Abstract: A method for predicting a size range of a lost circulation channel based on deep learning (DL) is provided. The method includes the following steps: S1: acquiring data of the lost circulation channel, and establishing a prediction dataset of the size range of the lost circulation channel; S2: preprocessing the prediction dataset of the size range of the lost circulation channel, and determining the size range of the lost circulation channel; S3: establishing a prediction model for the size range of the lost circulation channel; and S4: optimizing the prediction model for the size range of the lost circulation channel, and predicting the size range of the lost circulation channel. The method overcomes the shortcomings of conventional methods, for example, the prediction value of the size of the downhole lost circulation channel is single, inaccurate and not real-time.

Abstract: An electronic device includes a cover plate, a display module, and a touch module. The touch module includes a substrate, a touch sensing layer, and a trace. The substrate includes a main body portion and an extending portion connected to each other. The main body portion is located between the cover plate and the display module. The extending portion extends to a side of the display module away from the cover plate. The touch sensing layer is disposed on the main body portion. The trace is coupled to the touch sensing layer and extends on the extending portion.

Abstract: A touch panel and a fabrication method thereof are provided. The touch panel includes a first axial electrode containing a plurality of first conductive units. Two adjacent first conductive units are separated and electrically connected by a first jumper and one first conductive unit has an extending part. The touch panel also includes a second axial electrode containing a plurality of second conductive units. Two adjacent second conductive units are connected through a connection part at the first jumper. Two adjacent second conductive units are separated and electrically connected by a second jumper at the extending part of the first conductive unit. The first axial electrode is insulated from and intersects the second axial electrode. The first and second jumpers have different axial directions.

Abstract: A touch panel module includes a substrate, a sensor layer disposed on the substrate, a first glue layer disposed on the sensor layer and an anti-electromagnetic interference layer disposed on the first glue layer. The touch panel module with anti-electromagnetic interference can be formed independently, and may be combined with other electronic device to form a touch device, thereby reducing the thickness of the touch device and simplifying the process steps.

Abstract: A touch panel with a fingerprint identification function includes a cover plate, a mask layer, a flexible substrate, and a fingerprint sensing array. The mask layer is disposed on the cover plate for defining an operating region and a non-operating region of the touch panel. The flexible substrate is disposed on the mask layer and at least in the non-operating region. The fingerprint sensing array is directly disposed on the flexible substrate in the non-operating region. Through the configuration that the fingerprint sensing array is disposed on the flexible substrate, the distance between the fingerprint sensing array and a user's fingers is reduced, thereby increasing the sensitivity of fingerprint identification.

Abstract: Provided is a battery packaging material for packaging a battery, in particular a packaging material for a soft pack battery used in a vehicle and a soft pack battery thermal management system. With regard to the defect of an insufficient corrosion resistance of a battery packaging material in the prior art, particularly provided is a solution of an aluminum plastic composite film for packaging a battery as follows: that is to say, a battery packaging material, and the battery packaging material comprises an aluminum foil layer and a plastic layer compounded on the surface of the aluminum foil layer, wherein the aluminum foil layer is formed from an aluminum alloy with corrosion resistance to cooling water.

Abstract: A touch panel and a fabrication method thereof are provided. The touch panel includes a first axial electrode containing a plurality of first conductive units. Two adjacent first conductive units are separated and electrically connected by a first jumper and one first conductive unit has an extending part. The touch panel also includes a second axial electrode containing a plurality of second conductive units. Two adjacent second conductive units are connected through a connection part at the first jumper. Two adjacent second conductive units are separated and electrically connected by a second jumper at the extending part of the first conductive unit. The first axial electrode is insulated from and intersects the second axial electrode. The first and second jumpers have different axial directions.

Abstract: A touch panel module includes a substrate, a sensor layer disposed on the substrate, a first glue layer disposed on the sensor layer and an anti-electromagnetic interference layer disposed on the first glue layer. The touch panel module with anti-electromagnetic interference can be formed independently, and may be combined with other electronic device to form a touch device, thereby reducing the thickness of the touch device and simplifying the process steps.

Abstract: A touch panel and a fabrication method thereof are provided. The touch panel includes a first axial electrode containing a plurality of first conductive units. Two adjacent first conductive units are separated and electrically connected by a first jumper and one first conductive unit has an extending part. The touch panel also includes a second axial electrode containing a plurality of second conductive units. Two adjacent second conductive units are connected through a connection part at the first jumper. Two adjacent second conductive units are separated and electrically connected by a second jumper at the extending part of the first conductive unit. The first axial electrode is insulated from and intersects the second axial electrode. The first and second jumpers have different axial directions.

Abstract: A touch control apparatus with fingerprint identification function includes a substrate body with a visible region, a plurality of first primary electrodes, a plurality of second primary electrodes, and a fingerprint identification region located in the visible region. The first primary electrodes and the second primary electrodes are mounted in the visible region for sensing a touch coordinate when an object touches on the visible region. The first secondary electrodes are crossly arranged and insulated from the second secondary electrodes in the fingerprint, identification region. Further, a part of the first primary electrodes and the second primary electrodes are extended to the fingerprint identification region. When a user performs a fingerprint identification function, all electrodes in the fingerprint identification region are used to detect and identify the user's fingerprint.

Abstract: The present disclosure provides a touch panel. The touch panel comprises a plurality of first electrode axes, a plurality of second electrode axes, and a plurality of traces. The first electrode axes and the corresponding second electrode axes are disposed at a same level, intertwined, and electrically isolated from each other. The traces connect to the first electrode axes and the second electrode axes from one direction. The present disclosure further provides a manufacturing method of a touch panel. The traces electrically connect to the electrode axes along only one direction, thereby effectively decreasing the area needed to form the traces surrounding the active region and increasing the active region area.

Abstract: The disclosure provides a touch device, including a protection cover, a pressure-sensing layer and a flat touch-sensing electrode layer. The protection cover is used as an outer protection shield, and an upper surface of the protection cover is provided to users for pressing action. The pressure-sensing layer is disposed under the protection cover to detect touch strength. The flat touch-sensing electrode layer is disposed between the pressure-sensing layer and the protection cover to detect the position of the user's touch.

Abstract: A touch panel and a touch electrode structure thereof are provided. The touch electrode structure defines position units and includes electrodes electrically insulated from each other. Each of the electrodes covers more than one of the position units and comprises a plurality of sub-electrodes electrically insulated from each other. Each of the sub-electrodes includes sub-electrode units. Each of the position units is corresponding to at least one of the sub-electrode units of at least one of the sub-electrode, and combinations of the sub-electrode units of the different sub-electrodes in the respective position units are different. In the touch electrode structure, each electrode can be electrically independent without needing to dispose a jumper and an insulating layer, thus simplifying process steps and improving a yield rate at the same time.

Abstract: A touch panel includes a protective cover with a lower surface herein, and an active region and a periphery region defined on the lower surface. A first sensing structure is disposed on the lower surface and covers the active region. A shelter layer is disposed on the lower surface and in the periphery region, wherein the shelter layer includes a highlight region and a highlight contrast region, a first pattern is disposed in the highlight region, and a non-transparent layer with a second pattern is disposed in the highlight region, wherein the first pattern is overlapped by the second pattern.

Abstract: For a touch panel module, a first sensing unit is disposed on a viewing area of a substrate and includes a first electrode, a second sensing unit corresponds in position to a non-viewing area of the substrate and includes a first sub-electrode, an attaching portion corresponds in position to the non-viewing area and includes a first contact, and a first conducting wire, two ends of which are respectively connected to the first electrode and the first contact to form an electrical connection therebetween, and a connecting portion corresponds in position to the non-viewing area and includes a first conducting sub-wire for forming electrical connection between the first electrode and the first sub-electrode.

Abstract: A touch electrode structure for defining position units includes electrodes electrically insulated from each other, in which each of the electrodes includes sub-electrodes electrically insulated from each other. Each of the sub-electrodes include sub-electrode units electrically connected to each other, in which each of the position unit is defined by the two sub-electrode units respectively belonging to the different sub-electrodes. The sub-electrode units in one of the position units of each of the electrodes have a combination corresponding to the sub-electrodes arranged therein, and each of the combinations is different from the other combinations in the each of the electrodes.

Abstract: The present invention provides an electric heating device and its preparation method; the said electric heating device includes at least one PTC electric heating element and radiation fin; the said PTC electric heating element includes positive and negative electrodes and PTC element between positive and negative electrodes; the said radiation fin is located at outer surface of the said PTC electric heating element; surface of the said radiation fin_with no physical connection to the said PTC electric heating element, is uncharged. State-of-the-art flat aluminum tube or aluminum tube is not used for the electric heating device provided in the present invention, which not only saves costs, but also reduces heat resistance in intermediate link of flat aluminum tube, enhances heat exchange efficiency and increases volumetric power density.