Abstract: Embodiments may be directed to a codesigned shroud for a chassis comprising a plurality of components and a plurality of fans generating a plurality of airflows to cool the plurality of components. The codesigned shroud may have a plurality of walls defining a plurality of channels, wherein at least two walls of the plurality of walls define each channel of the plurality of channels. Each channel may be aligned with a direction of an airflow of the plurality of airflows. At least one channel includes a set of baffles oriented substantially perpendicular to the direction of an airflow in the channel. Each baffle may be formed with acoustically absorbent material to absorb acoustic energy that could affect performance of a component, wherein a first baffle of the set of baffles is offset from a second baffle of the set of baffles.

Abstract: Embodiments may be generally directed to a system for generating reactive acoustic energy for reducing acoustic noise in a chassis of an information handling system. A set of acoustically reactive elements may be positioned relative to a backplane comprising a plurality of backplane openings. Each acoustically reactive element comprises a plurality of walls and an acoustical energy reducing opening. The plurality of walls define an internal volume, wherein at least one wall is aligned parallel with a direction of airflow.

Abstract: A system for protecting a hard disc drive (HDD) from acoustic energy in a chassis comprises a set of foam strips formed from acoustically absorptive material. Each foam strip has a thickness such that, when the HDD is installed in a chassis, the acoustically absorptive material is in a substantially uncompressed state. Foam strips are separated by an airflow path width, wherein two foam strips, a first surface of an HDD and a second surface form an airflow path. The second surface may be a surface of an adjacent HDD or a wall of the chassis. Each foam strip has a width and length configured for absorbing acoustic energy that would otherwise propagate through the airflow path.

Abstract: A computing chassis, including hard disk drives positioned at a first end of the chassis; a fan module positioned at a second end of the chassis; a first baffle having acoustic absorbing material, the first baffle extending between a first and a second side of the chassis, wherein the first and second sides of the chassis extend between the first and the second ends of the chassis, the first baffle spaced-apart from the fan module a first distance; a second baffle having acoustic absorbing material, the second baffle extending between the first and the second side of the chassis, the second baffle spaced-apart from the fan module a second distance greater than the first distance, wherein the first and the second baffle extend between the first and second sides of the chassis perpendicular to an airflow, and the acoustic absorbing material of the baffles attenuate acoustic waves.

Abstract: A fan carrier includes a fan mounting section, a connector mounting section, and a connecting section. The fan mounting section is placed in physical communication with a fan of an information handling system. The fan mounting section has both structural rigidity and vibration rigidity. The connector mounting section is placed in physical communication with a fan-side connector of the information handling system. The connector mounting section has structural rigidity to properly align the fan-side connector with a motherboard-side connector of the information handling system. The connecting section is in physical communication with and located in between the fan mounting section and the connector mounting section. The connecting section has structural rigidity and vibration flexibility, and the vibration flexibility reduces vibrations from the fan before the vibrations are transmitted to the fan-side connector.

Abstract: A fan carrier is to be placed in physical communication with a fan-side connector of an information handling system. The fan carrier includes a plunger assembly and multiple isolators. The plunger assembly is biased toward an at-rest position. The plunger assembly is in physical communication with the fan-side connector when the plunger assembly is in a deformed position. The isolators are mounted on the fan carrier, and dampen vibration energy in the fan carrier and prevent the vibration energy from being transferred to the fan-side connector. The isolators enable the fan-side connector to float within the fan carrier.

Abstract: A cooling system for cooling a set of components in a compute module and an array of storage devices in a storage module, the array of storage devices comprising rows and columns. The storage module is wider than the compute module to accommodate a larger backplane. The backplane has large vertical vent openings for accommodating connectors of storage devices connecting to the backplane. Pairs of divider walls positioned between adjacent columns of storage devices form large channels for increased airflow between columns of storage devices and reduced airflow between adjacent rows of storage devices. The design allows for increased cooling performance and reduced acoustic energy (noise).

Abstract: A cooling system for cooling a set of components in a compute module and an array of storage devices in a storage module, the array of storage devices comprising rows and columns. The storage module is wider than the compute module to accommodate a larger backplane. The backplane has large vertical vent openings for accommodating connectors of storage devices connecting to the backplane. Pairs of divider walls positioned between adjacent columns of storage devices form large channels for increased airflow between columns of storage devices and reduced airflow between adjacent rows of storage devices. The design allows for increased cooling performance and reduced acoustic energy (noise).

Abstract: A system may include a cooling subsystem comprising at least one air mover configured to generate a cooling airflow in the system and a thermal manager communicatively coupled to the cooling subsystem for control of the cooling subsystem and configured to determine an acoustic limit associated with the cooling subsystem, correlate the acoustic limit to an acoustic-based air mover speed limit for the at least one air mover, and control the cooling subsystem to maintain an air mover speed of the at least one air mover below the acoustic-based air mover speed limit.

Abstract: A system may include a cooling subsystem comprising at least one air mover configured to generate a cooling airflow in the system and a thermal manager communicatively coupled to the cooling subsystem for control of the cooling subsystem and configured to determine an acoustic limit associated with the cooling subsystem, correlate the acoustic limit to an acoustic-based air mover speed limit for the at least one air mover, and control the cooling subsystem to maintain an air mover speed of the at least one air mover below the acoustic-based air mover speed limit.

Abstract: Systems and methods for an acoustic hard drive surrogate. In some embodiments, an Information Handling System (IHS) may include a chassis having a hard drive bay, and an acoustic hard drive surrogate coupled to the hard drive bay, where the acoustic hard drive surrogate includes a microphone configured to measure a combined airflow-induced and fan-generated acoustic wave transmitted over the air within the chassis and received at a selected point on a surface of the acoustic hard drive surrogate, and where the measurement excludes vibration received by the acoustic hard drive surrogate through the chassis.