effort (RPE β)
β‘οΈ SI-HIIT (Short Intervals)
β’ 12 Γ 30 sec @ ~125% max power
β’ β³ Rest: ~30β60 sec between intervals
β’ π Lower RPE despite high intensity bursts
---
## π **WHAT HAPPENED AFTER 8 WEEKS?**
π VOβpeak β β 14%
πͺ Muscle endurance β β 12%
ποΈ Strength (knee extensors) β β 1β3%
π§ Neural activation β β 1β3%
βοΈ Lean mass β β 1β3%
π¨ No significant differences between protocols
π Yesβ¦ ALL methods worked equally well.
---
## π§ KEY INSIGHT
Even though:
* LI-HIIT felt harder π΅
* SI-HIIT was shorter β±οΈ
* VICT was continuous πββοΈ
π They all produced similar physiological adaptations
---
## β±οΈ WHY REST STRUCTURE MATTERS
Different rest = different stimulus:
β’ Short rest (SI-HIIT) β more metabolic stress π₯
β’ Longer rest (LI-HIIT) β higher sustained intensity β€οΈ
β’ No rest (VICT) β steady cardiovascular load πββοΈ
π But when total stimulus is matchedβ¦
your body adapts similarly
---
## π‘ **PRACTICAL APPLICATION**
β³ Short on time?
β SI-HIIT (~12 min) = efficient & effective
π₯ Want a tough session?
β LI-HIIT = higher effort (RPE β)
πββοΈ Prefer steady training?
β VICT = simple & reliable
---
## π BOTTOM LINE
π There is NO βbestβ HIIT method
π The best method is the one you can stick to consistently
---
π **Train smart. Stay consistent. Let science guide you.**
Follow The Set & Rep Journal for weekly research breakdowns π¬πͺ
#HIIT #ExerciseScience #VO2max #CardioTraining #FitnessResearch #EvidenceBased #EnduranceTraining
No3
π₯ **Which HIIT method is actually better? Orβ¦ are they all the same?**
This week we break down a study comparing 3 different high-intensity training protocols and their effects on:
πͺ Body composition
β€οΈ Cardiorespiratory fitness
π§ Neuromuscular performance
---
## π¬ **THE PROTOCOLS (8 WEEKS)**
πββοΈ VICT (Continuous Training)
β’ 28 min steady at ~70% VOβpeak
β’ β No rest (continuous effort)
β±οΈ LI-HIIT (Long Intervals)
β’ 6 Γ 2 min @ ~85% VOβpeak
β’ π Rest: ~1β3 min between intervals
β’ π΅ Higher perceived effort (RPE β)
β‘οΈ SI-HIIT (Short Intervals)
β’ 12 Γ 30 sec @ ~125% max power
β’ β³ Rest: ~30β60 sec between intervals
β’ π Lower RPE despite high intensity bursts
---
## π **WHAT HAPPENED AFTER 8 WEEKS?**
π VOβpeak β β 14%
πͺ Muscle endurance β β 12%
ποΈ Strength (knee extensors) β β 1β3%
π§ Neural activation β β 1β3%
βοΈ Lean mass β β 1β3%
π¨ No significant differences between protocols
π Yesβ¦ ALL methods worked equally well.
---
## π§ KEY INSIGHT
Even though:
* LI-HIIT felt harder π΅
* SI-HIIT was shorter β±οΈ
* VICT was continuous πββοΈ
π They all produced similar physiological adaptations
---
## β±οΈ WHY REST STRUCTURE MATTERS
Different rest = different stimulus:
β’ Short rest (SI-HIIT) β more metabolic stress π₯
β’ Longer rest (LI-HIIT) β higher sustained intensity β€οΈ
β’ No rest (VICT) β steady cardiovascular load πββοΈ
π But when total stimulus is matchedβ¦
your body adapts similarly
---
## π‘ **PRACTICAL APPLICATION**
β³ Short on time?
β SI-HIIT (~12 min) = efficient & effective
π₯ Want a tough session?
β LI-HIIT = higher effort (RPE β)
πββοΈ Prefer steady training?
β VICT = simple & reliable
---
## π BOTTOM LINE
π There is NO βbestβ HIIT method
π The best method is the one you can stick to consistently
---
π **Train smart. Stay consistent. Let science guide you.**
Follow The Set & Rep Journal for weekly research breakdowns π¬πͺ
#HIIT #ExerciseScience #VO2max #CardioTraining #FitnessResearch #EvidenceBased #EnduranceTraining
β€4π2
The Set & Rep Journal π§ͺππ
Photo
π© Extra Insight from The Set & Rep Journal
After some great feedback and questions from our subscribers π, one topic came up that we didnβt explicitly cover in the infographic:
π βHow often should I perform these HIIT protocols?β
Letβs break it down with science + practical application π¬π
---
## π§ What did the study actually do?
Participants followed the protocols for 8 weeks, but like most exercise studies:
βοΈ Frequency was controlled but not the main variable studied
π Typically performed ~2β3 sessions per week
---
## π Evidence-based recommendation
Based on:
* This study
* Broader HIIT literature
* Recovery physiology
π A smart frequency is:
### β 2β3 HIIT sessions per week
Why?
βοΈ Allows enough stimulus for adaptation
βοΈ Gives time for recovery (central + muscular)
βοΈ Helps maintain performance quality in each session
---
## βοΈ Can you do more?
Yesβbut hereβs the catch:
πΊ 3β4+ sessions/week
* Possible for trained individuals
* BUT increases fatigue risk π΅
* May reduce session quality
π» 1β2 sessions/week
* Still effective for beginners
* Great for combining with strength training πͺ
---
## π₯ How to choose based on your goal
πͺ Hypertrophy + Strength focus
β 1β2 HIIT sessions/week (support work)
β€οΈ Cardio / VOβmax focus
β 2β3 HIIT sessions/week
β³ General fitness / lifestyle
β 2 sessions/week is more than enough
---
## π Key takeaway
π HIIT is powerfulβ¦ but also demanding
π More is NOT always better
π Better is: high-quality sessions + proper recovery
---
Appreciate the questionβthis is exactly the kind of discussion that makes this community stronger π
Keep them coming π¬πͺ
After some great feedback and questions from our subscribers π, one topic came up that we didnβt explicitly cover in the infographic:
π βHow often should I perform these HIIT protocols?β
Letβs break it down with science + practical application π¬π
---
## π§ What did the study actually do?
Participants followed the protocols for 8 weeks, but like most exercise studies:
βοΈ Frequency was controlled but not the main variable studied
π Typically performed ~2β3 sessions per week
---
## π Evidence-based recommendation
Based on:
* This study
* Broader HIIT literature
* Recovery physiology
π A smart frequency is:
### β 2β3 HIIT sessions per week
Why?
βοΈ Allows enough stimulus for adaptation
βοΈ Gives time for recovery (central + muscular)
βοΈ Helps maintain performance quality in each session
---
## βοΈ Can you do more?
Yesβbut hereβs the catch:
πΊ 3β4+ sessions/week
* Possible for trained individuals
* BUT increases fatigue risk π΅
* May reduce session quality
π» 1β2 sessions/week
* Still effective for beginners
* Great for combining with strength training πͺ
---
## π₯ How to choose based on your goal
πͺ Hypertrophy + Strength focus
β 1β2 HIIT sessions/week (support work)
β€οΈ Cardio / VOβmax focus
β 2β3 HIIT sessions/week
β³ General fitness / lifestyle
β 2 sessions/week is more than enough
---
## π Key takeaway
π HIIT is powerfulβ¦ but also demanding
π More is NOT always better
π Better is: high-quality sessions + proper recovery
---
Appreciate the questionβthis is exactly the kind of discussion that makes this community stronger π
Keep them coming π¬πͺ
π4π2
π THE SET & REP JOURNAL β WEEKLY STUDY BREAKDOWN
No4.
π₯ More sets? More days? What actually builds more muscle & strength?
This week we break down a large meta-analysis (67 studies, 2000+ participants) exploring how:
ποΈ Weekly training volume (sets)
π Weekly training frequency (sessions)
affect muscle hypertrophy and strength gains
---
## π¬ THE BIG QUESTION
π Is more always better?
π And does frequency matter as much as volume?
---
## π KEY FINDINGS
### πͺ 1. Volume = KING for muscle growth
π More weekly sets β more hypertrophy
β 100% probability of a positive relationship
BUTβ¦
β οΈ Diminishing returns exist
* Gains slow down after ~20β30 sets per muscle/week
* More is not always betterβ¦ just more fatigue π΅
---
### ποΈ 2. Volume also increases strength
π More volume β more strength
BUTβ¦
β οΈ Even bigger diminishing returns
* Strength plateaus earlier than hypertrophy
* Excess volume = lower efficiency
---
### π 3. Frequency = Different story
πͺ Hypertrophy
β No clear benefit of higher frequency
π You can grow with 1β3 sessions/week per muscle
ποΈ Strength
β Higher frequency helps
π More practice = better neural adaptations
BUTβ¦
β οΈ Still diminishing returns
---
## π§ WHY THIS HAPPENS
β’ Volume β drives mechanical tension + stimulus accumulation
β’ Frequency β improves skill, coordination, neural efficiency
π Thatβs why:
* Hypertrophy depends more on total work
* Strength depends on practice + exposure
---
## βοΈ PRACTICAL APPLICATION
### πͺ For Hypertrophy
βοΈ 10β20 sets / muscle / week
βοΈ Up to ~20β30 if advanced
βοΈ Frequency: flexible (1β3x/week)
π Focus on total weekly volume
---
### ποΈ For Strength
βοΈ 6β15 sets / muscle / week
βοΈ Frequency: 2β5x/week
βοΈ Spread volume across sessions
π Focus on both volume AND frequency
---
## π¨ KEY TAKEAWAY
π Volume and frequency are NOT equal
πͺ Hypertrophy β Volume is the driver
ποΈ Strength β Volume + Frequency both matter
---
## π BOTTOM LINE
π Do enough volume to grow
π Use frequency to manage fatigue and improve performance
π Smart programming > just doing more
---
Follow The Set & Rep Journal for weekly science-based insights π¬πͺ
#Hypertrophy #StrengthTraining #ExerciseScience #TrainingVolume #WorkoutScience #EvidenceBasedFitness #GymScience
No4.
π₯ More sets? More days? What actually builds more muscle & strength?
This week we break down a large meta-analysis (67 studies, 2000+ participants) exploring how:
ποΈ Weekly training volume (sets)
π Weekly training frequency (sessions)
affect muscle hypertrophy and strength gains
---
## π¬ THE BIG QUESTION
π Is more always better?
π And does frequency matter as much as volume?
---
## π KEY FINDINGS
### πͺ 1. Volume = KING for muscle growth
π More weekly sets β more hypertrophy
β 100% probability of a positive relationship
BUTβ¦
β οΈ Diminishing returns exist
* Gains slow down after ~20β30 sets per muscle/week
* More is not always betterβ¦ just more fatigue π΅
---
### ποΈ 2. Volume also increases strength
π More volume β more strength
BUTβ¦
β οΈ Even bigger diminishing returns
* Strength plateaus earlier than hypertrophy
* Excess volume = lower efficiency
---
### π 3. Frequency = Different story
πͺ Hypertrophy
β No clear benefit of higher frequency
π You can grow with 1β3 sessions/week per muscle
ποΈ Strength
β Higher frequency helps
π More practice = better neural adaptations
BUTβ¦
β οΈ Still diminishing returns
---
## π§ WHY THIS HAPPENS
β’ Volume β drives mechanical tension + stimulus accumulation
β’ Frequency β improves skill, coordination, neural efficiency
π Thatβs why:
* Hypertrophy depends more on total work
* Strength depends on practice + exposure
---
## βοΈ PRACTICAL APPLICATION
### πͺ For Hypertrophy
βοΈ 10β20 sets / muscle / week
βοΈ Up to ~20β30 if advanced
βοΈ Frequency: flexible (1β3x/week)
π Focus on total weekly volume
---
### ποΈ For Strength
βοΈ 6β15 sets / muscle / week
βοΈ Frequency: 2β5x/week
βοΈ Spread volume across sessions
π Focus on both volume AND frequency
---
## π¨ KEY TAKEAWAY
π Volume and frequency are NOT equal
πͺ Hypertrophy β Volume is the driver
ποΈ Strength β Volume + Frequency both matter
---
## π BOTTOM LINE
π Do enough volume to grow
π Use frequency to manage fatigue and improve performance
π Smart programming > just doing more
---
Follow The Set & Rep Journal for weekly science-based insights π¬πͺ
#Hypertrophy #StrengthTraining #ExerciseScience #TrainingVolume #WorkoutScience #EvidenceBasedFitness #GymScience
π5π₯2
π THE SET & REP JOURNAL β WEEKLY STUDY BREAKDOWN
No5
π₯ Is there REALLY a limit to how much protein your body can use after training?
For years, the fitness industry repeated the same idea:
β βYou can only absorb/use 20β30 g of protein per mealβ
β βAnything above that is wastedβ
This new study completely challenges that belief π¬
---
## π§ͺ THE STUDY
Researchers compared:
π₯€ 25 g protein vs 100 g protein
after resistance exercise
Using an advanced quadruple isotope tracer methodology to directly measure:
β Muscle protein synthesis
β Whole-body protein balance
β Amino acid incorporation into muscle
β Amino acid oxidation
β Protein breakdown
---
## π WHAT THEY FOUND
### πͺ 1. MORE PROTEIN = GREATER MUSCLE BUILDING RESPONSE
The 100 g dose produced:
β¬οΈ Greater amino acid availability
β¬οΈ Greater muscle protein synthesis
β¬οΈ Greater whole-body anabolic response
β¦and the effect lasted for:
β³ MORE THAN 12 HOURS
---
### π¨ 2. THERE WAS NO βUPPER LIMITβ OBSERVED
The anabolic response:
π continued increasing with higher protein intake
Meaning:
π The body kept USING the amino acids
π They were NOT simply βwastedβ
---
### π₯ 3. EXTRA PROTEIN WAS NOT SIGNIFICANTLY OXIDIZED
One of the most important findings:
β Large protein doses did NOT meaningfully increase amino acid oxidation
Translation:
π The body was still utilizing the protein for anabolic processes
---
## π§ WHY THIS CHANGES EVERYTHING
For years:
* 20β30 g protein was considered the βmax effective doseβ
This study suggests reality is more nuanced:
β Larger protein doses can sustain muscle protein synthesis for longer
β The anabolic response is dose-dependent
β Recovery nutrition may have been underestimated
---
## βοΈ IMPORTANT SCIENTIFIC NUANCE
π¨ This study does NOT mean:
β βUnlimited protein is always betterβ
β βEveryone should consume 100 g shakesβ
BUTβ¦
β It DOES challenge the idea that protein above ~30 g is automatically wasted
---
## π‘ PRACTICAL APPLICATION
ποΈββοΈ For lifters training hard:
* Larger protein meals may support recovery better than previously thought
* Especially during:
βοΈ High training volumes
βοΈ Long recovery windows
βοΈ Caloric deficits
βοΈ Muscle-building phases
---
## π½ SO HOW MUCH PROTEIN SHOULD YOU EAT?
π The answer probably depends on:
* Body size
* Training load
* Meal timing
* Daily protein intake
* Recovery demands
π But the β30 g ceilingβ is likely too simplistic.
---
## π BOTTOM LINE
πͺ Your body can utilize much more protein post-exercise than we once believed.
π Bigger protein doses may:
β Extend the anabolic response
β Improve net protein balance
β Support recovery for many hours after training
---
π¬ Science evolves.
And so should our nutrition recommendations.
Follow The Set & Rep Journal for weekly evidence-based breakdowns πͺπ
#Protein #MuscleGrowth #Hypertrophy #SportsNutrition #ExerciseScience #EvidenceBasedFitness #ResistanceTraining
No5
π₯ Is there REALLY a limit to how much protein your body can use after training?
For years, the fitness industry repeated the same idea:
β βYou can only absorb/use 20β30 g of protein per mealβ
β βAnything above that is wastedβ
This new study completely challenges that belief π¬
---
## π§ͺ THE STUDY
Researchers compared:
π₯€ 25 g protein vs 100 g protein
after resistance exercise
Using an advanced quadruple isotope tracer methodology to directly measure:
β Muscle protein synthesis
β Whole-body protein balance
β Amino acid incorporation into muscle
β Amino acid oxidation
β Protein breakdown
---
## π WHAT THEY FOUND
### πͺ 1. MORE PROTEIN = GREATER MUSCLE BUILDING RESPONSE
The 100 g dose produced:
β¬οΈ Greater amino acid availability
β¬οΈ Greater muscle protein synthesis
β¬οΈ Greater whole-body anabolic response
β¦and the effect lasted for:
β³ MORE THAN 12 HOURS
---
### π¨ 2. THERE WAS NO βUPPER LIMITβ OBSERVED
The anabolic response:
π continued increasing with higher protein intake
Meaning:
π The body kept USING the amino acids
π They were NOT simply βwastedβ
---
### π₯ 3. EXTRA PROTEIN WAS NOT SIGNIFICANTLY OXIDIZED
One of the most important findings:
β Large protein doses did NOT meaningfully increase amino acid oxidation
Translation:
π The body was still utilizing the protein for anabolic processes
---
## π§ WHY THIS CHANGES EVERYTHING
For years:
* 20β30 g protein was considered the βmax effective doseβ
This study suggests reality is more nuanced:
β Larger protein doses can sustain muscle protein synthesis for longer
β The anabolic response is dose-dependent
β Recovery nutrition may have been underestimated
---
## βοΈ IMPORTANT SCIENTIFIC NUANCE
π¨ This study does NOT mean:
β βUnlimited protein is always betterβ
β βEveryone should consume 100 g shakesβ
BUTβ¦
β It DOES challenge the idea that protein above ~30 g is automatically wasted
---
## π‘ PRACTICAL APPLICATION
ποΈββοΈ For lifters training hard:
* Larger protein meals may support recovery better than previously thought
* Especially during:
βοΈ High training volumes
βοΈ Long recovery windows
βοΈ Caloric deficits
βοΈ Muscle-building phases
---
## π½ SO HOW MUCH PROTEIN SHOULD YOU EAT?
π The answer probably depends on:
* Body size
* Training load
* Meal timing
* Daily protein intake
* Recovery demands
π But the β30 g ceilingβ is likely too simplistic.
---
## π BOTTOM LINE
πͺ Your body can utilize much more protein post-exercise than we once believed.
π Bigger protein doses may:
β Extend the anabolic response
β Improve net protein balance
β Support recovery for many hours after training
---
π¬ Science evolves.
And so should our nutrition recommendations.
Follow The Set & Rep Journal for weekly evidence-based breakdowns πͺπ
#Protein #MuscleGrowth #Hypertrophy #SportsNutrition #ExerciseScience #EvidenceBasedFitness #ResistanceTraining
β€2π2π1
π THE SET & REP JOURNAL β WEEKLY STUDY BREAKDOWN
No6.
π₯ What is the BEST warm-up strategy for performance?
Most people warm up randomly:
β a few static stretches
β some treadmill walking
β maybe one light setβ¦
But science shows that the structure of your warm-up can directly affect:
ποΈ Strength
β‘οΈ Power
π Speed & agility
π§ Neural readiness
π‘ Injury risk
This week we break down a systematic review on warm-up strategies and what actually works π¬
---
# π§ THE MAIN FINDING
β Dynamic and sport-specific warm-ups consistently improved performance
Especially for:
β‘οΈ Explosive power
π Sprinting
π€Έ Agility
ποΈ Strength production
---
# π¨ STATIC VS DYNAMIC STRETCHING
## β Dynamic stretching:
βοΈ Improves performance
βοΈ Increases muscle temperature
βοΈ Enhances neural activation
βοΈ Improves movement readiness
Examples:
* Leg swings
* Lunges
* Arm circles
* Skips
* Dynamic mobility drills
---
## β οΈ Static stretching (BEFORE performance):
β May reduce:
* explosive strength
* sprint performance
* power output
Why?
π Long passive holds can temporarily reduce neural drive and stiffness needed for explosive actions.
BUTβ¦
β Static stretching is STILL useful:
* AFTER training
* Separate mobility sessions
* Improving flexibility long term
---
# β±οΈ HOW LONG SHOULD A WARM-UP BE?
π Sweet spot:
## π 10β20 minutes
Why?
βοΈ Enough time to increase:
* body temperature
* blood flow
* muscle activation
* readiness
β Too short (<10 min):
β insufficient preparation
β Too long (>20 min):
β unnecessary fatigue
---
# π₯ WHAT SHOULD A GOOD WARM-UP INCLUDE?
## β THE IDEAL STRUCTURE
### 1οΈβ£ General Preparation (2β5 min)
π Light cardio
* bike
* jog
* row
* jump rope
Goal:
β¬οΈ Increase body temperature
---
### 2οΈβ£ Mobility & Activation (3β5 min)
π§ Activate key muscles:
* glutes
* core
* scapula
* hips
Examples:
βοΈ Band walks
βοΈ Dynamic mobility
βοΈ Activation drills
---
### 3οΈβ£ Movement Preparation (5β8 min)
ποΈ Sport-specific movement patterns
Examples:
βοΈ Technique drills
βοΈ Dynamic movements
βοΈ Practice sets
---
### 4οΈβ£ Performance Priming (3β5 min)
β‘οΈ Prepare the nervous system
Examples:
βοΈ Accelerations
βοΈ Jumps
βοΈ Plyometrics
βοΈ Fast explosive reps
---
# π WHAT ABOUT INTENSITY?
Warm-ups should be:
π progressive
General guideline:
* Start light
* Gradually increase intensity
* Finish feeling:
β primed
β not fatigued
---
# π KEY TAKEAWAYS
β Dynamic warm-ups > static warm-ups for performance
β Sport-specific preparation matters most
β 10β20 min is the optimal duration
β Warm-up should progress from general β specific
β Static stretching is better AFTER training
---
# π§ BOTTOM LINE
A warm-up is NOT just βgetting sweaty.β
π Itβs a performance tool.
The best warm-ups:
βοΈ increase readiness
βοΈ improve force production
βοΈ enhance movement quality
βοΈ reduce injury risk
---
π₯ Warm up smarter. Perform better.
Follow The Set & Rep Journal for weekly evidence-based exercise science content π¬πͺ
#WarmUp #SportsScience #StrengthTraining #AthleticPerformance #ExerciseScience #Mobility #EvidenceBasedFitness
No6.
π₯ What is the BEST warm-up strategy for performance?
Most people warm up randomly:
β a few static stretches
β some treadmill walking
β maybe one light setβ¦
But science shows that the structure of your warm-up can directly affect:
ποΈ Strength
β‘οΈ Power
π Speed & agility
π§ Neural readiness
π‘ Injury risk
This week we break down a systematic review on warm-up strategies and what actually works π¬
---
# π§ THE MAIN FINDING
β Dynamic and sport-specific warm-ups consistently improved performance
Especially for:
β‘οΈ Explosive power
π Sprinting
π€Έ Agility
ποΈ Strength production
---
# π¨ STATIC VS DYNAMIC STRETCHING
## β Dynamic stretching:
βοΈ Improves performance
βοΈ Increases muscle temperature
βοΈ Enhances neural activation
βοΈ Improves movement readiness
Examples:
* Leg swings
* Lunges
* Arm circles
* Skips
* Dynamic mobility drills
---
## β οΈ Static stretching (BEFORE performance):
β May reduce:
* explosive strength
* sprint performance
* power output
Why?
π Long passive holds can temporarily reduce neural drive and stiffness needed for explosive actions.
BUTβ¦
β Static stretching is STILL useful:
* AFTER training
* Separate mobility sessions
* Improving flexibility long term
---
# β±οΈ HOW LONG SHOULD A WARM-UP BE?
π Sweet spot:
## π 10β20 minutes
Why?
βοΈ Enough time to increase:
* body temperature
* blood flow
* muscle activation
* readiness
β Too short (<10 min):
β insufficient preparation
β Too long (>20 min):
β unnecessary fatigue
---
# π₯ WHAT SHOULD A GOOD WARM-UP INCLUDE?
## β THE IDEAL STRUCTURE
### 1οΈβ£ General Preparation (2β5 min)
π Light cardio
* bike
* jog
* row
* jump rope
Goal:
β¬οΈ Increase body temperature
---
### 2οΈβ£ Mobility & Activation (3β5 min)
π§ Activate key muscles:
* glutes
* core
* scapula
* hips
Examples:
βοΈ Band walks
βοΈ Dynamic mobility
βοΈ Activation drills
---
### 3οΈβ£ Movement Preparation (5β8 min)
ποΈ Sport-specific movement patterns
Examples:
βοΈ Technique drills
βοΈ Dynamic movements
βοΈ Practice sets
---
### 4οΈβ£ Performance Priming (3β5 min)
β‘οΈ Prepare the nervous system
Examples:
βοΈ Accelerations
βοΈ Jumps
βοΈ Plyometrics
βοΈ Fast explosive reps
---
# π WHAT ABOUT INTENSITY?
Warm-ups should be:
π progressive
General guideline:
* Start light
* Gradually increase intensity
* Finish feeling:
β primed
β not fatigued
---
# π KEY TAKEAWAYS
β Dynamic warm-ups > static warm-ups for performance
β Sport-specific preparation matters most
β 10β20 min is the optimal duration
β Warm-up should progress from general β specific
β Static stretching is better AFTER training
---
# π§ BOTTOM LINE
A warm-up is NOT just βgetting sweaty.β
π Itβs a performance tool.
The best warm-ups:
βοΈ increase readiness
βοΈ improve force production
βοΈ enhance movement quality
βοΈ reduce injury risk
---
π₯ Warm up smarter. Perform better.
Follow The Set & Rep Journal for weekly evidence-based exercise science content π¬πͺ
#WarmUp #SportsScience #StrengthTraining #AthleticPerformance #ExerciseScience #Mobility #EvidenceBasedFitness
π4
