Solid production systems, devices, and methods utilizing oleophilic surfaces
Solid production systems, devices, and methods utilizing oleophilic surfaces are provided in accordance with various embodiments. Some embodiments include a water tank used to store fresh water. Some embodiments include an emulsion tank that may include a set of auxiliary components that may be utilized to create and/or to pump an emulsion. This auxiliary equipment may include suction headers, ejectors, pumps, mechanical mixers, and/or hydrodynamic mixers, for example. Some embodiments include a heat exchanger that may produce a cold surface for ice formation. This surface may include an oleophilic surface that may produce an affinity for oils and/or other non-polar materials. Some embodiments include piping that may allow for the connection of the other components such that ice may be formed from a flow of water from the emulsion and the overflow may be returned to the emulsion tank. Ice making methods are also provided.
1. A method of ice making comprising:
delivering an emulsion to an oleophilic surface of a heat exchanger;
forming an oil layer on the oleophilic surface of the heat exchanger from oil in the emulsion;
growing an ice sheet on the oil layer on the oleophilic surface of the heat exchanger from water in the emulsion;
curtailing the delivering of the emulsion to the oleophilic surface of the heat exchanger;
subcooling the ice sheet grown on the oil layer on the oleophilic surface of the heat exchanger after curtailing the delivering of the emulsion to the oleophilic surface of the heat exchanger; and
harvesting the ice sheet through the ice sheet, which is subcooled, falling away from the oleophilic surface of the heat exchanger.
2. The method of ice making of claim 1 , wherein delivering the emulsion to the oleophilic surface of the heat exchanger includes flowing the emulsion down the oleophilic surface of the heat exchanger.
3. The method of ice making of claim 1 , wherein harvesting the ice utilizes gravity such that the ice falls away from the oleophilic surface of the heat exchanger.
4. The method of ice making of claim 1 , further comprising pumping the emulsion from an emulsion tank to deliver the emulsion to the oleophilic surface of the heat exchanger.
5. The method of ice making of claim 4 , further comprising returning a portion of the emulsion to the emulsion tank after delivering the emulsion to the oleophilic surface of the heat exchanger.
6. The method of ice making of claim 5 , further comprising delivering additional water to the emulsion tank.
7. The method of ice making of claim 1 , further comprising forming the emulsion through combining oil and water.
8. The method of ice making of claim 7 , wherein forming the emulsion through combining the oil and the water includes utilizing suction in an emulsion tank to bring the oil and the water together to form the emulsion.
9. The method of ice making of claim 7 , wherein forming the emulsion through combining the oil and the water includes pumping the water to an ejector that forms suction with respect to the oil to bring the oil and the water together to form the emulsion.
10. The method of ice making of claim 7 , wherein forming the emulsion through combining the oil and the water includes utilizing a mechanical mixer to combine the oil and the water.
11. The method of ice making of claim 1 , wherein the oleophilic surface of the heat exchanger is vertically oriented such that the emulsion flows down the oleophilic surface of the heat exchanger.
12. The method of ice making of claim 1 , wherein the oleophilic surface of the heat exchanger includes at least PTFE, FEP, Polyethylene, Nylon, Acetal, PVDF, Silicone, or an oleophilic plastic.
13. The method of ice making of claim 1 , wherein the oil includes at least a hydrocarbon oil, a fluorocarbon oil, and a silicone oil.