Most athletes rarely think about the torso when trying to run faster. AQ explains why the torso matters for running speed, how it supports repeated rotation, and why a weak torso may leak energy that prevents speed from fully showing up.
how to run faster
The Running Speed System: Why Contributors Must Work Together
Speed is not built by isolated muscles taking turns. AQ explains why the running speed system depends on the pushing leg, swing leg, arms, torso, and hip flexors participating together during the same stride.
RUNNING MECHANICS EXPLAINED: The System That Makes You Faster
What if speed depends less on isolated body parts and more on how the entire sprint system continues supporting movement, timing, and balance from step to step?
Why Running Speed May Depend On What Peaks Together
Most athletes focus on force production and the pushing leg. AQ explains why sprint speed may depend on the pushing leg, swing leg, arms, and torso reaching their greatest strength contribution together—and what happens when one contributor can no longer keep up.
Hip Flexor Muscles for Speed: What Actually Makes You Run Faster
Hip flexor muscles are one of the most overlooked factors in running speed—and often the true limiting factor. This article explains how they control stride rate and why increasing speed depends on raising strength balance across the entire system, not just pushing harder.
Hip Flexors for Running Speed: The Most Overlooked Muscle Group in Sprinting
Most athletes think speed comes primarily from the pushing leg. AQ explains why hip flexors may be one of the most overlooked contributors in sprinting, how they influence swing-leg aggression, step arrival, and sprint-system cycling speed, and why they can become a hidden limitation to greater speed.
Why You’re Not Getting Faster (And What Finally Changes It)
Not getting faster even though you train hard? Learn what most speed programs miss—and what actually helps you improve.
How to Run Faster: 7 Things That Actually Matter
Want to know how to run faster and finally see real results? This guide breaks down the system behind speed, explaining why strength alone isn’t enough and how improving strength balance, timing, and coordination across your entire body leads to faster, more efficient running.
Shoulder Extensor Muscles for Running Speed: The Other Half of Arm Drive
Shoulder extensor muscles contribute to running speed through backside arm drive, coordination, and force transfer. Learn how rearward arm action helps support faster, more connected running.
SPEED TRAINING SCIENCE: Why Most Methods Fail (And What Actually Works)
Most athletes train hard but don’t get faster. This article explains the science behind speed training, including muscle contraction, fast twitch fibers, and why traditional methods often fail to improve speed.
Why Getting Bigger Can Actually Make You Slower (The Science Explained)
Many athletes believe getting bigger will make them faster—but that’s not always true. Learn how hypertrophy affects muscle function, contraction speed, and why size alone doesn’t translate into real performance.
Spine Rotator Muscles for Running Speed: How Rotation Connects Your Entire System
Spine rotator muscles contribute to running speed by connecting the upper and lower body. Learn how coordinated torso rotation helps organize force throughout the running stride.
Why Strength Alone Won’t Make You Faster
Getting stronger doesn’t guarantee you’ll run faster. This article explains why strength alone isn’t enough—and how balance, coordination, and system efficiency determine whether your strength actually turns into speed.
What Actually Creates Force in Running? (And Why Most Athletes Get It Wrong)
Force is one of the most misunderstood aspects of running. Many athletes think strength alone creates speed, but force depends on how your system applies and transfers energy. Learn what actually creates force in running and how to improve it.
Why Faster Turnover Doesn’t Always Make You Faster (The Stride Rate Myth)
Many athletes believe faster turnover automatically creates more speed. AQ explains why stride rate is often a reflection of sprint-system function and why identifying the real limitation may matter more than simply trying to move your legs faster.
The Real Cause of Overstriding (And Why It’s Not What You Think)
Many athletes try to fix overstriding by changing where the foot lands. AQ explains why overstriding may be the visible outcome of deeper contributor limitations involving the pushing leg, swing leg, arms, torso, and strength balance.
What Influences Ground Contact Time? (And Why Quick Feet Aren’t The Answer)
Most athletes assume shorter ground contact time creates faster running. AQ explains why contact time may often be an outcome of contributor relationships already influencing the next step before the foot reaches the ground.
Does Foot Strike Matter? (Yes—But Probably Not As Much As You Think)
Does foot strike matter for running speed? AQ explains why foot strike deserves attention, but often isn’t the biggest factor limiting sprint performance.
Why Most Speed Training Programs Don’t Work
Most speed training programs focus on strength and repetition—but still fail to improve real speed. This article explains why and reveals what’s missing: coordination, timing, and full-system development.
ISOMETRIC TRAINING FOR SPEED: The Complete System to Run Faster
🧠 Introduction Most athletes trying to get faster are told the same thing:👉 get stronger. So they: squat deadlift sprint jump train harder And at first:👉 that often works. They become: stronger more explosive more powerful 💥 and sprint speed usually improves too. But eventually many athletes run into the same frustrating problem: 👉 progress […]
How Isometric Training Improves Coordination, Balance, and Speed
Most athletes rely on strength training to get faster—but strength alone doesn’t always translate into speed. This article explains the key difference between traditional strength training and isometric training, showing how each develops a different part of performance. Learn why combining both is essential for improving coordination, applying force more efficiently, and unlocking real running speed.
Isometric Training vs Traditional Strength Training for Speed: What Most Athletes Miss
Learn why combining both helps the sprint system support force more aggressively, transfer force more cleanly, and improve sprint speed.
Resistance Bands vs Weights for Speed: What Actually Works Better?
Are resistance bands or weights better for speed? The answer isn’t one or the other. Learn how each method develops a different part of performance—and why combining strength with coordination-based training is the key to running faster.
How to Run Faster When Strength Isn’t the Problem
Getting stronger doesn’t always make you faster. This article explains how coordination, balance, and system efficiency determine whether your strength actually translates into running speed.
