Porous composite materials comprising a plurality of bonded fiber component structures

1. An integrally formed multi-component structure comprising a plurality of fluid transmissive components, at least one of which is a three-dimensional bonded fiber fluid transmissive component comprised of a plurality of polymeric fibers bonded to each other at spaced apart contact points, the fibers collectively defining tortuous fluid flow paths, wherein the three dimensional bonded fiber fluid transmissive component has a predetermined cross-sectional shape that is substantially constant along at least one axis of the multi-component structure and wherein each fluid transmissive component has an interface with at least one other fluid transmissive component.

2. The integrally formed multi-component structure of claim 1 , wherein the three-dimensional bonded fiber fluid transmissive component has a first set of fluid flow characteristics and another fluid transmissive component of the multi-component structure has a second set of fluid flow characteristics that is different from the first set of fluid flow characteristics.

3. The integrally formed multi-component structure of claim 1 , wherein the plurality of fluid transmissive components includes a plurality of three-dimensional bonded fiber fluid transmissive components.

4. The integrally formed multi-component structure of claim 3 , wherein at least a portion of the fibers of each three-dimensional bonded fiber fluid transmissive component is bonded to fibers of at least one other three-dimensional bonded fiber fluid transmissive component across the interface at spaced apart contact points.

5. The integrally formed multi-component structure of claim 3 , wherein the plurality of three-dimensional bonded fiber fluid transmissive components includes a first three-dimensional bonded fiber fluid transmissive component having a first set of fluid flow characteristics and a second three-dimensional bonded fiber fluid transmissive component having a second set of fluid flow characteristics that is different from the first set of fluid flow characteristics.

6. The integrally formed multi-component structure of claim 3 , wherein the plurality of three-dimensional bonded fiber fluid transmissive components includes a first three-dimensional bonded fiber fluid transmissive component having a first set of fiber characteristics and a second three-dimensional bonded fiber fluid transmissive component having a second set of fiber characteristics that is different from the first set of fiber characteristics.

7. The integrally formed multi-component structure of claim 6 , wherein the difference between the first set of fiber characteristics and the second set of fiber characteristics includes a difference in one or more properties selected from the group consisting of: fiber compositions, fiber surface energies, fiber geometries, fiber cross-sections, fiber color, and fiber coatings.

8. The integrally formed multi-component structure of claim 6 , wherein the first three-dimensional bonded fiber fluid transmissive component has an interface with the second three-dimensional bonded fiber fluid transmissive component and the first and second sets of fiber characteristics are selected to provide a desired flow behavior across the interface between the first and second three-dimensional bonded fiber fluid transmissive components.

9. The integrally formed multi-component structure of claim 2 , wherein the at least one three-dimensional bonded fiber fluid transmissive component has an interface with another fluid transmissive component of the multi-component structure, and the first and second set of fluid flow characteristics are selected to provide a desired flow behavior across the interface of the at least one three-dimensional bonded fiber fluid transmissive component and another fluid transmissive component of the multi-component structure.

10. The integrally formed multi-component structure of claim 1 , wherein the predetermined cross-sectional shape of the at least one three-dimensional bonded fiber fluid transmissive component is asymmetrically arranged with respect to the multi-component structure axis.

11. The integrally formed multi-component structure of claim 1 , wherein the multi-component structure cross-section is asymmetric with respect to the multi-component structure axis.

12. The integrally formed multi-component structure of claim 1 , wherein the predetermined shape of the at least one three-dimensional bonded fiber component is axisymmetric with respect to the multi-component structure axis.

13. The integrally formed multi-component structure of claim 1 , wherein the predetermined cross-sectional shape of each of the at least one three-dimensional bonded fiber fluid transmissive component is axisymmetric with respect to the multi-component structure axis.

14. An integrally formed multi-component structure comprising a plurality of three-dimensional bonded fiber fluid transmissive components, each comprising a plurality of polymeric fibers bonded to each other at spaced apart contact points, the fibers collectively defining tortuous fluid flow paths, wherein a first three-dimensional bonded fiber fluid transmissive component has a first predetermined cross-sectional shape that is substantially constant along at least one axis of the multi-component structure and a first set of fluid flow characteristics and a second three-dimensional bonded fiber fluid transmissive component has a second predetermined cross-sectional shape that is substantially constant along at least one axis of the multi-component structure and a second set of fluid flow characteristics that is different from the first set of fluid flow characteristics, and wherein the first three-dimensional bonded fiber fluid transmissive component has an interface with the second three-dimensional bonded fiber fluid transmissive component.

15. The integrally formed multi-component structure of claim 14 , wherein at least a portion of the fibers of the first three-dimensional bonded fiber fluid transmissive component is bonded to fibers of the second three-dimensional bonded fiber fluid transmissive component across the interface at spaced apart contact points.

16. The integrally formed multi-component structure of claim 14 , wherein the first three-dimensional bonded fiber fluid transmissive component has a first set of fiber characteristics and the second three-dimensional bonded fiber fluid transmissive component has a second set of fiber characteristics that is different from the first set of fiber characteristics.

17. The integrally formed multi-component structure of claim 16 , wherein the difference between the first set of fiber characteristics and the second set of fiber characteristics includes a difference in one or more properties selected from the group consisting of: fiber compositions, fiber surface energies, fiber geometries, fiber cross-sections, fiber color, and fiber coatings.

18. The integrally formed multi-component structure of claim 16 , wherein the first and second sets of fiber characteristics are selected to provide a desired flow behavior across the interface between the first and second three-dimensional bonded fiber fluid transmissive components.

19. The integrally formed multi-component structure of claim 14 , wherein the cross-sectional shape of each three-dimensional bonded fiber fluid transmissive component is axisymmetric with respect to the axis of the multi-component structure.

20. A method of forming an ink jet printer cartridge, the method comprising:

providing an exterior case defining a reservoir cavity;

providing an integrally formed multi-component structure comprising a plurality of fluid transmissive components, at least one of which is a three-dimensional bonded fiber fluid transmissive component comprised of a plurality of polymeric fibers bonded to each other at spaced apart contact points, the fibers collectively defining tortuous fluid flow paths, the three dimensional bonded fiber fluid transmissive component having a predetermined cross-sectional shape that is substantially constant along at least one axis of the multi-component structure, and each fluid transmissive component having an interface with at least one other fluid transmissive component; and

disposing the multi-component structure within the reservoir cavity to form the ink jet printer cartridge.

21. A method of forming an ink jet printer cartridge according to claim 20 further comprising:

introducing ink into the reservoir cavity, at least a portion of the ink being drawn into and held within the at least one three dimensional bonded fiber fluid transmissive component of the multi-component structure.

22. A method of forming an ink jet printer cartridge according to claim 20 , wherein the plurality of fluid transmissive components includes a plurality of three-dimensional bonded fiber fluid transmissive components.

23. A method of forming an ink jet printer cartridge according to claim 22 , wherein at least a portion of the fibers of each three-dimensional bonded fiber fluid transmissive component is bonded to fibers of at least one other three-dimensional bonded fiber fluid transmissive component across the interface at spaced apart contact points.

24. A method of forming an ink jet printer cartridge according to claim 22 , wherein the plurality of three-dimensional bonded fiber fluid transmissive components includes a first three-dimensional bonded fiber fluid transmissive component having a first set of fluid flow characteristics and a second three-dimensional bonded fiber fluid transmissive component having a second set of fluid flow characteristics that is different from the first set of fluid flow characteristics.

25. A method of forming an air freshener, the method comprising:

providing an exterior case defining a reservoir cavity;

providing a wick comprising a multi-component structure comprising a plurality of fluid transmissive components, at least one of which is a three-dimensional bonded fiber fluid transmissive component comprised of a plurality of polymeric fibers bonded to each other at spaced apart contact points, the fibers collectively defining tortuous fluid flow paths, the three dimensional bonded fiber fluid transmissive component having a predetermined cross-sectional shape that is substantially constant along at least one axis of the multi-component structure, and each fluid transmissive component having an interface with at least one other fluid transmissive component, the wick having first and second wick ends; and

disposing at least a portion of the wick within the reservoir cavity so that the first wick end would be in fluid communication with liquid introduced into the reservoir cavity.

26. A method of forming an air freshener according to claim 25 further comprising:

introducing liquid into the reservoir cavity so that the first wick end is in fluid communication with the liquid and so that at least a portion of the liquid is drawn into the at least one three dimensional bonded fiber fluid transmissive component of the multi-component structure and is drawn toward the second wick end.

27. A method of forming an air freshener according to claim 25 , wherein the plurality of fluid transmissive components includes a plurality of three-dimensional bonded fiber fluid transmissive components.

28. A method of forming an air freshener according to claim 27 , wherein at least a portion of the fibers of each three-dimensional bonded fiber fluid transmissive component is bonded to the fibers of at least one other three-dimensional bonded fiber fluid transmissive component across the interface at spaced apart contact points.

29. A method of forming an air freshener according to claim 27 , wherein the plurality of three-dimensional bonded fiber fluid transmissive components includes a first three-dimensional bonded fiber fluid transmissive component having a first set of fluid flow characteristics and a second three-dimensional bonded fiber fluid transmissive component having a second set of fluid flow characteristics that is different from the first set of fluid flow characteristics.

30. The integrally formed multi-component structure of claim 1 , wherein the predetermined cross-sectional shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

31. The integrally formed multi-component structure of claim 1 , wherein each of the plurality of fluid transmissive components has a predetermined cross-sectional component shape that is substantially constant along the at least one of the at least one axis of the multi-component structure.

32. The integrally formed multi-component structure of claim 31 , wherein each predetermined cross-sectional component shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

33. The integrally formed multi-component structure of claim 14 , wherein the first and second predetermined cross-sectional shapes are each selected from a set consisting of a rectangle, a circle, and a semicircle.

34. The integrally formed multi-component structure of claim 14 , wherein each of the plurality of three-dimensional bonded fiber fluid transmissive components has a predetermined cross-sectional component shape that is substantially constant along the at least one of the at least one axis of the multi-component structure.

35. The integrally formed multi-component structure of claim 34 , wherein each predetermined cross-sectional component shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

36. The integrally formed multi-component structure of claim 20 , wherein the predetermined cross-sectional shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

37. The integrally formed multi-component structure of claim 20 , wherein each of the plurality of fluid transmissive components has a predetermined cross-sectional component shape that is substantially constant along the at least one of the at least one axis of the multi-component structure.

38. The integrally formed multi-component structure of claim 37 , wherein each predetermined cross-sectional component shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

39. The integrally formed multi-component structure of claim 25 , wherein the predetermined cross-sectional shape is selected from a set consisting of a rectangle, a circle, and a semicircle.

40. The integrally formed multi-component structure of claim 25 , wherein each of the plurality of fluid transmissive components has a predetermined cross-sectional component shape that is substantially constant along the at least one of the at least one axis of the multi-component structure.

41. The integrally formed multi-component structure of claim 40 , wherein each predetermined cross-sectional component shape is selected from a set consisting of a rectangle, a circle, and a semicircle.