Life After The Knife

⚾️Facts

The 42% Problem No One Is Tracking in Youth Baseball ⚠️⚾️

We’re missing almost HALF of a pitcher’s workload… and wondering why arm injuries keep rising.

👉 42.5% of pitches are going completely uncounted
👉 104 rest days are being missed
👉 90% of teams are already violating guidelines

And here’s the truth most people don’t realize 👇

A bullpen pitch = a game pitch.
Same torque. Same stress. Same risk.

But current systems?
They only count what happens under the lights.

🚨 That means:
Warm-ups. Bullpens. Practice throws.
= invisible workload.

⚾️ As a sports PT working with overhead athletes every day, this is what I see:

Fatigue isn’t coming from ONE outing…
It’s coming from everything that isn’t being tracked.

✅ What needs to change:

• Count ALL pitches (not just games)
• Enforce real guidelines (not just suggest them)
• Track workload → THEN assign rest

Because if you’re not tracking it…
👉 you can’t manage it
👉 you can’t protect it

💡 This is EXACTLY why I built systems like ARMED — to help players, parents, and coaches actually SEE true workload and make smarter decisions.

👊 If you care about keeping kids healthy in baseball:

📌 Save this
📤 Share with a coach or parent
💬 Drop a “⚾️” if you agree ALL pitches should count

Let’s change the way we protect young arms.

⚠️ Youth baseball has a hidden injury problem.

A recent study analyzing 100 teams, 1,046 pitchers, and 2,439 games found something alarming:

➡️ Over 90% of teams violated Pitch Smart guidelines during tournaments.

Let that sink in.

Despite years of education about pitch counts and arm health, the majority of youth pitchers are still being exposed to dangerous workloads.

Here are the biggest issues the data revealed:

⚾ Nearly half of pitchers had at least one violation
⚾ Inadequate rest was the most common problem
⚾ The youngest pitchers (8U) had the highest violation rates
⚾ Playing ≥5 consecutive games more than doubled violation risk
⚾ A small group of pitchers carried most of the workload

This isn’t just about pitch counts.

It’s about tournament structure, game density, and workload distribution.

Too often the best pitcher throws multiple games, multiple days, and multiple tournaments.

And young arms pay the price.

As coaches, parents, and clinicians, we have to start thinking differently about how workload is managed — not just how many pitches are thrown in one game.

Protecting young arms requires:

✔️ Better education
✔️ Smarter scheduling
✔️ Enforcing rest guidelines
✔️ Tracking workload across teams and tournaments

Youth baseball is incredible for kids.

But development should never come at the cost of long-term health.

👇 I’m curious about your experience.

Have you seen pitchers throw multiple games in the same tournament weekend?

Tag a coach, parent, or player who should see this.

⚾️ Are pitchers overloaded before the season even starts?

New research on NCAA D1 pitchers suggests the answer might be yes.

📊 In this study, pitchers averaged ~2,000 throws during a 6-week preseason — and their acute:chronic workload ratio (ACWR) exceeded the injury risk threshold in 4 of the 6 weeks.

That matters because:

• 49% of baseball injuries involve the upper extremity
• 75% of time lost comes from arm injuries
• Injury rates spike at the start of the season

The problem?
Pitch counts only tell part of the story.

They miss:
⚠️ Bullpens
⚠️ Warm-ups
⚠️ Practice throws
⚠️ High-effort throws outside games

Without tracking total workload, it’s easy for pitchers to unknowingly drift into the danger zone.

🧠 The solution isn’t less throwing — it’s smarter workload progression.

Gradually building capacity while keeping weekly spikes under control can dramatically reduce arm stress.

That’s exactly why I built ARMED.

📱 ARMED helps pitchers, coaches, and parents:
• Track total throwing workload
• Monitor acute vs chronic load
• Identify risk spikes before injuries happen

Because protecting arms shouldn’t rely on guesswork.

🔗 ARMED app — link in bio

⚾️ Do pitch count rules actually prevent injuries?

A massive national study tracking 1.5M+ high school athlete exposures across 6 seasons gives us a clearer answer.

Here’s what matters most:

✅ Consecutive day rest rules
✅ Daily pitch limits (≤105 pitches)
✅ Age-appropriate limits for JV vs Varsity
✅ Maintaining limits in postseason

When these rules are followed, shoulder and elbow injuries drop significantly.

But here’s the problem…

Most pitchers don’t throw in just one league anymore.
High school, travel ball, showcases, tournaments — workload stacks quickly.

That’s where injuries happen.

⚠️ Pitch counts only work if someone is actually tracking them across teams and seasons.

That’s exactly why I built ARMED.

📲 ARMED helps players, parents, and coaches:
• Track pitch counts and workload
• Monitor fatigue and recovery
• Prevent dangerous overuse patterns

➡️ Link in bio to download ARMED and start protecting young arms.

👨‍👩‍👦 Parents & Coaches:
Are pitch counts actually being tracked across ALL teams your pitcher plays for?

👇 Let me know in the comments.

⚾ What actually drives elbow stress in adolescent pitchers?

A recent biomechanics study looked at 43 high-school pitchers (ages 15–18) using full 3D motion capture and isokinetic strength testing to better understand how shoulder ROM and strength relate to elbow valgus torque and shoulder forces during pitching.

Here are a few findings that stood out to me as a sports physical therapist working with throwing athletes:

📉 Total Arc ROM matters.
Pitchers with reduced total arc of shoulder rotation demonstrated higher elbow valgus torque.
Even a ≥5° deficit in total arc increased elbow injury risk ~2.6×.

💪 IR strength is a double-edged sword.
Greater internal rotation strength predicted:
• Higher IR torque
• Higher ball velocity

But also…
• Greater joint stress

Performance and stress appear to rise together.

🛑 ER strength predicts deceleration demand.
Greater ER strength correlated with higher shoulder distraction forces, emphasizing the load placed on the posterior rotator cuff during deceleration.

📊 Clinical takeaway:
If you work with pitchers, it’s not just about isolated ER or IR measures.

We should be monitoring:
✔ Total arc of shoulder motion
✔ ER strength (posterior cuff capacity)
✔ IR strength (performance driver)
✔ Throwing workload

The goal isn’t just velocity — it’s durable velocity.

Studies like this reinforce something many of us see clinically:
Mobility + strength + workload management all interact to influence arm stress.

Curious to hear from others working in baseball:

➡️ Do you routinely track total arc ROM throughout the season?

PitchingDevelopment SportsScience

🚨 LITTLE LEAGUE SHOULDER: The Injury Every Baseball Parent Should Know ⚾️

Kids aren’t just “small adults.”
Their shoulders are built differently — and that’s exactly why Little League Shoulder happens.

Inside a young athlete’s shoulder is a growth plate at the top of the humerus.
That growth plate is the weakest link during throwing.

Now combine that with:

⚾ Extreme rotational forces during pitching
📈 Too many throws without enough recovery
🗓️ Year-round baseball with no offseason

…and that growth plate starts to get irritated and widen.

That’s Little League Shoulder.

🚩 Common signs to watch for:

• Shoulder pain when throwing
• Velocity suddenly dropping
• Loss of control or accuracy
• Pain after games or the next morning

The good news?

✔️ When caught early, most athletes recover fully
✔️ Proper rest + arm care + workload management gets them back safely

The bad news?

Ignoring it can lead to longer shutdowns and bigger problems later.

🧠 Remember:
Healthy arms aren’t built with more throwing —
they’re built with smart workloads and strong shoulders.

👇 Parents & coaches:
How many months per year are your players throwing?

SportsPT BaseballHealth PitchSmart YouthPitching

The Most Crowded Real Estate in the Shoulder 💥

The front of the humerus is a high-traffic attachment zone 🚦
And when shoulder pain shows up here…
👉 nothing should be assumed.

🧠 Why this area matters:
Multiple structures attach in nearly the same spot:
• Biceps tendon
• Pectoralis major
• Latissimus dorsi
• Teres major

Different tissues.
Different roles.
❗ Very similar pain locations.

🚨 Anterior shoulder pain isn’t just “biceps”
and it’s rarely just one structure.

🔍 This region demands a thorough evaluation —
because crowded anatomy increases the risk of:
• Missed contributors
• Incomplete rehab
• Symptoms that keep coming back

🦴 Anatomy matters.
And crowded anatomy demands precision.

🔓Unlock Your Chest Power 💪🔥

The pectoralis major is your chest’s MVP! Here’s what you need to know:🧠

📍 Origin: Clavicle, sternum, and ribs
📍 Insertion: Humerus (upper arm bone)
💼 Function: Brings your arms forward, across, and up—think push-ups, throwing, or even hugging!

Why it matters:
Your pecs aren’t just for show. They’re essential for lifting, pushing, and daily movements like opening doors or carrying groceries. 💼💪

Want to keep them strong? Add bench presses, push-ups, and cable flys to your routine! 🔥

🔓Unlock Tight Neck Secrets! 🤫

🦴 Muscle Spotlight: The Levator Scapulae
Let’s break down this underappreciated muscle:

📍 Origin: C1-C4 vertebrae (neck base)
🔗 Insertion: Top of the shoulder blade (medial border)
💪 Function: Elevates your shoulder blades, helps tilt/turn your neck

Trigger Points 🔥 & Pain Referral 🎯

Ever felt a stabbing pain 🗡️ between your neck and shoulder? That’s likely levator scapulae’s trigger points! It can even refer pain to your:

• 😖 Back of the skull
• 🖐️ Upper arm
• 🎯 Shoulder blades

🔧 Quick Fixes:
✔️ Massage tight spots 🎾
✔️ Stretch (side neck stretch) 🙆
✔️ Activate with wall slides 💪

Follow for more PT muscle secrets!

🚨 Stop Slapping on Quick Fixes!

💊
Painkillers might help you feel better temporarily, but they don’t address the real issue.

🧠To truly heal, you need REST, REHAB, and CONSISTENT CARE. 🛠️💪

➡️ Prioritize long-term health over quick fixes! Your shoulder (and future self) will thank you. 🙌💯