Abstract: A cold plate assembly includes a thermally conductive cold plate having a first surface attachable to a heat generating electronic component of an information processing system. An opposite second surface includes an array of hollow riser columns extending orthogonally and filled with a saturated working fluid for heat transfer. The cold plate assembly includes a stacked arrangement of fins physically attached perpendicularly to at least one of the riser columns. The vertical levels of fins are spaced apart, substantially in parallel with each other and the second surface to form a fin stack. An encapsulating lid of the cold plate assembly is attached to the second surface to form a liquid cooling cavity that encloses the fin stack. The encapsulating lid includes an intake port and an exhaust port that are laterally positioned and aligned with the fin stack to create liquid flow through the fin stack for liquid cooling.

Abstract: A rack liquid cooling manifold (RLCM) system includes a supply manifold to receive a cooling liquid for cooling heat-generating electronic components via a cold plate and a return manifold to exhaust the cooling liquid from the cold plate. The RLCM system includes a manifold control unit (MCU) integrated into the supply manifold or the return manifold that is communicatively coupled to a supply control valve and a datacenter control system. The MCU includes a memory with rack temperature and liquid control (RTLC) code and a processor that processes the RTLC code to cause the MCU to: receive node-level liquid telemetry data originating from one or more liquid telemetry sensors integrated at a respective node; trigger actuation of the supply control valve to control a rate of cooling liquid flow into the supply manifold, partly based on the liquid telemetry data; and communicate rack level information with the datacenter control system.

Abstract: Performance of a system may be boosted with a boost dock that seals fan interfaces to improve airflow through an information handling system. An apparatus may include a first port configured to seal a first interface between the apparatus and an information handling system. The apparatus may also include a first blower configured to receive ambient air as cool intake air and to blow the cool intake air into the information handling system through the first interface sealed by the first port. The apparatus may further include a second blower configured to receive warm exhaust air from the information handling system through the first interface sealed by the first port and to blow the warm exhaust air out of the apparatus. A method may include steps of sealing a first interface, receiving ambient air, blowing cool intake air, receiving warm exhaust air, and blowing warm exhaust air.

Abstract: Control signals, such as PWM control signals, can be used to control aspects of a cooling system and can be generated using proportional-integral-derivative (PID) control. PID control systems for cooling systems are designed based on default environmental and system characteristics and pre-programmed for operation prior to delivery to customers or end users. Changes in environmental and system characteristics, such as component aging, environmental variations, and variation in manufacturing from system to system, such as heat sink effectiveness and application of thermal pastes, can impact system level performance of the control system. Adjusting gain parameters for the P, I, and D components of a PID control signal can reduce negative impact on system performance resulting from such changes and allow the control system to better adjust to external factors.

Abstract: Performance of a system may be boosted with a boost dock that seals fan interfaces to improve airflow through an information handling system. An apparatus may include a first port configured to seal a first interface between the apparatus and an information handling system. The apparatus may also include a first blower configured to receive ambient air as cool intake air and to blow the cool intake air into the information handling system through the first interface sealed by the first port. The apparatus may further include a second blower configured to receive warm exhaust air from the information handling system through the first interface sealed by the first port and to blow the warm exhaust air out of the apparatus.

Abstract: Control signals, such as PWM control signals, can be used to control aspects of a cooling system and can be generated using proportional-integral-derivative (PID) control. PID control systems for cooling systems are designed based on default environmental and system characteristics and pre-programmed for operation prior to delivery to customers or end users. Changes in environmental and system characteristics, such as component aging, environmental variations, and variation in manufacturing from system to system, such as heat sink effectiveness and application of thermal pastes, can impact system level performance of the control system. Adjusting gain parameters for the P, I, and D components of a PID control signal can reduce negative impact on system performance resulting from such changes and allow the control system to better adjust to external factors.

Abstract: A method may comprise causing a fluid to flow from a first fluidic column primary quick disconnect fluid fitting through a first fluidic column, the first fluidic column primary quick disconnect fluid fitting fluidically coupled to the first fluidic column and configured to couple to a first quick disconnect fluid fitting of a fluid network port. The method may also comprise causing the fluid to flow from the first fluidic column through at least one first fluidic column secondary quick disconnect fluid fitting having a fluidic network of corresponding information handling resource fluidically coupled thereto, the at least one first fluidic column secondary quick disconnect fluid fitting fluidically coupled to the first fluidic column and the fluidic network having one or more fluid conduits for conveying the fluid proximate to the information handling resource.

Abstract: A system may include a chassis having a pair of stationary rails mechanically coupled thereto. Each stationary rail may receive a corresponding telescoping sliding rail. Each stationary rail/sliding rail combination may be configured to convey a cooling fluid to or from a heat exchanger.

Abstract: A method may comprise causing a fluid to flow from a first fluidic column primary quick disconnect fluid fitting through a first fluidic column, the first fluidic column primary quick disconnect fluid fitting fluidically coupled to the first fluidic column and configured to couple to a first quick disconnect fluid fitting of a fluid network port. The method may also comprise causing the fluid to flow from the first fluidic column through at least one first fluidic column secondary quick disconnect fluid fitting having a fluidic network of corresponding information handling resource fluidically coupled thereto, the at least one first fluidic column secondary quick disconnect fluid fitting fluidically coupled to the first fluidic column and the fluidic network having one or more fluid conduits for conveying the fluid proximate to the information handling resource.

Abstract: A method may comprise causing a fluid to flow from a first fluidic column primary quick disconnect fluid fitting through a first fluidic column, the first fluidic column primary quick disconnect fluid fitting fluidically coupled to the first fluidic column and configured to couple to a first quick disconnect fluid fitting of a fluid network port. The method may also comprise causing the fluid to flow from the first fluidic column through at least one first fluidic column secondary quick disconnect fluid fitting having a fluidic network of corresponding information handling resource fluidically coupled thereto, the at least one first fluidic column secondary quick disconnect fluid fitting fluidically coupled to the first fluidic column and the fluidic network having one or more fluid conduits for conveying the fluid proximate to the information handling resource.

Abstract: A thermal state within an information handling system enclosure is managed within predetermined constraints by estimating thermal energy introduced to the enclosure by power dissipation to electronic components and thermal energy removed from the enclosure by a cooling airflow generated by a fan. A desired bulk temperature of a cooling airflow is attained at a predetermined position in an enclosure by selecting a fan speed and power allocation to the components that conserves energy within the enclosure at a predetermined thermal state.

Abstract: A system may include a chassis having a pair of stationary rails mechanically coupled thereto. Each stationary rail may receive a corresponding telescoping sliding rail. Each stationary rail/sliding rail combination may be configured to convey a cooling fluid to or from a heat exchanger.

Abstract: A system may include a chassis having a pair of stationary rails mechanically coupled thereto. Each stationary rail may receive a corresponding telescoping sliding rail. Each stationary rail/sliding rail combination may be configured to convey a cooling fluid to or from a heat exchanger.

Abstract: A method may comprise causing a fluid to flow from a first fluidic column primary quick disconnect fluid fitting through a first fluidic column, the first fluidic column primary quick disconnect fluid fitting fluidically coupled to the first fluidic column and configured to couple to a first quick disconnect fluid fitting of a fluid network port. The method may also comprise causing the fluid to flow from the first fluidic column through at least one first fluidic column secondary quick disconnect fluid fitting having a fluidic network of corresponding information handling resource fluidically coupled thereto, the at least one first fluidic column secondary quick disconnect fluid fitting fluidically coupled to the first fluidic column and the fluidic network having one or more fluid conduits for conveying the fluid proximate to the information handling resource.

Abstract: A thermal state within an information handling system enclosure is managed within predetermined constraints by estimating thermal energy introduced to the enclosure by power dissipation to electronic components and thermal energy removed from the enclosure by a cooling airflow generated by a fan. A desired bulk temperature of a cooling airflow is attained at a predetermined position in an enclosure by selecting a fan speed and power allocation to the components that conserves energy within the enclosure at a predetermined thermal state.

Abstract: In accordance with an embodiment of the present disclosure, at least one of one or more pumps and a heat exchanger of a fluidic network may be fluidically coupled to its respective adjacent fluidic conduits such that it may be removed from and replaced in the chassis without discharging cooling fluid present in other fluidic components of the chassis.

Abstract: A system may include a chassis having a pair of stationary rails mechanically coupled thereto. Each stationary rail may receive a corresponding telescoping sliding rail. Each stationary rail/sliding rail combination may be configured to convey a cooling fluid to or from a heat exchanger.