Why Walking With Treking Poles Feels Different Than Just Walking
David C. Miller, MD, MA & Lovera Wolf Miller, MD
There is something faintly comical about trekking poles.
At first glance, they look unnecessary.
Two perfectly healthy adults walking down a trail...
carrying sticks.
But then something happens.
The trail gets steeper.
The gravel gets loose.
The knees start talking.
The pack feels heavier than it did at the trailhead.
And suddenly those "extra sticks" begin to feel less like hiking accessories...
and more like nervous-system technology.
This week on Somewhat Curious, Lovee and I talked about trekking poles—not as gear-store clutter, but as a surprisingly elegant example of how the human body manages balance, effort, rhythm, and joint stress.
When you use poles, you are not simply "adding your arms."
You are changing the entire geometry of walking.
Instead of balancing on two moving points of contact, you create a temporary four-point system:
foot, foot, pole, pole.
That matters.
Especially on uneven ground.
Trekking poles may help with:
reduced knee load on descents,
better balance on loose terrain,
more upper-body contribution during climbs,
improved rhythm and cadence,
and a greater sense of security.
In plain English: your legs get help.
Which sounds a little like cheating.
Ironically, it isn't.
One of the most fascinating findings from trekking-pole research is that hikers often report that walking feels easier while simultaneously increasing overall energy expenditure.
How is that possible?
Because the poles recruit muscles that ordinary walking largely ignores.
The shoulders. The chest. The upper back. The triceps.
The muscles that stabilize the shoulder blades.
Instead of asking the lower body to do all the work, trekking poles distribute some of that effort throughout the entire body.
The result is a curious trade:
less stress on the knees and lower extremities...
while engaging more muscle mass overall.
Studies have shown that trekking pole users often consume more oxygen and burn more calories than hikers covering the same terrain without poles.
So the hike feels easier.
Yet the body may actually be working harder.
That is one of my favorite kinds of physiology:
a win-win.
Less joint strain.
More stability.
More muscle involvement.
More calories burned.
Nature occasionally offers deals that modern exercise equipment struggles to match.
There is also something neurologically interesting here.
Walking is not just muscle power. It is a constant conversation between the feet, joints, eyes, vestibular system, spinal cord, and brain.
Every step asks the same question:
Where am I in space?
Poles add two more points of sensory feedback.
They tap the ground before the foot commits.
They test the surface.
They widen the body's map of the trail.
Maybe that is why poles can make difficult terrain feel less threatening.
Not because the mountain changed.
Because your nervous system has more information.
And then there is rhythm.
Anyone who has walked a long trail with poles knows the quiet satisfaction of the pattern:
plant,
step,
plant,
step.
It becomes almost metronomic.
A walking meditation with carbon fiber. (or aluminum!)
This is where trekking poles stop being merely mechanical and become almost musical.
They organize movement.
They steady breathing.
They distribute effort across the whole body.
The older I get, the more I appreciate tools that do not replace the body...
but remind it how to move well.
One Small Experiment
This week, try a simple comparison.
Take a twenty-minute walk on a trail or uneven path.
First, walk without poles.
Notice your knees, balance, breathing, and confidence on descents.
Then repeat the same route with poles.
Do not overthink it.
Just observe:
Do you feel more stable?
Do your knees feel less loaded?
Does your walking rhythm change?
Do your arms and shoulders become part of the hike?
Does the trail feel different?
Not metaphorically.
Mechanically.
Neurologically.
Physiologically.
Recommended Reading
Research on trekking poles and knee joint loading during downhill walking
Studies examining energy expenditure and oxygen consumption with trekking pole use
Research on gait, balance, proprioception, and fall prevention
Qing Li — Forest Bathing
Huberman Lab discussions on movement, vision, and autonomic regulation
