Pressure distributing aligned arrays of cushioning void cells
Implementations described and claimed herein include a cellular cushioning system comprising a first matrix of void cells, and a second matrix of void cells opposing the first matrix of void cells, wherein one or more peaks of each void cell in the second matrix is attached to one or more peaks of each void cell in the first matrix, and wherein the void cells of the first matrix have a higher cell resolution than the void cells of the second matrix. In another implementation, a method of manufacturing a cushioning system includes molding a first matrix of void cells, molding a second matrix of void cells, the void cells of the first matrix having a higher cell resolution than the void cells in the second matrix, and attaching peak surfaces of the void cells of the first matrix and peak surfaces of the void cells of the second matrix together.
1. A cellular cushioning system comprising:
a first matrix of void cells; and
a second matrix of void cells opposing the first matrix of void cells, wherein one or more peaks of each void cell in the second matrix is attached to one or more peaks of each void cell in the first matrix, and wherein the void cells of the first matrix have a higher cell resolution than the void cells of the second matrix.
2. The cellular cushioning system of claim 1 , wherein the void cells of the first matrix have a different wall thickness than the void cells of the second matrix.
3. The cellular cushioning system of claim 1 , wherein at least two void cells in the first matrix partially oppose one void cell in the second matrix.
4. The cellular cushioning system of claim 1 , further comprising:
one or more channels configured to separate the void cells in at least one of the first matrix and the second matrix.
5. The cellular cushioning system of claim 1 , wherein the void cells are filled with at least one of foam and fluid.
6. The cellular cushioning system of claim 1 , wherein the void cells of the first matrix and the void cells of the second matrix are molded by one of a thermoforming, extrusion, laminating, blow molding, and injection molding process.
7. The cellular cushioning system of claim 1 , wherein the void cells of a top matrix and the void cells of a bottom matrix comprise of at least one of thermoplastic urethane, thermoplastic elastomers, styrenic co-polymers, and rubber.
8. The cellular cushioning system of claim 1 , wherein the cellular cushioning system is wedge-shaped.
9. A cellular cushioning system comprising:
a first matrix of void cells; and
a second matrix of void cells opposing the first matrix of void cells, wherein individual void cells in the first matrix of void cells are smaller than the individual void cells in the second matrix of void cells, wherein the second matrix of void cells is attached to the first matrix of void cells, wherein the void cells of the first matrix have a higher cell resolution than the void cells of the second matrix, and wherein four void cells in the first matrix oppose one larger cell in the second matrix.
10. The cellular cushioning system of claim 9 , wherein the void cells of the first matrix have a different density than the void cells of the second matrix.
11. The cellular cushioning system of claim 9 , further comprising:
one or more channels configured to separate the void cells of at least one of a top matrix and a bottom matrix.
12. The cellular cushioning system of claim 9 , wherein the void cells of a top matrix and the void cells of a bottom matrix are molded by one of a thermoforming, extrusion, laminating, blow molding, and injection molding process.
13. The cellular cushioning system of claim 9 , wherein the void cells of a top matrix and the void cells of a bottom matrix comprise of at least one of thermoplastic urethane, thermoplastic elastomers, styrenic co-polymers, and rubber.
14. A method of manufacturing a cellular cushioning system comprising:
molding a first matrix of void cells;
molding a second matrix of void cells, the void cells of the first matrix having a higher cell resolution than the void cells of the second matrix; and
attaching peak surfaces of the void cells of the first matrix and peak surfaces of the void cells of the second matrix together.
15. The method of claim 14 , further comprising:
molding a first matrix of void cells having a lower depth than the void cells of the second matrix.
16. The method of claim 14 , wherein attaching the peak surfaces of the void cells of the first matrix and the peak surfaces of the void cells of the second matrix together includes attaching at least two void cells of the first matrix to the peak surface of one void cell of the second matrix.
17. The method of claim 14 , wherein attaching the peak surfaces of the void cells of the first matrix and the peak surfaces of the void cells of the second matrix together includes at least two void cells of the first matrix opposing one void cell of the second matrix.
18. The method of claim 14 , wherein attaching the peak surfaces of the void cells of the first matrix and the peak surfaces of the void cells of the second matrix together includes at least two void cells of the first matrix partially opposing one void cell of the second matrix.
19. The method of claim 14 , further comprising molding channels in at least one of the first matrix and the second matrix.
20. The method of claim 14 , wherein attaching the peak surfaces of the void cells of the first matrix and the peak surfaces of the void cells of the second matrix together is in a wedge-shaped configuration.