What Does “Strong” Really Mean?
When people tell me they want to “get stronger,” I always pause—because strength means very different things depending on who’s standing in front of me.
For my 30-year-old client, strength meant lifting twice her bodyweight in a deadlift.
For my 60-year-old client, it meant getting up and down from the floor without aches and pains.
For my 80-year-old client, strength meant keeping her independence.
None of these goals is wrong. But they reveal something important: strength isn’t just about how much weight you can lift. It’s about how well your body supports you in the life you want to live.
And yet, most of us were taught that getting stronger simply means pushing harder—more weight, more reps, more intensity.
When “Harder” Stops Working
For a while, that works.
I know this because I lived it.
During my powerlifting years, I trained hard—five days a week—focused on building a heavier deadlift. Lifting heavy made me feel confident. It gave me belonging. I had a team, a shared language, people cheering me on. Strength felt measurable, powerful, and validating.
But in my late 30s, that approach stopped working.
Old injuries resurfaced. Aches and pains became constant companions. Training no longer made me feel strong—it made me feel stuck. What once built confidence now left me frustrated and disconnected from my body.
That was my first real lesson: harder doesn’t always mean stronger.
Tightness Isn’t the Problem
One of the biggest misunderstandings I see—especially among people who train consistently—is around tightness. Tight muscles are often treated like a problem to stretch away. But tightness isn’t a flaw. It’s a strategy.
From a nervous system perspective, increased muscle tone is often a protective response. When the body senses instability, threat, or a lack of control, it adds tension to create safety. This is why stretching alone doesn’t always “fix” tightness—because the issue isn’t the tissue itself, it’s the message being sent to it.
Modern pain science supports this idea. Research shows that the nervous system can limit range of motion and increase muscle tone as a form of self-protection, even in the absence of tissue damage. In other words, tightness doesn’t mean you’re weak—it means your body is trying to keep you safe.
The challenge is that when this protective strategy becomes your default, movement becomes restricted. You may feel strong in isolated positions, but adaptability disappears.
Why Pushing Harder Can Backfire
This is where pushing harder often backfires.
When intensity increases without adequate preparation, the body compensates. Larger, stronger muscles take over. Smaller stabilizers disengage. Movement becomes rigid. Research in motor control shows that efficient strength isn’t just about activating more muscle—it’s about activating the right muscles at the right time, and just as importantly, allowing others to relax.
Excessive bracing increases energy demand and reduces movement efficiency. This is why many people feel “worked” but not better. They’re producing force, but they’re doing it with unnecessary tension—limiting progress and increasing the risk of recurring pain.
What Strength Should Actually Feel Like
Strength that isn’t working well feels like constant effort.
It’s the low back pain that creeps in after a “good” workout.
It’s the shoulder discomfort that shows up every time you reach overhead.
You might feel strong in a controlled movement like a squat, but the moment things become dynamic, everything feels harder than it should.
That’s not a lack of strength. It’s a lack of coordination.
When strength is working well, the experience is different.
It feels stable but mobile.
Effortful, without gripping.
Supportive, not braced.
The Role of Fascia and Elastic Recoil
Research into connective tissue helps explain why. Fascia plays a key role in force transmission and elastic recoil—how the body stores and releases energy during movement. When tissues are adaptable and the nervous system is responsive, force moves smoothly through the body instead of getting trapped in isolated areas.
This ability to load and unload efficiently—often referred to as elastic recoil—is central to resilient, real-world strength. It’s what allows you to move powerfully without feeling compressed or drained.
Strength Is a Neurological Skill
This is where the concept of neurostrength or neurostability comes in—a term I was first introduced to through my training in Fascial Stretch Therapy and later deepened through Applied Functional Science.
Strength isn’t just a muscular capacity. It’s a neurological skill.
The nervous system organizes how force is produced, where it’s distributed, and how quickly the body can adapt. Research in motor learning consistently shows that improvements in coordination often precede measurable gains in strength. When the nervous system becomes more efficient, the body can express strength with less effort.
This is why strength training that prioritizes awareness, alignment, joint function, and timing may not look flashy—but it works. The body learns when to create tension and when to release it. Stability becomes responsive, not rigid.
Strong Doesn’t Have to Mean Tight
The goal isn’t to stop training hard. It’s to stop confusing effort with effectiveness.
True strength is fluid. It supports movement rather than restricting it. It allows for force and ease, load and release. It adapts to different environments and different stages of life—whether that means lifting heavy, getting off the floor, or simply moving through your day with more confidence and less resistance.
Strong bodies aren’t tight.
They’re responsive.
References & Further Reading
- Frederick, A., & Frederick, C. Fascial Stretch Therapy™. Human Kinetics.
Foundational text outlining joint-centric, neuromuscular, and fascial approaches to mobility, stability, and sustainable strength. - Hitzmann, S. MELT Performance. HarperCollins.
Introduces the concepts of neurostrength and neurostability, emphasizing efficient force transmission and nervous system regulation through connective tissue health. - Gray Institute. Applied Functional Science®.
Explores movement as an integrated system, highlighting elastic recoil, force transfer, and adaptability across joints and tissues. - Hodges, P. W., & Tucker, K. (2011). Moving differently in pain: A new theory to explain the adaptation to pain. Pain.
Discusses protective movement strategies and altered muscle activation in response to perceived threat. - Schleip, R., Findley, T. W., Chaitow, L., & Huijing, P. (2012). Fascia: The Tensional Network of the Human Body. Elsevier.
Examines the role of fascia in force transmission, elasticity, and movement efficiency.