Insolia High Heel Inserts

Description

What Does the Insolia Product Do?

Insolia products fundamentally change the inside of high heel shoes, shifting weight off the ball of the foot back to the heel. It actually feels like you are wearing much lower heels which is a true comfort factor for many women. This weight shift improves body alignment and balance dramatically reducing leg and lower back fatigue while reducing pressure on the ball of the foot. Thanks to Insolia products, women no longer have to sacrifice style for comfort or comfort for style.

This long overdue innovation is being built into high heels by shoe designers and manufacturers world wide, so they can bring you the shoes of your choice with the benefits of this new technology.

Now Insolia Inserts are available to create a difference inside any new shoe you buy or the shoes already in your closet! What is even more remarkable is that Insolia Inserts can be used in any type of high heel, regardless of style, such as pumps, sandals, sling backs, wedges and more. Women of all walks of life can now enjoy wearing high heels with the best of style and comfort and can even wear heels all day and night.

Standard high heels shift weight to the ball of the foot.

Insolia products shift weight back to the heel, restoring balance.

Insolia products are the Weight Shift Solution!

Insolia products shift weight off of the ball of the foot back to the heel by placing the foot in the optimal position for high heels.
The Insolia Weight Shift Solution restores balance and allows women in heels to return to their natural heel-toe stride.
The Insolia Weight Shift Solution improves body alignment and results in a higher degree of ankle stability while reducing pressure on the ball of the foot.
The Insolia Weight Shift Solution dramatically reduces leg and lower back fatigue and the pain caused by walking improperly.
Insolia Inserts were designed by both a podiatrist and a rocket scientist.
For more information see the article, "High heel design puts less pressure on forefoot" in Biomechanics, Feb. 2000.