Abstract: A drawer for receiving components may comprise an inner member, and intermediate member, and a carrier member. The carrier member may comprise a substantially planar top generally parallel to an inner member bottom, a substantially planar bottom generally parallel to the top, a carrier spine mechanically coupled between the top and the bottom, a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource via a carrier member side of the carrier member generally parallel to an inner member side, and at least one web generally parallel to the inner member sides and mechanically coupling the carrier member to the intermediate member such that when the drawer is translated to an open position, each of the plurality of bays is accessible.

Abstract: A drawer for receiving components may comprise an inner member, and intermediate member, and a carrier member. The carrier member may comprise a substantially planar top generally parallel to an inner member bottom, a substantially planar bottom generally parallel to the top, a carrier spine mechanically coupled between the top and the bottom, a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource via a carrier member side of the carrier member generally parallel to an inner member side, and at least one web generally parallel to the inner member sides and mechanically coupling the carrier member to the intermediate member such that when the drawer is translated to an open position, each of the plurality of bays is accessible.

Abstract: A drawer for receiving components may include a caddy tray and at least one caddy. The caddy tray may include a substantially planar caddy tray bottom defining a caddy tray depth and a caddy tray width. The at least one caddy may be mechanically coupled to the caddy tray via a hinge mechanically coupled to the caddy tray bottom such that the caddy pivots relative to the caddy tray about the hinge, the hinge having an axis generally parallel to the caddy tray depth, the at least one caddy having a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource when the at least one caddy is pivoted from a closed position to an open position.

Abstract: In accordance with embodiments of the present disclosure, a backplane for electrically coupling modular information handling resources to one or more other information handling resources, may include a printed circuit board, a first plurality of slots, and a second plurality of slots. The printed circuit board may have a first surface and a second surface opposite the first surface. The first plurality of slots may be mounted to the first surface and the second plurality of slots may be mounted to the second surface, such that each of the second plurality of slots are offset from an adjacent slot of the first plurality of slots in a direction parallel to a plane defined by the first surface and each of the second plurality of slots are rotated approximately 180 degrees from an adjacent slot of the first plurality of slots.

Abstract: In accordance with embodiments of the present disclosure, a backplane for electrically coupling modular information handling resources to one or more other information handling resources, may include a printed circuit board, a first plurality of slots, and a second plurality of slots. The printed circuit board may have a first surface and a second surface opposite the first surface. The first plurality of slots may be mounted to the first surface and the second plurality of slots may be mounted to the second surface, such that each of the second plurality of slots are offset from an adjacent slot of the first plurality of slots in a direction parallel to a plane defined by the first surface and each of the second plurality of slots are rotated approximately 180 degrees from an adjacent slot of the first plurality of slots.

Abstract: A drawer for receiving components may include a caddy tray and at least one caddy. The caddy tray may include a substantially planar caddy tray bottom defining a caddy tray depth and a caddy tray width. The at least one caddy may be mechanically coupled to the caddy tray via a hinge mechanically coupled to the caddy tray bottom such that the caddy pivots relative to the caddy tray about the hinge, the hinge having an axis generally parallel to the caddy tray depth, the at least one caddy having a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource when the at least one caddy is pivoted from a closed position to an open position.

Abstract: In accordance with embodiments of the present disclosure, a backplane for electrically coupling modular information handling resources to one or more other information handling resources, may include a printed circuit board, a first plurality of slots, and a second plurality of slots. The printed circuit board may have a first surface and a second surface opposite the first surface. The first plurality of slots may be mounted to the first surface and the second plurality of slots may be mounted to the second surface, such that each of the second plurality of slots are offset from an adjacent slot of the first plurality of slots in a direction parallel to a plane defined by the first surface and each of the second plurality of slots are rotated approximately 180 degrees from an adjacent slot of the first plurality of slots.

Abstract: A drawer for receiving components may include a caddy tray and at least one caddy. The caddy tray may include a substantially planar caddy tray bottom defining a caddy tray depth and a caddy tray width. The at least one caddy may be mechanically coupled to the caddy tray via a hinge mechanically coupled to the caddy tray bottom such that the caddy pivots relative to the caddy tray about the hinge, the hinge having an axis generally parallel to the caddy tray depth, the at least one caddy having a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource when the at least one caddy is pivoted from a closed position to an open position.

Abstract: A drawer for receiving components may comprise an inner member, and intermediate member, and a carrier member. The carrier member may comprise a substantially planar top generally parallel to an inner member bottom, a substantially planar bottom generally parallel to the top, a carrier spine mechanically coupled between the top and the bottom, a plurality of bays, each bay having one or more structural components for receiving a modular information handling resource and configured such that the bay is accessed for insertion or removal of the modular information handling resource via a carrier member side of the carrier member generally parallel to an inner member side, and at least one web generally parallel to the inner member sides and mechanically coupling the carrier member to the intermediate member such that when the drawer is translated to an open position, each of the plurality of bays is accessible.

Abstract: In accordance with embodiments of the present disclosure, a method may include sliding a slider slidably coupled to the structural member and mechanically coupled to the structural member by an ejection spring with an ejection spring force configured to bias the slider in a first position relative to the structural member in absence of a force other than the rejection spring force, wherein the sliding is in a direction opposite the ejection spring force and away from the first position, and wherein the structural member defines at least a portion of a bay for receiving an information handling resource. The method may also include engaging the slider with a release latch mechanically coupled to the structural member, such that when engaged with the release latch, the slider is biased in a second position away from the first position.

Abstract: The present disclosure relates, in some embodiments, to modular information handling systems configured to automatically adjust coolant flow upon insertion and/or removal of heat-releasing elements (e.g., blades). A system may comprise, for example, a chassis at least partially defining a cavity, at least one fan in fluid communication with the cavity and operable to move coolant through at least a portion of the cavity, and one or more bays. Each of the one or more bays (a) may be at least partially defined by a bay wall, (b) may be configured to receive a heat-releasing element, and/or (c) may comprise an obturator configured to conditionally block fluid communication between the bay and the chassis cavity, the fan, and/or a coolant, wherein the obturator allows fluid communication when a blade is present in the bay and blocks fluid communication when a blade is absent from the bay. A system may further comprise at least one heat-releasing element positioned in at least one of the one or more bays.

Abstract: The present disclosure relates, in some embodiments, to modular information handling systems configured to automatically adjust coolant flow upon insertion and/or removal of heat-releasing elements (e.g., blades). A system may comprise, for example, a chassis at least partially defining a cavity, at least one fan in fluid communication with the cavity and operable to move coolant through at least a portion of the cavity, and one or more bays. Each of the one or more bays (a) may be at least partially defined by a bay wall, (b) may be configured to receive a heat-releasing element, and/or (c) may comprise an obturator configured to conditionally block fluid communication between the bay and the chassis cavity, the fan, and/or a coolant, wherein the obturator allows fluid communication when a blade is present in the bay and blocks fluid communication when a blade is absent from the bay. A system may further comprise at least one heat-releasing element positioned in at least one of the one or more bays.

Abstract: An alignment guidepin comprises a pre-alignment portion, an alignment portion, and a release portion. The pre-alignment portion provides gross alignment for a connection between a connecting module of a server and a connector of a computer server chassis. The alignment portion is connected to the pre-alignment portion having a first diameter to allow a high precision alignment for the connection between the connecting module and the connector. The release portion is connected to the alignment portion having a second diameter different than the first diameter to allow the connecting module and the connector to guide the connection.

Abstract: A card coupling apparatus includes a first surface. A locating member extends from the first surface and includes a control surface that is oriented at an angle relative to the first surface and defines a securing channel that is located adjacent the control surface. A plurality of securing devices extend from the first surface in a spaced apart relationship from the locating member, each securing device including a locating post and a securing member located adjacent the locating post. A card may be coupled to the first surface by engaging the locating member and the securing devices with the card. The card may then be decoupled from the first surface by using one hand to disengage the securing members from the card and remove the card from the securing devices.

Abstract: An alignment guidepin comprises a pre-alignment portion, an alignment portion, and a release portion. The pre-alignment portion provides gross alignment for a connection between a connecting module of a server and a connector of a computer server chassis. The alignment portion is connected to the pre-alignment portion having a first diameter to allow a high precision alignment for the connection between the connecting module and the connector. The release portion is connected to the alignment portion having a second diameter different than the first diameter to allow the connecting module and the connector to guide the connection.

Abstract: A card coupling apparatus includes a first surface. A locating member extends from the first surface and includes a control surface that is oriented at an angle relative to the first surface and defines a securing channel that is located adjacent the control surface. A plurality of securing devices extend from the first surface in a spaced apart relationship from the locating member, each securing device including a locating post and a securing member located adjacent the locating post. A card may be coupled to the first surface by engaging the locating member and the securing devices with the card. The card may then be decoupled from the first surface by using one hand to disengage the securing members from the card and remove the card from the securing devices.

Abstract: A fan mounting apparatus includes a base, a fan mount which is operable to couple to the base, and a latch member pivotally coupled to the fan mount, the latch member operable to reduce vibration from a fan module and including a duct member operable to direct airflow from a fan module. The base may be mounted adjacent a heat sink to provide easy installation of a fan module adjacent the heat sink and for more efficient use of the airflow from a fan module to the heat sink.

Abstract: A chassis cover supporting apparatus includes a chassis having a plurality of chassis sides and including a cover support receiving member positioned between the chassis sides. A cover is operable to couple to the chassis by sliding engagement with the plurality of chassis sides. A cover support member is coupled to the cover, whereby in response to the sliding engagement of the cover with the chassis sides, the cover support member engages the cover support receiving member.

Abstract: A device that mechanically separates continuous edge tied automated ticket and boarding pass (ATB) coupons (22) by pulling the coupon to coupon perforations past a stationary tapered edge (50). The existing coupon transport drive provides the energy for coupon separation. Compared to existing methods, this design is low cost, quiet, and forgiving of coupon perforation registration.