Abstract: The present application discloses a semiconductor device with a barrier layer including aluminum fluoride and a method for fabricating the semiconductor device. The semiconductor device includes a substrate, a circuit layer positioned on the substrate, a pad layer positioned in the circuit layer and including aluminum and copper, a first barrier layer positioned on the pad layer and including aluminum fluoride, and a first connector positioned on the first barrier layer.

Abstract: The present disclosure provides a semiconductor intelligent detection system, an intelligent detection method and a storage medium. The semiconductor intelligent detection system includes: a data import module, configured to acquire a data table to-be-detected; a data storage module, having a process resource database stored therein, a data type of data stored in the process resource database being used to perform data detection on items to-be-detected of a corresponding type; a resource detection module, connected to the data import module and the data storage module; wherein the resource detection module is configured to perform data detection on the items to-be-detected in the data table to-be-detected one by one, and record wrong items to-be-detected in an abnormity information table; and, an abnormity export module, connected to the resource detection module and configured to detect whether the resource detection module has detected the last item to-be-detected in the data table to-be-detected.

Abstract: A sensing device for sensing ion concentration of a solution, including a first substrate, a second substrate, a sensing layer, and two electrodes. The material of the first substrate includes cellulose. The second substrate is located on the first substrate. The sensing layer is located on the second substrate. The two electrodes are separately disposed on the sensing layer to expose the sensing layer and bring a solution in contact with the sensing layer so as to measure the resistance value of the solution and convert the resistance value into the ion concentration of the solution.

Abstract: A reduction-oxidation sensor device and a manufacturing method thereof are provided. The reduction-oxidation sensor device includes a first electrode, at least one sensing structure and a second electrode. The first electrode is located on a substrate. The at least one sensing structure is located on the first electrode and the substrate. The at least one sensing structure includes a metal nanowire layer and a metal oxide layer. The metal nanowire layer is disposed on the first electrode and the substrate. The metal nanowire layer is wrapped by the metal oxide layer. The second electrode is located on the at least one sensing structure.

Abstract: A transparent pressure sensor and a manufacturing method thereof are provided. The transparent pressure sensor includes several layers of transparent electrodes, at least one pressure-sensitive deformation layer between the transparent electrodes, and a metal oxide layer. Each layer of the transparent electrodes is composed of nanowires, and the metal oxide layer is disposed in a space among the nanowires.

Abstract: A pressure sensor and a manufacturing method thereof are provided. The pressure sensor includes a thin-film transistor (TFT) array and a pressure-sensitive layer covering the TFT array. The pressure-sensitive layer includes a plurality of insulating layers and one of one-directional materials arranged on the same plane and two-directional materials. The insulating layers and the one- or two-directional materials are alternately stacked so as to effectively enhance pressure resolution.

Abstract: A gas detecting device configured to be attached to a surface includes a substrate, a semiconductor layer, a light-emitting component, a first electrode and a second electrode. The substrate includes a plurality of stacking layers stacked onto one another, and a material of the substrate includes cellulose nanofibrils (CNF). The substrate is formed by 3-D printing, such that a contact surface of the substrate is tightly attached to the surface. The semiconductor layer is formed on the substrate by 3-D printing. The light-emitting component is disposed on the substrate. The first electrode is coupled to the semiconductor layer and the light-emitting component. The second electrode is coupled to the semiconductor layer and a ground electrode. The first electrode and the second electrode are both disposed on the semiconductor layer and maintain a gap therebetween. A resistance of the semiconductor layer is changed according to a concentration of a designated gas.

Abstract: A bone-conduction hearing aid device is provided. The bone-conduction hearing aid device is suitable for being attached to a body surface and includes a substrate, an input transducer, an amplifier, and a bone-conduction speaker. The substrate is composed of a plurality of stacking layers stacked on top of one another. A material of the substrate includes cellulose nanofiber. The substrate is formed by 3D printing technique so that a contact surface of the substrate is tightly attached with the body surface. The input transducer is disposed on the substrate and configured to receive a sound signal and convert the sound signal into an electric signal. The amplifier is disposed on the substrate and coupled to the input transducer to amplify the electric signal into an amplified electric signal. The bone-conduction speaker is disposed on the substrate and coupled to the amplifier to convert the amplified electric signal into a vibration signal.

Abstract: The present invention provides a permanent magnet motor, in which three holes, including a middle hole and side holes located on two sides of the middle hole, are disposed in a magnetic island of a rotor, the middle hole and the side holes satisfying specific conditions respectively, thereby achieving an optimal cogging reduction efficacy.

Abstract: A multi-functional network camera control apparatus includes at least one network camera device, at least one camera module, at least one first computation processing device, at least one wireless network communication device, at least one first wireless transceiving device, a wireless key operation device, at least one key module, at least one second computation processing device and at least one second wireless transceiving device. Accordingly, a user is able to control the network camera device via the wireless key operation device or a mobile device.

Abstract: A network camera device includes: a main body, at least one imaging unit configured on at least one side thereof; at least one control device, configured inside the main body; at least one network communication device, configured inside the main body and positioned at one side of the control device, and in information connection therewith, the network communication device providing a user with access to internet; and at least one imaging device, configured inside the main body and installed correspondingly to the imaging unit for shooting, the imaging device positioned at one side of the control device and in information connection therewith, thereby achieving the integration of imaging and internet, and allowing the use to be convenient and the volume to be reduced.

Abstract: A pressure sensor and a manufacturing method thereof are provided. The pressure sensor includes a first electrode, a pressure-sensitive layer covering the first electrode, and a second electrode covering the pressure-sensitive layer. A support material is contained in the pressure-sensitive layer, and the support material is a nano-sized material with an aspect ratio between 100 and 5000. Mechanical property of the pressure-sensitive layer in the pressure sensor can be improved by the property of the nano-sized material.

Abstract: A bone-conduction hearing aid device is provided. The bone-conduction hearing aid device is suitable for being attached to a body surface and includes a substrate, an input transducer, an amplifier, and a bone-conduction speaker. The substrate is composed of a plurality of stacking layers stacked on top of one another. A material of the substrate includes cellulose nanofiber. The substrate is formed by 3D printing technique so that a contact surface of the substrate is tightly attached with the body surface. The input transducer is disposed on the substrate and configured to receive a sound signal and convert the sound signal into an electric signal. The amplifier is disposed on the substrate and coupled to the input transducer to amplify the electric signal into an amplified electric signal. The bone-conduction speaker is disposed on the substrate and coupled to the amplifier to convert the amplified electric signal into a vibration signal.

Abstract: A pressure sensor and a manufacturing method thereof are provided. The pressure sensor includes a thin-film transistor (TFT) array and a pressure-sensitive layer covering the TFT array. The pressure-sensitive layer includes a plurality of insulating layers and one of one-dimensional materials arranged on the same plane and two-dimensional materials. The insulating layers and the one- or two-dimensional materials are alternately stacked so as to effectively enhance pressure resolution.

Abstract: A transparent pressure sensor and a manufacturing method thereof are provided. The transparent pressure sensor includes several layers of transparent electrodes, at least one pressure-sensitive deformation layer between the transparent electrodes, and a metal oxide layer. Each layer of the transparent electrodes is composed of nanowires, and the metal oxide layer is disposed in a space among the nanowires.

Abstract: A reduction-oxidation sensor device and a manufacturing method thereof are provided. The reduction-oxidation sensor device includes a first electrode, at least one sensing structure and a second electrode. The first electrode is located on a substrate. The at least one sensing structure is located on the first electrode and the substrate. The at least one sensing structure includes a metal nanowire layer and a metal oxide layer. The metal nanowire layer is disposed on the first electrode and the substrate. The metal nanowire layer is wrapped by the metal oxide layer. The second electrode is located on the at least one sensing structure.

Abstract: A gas detecting device configured to be attached to a surface includes a substrate, a semiconductor layer, a light-emitting component, a first electrode and a second electrode. The substrate includes a plurality of stacking layers stacked onto one another, and a material of the substrate includes cellulose nanofibrils (CNF). The substrate is formed by 3-D printing, such that a contact surface of the substrate is tightly attached to the surface. The semiconductor layer is formed on the substrate by 3-D printing. The light-emitting component is disposed on the substrate. The first electrode is coupled to the semiconductor layer and the light-emitting component. The second electrode is coupled to the semiconductor layer and a ground electrode. The first electrode and the second electrode are both disposed on the semiconductor layer and maintain a gap therebetween. A resistance of the semiconductor layer is changed according to a concentration of a designated gas.

Abstract: A sensing device for sensing ion concentration of a solution, including a first substrate, a second substrate, a sensing layer, and two electrodes. The material of the first substrate includes cellulose. The second substrate is located on the first substrate. The sensing layer is located on the second substrate. The two electrodes are separately disposed on the sensing layer to expose the sensing layer and bring a solution in contact with the sensing layer so as to measure the resistance value of the solution and convert the resistance value into the ion concentration of the solution.

Abstract: A resistive random-access memory structure and a method for fabricating a resistive random-access memory structure are described. A first dielectric layer is formed on a substrate. A plurality of bottom electrodes are independently embedded in the first dielectric layer. A transition metal oxide layer covers the plurality of bottom electrodes and extends onto a portion of the first dielectric layer. The minimum distance between the bottom electrode and a sidewall of the transition metal oxide layer is a first distance. The first distance is in a range of 10 nm to 200 ?m. A top electrode is formed on the transition metal oxide layer.