IP Library › Granted Patent US 12,680,279
Granted Patent B2
US 12,680,279 · App. 18/380,111 · Granted Jul 14, 2026

Water harvester adsorption enthalpy removal system

Inventors: Ievgen Kapustin (Fremont, CA); David S. Kuo (Fremont, CA); Kent D. Penning (Fremont, CA)
Assignee: Water Harvesting, Inc.
E03B3/28B01D53/261
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Quick Facts
Patent No.
US 12,680,279
App. No.
18/380,111
Filed
Oct 13, 2023
Granted
Jul 14, 2026
Kind
B2
Examiner
ZEC, FILIP
Art Unit
3763
USPC
62/272
Abstract

Generally, a water harvester useful in harvesting water from supply air. Specifically, a water harvester configured to remove the heat gained during adsorption of water by the water capture material contained in the water capture modules of the water harvester. Removal of the enthalpy associated with the adsorption of water by the water capture material can lower the equilibrium temperature of the water capture material and increase the driving potential of adsorption by the water capture material and correspondingly increase the difference in absolute humidity between the supply air passing into a water capture module and the discharge air passing out of a water capture module.

Claims (50)

1 . A method of making an apparatus, comprising:

containing a water capture material in a water capture module having a supply airflow inlet and a discharge airflow outlet and a desorption airflow inlet and a desorption airflow outlet;

coupling a discharge heat exchanger to said water capture module, said discharge heat exchanger having a discharge heat exchanger hot side inlet and a discharge heat exchanger hot side outlet and a discharge heat exchanger cold side inlet and a discharge heat exchanger cold side outlet,

wherein said discharge airflow outlet coupled to said discharge heat exchanger hot side inlet,

wherein said discharge heat exchanger cold side fluidically coupled to an outdoor air source or to a cooling unit;

fluidically coupling a first chamber to said desorption airflow inlet and said desorption airflow outlet of said water capture module;

thermally coupling a heat source to said first chamber; and

recirculating a heated airflow between said first chamber and said water capture module to desorb water vapor from said water capture material.

2 . The method of claim 1 , further comprising:

fluidically coupling a second chamber to said first chamber;

thermally coupling a cool source to said second chamber; and

recirculating said water vapor between said first chamber and said second water chamber to condense liquid water from said water vapor.

3 . The method of claim 2 , further comprising:

fluidically coupling a water reservoir to said second chamber; and

collecting liquid water in said water reservoir.

4 . The method of claim 1 , wherein said water capture module comprises a plurality of water capture modules,

wherein said discharge heat exchanger comprises a plurality of discharge heat exchangers,

wherein said discharge airflow outlet of each of said plurality of water capture modules coupled to said discharge heat exchanger hot side inlet of one of said plurality of discharge heat exchangers, and further comprising:

fluidically coupling said supply airflow inlet of at least one said plurality of water capture modules to a discharge heat exchanger hot side outlet.

5 . A method of making an apparatus, comprising:

containing a water capture material in a water capture module,

wherein said water capture module includes an adsorption airflow inlet and an adsorption airflow outlet,

wherein an airflow passes through said water capture material between said adsorption airflow inlet and said adsorption airflow outlet in an adsorption mode of said water capture module,

wherein said water capture material module includes a desorption airflow inlet and a desorption airflow outlet,

wherein an airflow passes through said water capture material between said desorption airflow inlet and said desorption airflow outlet and water capture material in a desorption mode, a preheat mode, or a precool mode of said water capture module,

adapting a heat source to couple to said desorption airflow inlet and said desorption airflow outlet in said desorption mode of said water capture module, said heat source operable to heat said water capture material to desorb water vapor into said airflow passing through said water capture material between said desorption airflow inlet and said desorption airflow outlet; and

adapting an external heat exchanger to couple to said desorption airflow inlet and said desorption airflow outlet, said external heat exchanger having a heat exchanger hot side inlet and a heat exchanger hot side outlet and having a heat exchanger cold side inlet and heat exchanger cold side outlet,

wherein in said preheat mode of said water capture module,

said desorption airflow inlet fluidically coupled to said heat exchanger hot side outlet,

said desorption airflow outlet fluidically coupled to said heat exchanger cold side inlet,

wherein in said post cool mode of said water capture module,

said desorption airflow inlet fluidically coupled to said heat exchanger cold side outlet,

said desorption airflow outlet fluidically coupled to said heat exchanger hot side inlet.

6 . The method of claim 5 , wherein said water capture module comprises a plurality of water capture modules, and further comprising:

operating a first of said plurality of water capture modules in said adsorption mode,

operating a second of said plurality of water capture modules in said desorption mode,

operating a third of said plurality of water capture modules in said preheat mode, wherein said third of said plurality of water capture modules having said desorption airflow inlet fluidically coupled to said external heat exchanger hot side outlet and said desorption airflow outlet fluidically coupled to said external heat exchanger cold side inlet,

a fourth of said plurality of water capture modules operating in said precool mode, wherein said fourth of said plurality of water capture modules having said desorption airflow inlet fluidically coupled to external heat exchanger hot side outlet and said desorption airflow outlet coupled to external heat exchanger hot side inlet.

7 . The method of claim 6 , further comprising fluidically coupling one of a plurality of discharge heat exchangers to said adsorption airflow outlet of each of said plurality of water capture modules,

wherein said adsorption airflow outlet of each of said plurality of water capture modules fluidically coupled to a discharge heat exchanger hot side inlet of one of said plurality of discharge heat exchangers,

wherein said adsorption airflow inlet of at least one said plurality of water capture modules in said adsorption mode fluidically coupled to a discharge heat exchanger hot side outlet.

8 . The method of claim 7 , further comprising fluidically coupling a cooling unit to said discharge heat exchanger cold side inlet.

9 . A method of making an apparatus, comprising:

obtaining a first water capture module containing a first water capture material having a first water capture module airflow inlet and a first water capture module outlet;

obtaining a second water capture module containing a second water capture material having a second water capture module airflow inlet and a second water capture module airflow outlet;

obtaining an external heat exchanger having a heat exchanger hot side inlet and a heat exchanger hot side outlet and having a heat exchanger cold side inlet and heat exchanger cold side outlet;

fluidically coupling said first water capture module airflow inlet to said external heat exchanger cold side outlet;

fluidically coupling said first water capture module airflow outlet fluidically to said external heat exchanger hot side inlet;

fluidically coupling said second water capture module airflow inlet to said external heat exchanger hot side outlet; and

fluidically coupling said second water capture module airflow outlet fluidically to said external heat exchanger cold side inlet.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Oct 17, 2023
From: KAPUSTIN, IEVGEN; KUO, DAVID S.; PENNING, KENT D.
To: WATER HARVESTING, INC.
Reel/Frame 065251/0518 →
Continuity (1)
Related Publication 20250122701A1 · Apr 17, 2025
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