Abstract: Connector inserts and connector receptacles that have a small form factor, readily mate when brought into proximity to each other, and disconnect when subjected to a non-axial force.

Abstract: Heat-removal assemblies with springs on opposing sides of a support structure and methods for using the same are provided. Heat may be removed from a heat-generating assembly of an electronic device by a heat-removal assembly that may include a heat-dissipating subassembly (e.g., a heat spreader and/or a heat pipe) and a fastener subassembly. The fastener subassembly may be configured to press the heat-dissipating subassembly against the heat-generating assembly for enabling the heat-dissipating subassembly to be thermally coupled to the heat-generating assembly for removing heat therefrom. In order for the fastener subassembly to provide an even pressure distribution across the heat-dissipating subassembly for such heat removal and/or to limit deformation of one or more portions of the electronic device during such heat removal, the fastener subassembly may include two springs positioned on opposite sides of a circuit board that may be supporting the heat-generating assembly.

Abstract: Connector inserts and connector receptacles that have a small form factor, readily mate when brought into proximity to each other, and disconnect when subjected to a non-axial force.

Abstract: A thermal management system that includes a fan assembly, a heat exchanger, and an insulating box is described. The fan assembly can have two impellers and a housing that includes two scroll portions. An internal portion of the scroll wall can be truncated. A motor housing can be connected to the fan housing via multiple struts. The struts can be oriented angularly with a tangential component and can slope inward to increase the effective inlet area. The heat exchanger can be formed of a fin stack that has a curved body that defines an airflow path that turns radially from the inlet to the exhaust. The heat exchanger can have an inlet that is smaller than the exhaust. The heat exchanger can be connected to one or more heat pipes. The insulating box can have a grid that directs air to certain specific directions.

Abstract: A counterbalanced display stand can be used with a tablet or other suitable portable electronic device. The display stand can allow for tilt, rotation, and lateral movement in multiple directions to arrive at a desired display position. A 4-bar linkage arrangement can allow for such movements, which can be manual from a user and/or motorized through other device components. The display stand can be counterbalanced such that minimal friction is required to hold the device at a desired display position. A magnetic connector can detachably connect the device to the display stand. A feedback component can facilitate an automated repositioning of the display stand in response to changing conditions.