Abstract: The disclosure provides a method for dynamically adjusting image clarity and an image processing device using the same method. The method includes: retrieving an image frame and searching for a predetermined object therein; evaluating a first sharpness of the predetermined object; if the first sharpness of the predetermined object is lower than a sharpness threshold, calculating a difference value between the first sharpness and the sharpness threshold; dividing the image frame into blocks and evaluating a risk value and an effect value of increasing a second sharpness of each block; inputting the difference value, the risk value, and the effect value to a classifying model to generate a clarity setting value; and adjusting a clarity of a display on showing the image frame based on the clarity setting value.

Abstract: A table has a tabletop, a vertical support, and a mounting frame disposed at a top end of the vertical support and attached to the tabletop. The mounting frame includes a fixing base, a rotating frame rotatably connected to the fixing base, and a rotating handle assembly rotatably connected to the rotating frame. The rotating frame is operable to rotate between a horizontal position and a vertical position. The rotating handle assembly includes an abutting block that engages the lower embedding notch in the fixing base when the rotating frame is in the horizontal position. The rotating handle assembly has a lower edge that engages the upper embedding notch in the fixing base when the rotating frame is in the vertical position. A handle, which extends outwardly from the rotating handle assembly, is configured to be operated by a user to move the rotating frame between the vertical position and the horizontal position.

Abstract: A height adjustment mechanism for an adjustable height table includes an outer sleeve, an inner sleeve, a plug, and a locking mechanism. The outer sleeve is disposed outside the inner sleeve, and the outer sleeve and the inner sleeve are slidable relative to each other. The plug is disposed outside the inner sleeve, and is slidably connected to the inner sleeve. The plug is disposed at an upper end of the outer sleeve, and an outer wall of the plug includes a pressing portion. The locking mechanism operates to push the pressing portion tightly against an outer wall of the inner sleeve to increase the friction between the plug and the inner sleeve, so that the plug and the inner sleeve are relatively fixed.

Abstract: A shipping and display container includes a top box installable over a bottom box. The bottom box is configured to receive goods provided in the bottom box in an upright and folded orientation and includes a pair of opposed sidewalls and at least one elongate divider affixed to the bottom box and extending between the opposed sidewalls and configured so as to maintain the goods in the upright and folded orientation. The top box is installable upon the bottom box with the goods received therein in the upright and folded orientation for shipping of the goods and is removable from the bottom box after shipping. The bottom box and the divider cooperate to maintain the goods in the upright and folded orientation for display thereof after removal of the top box.

Abstract: A shipping and display container includes a top box installable over a bottom box. The bottom box is configured to receive goods provided in the bottom box in an upright and folded orientation and includes a pair of opposed sidewalls and at least one elongate divider affixed to the bottom box and extending between the opposed sidewalls and configured so as to maintain the goods in the upright and folded orientation. The top box is installable upon the bottom box with the goods received therein in the upright and folded orientation for shipping of the goods and is removable from the bottom box after shipping. The bottom box and the divider cooperate to maintain the goods in the upright and folded orientation for display thereof after removal of the top box.

Abstract: The disclosure provides a method for dynamically adjusting image clarity and an image processing device using the same method. The method includes: retrieving an image frame and searching for a predetermined object therein; evaluating a first sharpness of the predetermined object; if the first sharpness of the predetermined object is lower than a sharpness threshold, calculating a difference value between the first sharpness and the sharpness threshold; dividing the image frame into blocks and evaluating a risk value and an effect value of increasing a second sharpness of each block; inputting the difference value, the risk value, and the effect value to a classifying model to generate a clarity setting value; and adjusting a clarity of a display on showing the image frame based on the clarity setting value.

Abstract: A blow-molded structural panel has a stiffening rib structure in which the height and width of the rib structure varies over its length. For example, the rib structure may have three tall portions separated by two short portions, with a gradual slope in height between the various portions. The rib structure is preferably wider in the short portions than it is in the tall portions. The lower height of the rib structure in some portions enhances the stiffness of the panel, while also using less material because the plastic does not have to be drawn so deeply into the mold in the short portions.

Abstract: A shipping and display container includes a top box installable over a bottom box. The bottom box is configured to receive goods provided in the bottom box in an upright and folded orientation and includes a pair of opposed sidewalls and at least one elongate divider affixed to the bottom box and extending between the opposed sidewalls and configured so as to maintain the goods in the upright and folded orientation. The top box is installable upon the bottom box with the goods received therein in the upright and folded orientation for shipping of the goods and is removable from the bottom box after shipping. The bottom box and the divider cooperate to maintain the goods in the upright and folded orientation for display thereof after removal of the top box.

Abstract: A folding leg assembly including a first brace member secured to a first leg and a second brace member secured to a second leg. Each brace member includes an upper portion secured to the respective leg, a lower portion secured adjacent the bottom of the furniture support structure, to and a pivot member for connecting the upper portion to the lower portion such that each brace member is movable between an extended position and a collapsed position. A handle is disposed between the first brace member and the second brace member and is configured to assist in manipulating the pivot members of the first and second brace members between the extended position and the collapsed position.

Abstract: A blow-molded plastic structure has a hollow interior portion formed during a blow-molding process, and includes first and second outer portions that are spaced apart from each other, with the hollow interior portion disposed there between. The structure includes a pattern of structural stiffening features that are integrally formed in the second outer portion. The pattern of structural stiffening features includes a plurality of tripodal depressions disposed in rows and columns and a plurality of convex regions disposed in rows and columns between the plurality of tripodal depressions. Each convex region has a maximum height between the first and second outer portions. Each of the tripodal depressions extends into the hollow interior portion, includes three indentations disposed adjacent the first outer portion, and includes an island spaced away from the first outer portion. The island has three sides, each of which is disposed adjacent one of the three indentations.

Abstract: A blow-molded plastic structure has a hollow interior portion formed during a blow-molding process, and includes first and second outer portions that are spaced apart from each other, with the hollow interior portion disposed there between. The structure includes a pattern of structural stiffening features that are integrally formed in the second outer portion. The pattern of structural stiffening features includes a plurality of tripodal depressions disposed in rows and columns and a plurality of convex regions disposed in rows and columns between the plurality of tripodal depressions. Each convex region has a maximum height between the first and second outer portions. Each of the tripodal depressions extends into the hollow interior portion, includes three indentations disposed adjacent the first outer portion, and includes an island spaced away from the first outer portion. The island has three sides, each of which is disposed adjacent one of the three indentations.

Abstract: A light-emitting diode includes: a light emitting epitaxial structure including a first-type semiconductor layer, an active layer and a second-type semiconductor layer, and having a first surface as a light emitting surface, and an opposing second surface; a conducting layer formed over the second surface and including a physical plating layer and a chemical plating layer, wherein the physical plating layer is adjacent to the light emitting epitaxial structure and has cracks, and the chemical plating layer fills the cracks in the physical plating layer; and a submount coupled to the light emitting epitaxial laminated layer through the conducting layer.

Abstract: A probe card including a substrate, a plurality of probe heads and a wave absorber is provided. The substrate has a through hole. The plurality of probe heads are disposed on the substrate and arranged around the through hole. Each of the probe heads includes a housing, a subminiature connector and a probe structure. The subminiature connector is disposed on the housing. The probe structure is connected to the subminiature connector, inserted through the housing and extended to the through hole. The wave absorber is disposed between two of the probe structures.

Abstract: A pixel structure including scan lines, data lines, and sub-pixels is provided. The scan and data lines are disposed on the substrate. The sub-pixels include switch devices, contact pattern layer, color filter pattern layers, and pixel electrodes. The switch devices are electrically connected to one scan line and one data line respectively. The contact pattern layer and the color filter pattern layer are disposed on the substrate and the switch devices. The contact pattern layer covers part of two adjacent switch devices. At least two color filter pattern layers include a patterned opening respectively, and the contact pattern layer is disposed in the patterned opening. The pixel electrodes are disposed on the color filter pattern layer, the contact pattern layer, and the switch device. At least one pixel electrode is partially disposed between the color filter pattern layer and the corresponding switch device while electrically connected to the switch device.

Abstract: A method is presented for processing one or more instructions to be executed on multiple threads in a Single-Instruction-Multiple-Data (SIMD) computing system. The method includes the steps of analyzing the instructions to collect divergent threads among a plurality of thread groups of the multiple threads; obtaining a redirection array for thread-operand association adjustment among the divergent threads according to the analysis, where the redirection array is used for exchanging a first operand associated with a first divergent thread in a first thread group with a second operand associated with a second divergent thread in a second thread group; and generating compiled code corresponding to the instructions according to the redirection array.