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Braiding Instruction | Endurance Tack | Order Sheet | Return Policy |
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The cellular structure of the TEMPUR® pressure-relieving material is completely different. It's made up of billions of high density, viscoelastic, memory cells. The cells are spherical with windows, and the key is they're temperature sensitive. In warm areas, they get softer and pliable. In cooler areas, they stay firm. The cells will literally shift position and reorganize to conform to your horses body contours. |
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As your horse moves, the material rises and lowers to meet your horses back and your saddle eventually filling any gaps along the contour of the back of your horse and your saddle. As the material molds to your horses and saddles shape, your horse is protected from the potential rubbing of your saddle's bars as you benefit from a more comfortable ride. |
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Pressure spikes can result in high pressure gradients which can be measured by using certain pressure mapping systems. It is these gradients that work like dams which shunt blood flow and affect tissue perfusion. The larger the gradient, the more likely there will be tissue damage over time. |
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Visco: resistant to change of shape. Elastic: able to return to its original shape after being forced to change. Imagine lying on a surface that knows exactly how far to let you "sink in" so that every point on the contour of your body is supported. The surface then "flows" back to its original, flat shape much like pushing your hand into the surface of a bowl of water. The water would flow to fill every contour and crease of your hand, then return to its original shape once your hand is removed. The most common material used in saddle pads is high resilience (HR) foam. When a load is applied, HR foam compresses. At some point, the resistance to compression exceeds the weight/force of the load being applied and the foam begins to push back. Since this resistance is not uniformly distributed, (the horses body has curves and angles) pressure spikes result. |
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