A fan carrier system, including a fan carrier, including: a fan apparatus having i) a first end positioned opposite to a second end, and ii) a first side positioned opposite to a second side, the first and the second side extending between the first end and the second end; a first piston coupled to the fan apparatus, the first piston positioned along the first side, the first piston translatable between the first end and the second end; a connection assembly coupled to a first end of the first piston, the connection assembly including a first connector; a handle assembly, including: a first arm coupled to the first piston via a first handle pin, the first arm further including a first carrier pin; a handle coupled to the first arm; a chassis, including: a first wall and a second wall each including a respective slot.

A module modular containment system for isolating and cooling racks of information handling systems in a facility comprises a plurality of vertical panels coupled to a top panel to isolate the rack from room air and a heat exchanger coupled to a facility water feed that supplies water at a water temperature greater than the room air temperature. Heated air exiting the rack passes through the heat exchanger to transfer heat to the water such that the air is cooled to the first air temperature. An air conditioning system and the modular containment system can operate independently to cool the room air to a lower air temperature for the comfort of people in the facility and to cool information handling systems based on operating parameters of the information handling systems.

A modular data center has an air handling unit (AHU) that is coupled to a first panel that is engaged over a first opening in a volumetric container. The AHU directs pressurized supply air through a supply air outlet into a cold aisle causing the supply air to pass through a first side of the IT component(s) installed in an interior of the volumetric container. A chimney of a return air plenum captures return air from a second side of the IT component(s), directing the return air to a return air duct of the return air plenum that is connected to a return air inlet of the AHU. In one or more embodiments, a second AHU is coupled to a second panel that is engaged to a second opening in a second side, directing pressurized supply air via a supply air plenum to the opposing first side.

A fan carrier system, including a fan carrier, including: a fan apparatus having i) a first end positioned opposite to a second end, and ii) a first side positioned opposite to a second side, the first and the second side extending between the first end and the second end; a first piston coupled to the fan apparatus, the first piston positioned along the first side, the first piston translatable between the first end and the second end; a connection assembly coupled to a first end of the first piston, the connection assembly including a first connector; a handle assembly, including: a first arm coupled to the first piston via a first handle pin, the first arm further including a first carrier pin; a handle coupled to the first arm; a chassis, including: a first wall and a second wall each including a respective slot.

Configurations for exhaust baffles are disclosed. In at least one embodiment, one or more baffles direct an outlet air flow from a heat exchanger.

A server holder includes a holder defining a holder volume and having server supports spaced apart in the holder volume to support servers. The holder defines a holder opening to permit fluid communication between the server supports in the holder volume and air flowing outside the holder. At least one baffle is mounted to the holder adjacent to one or more of the server supports. The at least one baffle extends outwardly from the holder. The at least one baffle is shaped and sized to locally restrain the air flowing outside the holder around the one or more server supports.

A cooling system for an information handling system in a portable chassis comprises a vapor chamber for transferring heat away from components, a porous heat exchanger for receiving heat from the vapor chamber, an air pump of receiving airflow at a first air pressure and generating a second airflow at a second air pressure greater than the first airflow. The porous heat exchanger may comprise one of a plurality of sides of an internal air chamber configured to allow the air pump to generate the second air pressure two to three orders of magnitude greater than the first air pressure. An air pump such as a piezoelectric air pump can generate airflow at a pressure that is two to three orders of magnitude greater than possible using a traditional blower.

An temperature control method including the following steps: driving an temperature control device to generate air circulation for a first server and a second server; monitoring operation state of the temperature control device, the first server and the second server continuously to establish a first learning model; receiving an temperature control state data of the temperature control device, a first state data of the first server, and a second state data of the second server, wherein the first state data includes a first temperature, and the second state data includes a second temperature; inputting the temperature control state data, the first state data, and the second state data into the first learning model to obtain a first temperature prediction value output by the first learning model; and adjusting the temperature control device according to the first temperature prediction value.

The disclosure provides a data center with high density server racks that are solely air cooled. A data center comprises a processor to use one or more computational fluid dynamics (CFD) models to indicate a placement of one or more servers within one or more server racks to substantially maintain a temperature within the one or more server racks during operation without using additional cooling sources.

Examples herein disclose a plenum. The plenum includes an enclosed structure to deliver cool air to multiple enclosures within a rack and multiple cables to route to the multiple enclosures within the rack. The plenum further includes a connector to attach the multiple cables in the plenum to one of the multiple enclosures.