Abstract: An apparatus and method of indicating the ball center of gravity position. The method of indicating the ball center of gravity position includes the following step of: moving the ball to a rotating member of a rotating device; driving the rotating member to rotate the ball along a axis of rotation of the rotating device, and adjust the center of gravity of the ball corresponding to the position of the rotating device; moving the ball onto a first carrier of a first transport device; and marking an identification mark on a predetermined area of the ball.

Abstract: A multilayered golf ball having inside whiskers and a method for manufacturing the same are provided. The method includes the steps of forming a ball core, forming an inner cover layer to cover the ball core, and forming an outer cover layer to cover the inner cover layer. The outer cover layer has a flexural modulus between 20 MPa and 600 MPa and the inner cover layer has a flexural modulus between 20 MPa and 400 MPa. The inner cover layer has a three-dimensional network structure that is formed by the whiskers, and the whiskers are in an amount between 1 wt % and 5 wt % of the total weight of the inner cover layer.

Abstract: A method and an apparatus for bonding semiconductor substrates are provided. The method includes at least the following steps. A first position of a first semiconductor substrate on a first support is gauged by a gauging component embedded in the first support and a first sensor facing towards the gauging component. A second semiconductor substrate is transferred to a position above the first semiconductor substrate by a second support. A second position of the second semiconductor substrate is gauged by a second sensor mounted on the second support and located above the first support. The first semiconductor substrate is positioned based on the second position of the second semiconductor substrate. The second semiconductor substrate is bonded to the first semiconductor substrate.

Abstract: The present invention provides a method of manufacturing a golf ball having a cover with network structure which includes the steps of forming a core layer and forming a cover layer to enclose the core layer. The method characterized in that the cover layer forming step includes the steps of: mixing 90 wt % of a Surlyn resin with 10 wt % of a whisker reinforced material to form a whisker composition; mixing the whisker composition with another Surlyn resin to form a cover layer material, wherein the content of the whisker composition is between 0.1 and 10 phr on the basis of 100 phr of the another Surlyn resin; and injecting the cover layer material to form the cover layer with a whisker-based three-dimensional network structure. The golf ball, after being shot, can achieve both a long flight distance and a greater amount of backspin.

Abstract: In a method of producing a glass substrate including a laminate preparing step of laminating a glass film 1 having flexibility and a support glass 2 supporting the same, to prepare a laminate 3; a process step of forming an organic EL device 4 on the glass film 1 in the laminate 3, involving heating; and a peeling step of peeling off the glass film 1 on which the organic EL device 4 is formed from the support glass 2 to obtain a glass substrate 5, a heating step of heating the glass film 1 and the support glass 2 is executed before execution of the laminate preparing step, and the glass film 1 and the support glass 2 are laminated in the condition that they are heated at the time of execution of the laminate preparing step.

Abstract: A laminated substrate separating device used for separating a first substrate from a second substrate of a laminated substrate is provided. The first and the second substrates are misaligned at an edge of the laminated substrate. The laminated substrate separating device includes a base where the laminated substrate is disposed thereon, and a separating tool movably disposed on the base along an axis. The separating tool presses a portion of the first substrate being exposed out of the second substrate at a misaligned edge such that a gap is formed between the first and the second substrates. The separating tool inserts into the gap at the misaligned edge to press the first substrate, such that the second substrate is separated from the first substrate. A method for separating laminated substrate is also provided.

Abstract: A touch panel and a manufacturing method thereof and a touch display panel are provided. The touch panel includes a substrate, at least one first conductive line, an insulating layer, and at least one second conductive line. The substrate has a sensing region and a periphery region. The first conductive line is disposed on the periphery region. The insulating layer is disposed on the periphery region and covers the first conductive line. The second conductive line is disposed on the periphery region. The first conductive line and the second conductive line are electrically insulated to each other. A portion of at least one second conductive line is disposed on the insulating layer located above the first conductive line.

Abstract: In a method of producing a glass substrate including a laminate preparing step of laminating a glass film 1 having flexibility and a support glass 2 supporting the same, to prepare a laminate 3; a process step of forming an organic EL device 4 on the glass film 1 in the laminate 3, involving heating; and a peeling step of peeling off the glass film 1 on which the organic EL device 4 is formed from the support glass 2 to obtain a glass substrate 5, a heating step of heating the glass film 1 and the support glass 2 is executed before execution of the laminate preparing step, and the glass film 1 and the support glass 2 are laminated in the condition that they are heated at the time of execution of the laminate preparing step.

Abstract: A laminated substrate separating device used for separating a first substrate from a second substrate of a laminated substrate is provided. The first and the second substrates are misaligned at an edge of the laminated substrate. The laminated substrate separating device includes a base where the laminated substrate is disposed thereon, and a separating tool movably disposed on the base along an axis. The separating tool presses a portion of the first substrate being exposed out of the second substrate at a misaligned edge such that a gap is formed between the first and the second substrates. The separating tool inserts into the gap at the misaligned edge to press the first substrate, such that the second substrate is separated from the first substrate. A method for separating laminated substrate is also provided.

Abstract: An interleaving element is adapted to interleave a roll of glass substrate. The glass substrate includes at least one active area, a plurality of spacing zones and two edge zones. The plurality of spacing zones and the edge zones define the active area. The interleaving element includes two elongated side elements and a plurality of bridging elements. The elongated side elements correspond to the two edge zones. Each of the plurality of bridging elements is connected with the elongated side elements. The plurality of bridging elements corresponds to the spacing zones.

Abstract: A laser patterning touch panel includes an active area, an inactive area, and a plurality of first coaxial patterns. The active area is disposed in a center area of the substrate. The inactive area does not overlap the active area and has a transparent conductive layer thereon. The plurality of first coaxial patterns are disposed on the transparent conductive layer and surround the active area. Each of the plurality of first coaxial patterns includes a continuous line segment with a width, and partially overlaps with a neighboring one of the first coaxial patterns.

Abstract: An interleaving element is adapted to interleave a roll of glass substrate. The glass substrate includes at least one active area, a plurality of spacing zones and two edge zones. The plurality of spacing zones and the edge zones define the active area. The interleaving element includes two elongated side elements and a plurality of bridging elements. The elongated side elements correspond to the two edge zones. Each of the plurality of bridging elements is connected with the elongated side elements. The plurality of bridging elements corresponds to the spacing zones.

Abstract: A laser patterning touch panel includes an active area, an inactive area, and a plurality of first coaxial patterns. The active area is disposed in a center area of the substrate. The inactive area does not overlap the active area and has a transparent conductive layer thereon. The plurality of first coaxial patterns are disposed on the transparent conductive layer and surround the active area. Each of the plurality of first coaxial patterns includes a continuous line segment with a width, and partially overlaps with a neighboring one of the first coaxial patterns.

Abstract: A touch panel and a manufacturing method thereof and a touch display panel are provided. The touch panel includes a substrate, at least one first conductive line, an insulating layer, and at least one second conductive line. The substrate has a sensing region and a periphery region. The first conductive line is disposed on the periphery region. The insulating layer is disposed on the periphery region and covers the first conductive line. The second conductive line is disposed on the periphery region. The first conductive line and the second conductive line are electrically insulated to each other. A portion of at least one second conductive line is disposed on the insulating layer located above the first conductive line.

Abstract: A flexible solar cell and a manufacturing method thereof are provided. The flexible solar cell includes a rigid transparent substrate, a transparent electrode, a photoactive layer, a metal electrode, an encapsulating structure and a flexible substrate. The transparent electrode is disposed on the rigid transparent substrate, the photoactive layer is disposed on the transparent electrode, and the metal electrode is disposed on the photoactive layer. The transparent electrode, the photoactive layer and the metal electrode are sealed by the encapsulating structure disposed on the rigid transparent substrate. The flexible substrate opposite to the rigid transparent substrate is disposed on the encapsulating structure.

Abstract: A force sensor and a measuring method of resistance variation thereof are provided. The force sensor includes a first substrate, multiple first electrodes, a second substrate, multiple second electrodes, and a piezoresistive layer. The first electrodes are disposed on the first substrate while the second electrodes facing the first electrodes are disposed on the second substrate. The multiple second electrodes are electrically isolated to each other. Orthogonal projections of the two adjacent second electrodes respectively overlap the corresponding first electrode. The piezoresistive layer is located between the first and the second electrodes and disposed on at least one kind of the first and the second electrodes.