Abstract: An article of footwear with a heel region including a posterior end of the article of footwear, a mid-foot region, and a forefoot region including an anterior end of the article of footwear; a lateral side, and a medial side opposite the lateral side; an upper; and a sole structure coupled to the upper. The sole structure has a midsole with a first cushioning element extending from the posterior end to the anterior end; a second cushioning element extending from the mid-foot region to the posterior end, the second cushioning element being formed of a different material than the first cushioning element; and a shell with a plurality of circumferentially-spaced apart protrusions, wherein each of the plurality of protrusions is directly coupled to the second cushioning element.

Abstract: A collapsible platform system is provided for converting an underlying support surface to a standing desk. The collapsible platform system converts the underlying support surface to a standing desk with a large work surface suitable for performing a variety of tasks, including handwriting-type and/or sketching-type tasks. A collapsible platform of the system includes a work panel with an upper surface that defines a work surface. The work surface may support a deskwork article being used at the standing desk. A support arrangement can collapse with respect to the work panel to change the collapsible platform from an assembled state an unassembled or collapsed state. The support arrangement has multiple panels, at least one of which is segmented. A connection joint is defined between the segments of the segmented panel(s) for facilitating assembling and disassembling of the collapsible platform while changing the collapsible platform between the assembled and collapsed states.

Abstract: The present disclosure provides a capacitive sensing structure for detecting a force touch in a touchscreen application. Performance uniformity of the force touch sensor is improved by providing a capacitive force touch structure having dot-pattern sensing electrodes of varying thickness, wherein the variation in electrode thickness corresponds to a relative displacement potential of portions of the sensing electrode. This variation in thickness improves performance uniformity of the force sensor by compensating for the displacement potential (i.e., flexibility) of the sensing electrodes so that a force touch applied to the touch surface is measured consistently regardless of the location of the force touch on the touch surface.

Abstract: The present disclosure provides a capacitive sensing structure for detecting a force touch in a touchscreen application. Performance uniformity of the force touch sensor is improved by providing a capacitive force touch structure having sensing electrodes of varying thickness, wherein the variation in electrode thickness corresponds to a relative displacement potential of portions of the sensing electrode. This variation in thickness improves performance uniformity of the force sensor by compensating for the displacement potential (i.e., flexibility) of the sensing electrodes so that a force touch applied to the touch surface is measured consistently regardless of the location of the force touch on the touch surface.