Abstract: An electronic device is provided. The electronic device includes a substrate and a first conductive line disposed on the substrate and including a first section and a second section electrically connected to the first section. The first section has a first minimum width outside the overlapping region, the second section has a second minimum width outside the overlapping region, and the first minimum width is different from the second minimum width. The electronic device further includes a first conductive layer disposed on the first section and the second section. The first section is electrically connected to the second section through the first conductive layer.

Abstract: An electronic device having a peripheral area is provided. The electronic device includes a substrate; and a first conductive line disposed on the substrate in the peripheral area and including a first section and a second section electrically connected to the first section. An overlapping region is defined as a region that the first section overlaps the second section in a top view of the electronic device. The first section has a first minimum width inside the overlapping region and a second minimum width outside the overlapping region. The second section has a third minimum width outside the overlapping region. The first minimum width is greater than the second minimum width and greater than the third minimum width.

Abstract: An optical water-quality detection apparatus includes a detection device, a biofilm-inhibition light source, a detection light source and a sensor. The detection device includes a detection chamber. The biofilm-inhibition light source is disposed outside the detection chamber and configured to emit biofilm-inhibition light. The detection light source is disposed outside the detection chamber and configured to emit detection light. The sensor is configured to sense the detection light penetrating the detection chamber. A beam of the detection light and a beam of the inhibition light overlaps as penetrating the detection chamber.

Abstract: The technology described herein is directed to a DC input power supply unit with an auxiliary boost control circuit (or controller) that facilitates continuous supply of power to a standby output load of the power supply unit in a bootloader mode. More specifically, the auxiliary boost circuit (or controller) is configured to assume control of a primary power boost stage from a primary controller in a bootloader mode so that the power supply unit can continue to supply power to the standby output with a protection function regardless of the state of the power supply unit or primary controller.

Abstract: An optical water-quality detection apparatus includes a detection device, a biofilm-inhibition light source, a detection light source and a sensor. The detection device includes a detection chamber. The biofilm-inhibition light source is disposed outside the detection chamber and configured to emit biofilm-inhibition light. The detection light source is disposed outside the detection chamber and configured to emit detection light. The sensor is configured to sense the detection light penetrating the detection chamber. A beam of the detection light and a beam of the inhibition light overlaps as penetrating the detection chamber.

Abstract: A storage box and a semi-finished product of a second rectangular plate body thereof are provided. The store box includes a first rectangular plate body, a second rectangular plate body, and a joint module. The first rectangular plate body includes two first long sides and two first short sides, and one of the first long side and two first short sides form a first joint member. The second rectangular plate body includes two second long sides and two second short sides; two second long sides and one second short side form a second joint member. Both the first and second joint members have the same total length. The joint module includes a first joint element disposed on the first joint member and a second joint element disposed on the second joint member and engages the first and the second rectangular plate body to form an accommodating space.

Abstract: An electronic device having a peripheral area is provided. The electronic device includes a substrate; and a first conductive line disposed on the substrate in the peripheral area and including a first section and a second section electrically connected to the first section. An overlapping region is defined as a region that the first section overlaps the second section in a top view of the electronic device. The first section has a first minimum width inside the overlapping region and a second minimum width outside the overlapping region. The second section has a third minimum width outside the overlapping region. The first minimum width is greater than the second minimum width and greater than the third minimum width.

Abstract: An electronic device is provided. The electronic device includes a substrate, a driving circuit disposed on the substrate, an active area disposed on the substrate, and a wiring group disposed on the substrate and between the driving circuit and the active area. The wiring group includes a first conductive line and a second conductive line. The first conductive line has a first section and a second section electrically connected to the first section and disposed between the first section and the active area. The second conductive line includes a third section and a fourth section electrically connected to the third section and disposed between the third section and the active area. The first section and the second section are not the same layer. The first section and the fourth section are the same layer. The second section and the third section are the same layer.

Abstract: The technology described herein is directed to a DC input power supply unit with an auxiliary boost control circuit (or controller) that facilitates continuous supply of power to a standby output load of the power supply unit in a bootloader mode. More specifically, the auxiliary boost circuit (or controller) is configured to assume control of a primary power boost stage from a primary controller in a bootloader mode so that the power supply unit can continue to supply power to the standby output with a protection function regardless of the state of the power supply unit or primary controller.

Abstract: The technology described herein is directed to a DC input power supply unit with an auxiliary boost control circuit (or controller) that facilitates continuous supply of power to a standby output load of the power supply unit in a bootloader mode. More specifically, the auxiliary boost circuit (or controller) is configured to assume control of a primary power boost stage from a primary controller in a bootloader mode so that the power supply unit can continue to supply power to the standby output with a protection function regardless of the state of the power supply unit or primary controller.

Abstract: A glasses assembly with a nose pad for high load includes: a pair of glasses, configured with an accommodation portion, where the glasses are smart glasses; a support, configured with a first fixing portion, at least one second fixing portion, and the first fixing portion inserted in the accommodation portion of the glasses; and a flat nose pad, two sides thereof respectively configured with a fixed portion, each of the fixed portions installed on the second fixing portion of the support. With the flat nose pad being worn on the user's nose bridge to form a fulcrum, the glasses, smart glasses can achieve leverage balance through the flat nose pad, and the flat nose pad can buffer the weight of the glasses, smart glasses, capable of significantly reducing the user's discomfort after wearing them for a long time, and preventing them from slipping downward.

Abstract: An electromyography signal analysis device and an electromyography signal analysis method are disclosed. The electromyography signal analysis device selects at least one reference indicator from a reference indicator set according to a category-selecting command from a user, and then determines at least one category of noise according to the at least one reference indicator. Next, the electromyography signal analysis device selects at least one filter from a filter set according to the at least one category of noise, and then configures the at least one filter. Subsequently, the electromyography signal analysis device filters an electromyography signal with the at least one configured filter, and analyzes the filtered electromyography signal according to the at least one reference indicator to generate an analysis result in response to the category-selecting command.

Abstract: The technology described herein is directed to a DC input power supply unit with an auxiliary boost control circuit (or controller) that facilitates continuous supply of power to a standby output load of the power supply unit in a bootloader mode. More specifically, the auxiliary boost circuit (or controller) is configured to assume control of a primary power boost stage from a primary controller in a bootloader mode so that the power supply unit can continue to supply power to the standby output with a protection function regardless of the state of the power supply unit or primary controller.

Abstract: A glasses assembly with a nose pad for high load includes: a pair of glasses, configured with an accommodation portion, where the glasses are smart glasses; a support, configured with a first fixing portion, at least one second fixing portion, and the first fixing portion inserted in the accommodation portion of the glasses; and a flat nose pad, two sides thereof respectively configured with a fixed portion, each of the fixed portions installed on the second fixing portion of the support. With the flat nose pad being worn on the user's nose bridge to form a fulcrum, the glasses, smart glasses can achieve leverage balance through the flat nose pad, and the flat nose pad can buffer the weight of the glasses, smart glasses, capable of significantly reducing the user's discomfort after wearing them for a long time, and preventing them from slipping downward.

Abstract: A microneedle electroporation device is provided, including a housing, a positioning member, an intermediate plate, a first microneedle assembly, a second microneedle assembly, a socket, a first wire, and a second wire. The positioning member is connected to the housing and the intermediate plate. The intermediate plate includes a plurality of first holes and a plurality of second holes. The first microneedle assembly includes a plurality of first microneedles and a first metal connecting portion connected to the first microneedles. The first microneedles pass through the first holes. The second microneedle assembly includes a plurality of second microneedles and a second metal connecting portion connected to the second microneedles. The second microneedles pass through the second holes. The first microneedle assembly and the second microneedle assembly are electrically independent of each other. The first wire connects the socket to the first metal connecting portion.

Abstract: A residual toxicant detection device for testing residual toxicant in an aqueous solution is disclosed, which includes a first space cavity, a second space cavity, a connecting frame and a sensing cavity. The first space cavity includes a light source and a lens. The second space cavity includes a photo sensor and a circuit module. The connecting frame is configured to connect the first space cavity and the second space cavity. The sensing cavity for receiving an aqueous solution is formed between the first space cavity and the second space cavity and at one side of the connecting frame. The light source emits a light with a wavelength range. The photo sensor receives the sensing signal of the light passing through the sensing cavity. The circuit module is configured to calculate the absorbance and the variation in absorbance of the residual toxicants in the aqueous solution.

Abstract: A residual toxicant detection device for testing residual toxicant in an aqueous solution is disclosed, which includes a first space cavity, a second space cavity, a connecting frame and a sensing cavity. The first space cavity includes a light source and a lens. The second space cavity includes a photo sensor and a circuit module. The connecting frame is configured to connect the first space cavity and the second space cavity. The sensing cavity for receiving an aqueous solution is formed between the first space cavity and the second space cavity and at one side of the connecting frame. The light source emits a light with a wavelength range. The photo sensor receives the sensing signal of the light passing through the sensing cavity. The circuit module is configured to calculate the absorbance and the variation in absorbance of the residual toxicants in the aqueous solution.

Abstract: A foot pressure measurement apparatus, method, and non-transitory tangible machine-readable medium thereof are provided. The foot pressure measurement apparatus stores multiple first pressure value sets corresponding to a first position set of a foot and multiple second pressure value sets corresponding to a second position set of the foot. A first position quantity of the first position set is smaller than a second position quantity of the second position set. The foot pressure measurement apparatus decides multiple candidate weight set. For each candidate set, the foot pressure measurement apparatus calculates multiple first center of pressure (COP) values and multiple second COP values and calculates an accumulated difference corresponding to the candidate weight set according to the first COP values and the second COP values. The foot pressure measurement apparatus further determines a designated weight set from the candidate weight sets according to the accumulated differences.

Abstract: An electronic device is provided. The electronic device includes a substrate, a driving circuit disposed on the substrate, an active region disposed on the substrate, and a wiring group disposed on the substrate and between the driving circuit and the active area. The wiring group includes a first conductive line and a second conductive line. The first conductive line has a first section and a second section electrically connected to the first section and disposed between the first section and the active region. The second conductive line includes a third section and a fourth section electrically connected to the third section and disposed between the third section and the active region. The first section and the second section are not the same layer. The first section and the fourth section are the same layer. The second section and the third section are the same layer.