Granted Patent B2

US 12,263,437 · App. 18/421,645 · Granted Apr 1, 2025

Inventors: Noah David Liebman (Los Angeles, CA); Peter Ciulla (Los Angeles, CA); Rachel Shiomi Ozer (Los Angeles, CA); Christopher Volk (Los Angeles, CA)

Assignee: CARBON CAPTURE INC.

B01D53/0407B01D46/4272B01D2257/504

Abstract

Claims (67)

1. An air treatment apparatus for removing carbon dioxide (CO 2 ) from the atmosphere, the air treatment apparatus comprising:

an adsorbent reactor chamber;

two rectangular openings in the walls of the adsorbent reactor chamber, wherein each of the two rectangular openings are disposed on opposite sides of the adsorbent reactor chamber;

at least one valve frame affixed around each of the two rectangular openings;

a double-door valve comprising two rectangular valve elements associated with each valve frame and attached at opposite sides of the valve frame, wherein each of the two rectangular valve elements of the double-door valve is capable of opening in a direction outward from the adsorbent reactor chamber;

at least one sealing element between the two rectangular valve elements and each valve frame; and

at least one primary actuation mechanism for selectively moving the two rectangular valve elements between an open position and a closed position,

wherein, when the two rectangular valve elements are in the open position a flow of gas may enter and exit the adsorbent reactor chamber through the two rectangular openings, and

wherein, when the two rectangular valve elements are in the closed position, the two rectangular openings of the adsorbent reactor chamber are sealed to prevent flow of gases into or out of the adsorbent reactor chamber through the two rectangular openings.

2. The air treatment apparatus of claim 1 , further comprising:

a plurality of secondary actuation mechanisms; and

a plurality of clamping mechanisms, each of the plurality of clamping mechanisms comprising at least one latch with a leading ramp edge,

wherein each of the plurality of secondary actuation mechanisms actuate one of the plurality of clamping mechanisms, and

wherein each of the plurality of clamping mechanisms translate linear force into the compression of the at least one sealing element while maintaining the position and orientation of the two rectangular valve elements.

3. The air treatment apparatus of claim 2 , wherein each of the plurality of clamping mechanisms further comprise:

a receiving assembly,

wherein the at least one latch contacts the receiving assembly when the two rectangular valve elements are in the closed position.

4. The air treatment apparatus of claim 3 ,

wherein each of the receiving assemblies further comprise a receiver sleeve,

wherein the at least one latch contacts the receiver sleeve when the two rectangular valve elements are in the closed position, and

wherein the receiver sleeve is the acting surface for application of force when the at least one latch contacts the receiver sleeve.

5. The air treatment apparatus of claim 4 ,

wherein each of the plurality of clamping mechanisms further comprises at least one collar connected to one of the two rectangular valve elements forming a hollow passthrough,

wherein the at least one latch extends through the hollow of the collar, and

wherein the at least one collar reduces backlash in the at least one latch and maintains that the plurality of the secondary actuation mechanisms be level and parallel with one of the two rectangular valve elements.

6. The air treatment apparatus of claim 2 , wherein the at least one sealing element comprise a soft elastomeric material.

7. The air treatment apparatus of claim 1 , wherein the valve frame and the two rectangular valve elements comprise an aluminum or steel alloy.

8. The air treatment apparatus of claim 1 ,

wherein the valve frame comprises a middle sill or post, and

wherein the two rectangular valve elements and the at least one sealing element form a seal against the valve frame and the middle sill or post when the two rectangular valve elements are in the closed position.

9. The air treatment apparatus of claim 1 ,

wherein each of the two rectangular valve elements comprise a plurality of ribs or baffles made orthogonal to the valve element, and

wherein the ribs or baffles extend horizontally and/or vertically.

10. The air treatment apparatus of claim 8 ,

wherein the middle sill or post has an area coplanar with the valve frame, and

wherein the ratio of the area of the middle sill or post to the area of the two rectangular openings is 20 percent or less.

11. The air treatment apparatus of claim 8 ,

wherein the middle sill or post comprises a rib or baffle,

wherein the rib or baffle is integral with, and orthogonal to, the middle sill or post, and,

wherein the rib or baffle comprises at least one cut-out portion through which at least one clamping mechanism extends when the two rectangular valve elements are in the closed position.

12. The air treatment apparatus of claim 6 ,

wherein a groove is formed in each of the two rectangular valve elements, and

wherein the at least one sealing element are disposed in the grooves.

13. The air treatment apparatus of claim 4 ,

wherein each of the plurality of secondary actuation mechanisms positions one of the at least one latch beneath the receiver sleeve a first distance when the two rectangular valve elements are in the closed position, and

wherein each of the plurality of secondary actuation mechanisms positions one of the at least one latch beneath the receiver sleeve a second distance when the adsorbent reactor chamber experiences the application of vacuum internal to the reactor, and

wherein the second distance is greater than the first distance.

14. The air treatment apparatus of claim 12 ,

wherein the elastomeric material undergoes a first compression to a first percentage of its thickness when the two rectangular valve elements are closed by the secondary actuation mechanism,

wherein the elastomeric material undergoes a second compression to a second percentage of its thickness upon the application of vacuum internal to the reactor, and

wherein, the second percentage of thickness is greater than the first percentage of thickness.

15. The air treatment apparatus of claim 14 ,

wherein the elastomeric material comprises a plurality of protrusions that extend away from the two rectangular valve elements,

wherein the plurality of protrusions make first contact with the valve frame when the two rectangular valve elements are in the closed position, and

wherein the plurality of protrusions have at least one square tip, rounded tip, or serrated tip.

16. The air treatment apparatus of claim 4 ,

wherein the receiver sleeve is cylindrical, and

wherein the ramped leading edge of the latch becomes tangent to the receiver sleeve when the two rectangular valve elements are in the closed position.

17. The air treatment apparatus of claim 2 ,

wherein the primary actuation mechanism is a motor, and

wherein the secondary actuation mechanism is a pneumatic cylinder or a linear actuator.

18. The air treatment apparatus of claim 2 , wherein each of the two rectangular valve elements comprises:

at least one door-side hinge disposed on the rectangular valve element,

at least one frame-side hinge disposed on the valve frame, and

a double-hinged retaining arm that articulates around the at least one frame-side hinge and the at least one door-side hinge,

wherein the connected combination of the frame-side hinge, the door-side hinge, and the retaining arm translates linear force into the compression of the sealing element while maintaining the position and orientation of the rectangular valve elements.

19. The air treatment apparatus of claim 2 , wherein each of the two rectangular valve elements corresponds to one primary actuation mechanism, eight secondary actuation mechanisms, and eight clamping mechanisms.

Assignments (2)

Continuity (2)

References Cited (30)