Phase-Separated Evaporator, Blade-Thru Condenser and Heat Dissipation System Thereof
Abstract
A phase-separated evaporator includes a boiler plate and a phase separation chamber that includes a housing, connected to the boiler plate, having a gas port and a liquid port; and a phase partitioner connected to interiors of the housing, dividing the phase-separated evaporator into a vapor directing compartment and a condensate directing compartment. The phase partitioner includes a partition panel and multiple feeding injectors extending from the partition panel, with the injector tips disposed immediately above the boiler plate. The returning condensate from a condenser enters from the liquid port into the condensate directing compartment and feeds onto the boiler plate through the feeding injectors; while the vapor generated in the vapor directing compartment exits from the gas port, without encountering the condensate. Further disclosed are a high efficiency heat dissipation system utilizing the phase-separated evaporator and a blade-thru condenser, and a computer system utilizing the heat dissipation system.
Claims
exact text as granted — not AI-modified1 . A phase-separated evaporator comprising:
(a) a boiler plate; and (b) a phase separation chamber comprising: (i) a housing having a base connected to said boiler plate; said housing having a liquid port and a gas port; and (ii) a phase partitioner inside said housing, dividing said phase-separated evaporator into a vapor directing compartment on a side of said boiler plate and a condensate directing compartment on an opposing side of said phase partitioner; said vapor directing compartment being in communication with said gas port and said condensate directing compartment being in communication with said liquid port; said phase partitioner including a plurality of openings permitting a condensate in said condensate directing compartment to pass therethrough to said vapor directing compartment.
2 . The phase-separated evaporator of claim 1 , wherein said phase partitioner includes a partition panel and said openings include a plurality of feeding injectors extending from a surface of said partition panel within said vapor directing compartment toward an upper surface of said boiler plate.
3 . The phase-separated evaporator of claim 2 , wherein each of said feeding injectors has an injector inlet and an opposing injector tip; and said injector tip is disposed immediately adjacent said upper surface of said boiler plate.
4 . The phase-separated evaporator of claim 2 , wherein said partition panel has a pressure vent opening for balancing pressure between said condensate directing compartment and said vapor directing compartment.
5 . The phase-separated evaporator of claim 2 , wherein said liquid port and said gas port are positioned on a side wall of said housing; and said liquid port is disposed between a top wall of said housing and said partition panel, and said gas port is disposed between said partition panel and said boiler plate.
6 . The phase-separated evaporator of claim 1 , wherein a top wall of said housing and said partition panel incline along a longitudinal axis of said phase separation chamber toward said boiler plate; and said partition panel is substantially in parallel with said top wall.
7 . The phase-separated evaporator of claim 3 , wherein said upper surface of said boiler plate is coated with a micro porous coating material.
8 . The phase-separated evaporator of claim 7 , wherein said upper surface of said boiler plate comprises a plurality of pins extending upward therefrom.
9 . The phase-separated evaporator of claim 7 , wherein said boiler plate comprises a plurality of landing zones on said upper surface in spaces among said pins, surfaces of said landing zones being substantially free of said micro porous coating material; and said injector tips are disposed immediately adjacent said landing zones.
10 . The phase-separated evaporator of claim 1 , wherein said phase partitioner and said housing are made of a thermal-insulating material.
11 . The phase-separated evaporator of claim 1 , wherein a top wall of said housing has an inclined section covering substantially an upper surface of said boiler plate along a longitudinal axis of said phase separation chamber, and a port section adjacent to, and vertically extending above, said inclined section; and said liquid port and said gas port are positioned on top of said port section.
12 . The phase-separated evaporator of claim 11 , wherein said partition panel includes an inclined panel substantially in parallel with said inclined section of said top wall of said housing and a vertical section extending from one end of said inclined panel upwardly within said port section; and said inclined panel comprises a plurality of feeding injectors extending therefrom toward said boiler plate.
13 . A heat dissipation system comprising:
(a) a phase-separated evaporator, comprising: (i) a boiler plate; and (ii) a phase partitioner inside said housing, dividing said phase-separated evaporator into a vapor directing compartment on a side of said boiler plate and a condensate directing compartment on an opposing side of said phase partitioner; said vapor directing compartment being in communication with said gas port and said condensate directing compartment being in communication with said liquid port; said phase partitioner including a plurality of openings permitting a condensate in said condensate directing compartment to pass therethrough to said vapor directing compartment; (b) a condenser; (c) a vapor conduit connected between said gas port of said evaporator and an input interface of said condenser; and (d) a condensate conduit connected between an output interface of said condenser and said liquid port of said evaporator.
14 . The heat dissipation system of claim 13 further comprising a fan positioned adjacent to said condenser, for removing hot air released from said condenser.
15 . The heat dissipation system of claim 13 , wherein said condenser is a blade-thru condenser comprising:
(a) a condenser core comprising multiple substantially planar blades, each of said multiple blades having at least one chamber formed monolithically therein, a floor of said chamber having at least one aperture; said multiple blades joined in parallel alignment, with said apertures positioned to permit vapor and condensate to pass through said apertures; (b) an input interface; and (c) an output interface.
16 . The heat dissipation system of claim 15 , wherein said apertures include at least one reed.
17 . The heat dissipation system of claim 13 , wherein said condenser is a blade-thru condenser comprising:
(a) a condenser core comprising multiple substantially planar blades joined in parallel by one or more spacer rings disposed between two adjacent blades; each of said blades comprising one or more chambers formed within interiors of said spacer rings, wherein an area of said blades enclosed within said spacer ring forms a floor of said chamber and said spacer ring forms a wall of said chamber, said floor having at least one aperture; said chambers of said multiple blades in alignment to permit vapor and condensate to pass through said apertures; (b) an input interface; and (c) an output interface.
18 . The heat dissipation system of claim 17 , wherein said floor of said chamber and rest of said blades are monolithic.
19 . A computer system comprising a heat dissipation system comprising a phase-separated evaporator, a condenser, and a coolant hermetically sealed therein; said phase-separated evaporator comprising:
(a) a boiler plate being in a direct contact with a heat generating component of said computer system; and (b) a phase separation chamber comprising a housing and a phase partitioner; said housing having a base connected to said boiler plate and having a liquid port and a gas port; and said phase partitioner inside said housing, dividing said phase-separated evaporator into a vapor directing compartment on a side of said boiler plate and a condensate directing compartment on an opposing side of said phase partitioner; said vapor directing compartment being in communication with said gas port and said condensate directing compartment being in communication with said liquid port; said phase partitioner including a plurality of openings permitting a condensate in said condensate directing compartment to pass therethrough to said vapor directing compartment.
20 . The computer system of claim 19 , wherein said condenser comprises a condenser core comprising multiple substantially planar blades, each of said multiple blades having at least one chamber formed monolithically therein, a floor of said chamber having at least one aperture; said multiple blades jointed in parallel alignment, with said apertures positioned to permit vapor and condensate to pass through said apertures.Join the waitlist — get patent alerts
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