Pressure activated recharging cooling platform
A pressure activated recharging cooling platform for cooling an object is provided. The cooling platform comprises a temperature regulation layer, a support layer, and a channeled covering layer. The temperature regulation layer is adapted to hold a composition. The temperature regulation layer has a plurality of angled segments, wherein angled segments within a sealed perimeter of the temperature regulation layer are formed by a top side and a bottom side at a predefined distance, and channels, wherein the channels substantially form sides by contacting the top side with the bottom side at a distance lesser than the predefined distance. The support layer is substantially bonded to the bottom side of the temperature regulation layer and is comprised of material sufficiently pliable to deform and sufficiently rigid to withstand collapse in response to the weight of the object. The channeled covering layer encompasses the support and temperature regulation layers.
1. An endothermically activated and exothermically deactivated cooling platform comprising:
a temperature regulation layer, wherein the temperature regulation layer has at least one angled segment formed by a top side and a bottom side at a predefined distance, and channels, wherein the channels form sides by contacting the top side with the bottom side;
a support layer, wherein the support layer comprises an elastic material that deforms and reforms upon the application and release of pressure, respectively; and
an endothermically activated and exothermically deactivated cooling composition contained inside the temperature regulation layer,
wherein the endothermically activated and exothermically deactivated cooling platform is repeatedly activatable and deactivatable.
2. An endothermically activated and exothermically deactivated cooling platform comprising:
a temperature regulation layer, wherein the temperature regulation layer has at least one angled segment formed by a top side and a bottom side at a predefined distance, and channels, wherein the channels form sides by contacting the top side with the bottom side;
a support layer positioned in supporting contact with the temperature regulation layer, wherein the support layer comprises an elastic material that deforms and reforms upon the application and release of pressure, respectively; and
an endothermically activated and exothermically deactivated cooling composition contained inside the temperature regulation layer,
wherein the endothermically activated and exothermically deactivated cooling platform is repeatedly activatable and deactivatable.
3. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the angled segment has a trapezoidal-like shape.
4. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the angled segment has a trapezoidal-like shape.
5. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the cooling composition does not require refrigeration or freezing prior to use.
6. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the cooling composition undergoes an endothermic reaction upon activation.
7. The endothermically activated and exothermically deactivated cooling platform of claim 6 , wherein the endothermic reaction is activated by the application of pressure.
8. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the cooling composition does not require refrigeration or freezing prior to use.
9. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the cooling composition undergoes an endothermic reaction upon activation.
10. The endothermically activated and exothermically deactivated cooling platform of claim 9 , wherein the endothermic reaction is activated by the application of pressure.
11. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the elastic material is a foam.
12. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the elastic material is a foam.
13. The endothermically activated and exothermically deactivated cooling platform of claim 1 , further comprising a cover layer, wherein the cover layer encompasses the temperature regulation layer and the support layer.
14. The endothermically activated and exothermically deactivated cooling platform of claim 2 , further comprising a cover layer, wherein the cover layer encompasses the temperature regulation layer and the support layer.
15. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the endothermically activated and exothermically deactivated cooling composition includes polyacrylamide.
16. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the endothermically activated and exothermically deactivated cooling composition includes alginic acid.
17. An endothermically activated and exothermically deactivated cooling platform comprising:
a temperature regulation layer, wherein the temperature regulation layer has at least one angled segment formed by a top side and a bottom side at a predefined distance, and channels, wherein the channels form sides by contacting the top side with the bottom side;
a support layer positioned in supporting contact with the temperature regulation layer, wherein the support layer comprises an elastic material that deforms and reforms upon the application and release of pressure, respectively; and
an endothermically activated and exothermically deactivated cooling composition contained inside the temperature regulation layer, wherein the cooling composition does not require electricity, refrigeration, or freezing prior to use,
wherein the endothermically activated and exothermically deactivated cooling composition undergoes an endothermic reaction upon activation,
wherein the endothermic reaction is activated by the application of pressure,
wherein the endothermically activated and exothermically deactivated cooling composition undergoes an exothermic reaction upon deactivation,
wherein the exothermic reaction is achieved by removing the pressure,
wherein the endothermically activated and exothermically deactivated cooling platform is repeatedly activatable and deactivatable.
18. The endothermically activated and exothermically deactivated cooling platform of claim 17 , wherein the endothermically activated and exothermically deactivated cooling composition is a rechargeable cooling composition.
19. The endothermically activated and exothermically deactivated cooling platform of claim 17 , wherein the endothermic reaction is automatically reversed upon release of the pressure.
20. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the endothermically activated and exothermically deactivated cooling composition endothermically activates upon the application of pressure and undergoes a subsequent recharge upon the release of the pressure.
21. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the endothermically activated and exothermically deactivated cooling composition endothermically activates upon the application of pressure and undergoes a subsequent recharge upon the release of the pressure.
22. The endothermically activated and exothermically deactivated cooling platform of claim 1 , wherein the support layer is bonded to the temperature regulation layer.
23. The endothermically activated and exothermically deactivated cooling platform of claim 2 , wherein the support layer is bonded to the temperature regulation layer.