What Shoes Are Best for Balance and Stability?

Shoes that improve balance and stability share a few consistent features backed by research: a firm, relatively thin sole; a low heel; a wide base of support; a snug fit with secure fastening; and a treaded rubber outsole that grips the floor. These traits show up again and again across studies of older adults, athletes, workers, and people with conditions like diabetes. The details matter more than you might expect, though, because some of the most comfortable-feeling shoe designs actually make your balance worse.

Firm, Thin Soles Beat Soft, Thick Ones

This is one of the more counterintuitive findings in footwear research. A classic study of older men tested shoes with varying midsole thickness and softness and found that softer midsoles were associated with worse stability, and thicker midsoles also led to poorer balance performance. The shoes that felt most comfortable tended to be the ones linked to the highest rate of balance failures.¹ That same study found that going barefoot was worse than the poorest-performing shoe, so the answer is not simply “less shoe is better.” The best outcomes came from shoes with a thin, firm sole.

The reason has to do with how your feet gather information from the ground. The soles of your feet are packed with sensory receptors that detect pressure, texture, and shifts in your body’s position. A thick, pillowy midsole acts like a layer of insulation between those receptors and the surface, dulling the signals your brain needs to make fine balance adjustments. A firm sole transmits those signals more faithfully. This does not mean you need a rock-hard platform under your foot. “Medium-firm” is the term that appears most often in evidence-based footwear reviews for older adults, where shoes with wide soles and medium-firm materials improved stability and reduced postural sway.²

Keep the Heel Low

Heel height is one of the most straightforward predictors of balance trouble. A kinetic study comparing high-heeled and flat footwear found that high heels produced significantly worse balance and stability patterns across multiple measures, including ground reaction forces, center-of-pressure trajectories, and displacement.³ Separate research showed that functional mobility begins to decline at heel heights around 7 centimeters, and standing balance deteriorates further at 10 centimeters.⁴

For everyday stability, a comprehensive review of footwear and fall prevention found that heel elevations of 1 to 3 centimeters actually improved gait stability compared to completely flat soles, while heels of 5 centimeters or more increased fall risk. The practical threshold suggested in the literature is a heel height of 4 centimeters or less.⁵ A very slight heel raise (roughly half an inch to an inch) is fine and may even help. It is the taller heels that create problems, because they shift your center of gravity forward and force the calf muscles to work harder to keep you upright.

A Wide Sole and Roomy Toe Box

Your foot’s contact area with the ground is your base of support, and a wider base is inherently more stable. Shoes with soles that extend slightly beyond the outline of the foot provide a larger platform. This is distinct from the toe box, which is the interior space where your toes sit. A narrow, pointed toe box compresses the toes and prevents them from spreading naturally to help with balance corrections. Evidence-based recommendations for older adults specifically call for wide soles as a key feature for improving stability.²

A toe box that allows your toes to splay also supports the intrinsic muscles of the foot, the small muscles that help you grip and adjust during weight shifts. Over time, cramped toe boxes can weaken these muscles. If you have been wearing narrow shoes for years, switching to a shoe with a wider toe box can feel unusual at first, but the extra room gives your foot more of its natural ability to stabilize itself.

Collar Height and the Ankle Support Question

High-top shoes are commonly assumed to protect ankles and improve stability. The research on this is mixed in a way that matters. A review of footwear for older adults found that shoes with a high collar height and top line play a role in enhancing balance, making collar height a consideration for safe shoe design.⁵ And in a study of high school football players, a high-top cleat restricted ankle range of motion after exercise better than a low-top cleat combined with athletic tape.⁶

But restricting ankle motion is not the same thing as improving stability. Research on landing mechanics found that high-top shoes delayed the activation of key ankle-stabilizing muscles and decreased the intensity of their pre-landing response compared to low-top shoes. The researchers concluded that high-tops may actually have a detrimental effect on functional ankle joint stability because the muscles that normally brace for impact become less engaged when the shoe provides external support.⁷ In other words, a high collar can help passively hold the ankle in place, but it may also cause the ankle’s own protective reflexes to dial down. For older adults doing everyday walking, that trade-off may favor the high collar. For athletes making dynamic cutting and landing movements, it is less clear-cut.

The Heel Counter Matters More Than You Think

The heel counter is the rigid cup built into the back of the shoe that wraps around your heel bone. It is one of the most overlooked features in casual shoe shopping, but it directly controls rearfoot stability. When the heel counter breaks down or is too flexible, the heel can tilt inward or outward, setting off a chain of misalignment that can lead to foot, ankle, and knee problems.⁸

A more rigid heel counter does resist the side-to-side tilting forces at the heel, and research on running shoes confirmed that stiffer counters reduce ankle inversion at touchdown and coronal-plane range of motion.⁹ However, that same study found that a stiffer heel counter increased motion and loading at the knee joint. So there is a biomechanical trade-off: locking down the ankle shifts some demand upward to the knee. For balance during normal walking, a firm heel counter is generally a good thing. But in running shoes, the stiffest possible counter is not automatically the best choice, especially if you have existing knee issues. Additionally, separate running research found that even in rigid-countered shoes, the heel bone itself could still slip and tilt inside the shoe, meaning the counter resists forces but does not fully eliminate internal foot motion.¹⁰

The practical takeaway: when you try on a shoe, squeeze the heel area. If the back of the shoe folds over easily with light finger pressure, it will not do much for your rearfoot stability. You want something that holds its shape.

Outsole Tread and Slip Resistance

Balance is not just about how well your body controls its center of gravity. It is also about whether your foot stays planted. Slipping is a leading cause of falls, and outsole tread design has a measurable effect. Research testing different tread patterns found that grooves running perpendicular to the walking direction provided the highest friction, the shortest slip distance, and the lowest percentage of actual slips. Grooves running parallel to the direction of travel performed worst.¹¹

On icy surfaces, the picture shifts. A study of composite-material outsoles for cold conditions found that the amount of surface area covered by the grip material was the strongest factor in slip resistance, more so than the specific pattern. The best-performing prototypes maximized surface contact area, particularly in the forefoot region.¹² Evidence-based recommendations for older adults emphasize treaded rubber outsoles as a key feature for minimizing slipping.² Smooth leather soles and worn-down treads are among the most common contributors to falls that could easily be prevented by choosing a different shoe.

Lace Them Up Properly

A well-designed shoe worn loosely is a poorly functioning shoe. Research on industrial safety shoes found that tightly laced shoes produced significantly better scores on dynamic balance tests, including the Y-balance test and functional reach test, compared to loosely laced shoes. Tight lacing improved ankle stability and allowed workers to shift their weight in multiple directions more confidently.¹³ Separately, research on plantar pressure found that looser lacing increased perceived foot slipping inside the shoe and shifted pressure toward the toes, which can contribute to blisters and instability.¹⁴

This extends to any secure fastening system. Velcro straps, buckles, and boa dials all serve the same purpose: coupling the shoe to the foot so the two move as one unit. Slip-on shoes and backless designs inherently cannot provide this, which is one reason they consistently perform poorly in balance studies.

Why Rocker-Bottom Shoes Are Risky for Balance

Rocker-bottom soles, the curved outsoles found on some walking shoes and therapeutic footwear, are designed to reduce pressure on painful joints by rocking the foot through its stride. They can be useful for specific conditions, but they come with a real stability cost. A randomized trial found that standing in rocker-sole shoes increased postural sway significantly compared to standing barefoot, while flat-sole shoes did not.¹⁵

The instability is not something you simply adapt to with time. A study that had participants wear rocker-bottom shoes for six weeks found that their limits of stability were still negatively affected at the end of the period, with no measurable improvement.¹⁶ Additional research showed that rocker soles produced a destabilizing effect during perturbed stance in young healthy adults, raising concerns that this type of sole could increase fall risk in populations with reduced sensation in their feet.¹⁷ If you wear rocker-bottom shoes for pain relief, it is worth understanding that you are accepting a trade-off in stability.

Arch Support and Insoles

For people with flat feet, the right insole can improve standing balance. A study comparing insoles in individuals with flatfoot found that a specific supportive insole significantly reduced total postural sway compared to wearing no insole.¹⁸ A systematic review and meta-analysis refined this further, finding that transverse-arch insoles (which support the arch running across the ball of the foot) were the most effective type for improving static balance. Traditional medial arch-support insoles did not show a significant immediate effect.¹⁹

A randomized controlled trial added another layer: when people with flexible flatfoot combined foot exercises with custom arch-support insoles, their limits of stability improved more than with insoles alone. The insole-only group improved their foot posture and static balance, but the combined group gained dynamic balance improvements as well.²⁰ In practical terms, insoles help, but strengthening the foot’s own muscles alongside wearing them produces better results for dynamic situations like walking or navigating uneven ground.

Research on older adults also found that arch-support insoles improved dual-task walking performance, where the person walks while simultaneously performing a mental or physical task. The insoles increased stride length and speed while reducing the balance cost of multitasking.²¹ Given that real-world walking almost always involves doing something else at the same time, whether it is carrying groceries, looking around, or talking, this is a meaningful benefit.

Textured and Vibrating Insoles for Reduced Foot Sensation

People with diabetic peripheral neuropathy lose sensation in their feet, which cripples the sensory feedback loop that balance depends on. Textured insoles, which have small raised bumps or ridges on their surface, attempt to compensate by pressing into the skin and activating whatever receptors remain functional. Research suggests these insoles can stimulate a larger number of mechanoreceptors, increasing nerve feedback from the skin to the brain and reducing postural sway.²²

Vibrating insoles take this a step further by actively stimulating the sole of the foot with mechanical vibrations. A study of adults with diabetic peripheral neuropathy found that wearing vibrating insoles reduced postural sway when standing on an unstable surface with eyes closed, and also reduced the muscle effort required in the calf muscles to maintain balance. The researchers noted, however, that the effects were small and their clinical significance uncertain, calling for further study.²³ People with diabetes and neuropathy who have experienced falls have reported that a close-fitting shoe with tight fastening, substantial tread, and a firm molded sole or insole felt most stable. Some specifically identified hiking sandals as the footwear that gave them the most confidence and reduced their fear of falling.²⁴

Minimalist Shoes and Foot Strength Over Time

Minimalist footwear, which has thin flexible soles with minimal cushioning and no raised heel, takes a different approach to balance. Instead of providing external support, it lets the foot do more work, which over time can strengthen the intrinsic foot muscles. A randomized controlled trial in children found that wearing moderately minimalist shoes for an extended period produced significant improvements in dynamic balance, as measured by reach distances in two directions. Foot muscle size increased modestly but did not reach statistical significance, and the balance improvements correlated with toe grip strength and single-leg jump performance.²⁵

This does not mean everyone should immediately switch to minimalist shoes. A systematic review of transition methods found that injury rates during the switch to minimalist footwear were similar to injury rates in conventional shoes, but the transition demands a gradual approach.²⁶ Jumping straight from heavily cushioned shoes to a minimal sole puts sudden stress on muscles and tendons that may be deconditioned after years of support. The balance benefits of minimalist footwear are real but take time to develop and carry short-term risk if you rush the process.

What You Wear at Home Matters Too

Most falls among older adults happen inside the home, and what is on their feet at the time plays a significant role. Research from the MOBILIZE Boston Study found that going barefoot, wearing socks alone, or wearing slippers all increased fall risk. Socks provide poor friction and make slipping more likely. Bare feet can catch on carpet edges or suffer trauma from unexpected contact with objects. Slippers tend to lose their shape over time and frequently have smooth vinyl soles that offer no grip.²⁷

A study comparing indoor footwear options found that enclosed slippers with a back and firm sole produced the best balance and gait performance, while backless slippers performed worst. Socks landed in the middle.²⁸ A systematic review reinforced this, recommending that older adults wear shoes with low heels and firm, slip-resistant soles both inside and outside the home.²⁹ If you or a family member tends to shuffle around the house in socks or worn-out slippers, replacing them with a structured indoor shoe that has a rubber sole and a secure fit is one of the simplest fall-prevention changes you can make.

Putting the Features Together

No single shoe feature determines your balance on its own. The features work as a system, and the ideal combination depends on what you need the shoe for. Here is what the research consistently points toward for general stability:

Sole firmness: Medium-firm. Avoid very soft, thick cushioning if stability is a priority.
Heel height: Under 4 centimeters. A slight raise is fine; tall heels are not.
Sole width: At least as wide as the foot, or slightly wider.
Toe box: Wide enough that the toes can spread naturally.
Fastening: Laces, straps, or buckles that secure the shoe tightly to the foot. No slip-ons.
Heel counter: Firm enough to hold its shape when you press it.
Outsole: Rubber with treaded grooves, preferably perpendicular to the direction of walking.
Collar: A higher collar can help with passive ankle stability, particularly for older adults.

For specialized populations, additional features come into play. People with flat feet benefit from transverse-arch insoles, ideally combined with foot-strengthening exercises. People with diabetic neuropathy may benefit from textured insoles that amplify whatever sensation remains. And anyone recovering from ankle injuries should weigh the passive restraint of a high-top collar against the potential for reduced muscle engagement, depending on whether the goal is protection during healing or long-term functional stability.

Comfort Can Be Misleading

One of the hardest things to accept about stability footwear is that the shoe that feels best underfoot is not always the safest. The study of older men mentioned at the start of this article found a pattern where higher comfort ratings aligned with higher balance failure rates.¹ Soft, plush cushioning feels protective, but it dampens the sensory signals your brain uses to maintain upright posture. This does not mean you should wear uncomfortable shoes. Pain and blisters create their own gait problems. But when choosing between two otherwise similar shoes, the one with the firmer sole is likely the better choice for balance, even if the softer one feels more luxurious in the store. If you are shopping specifically for stability, let the firmness of the sole, the snugness of the fit, and the grip of the outsole guide your decision more than that initial step onto plush cushioning.

1
PubMed. Shoe sole thickness and hardness influence balance in older men
2
PubMed. Evidence-Based Footwear Recommendations for Older Adults: Enhancing Mobility, Comfort, and Fall Prevention
3
Indian Journal of Physiology and Pharmacology. Effect of wearing high heel and flat footwear on balance and stability dynamics: A kinetic study
4
PubMed. Effects of high heeled shoes wearing experience and heel height on human standing balance and functional mobility
5
PubMed Central. Enhancing Footwear Safety for Fall Prevention in Older Adults: A Comprehensive Review of Design Features
6
Journal of Sport Rehabilitation. Evaluating Postural Control and Ankle Laxity Between Taping and High-Top Cleats in High School Football Players
7
PubMed Central. The effect of high-top and low-top shoes on ankle inversion kinematics and muscle activation in landing on a tilted surface
8
PubMed. Heel counter stabilization of the running shoe
9
PubMed. Shoe collar height and heel counter-stiffness for shoe cushioning and joint stability in landing
10
Journal of Applied Biomechanics. The Influence of Heel Counter Rigidity on Rearfoot Motion during Running
11
PubMed Central. Shoe Sole Tread Designs and Outcomes of Slipping and Falling on Slippery Floor Surfaces
12
PubMed. The effect of tread patterns on slip resistance of footwear outsoles based on composite materials in icy conditions
13
Phys Ther Rehabil Sci. Effect of Shoelace Tightness in Safety Shoes on Static and Dynamic Balance and Gait Ability in Industrial Workers
14
PubMed. The effect of shoe lacing on plantar pressure distribution and in-shoe displacement of the foot in healthy participants
15
PubMed Central. Do rocker-sole shoes influence postural stability in chronic low back pain? A randomised trial
16
PubMed. Limits of Stability and Adaptation to Wearing Rocker Bottom Shoes
17
PubMed. Rocker bottom soles alter the postural response to backward translation during stance
18
PubMed Central. Standing balance on the ground -the influence of flatfeet and insoles
19
PLoS ONE. Effect of foot orthoses on balance among individuals with flatfoot: A systematic review and meta-analysis
20
PubMed. Effects of foot exercises and customized arch support insoles on foot posture, plantar force distribution, and balance in people with flexible flatfoot: A randomized controlled trial
21
Dove Press / Dove Medical Press (Clinical Interventions in Aging). Effects of Arch Support Insoles on Single- and Dual-Task Gait Performance Among Community-Dwelling Older Adults
22
PubMed Central. Immediate effect of textured insoles on the balance in patients with diabetic neuropathy
23
PubMed. The effects of vibrating shoe insoles on standing balance, walking, and ankle-foot muscle activity in adults with diabetic peripheral neuropathy
24
PubMed. Does footwear affect balance?: the views and experiences of people with diabetes and neuropathy who have fallen
25
PubMed. The long-term effects of wearing moderate minimalist shoes on a child’s foot strength, muscle structure and balance: A randomised controlled trial
26
PubMed Central. Transitioning to Minimal Footwear: a Systematic Review of Methods and Future Clinical Recommendations
27
PubMed Central. Footwear and Falls in the Home Among Older Individuals in the MOBILIZE Boston Study
28
PubMed. Effects of Indoor Footwear on Balance and Gait Patterns in Community-Dwelling Older Women
29
PubMed. Optimizing footwear for older people at risk of falls