Abstract: Various embodiments of the present technology generally relate to systems and methods for storing datacenter equipment. More specifically, some embodiments relate to a datacenter rack (“computing rack”) that can be adjusted to fit various sizes of computing equipment and can be stacked with additional computing racks. In certain embodiments, the computing rack includes an enclosure for storing a plurality of computing units as well as one or more adjustable vertical mounting rails coupled to the frame of the computing rack for accommodating different sizes and specifications of equipment. The computing rack additionally includes components for stacking the unit with additional computing racks such that a set of stacked computing racks can fit multiple different sizes and specifications of computing equipment.

Abstract: Data storage device mounting systems to provide alignment and mounting of data storage devices are provided herein. A carrier is configured to couple to a data storage device and hang the data storage device in a vertical orientation in a data storage assembly from retractable mounting pins coupled to the carrier. The carrier also includes retractable alignment features to guide the data storage device and carrier into the mounting system. Finger grips are coupled to retractable alignment features and mounting pins and configured to extend retractable alignment features beyond the carrier concurrent with retracting the mounting pins when actuated by a user squeezing the finger grips. The finger grips are configured to extend the mounting pins when de-actuated by the user.

Abstract: Various embodiments of the present technology generally relate to systems and methods for storing datacenter equipment. More specifically, some embodiments relate to a datacenter rack (“computing rack”) that can be adjusted to fit various sizes of computing equipment and can be stacked with additional computing racks. In certain embodiments, the computing rack includes an enclosure for storing a plurality of computing units as well as one or more adjustable vertical mounting rails coupled to the frame of the computing rack for accommodating different sizes and specifications of equipment. The computing rack additionally includes components for stacking the unit with additional computing racks such that a set of stacked computing racks can fit multiple different sizes and specifications of computing equipment.

Abstract: A compact back-flow stopper using an elastic flexure mechanism for a cooling fan is shown and described. The backflow stopper assembly comprises a frame configured to structurally support a fin array when coupled to a fan. The fin array comprises a plurality of flexural deformation elements and associated fin elements arrayed in a radial arrangement to establish a pathway for airflow, each of the flexural deformation elements configured to move an attached fin element responsive to airflow impacting the attached fin element. Flex limiter elements are coupled to the frame and configured to limit flexure of the fin elements beyond a predetermined flexure in relation to the frame to stop backflow of air through the fin array. A fan assembly with a backflow stopper is shown and described. Also, a data storage assembly using fan assemblies with backflow stoppers is also shown and described.

Abstract: Data storage device mounting systems to provide alignment and mounting of data storage devices are provided herein. A carrier is configured to couple to a data storage device and hang the data storage device in a vertical orientation in a data storage assembly from retractable mounting pins coupled to the carrier. The carrier also includes retractable alignment features to guide the data storage device and carrier into the mounting system. Finger grips are coupled to retractable alignment features and mounting pins and configured to extend retractable alignment features beyond the carrier concurrent with retracting the mounting pins when actuated by a user squeezing the finger grips. The finger grips are configured to extend the mounting pins when de-actuated by the user.

Abstract: In general, embodiments of a bi-directional cable interconnect system are described. A connector bezel configured to guide engagement of a male mating connector of a cable with a female mating connector comprises a front plate having a main opening formed therein configured to allow passage of the male mating connector therethrough and a rear assembly attached to the front plate. The rear assembly comprises a plurality of walls forming a cable connector opening therethrough and a rear opening formed in the rear assembly configured to allow passage of the female mating connector therethrough. The cable connector opening is fluidly coupled with the main opening and with the rear opening.

Abstract: A compact back-flow stopper using an elastic flexure mechanism for a cooling fan is shown and described. The backflow stopper assembly comprises a frame configured to structurally support a fin array when coupled to a fan. The fin array comprises a plurality of flexural deformation elements and associated fin elements arrayed in a radial arrangement to establish a pathway for airflow, each of the flexural deformation elements configured to move an attached fin element responsive to airflow impacting the attached fin element. Flex limiter elements are coupled to the frame and configured to limit flexure of the fin elements beyond a predetermined flexure in relation to the frame to stop backflow of air through the fin array. A fan assembly with a backflow stopper is shown and described. Also, a data storage assembly using fan assemblies with backflow stoppers is also shown and described.

Abstract: In general, embodiments of a bi-directional cable interconnect system are described. A connector bezel configured to guide engagement of a male mating connector of a cable with a female mating connector comprises a front plate having a main opening formed therein configured to allow passage of the male mating connector therethrough and a rear assembly attached to the front plate. The rear assembly comprises a plurality of walls forming a cable connector opening therethrough and a rear opening formed in the rear assembly configured to allow passage of the female mating connector therethrough. The cable connector opening is fluidly coupled with the main opening and with the rear opening.

Abstract: A compact back-flow stopper using an elastic flexure mechanism for a cooling fan is shown and described. The backflow stopper assembly comprises a frame configured to structurally support a fin array when coupled to a fan. The fin array comprises a plurality of flexural deformation elements and associated fin elements arrayed in a radial arrangement to establish a pathway for airflow, each of the flexural deformation elements configured to move an attached fin element responsive to airflow impacting the attached fin element. Flex limiter elements are coupled to the frame and configured to limit flexure of the fin elements beyond a predetermined flexure in relation to the frame to stop backflow of air through the fin array. A fan assembly with a backflow stopper is shown and described. Also, a data storage assembly using fan assemblies with backflow stoppers is also shown and described.

Abstract: Data storage device mounting systems to provide alignment and mounting of data storage devices are provided herein. A carrier is configured to couple to a data storage device and hang the data storage device in a vertical orientation in a data storage assembly from retractable mounting pins coupled to the carrier. The carrier also includes retractable alignment features to guide the data storage device and carrier into the mounting system. Finger grips are coupled to retractable alignment features and mounting pins and configured to extend retractable alignment features beyond the carrier concurrent with retracting the mounting pins when actuated by a user squeezing the finger grips. The finger grips are configured to extend the mounting pins when de-actuated by the user.

Abstract: A compact back-flow stopper using an elastic flexure mechanism for a cooling fan is shown and described. The backflow stopper assembly comprises a frame configured to structurally support a fin array when coupled to a fan. The fin array comprises a plurality of flexural deformation elements and associated fin elements arrayed in a radial arrangement to establish a pathway for airflow, each of the flexural deformation elements configured to move an attached fin element responsive to airflow impacting the attached fin element. Flex limiter elements are coupled to the frame and configured to limit flexure of the fin elements beyond a predetermined flexure in relation to the frame to stop backflow of air through the fin array. A fan assembly with a backflow stopper is shown and described. Also, a data storage assembly using fan assemblies with backflow stoppers is also shown and described.

Abstract: Data storage device mounting systems to provide alignment and mounting of data storage devices are provided herein. A carrier is configured to couple to a data storage device and hang the data storage device in a vertical orientation in a data storage assembly from retractable mounting pins coupled to the carrier. The carrier also includes retractable alignment features to guide the data storage device and carrier into the mounting system. Finger grips are coupled to retractable alignment features and mounting pins and configured to extend retractable alignment features beyond the carrier concurrent with retracting the mounting pins when actuated by a user squeezing the finger grips. The finger grips are configured to extend the mounting pins when de-actuated by the user.

Abstract: A vibration isolating hard disk drive carrier for isolating the transfer of vibration from one hard disk drive to another comprising a carrier body and one or more isolation hangers is disclosed. The carrier has a first surface configured to couple to inherent features of a first external surface of a hard disk drive, and a second surface configured to couple to inherent features of a second external surface hard disk drive. One or more isolation hangers configured to support the hard disk drive in a vertical orientation are coupled to the carrier body.

Abstract: A segmented frame adapted to receive a storage drive is provided. The segmented frame in one example includes a plurality of linked frame segments configured to pivot with respect to each other and wrap around the storage drive, with a first frame segment and a last frame segment of the plurality of linked frame segments latching together to form a joined segmented frame and hold the storage drive, and a plurality of isolator cups trapped within the joined segmented frame and fitting over a corresponding plurality of mounting wings extending from the storage drive, wherein the plurality of isolator cups suspend the storage drive within the joined frame.

Abstract: An isolator system for a segmented frame is provided. The isolator system in one example includes a riser block configured to be affixed in a riser aperture of the segmented frame, with the riser block including one or more damper receptacles and one or more corresponding central shafts extending up at least partially through the one or more damper receptacles, one or more elastomeric dampers comprising substantially cylindrical bodies and central bores extending partially through the bodies, with the one or more elastomeric dampers fitting over the one or more shafts and into the damper receptacles, with the one or more elastomeric dampers being formed of an at least partially elastomeric material, and one or more coil springs located over the one or more elastomeric dampers, wherein the one or more elastomeric dampers and the one or more coil springs compress in response to force.

Abstract: A vibration isolating hard disk drive carrier for isolating the transfer of vibration from one hard disk drive to another comprising a carrier body and one or more isolation hangers is disclosed. The carrier has a first surface configured to couple to inherent features of a first external surface of a hard disk drive, and a second surface configured to couple to inherent features of a second external surface hard disk drive. One or more isolation hangers configured to support the hard disk drive in a vertical orientation are coupled to the carrier body.

Abstract: A segmented frame adapted to receive a storage drive is provided. The segmented frame in one example includes a plurality of linked frame segments configured to pivot with respect to each other and wrap around the storage drive, with a first frame segment and a last frame segment of the plurality of linked frame segments latching together to form a joined segmented frame and hold the storage drive, and a plurality of isolator cups trapped within the joined segmented frame and fitting over a corresponding plurality of mounting wings extending from the storage drive, wherein the plurality of isolator cups suspend the storage drive within the joined frame.

Abstract: An isolator system for a segmented frame is provided. The isolator system in one example includes a riser block configured to be affixed in a riser aperture of the segmented frame, with the riser block including one or more damper receptacles and one or more corresponding central shafts extending up at least partially through the one or more damper receptacles, one or more elastomeric dampers comprising substantially cylindrical bodies and central bores extending partially through the bodies, with the one or more elastomeric dampers fitting over the one or more shafts and into the damper receptacles, with the one or more elastomeric dampers being formed of an at least partially elastomeric material, and one or more coil springs located over the one or more elastomeric dampers, wherein the one or more elastomeric dampers and the one or more coil springs compress in response to force.

Abstract: A built-in dual purpose interposer device for a data storage device carrier mechanism is provided. The interposer device may fill empty or voided space in the carrier mechanism created when a data storage device is changed between a “direct plug” position, or first configuration, and an “interposer” position, or second configuration. The interposer device may be changed back and forth between the first and second configuration multiple times. When in the first configuration, the interposer device may provide structural support to a front end of the carrier mechanism and when in the second configuration, the interposer device may provide an internal mounting base for the data storage device at the base or bottom end of the carrier mechanism. The ability to interchange the interposer device may provide for a built-in base for attaching the interposer device without having to add in additional parts or costs.

Abstract: A built-in dual purpose interposer device for a data storage device carrier mechanism is provided. The interposer device may fill empty or voided space in the carrier mechanism created when a data storage device is changed between a “direct plug” position, or first configuration, and an “interposer” position, or second configuration. The interposer device may be changed back and forth between the first and second configuration multiple times. When in the first configuration, the interposer device may provide structural support to a front end of the carrier mechanism and when in the second configuration, the interposer device may provide an internal mounting base for the data storage device at the base or bottom end of the carrier mechanism. The ability to interchange the interposer device may provide for a built-in base for attaching the interposer device without having to add in additional parts or costs.