Fluidic control system and method of manufacture
View Patent ↗A fluidic control system includes featured layers. The featured layers include two or more features which collectively form at least one functional component.
1. A fluidic control system comprising:
at least one pressure regulator;
two or more featured layers having features; wherein the features of any of the two or more featured layers interact to collectively form the at least one pressure regulator; the at least one pressure regulator comprises
a spring-biased valve having a position, wherein a fluid flow through the at least one pressure regulator based on the position of the valve, wherein the spring-biased valve is formed on one of the two or more featured layers, wherein the spring of the spring-biased valve is formed by said one of the two or more featured layers, and
a flexible feature actuatable in response to a sensory fluid pressure, where the sensory fluid pressure includes a pressure downstream of the valve, and a position of the flexible feature proportionally controls the valve position; and
wherein the two or more featured layers are stacked and joined together so as to be in fluid communication with one another and to form a gas-tight seal with each other, wherein the spring-biased valve is internal to the gas-tight seal layers.
2. The fluidic control system as recited in claim 1 further comprises an inlet and an outlet.
3. The fluidic control system as recited in claim 1 , wherein the spring-biased valve comprises a valve biased by at least one spring.
4. The fluidic control system as recited in claim 1 , further comprises a second pressure regulator, wherein the first and second pressure regulators are co-planar with each other.
5. The fluidic control system as recited in claim 1 further comprises a check valve component, a flow valve component, a charge valve component, a pressure relief component, a conduit, or a thermal relief component.
6. The fluidic control system as recited in claim 1 , further comprising a sealing layer.
7. The fluidic control system as recited in claim 1 , wherein the two or more featured layers include four featured layers.
8. The fluidic control system as recited in claim 1 , wherein one or more of the featured layers include a conduit channel, and a featured layer width is greater than about thirty times a conduit channel dimension.
9. A component for a fluidic control system, the component comprising:
two or more featured layers having features, the features including:
a spring biased valve having a position, wherein a fluid flows through the component is controllable based on the position of the valve, and wherein the spring-biased valve is formed on one of the two or more featured layers, wherein the spring of the spring-biased valve is formed by said one of the two or more featured layers;
wherein the component comprises at least one primary pressure regulator and at least one secondary pressure regulator; and
a flexible feature actuatable in response to a sensory fluid pressure, the sensory fluid pressure includes a pressure downstream of the valve, where a position of the flexible feature proportionally controls the valve position,
wherein the primary and secondary pressure regulators and the valve are formed by the two or more featured layers and wherein the two or more featured layers are stacked and joined together so as to be in fluid communication with one another and to form a gas-tight seal with each other, wherein the spring-biased valve is internal to the gas-tight seal layers.
10. The component as recited in claim 9 , wherein the features include at least two fluid plenums including a first pressure plenum and a second pressure plenum.
11. The component as recited in claim 10 , wherein the first pressure plenum is a high pressure plenum receiving unregulated fluid, and the second pressure plenum is a low pressure plenum receiving regulated fluid.
12. The component as recited in claim 11 , wherein the sensory fluid pressure includes a pressure in the low pressure plenum.
13. The component as recited in claim 10 , wherein the first pressure plenum is a high pressure plenum receiving regulated fluid, and the second pressure plenum is a low pressure plenum receiving unregulated fluid.
14. The component as recited in claim 13 , wherein the sensory fluid pressure includes a pressure in the high pressure plenum.
15. The component as recited in claim 10 , wherein the flexible feature is integrated with the second pressure plenum.
16. The component as recited in claim 10 , wherein a position of the flexible feature proportionally controls the position of the valve, and controls a flow of fluid between the first pressure plenum and the second pressure plenum.
17. The component as recited in claim 9 , wherein the flexible feature restricts flow through the component between a predefined range of sensory fluid pressures.
18. The component as recited in claim 9 , wherein the flexible feature has elastic properties.
19. The component as recited in claim 9 , further comprising a spring member in contact with the flexible feature.
20. A system comprising:
at least one fluidic control system including:
at least one functional component and a spring biased valve; and
two or more featured layers having features, wherein the spring-biased valve is formed on one of the two or more featured layers, wherein the spring of the spring-biased valve is formed by said one of the two or more featured layers,
wherein the features of any of the two or more featured layers collectively form the at least one functional component, the at least one functional component includes at least one primary pressure regulator;
at least one fluid enclosure communicatively coupled with the at least one fluidic control system; and
a flexible feature actuatable in response to a sensory fluid pressure, the sensory fluid pressure includes a pressure downstream of the valve, where a position of the flexible feature proportionally controls the valve position
wherein the two or more featured layers are stacked and joined together so as to be in fluid communication with one another and to form a gas-tight seal with each other, wherein the spring-biased valve is internal to the gas-tight seal layers.
21. The system as recited in claim 20 , wherein a width of a planar portion of the featured layer is greater than about thirty times a thickness of the featured layer.
22. The system as recited in claim 20 , wherein one or more of the at least one fluid enclosures are flexible.
23. The system as recited in claim 20 , further comprising at least one fuel cell communicatively coupled with the at least one fluidic control system.
24. The system as recited in claim 23 , wherein the sensory fluid pressure is a fluid pressure of a fluidic plenum of the at least one fuel cell.
25. A fluidic control system comprising at least one functional component formed by the interaction of features formed in two or more layers, wherein the component's function is achieved by the displacement of at least one feature out of its plane and into the plane of another featured layer, the at least one functional component including a spring biased valve, wherein the spring-biased valve is formed on one of the two or more featured layers, wherein the spring of the spring-biased valve is formed by said one of the two or more featured layers and the at least one functional component including at least one primary pressure regulator; and
a flexible feature actuatable in response to a sensory fluid pressure, the sensory fluid pressure includes a pressure downstream of the valve, where a position of the flexible feature proportionally controls a position of the valve,
wherein the two or more featured layers are stacked and joined together so as to be in fluid communication with one another and to form a gas-tight seal with each other wherein the spring-biased valve is internal to the gas-tight seal layers.
26. The system as in claim 25 , where a moveable feature of any one of the layers is configured to displace out of plane from the any one of the layers such that the moveable feature is displaced through a plane of an adjacent featured layer.
27. A fluidic control system, wherein a fluid is conducted through and is controlled by the fluidic control system, said fluid control system comprising:
a plurality of layers stacked on each other and joined to form a gas-tight single unit, and
a first pressure regulator formed by at least some of said plurality of layers and
wherein the pressure regulator comprises a flexible membrane formed by one of said plurality of layers and a spring biased valve member formed on another of said plurality of layers, wherein the spring of the spring-biased valve is formed by said another of said plurality of layers,
and wherein the pressure regulator is actuated in part by a pressure of said fluid, and wherein the spring-biased valve is internal to the gas-tight single unit.
28. The fluidic control system of claim 27 , wherein the pressure regulator comprises a high pressure fluid plenum formed by at least some of said plurality of layers.
29. The fluidic control system of claim 27 , wherein the pressure regulator comprises a low pressure fluid plenum formed in part by the flexible membrane.
30. The fluidic control system of claim 29 , wherein the pressure of said fluid in the low pressure fluid plenum partially actuates the pressure regulator.
31. The fluidic control system of claim 30 , wherein when the fluid pressure in the low pressure fluid plenum is above a predetermined level, the membrane flexes outward and the spring biased valve member is urged to a closed position to close the pressure actuator and when the fluid pressure in the flow pressure fluid plenum is below a predetermined level, the membrane moves in the opposite direction and the spring biased valve member is urged to an open position to open the pressure regulator.
32. The fluidic control system of claim 31 , wherein the valve member is biased by at least one spring formed in said another of said plurality of layers.
33. The fluidic control system of claim 27 further comprising a second pressure regulator by said plurality of layers.
34. The fluidic control system of claim 33 , wherein the pressure regulator and the second pressure regulator are coplanar.
35. The fluidic control system of claim 27 further comprising a check valve formed by said plurality of layers.
36. The fluidic control system of claim 35 , wherein the check valve comprises an inlet, an outlet and an elastomeric sealing member disposed therebetween, wherein the elastomeric member elastically deforms in response to pressure to open the check valve.
37. The fluidic control system of claim 27 further comprising a flow valve formed by said plurality of layers.