Abstract: A touchpad includes a touch assembly and a support assembly. The touch assembly is disposed on the support assembly. The support assembly includes: a main support component, disposed at an edge of a bottom surface of the touch assembly; a fixed platform, on which a boss is integrally formed; and first and second elastic components, where the first and second elastic components are symmetrically connected to the main support component along a plane in which the main support component is located, an opening for accommodating the fixed platform is formed between the first and second elastic components, the fixed platform is connected between the first and second elastic components, and the support assembly has a sheet-like structure; and a travel switch is disposed on the bottom surface of the touch assembly, and the boss is configured to touch and trigger the travel switch when the touch assembly is pressed.

Abstract: A touchpad includes a touch assembly and a support assembly. The touch assembly is disposed on the support assembly. The support assembly includes: a main support component, disposed at an edge of a bottom surface of the touch assembly; a fixed platform, on which a boss is integrally formed; and first and second elastic components, where the first and second elastic components are symmetrically connected to the main support component along a plane in which the main support component is located, an opening for accommodating the fixed platform is formed between the first and second elastic components, the fixed platform is connected between the first and second elastic components, and the support assembly has a sheet-like structure; and a travel switch is disposed on the bottom surface of the touch assembly, and the boss is configured to touch and trigger the travel switch when the touch assembly is pressed.

Abstract: A touchpad module, comprising: a moving part, a fixing part and a deforming part. The moving part has a touch panel, a main support member and a travel switch arranged on a bottom surface of the touch panel. The fixing part has a fixing platform, and a contact point is provided on a surface of the fixing platform close to the moving part. The deforming part is configured to elastically deform, when the touch panel is pressed, so that the moving part moves toward the fixing part along a pressing direction, and the contact point contacts and triggers the travel switch. The touchpad module provided by the present disclosure can realize a full-area pressing of the touchpad module.

Abstract: A capacitive fingerprint identification apparatus, a preparation method and an electronic device can improve the performance of a capacitive fingerprint apparatus and the users' using experience. The capacitive fingerprint identification apparatus is configured to be provided on an arc-shaped surface of the electronic device, including: a capacitive fingerprint identification package structure; an arc surface structure, including a first surface and a second surface, where the first surface of the arc surface structure is a plane, the second surface of the arc surface structure is an arc surface. Setting the arc surface structure on the capacitive fingerprint identification apparatus can not only make itself and the electronic device where it is located more aesthetical in appearance and have a more three-dimensional sense, but also protect the electronic device when the electronic device is dropped, so the influence on the capacitive fingerprint identification apparatus is small.

Abstract: A fingerprint identification apparatus and an electrode device. The fingerprint identification apparatus could be configured to be disposed under a variety of different display screens, reducing a thickness of space for installation of the fingerprint identification apparatus under a screen. The fingerprint identification apparatus includes: a support plate; and at least one fingerprint sensor chip, the at least one fingerprint sensor chip being disposed at an upper surface of the support plate; where the support plate is configured to be mounted to an upper surface of a middle frame of the electronic device so that the at least one fingerprint sensor chip is located under the display screen of the electronic device; and the at least one fingerprint sensor chip is configured to receive a fingerprint detecting signal returned by reflection or scattering via a human finger on the display screen.

Abstract: A touchpad includes a touch assembly and a support assembly. The touch assembly is disposed on the support assembly. The support assembly includes: a main support component, disposed at an edge of a bottom surface of the touch assembly; a fixed platform, on which a boss is integrally formed; and first and second elastic components, where the first and second elastic components are symmetrically connected to the main support component along a plane in which the main support component is located, an opening for accommodating the fixed platform is formed between the first and second elastic components, the fixed platform is connected between the first and second elastic components, and the support assembly has a sheet-like structure; and a travel switch is disposed on the bottom surface of the touch assembly, and the boss is configured to touch and trigger the travel switch when the touch assembly is pressed.

Abstract: A touchpad module, comprising: a moving part, a fixing part and a deforming part. The moving part has a touch panel, a main support member and a travel switch arranged on a bottom surface of the touch panel. The fixing part has a fixing platform, and a contact point is provided on a surface of the fixing platform close to the moving part. The deforming part is configured to elastically deform, when the touch panel is pressed, so that the moving part moves toward the fixing part along a pressing direction, and the contact point contacts and triggers the travel switch. The touchpad module provided by the present disclosure can realize a full-area pressing of the touchpad module.

Abstract: A capacitive fingerprint identification apparatus, a preparation method and an electronic device can improve the performance of a capacitive fingerprint apparatus and the users' using experience. The capacitive fingerprint identification apparatus is configured to be provided on an arc-shaped surface of the electronic device, including: a capacitive fingerprint identification package structure; an arc surface structure, including a first surface and a second surface, where the first surface of the arc surface structure is a plane, the second surface of the arc surface structure is an arc surface. Setting the arc surface structure on the capacitive fingerprint identification apparatus can not only make itself and the electronic device where it is located more aesthetical in appearance and have a more three-dimensional sense, but also protect the electronic device when the electronic device is dropped, so the influence on the capacitive fingerprint identification apparatus is small.

Abstract: For biometric technologies, a sensing device and a terminal device are provided. The sensing device includes a circuit board, a biometric sensor, at least one light-emitting element, a cover with a light-transmitting region, a light guide plate, and a light concentrating structure. The biometric sensor is installed on the circuit board. The light guide plate is fixed between the biometric sensor and the cover. The light concentrating structure is disposed on the light guide plate and corresponds to the light-transmitting region. The light-emitting element is installed on the circuit board and positioned on one side of the biometric sensor; and the light-emitting element has a side light-emitting end, and the side light-emitting end corresponds to the light guide plate.

Abstract: A fingerprint identification apparatus and an electrode device. The fingerprint identification apparatus could be configured to be disposed under a variety of different display screens, reducing a thickness of space for installation of the fingerprint identification apparatus under a screen. The fingerprint identification apparatus includes: a support plate; and at least one fingerprint sensor chip, the at least one fingerprint sensor chip being disposed at an upper surface of the support plate; where the support plate is configured to be mounted to an upper surface of a middle frame of the electronic device so that the at least one fingerprint sensor chip is located under the display screen of the electronic device; and the at least one fingerprint sensor chip is configured to receive a fingerprint detecting signal returned by reflection or scattering via a human finger on the display screen.

Abstract: An optical biometric identification module, a display apparatus, and an electronic device, are provided. The optical biometric identification module includes an optical channel array panel configured to filter lights reflected by an organism; an optical chip configured to generate a biometric identification signal according to the filtered lights received by an optical sensing area of the optical chip; and a circuit board configured to transmit out the biometric identification signal. The optical chip is mounted on the circuit board, and the optical channel array panel is secured on the optical chip and covers at least the optical sensing area of the optical chip, to ensure that the lights received by the optical chip are approximately perpendicular to the optical channel array panel, thereby improving accuracy of the acquired biometric identification signal.

Abstract: An optical biometric identification module, a display apparatus, and an electronic device, are provided. The optical biometric identification module includes an optical channel array panel configured to filter lights reflected by an organism; an optical chip configured to generate a biometric identification signal according to the filtered lights received by an optical sensing area of the optical chip; and a circuit board configured to transmit out the biometric identification signal. The optical chip is mounted on the circuit board, and the optical channel array panel is secured on the optical chip and covers at least the optical sensing area of the optical chip, to ensure that the lights received by the optical chip are approximately perpendicular to the optical channel array panel, thereby improving accuracy of the acquired biometric identification signal.

Abstract: For biometric technologies, a sensing device and a terminal device are provided. The sensing device includes a circuit board, a biometric sensor, at least one light-emitting element, a cover with a light-transmitting region, a light guide plate, and a light concentrating structure. The biometric sensor is installed on the circuit board. The light guide plate is fixed between the biometric sensor and the cover. The light concentrating structure is disposed on the light guide plate and corresponds to the light-transmitting region. The light-emitting element is installed on the circuit board and positioned on one side of the biometric sensor; and the light-emitting element has a side light-emitting end, and the side light-emitting end corresponds to the light guide plate.

Abstract: A chip packaging structure includes: at least one package, each of the at least one package comprising at least one chip; and an expansion body wrapping the package and being cuttable according to a package size requirement. A chip packaging method includes: fixing at least one package to a lower mold surface via a carrier, and sealing an upper mold for the package; and fully filling a cavity between the carrier and the upper mold with an expansion body by plastic injection molding, the expansion body wrapping the at least one package; and releasing the mold to obtain a size-expanded package, and cutting the package according to a package size need. The present application achieves size-variable chip packaging.

Abstract: A passive two-terminal circuit element may include a resistor including a carbon-metal composite resistive element. The resistive element is configured to maintain a resistivity that fluctuates less than one tenth of an ohm per ten degree temperature change up to 400 degrees Celsius.

Abstract: A control circuit receives a starting signal from a powertrain control module of a vehicle and delays the coupling of the main starting current from the battery to the starting motor until a reduced current in an alternative flow path is provided to the starter motor, initiating its motion. In a preferred, the pre-start sequence is controlled by a microprocessor which provides a control signal to a solid state switch coupled by a conductor providing current limiting resistance between the battery supply and the starter motor for a predetermined period of time. Subsequent to the pre-spin period, the control circuit provides a signal to a different solid state switch which activates the starter solenoid, in turn, coupling the battery to the starter motor and engaging the pinion gear with the ring gear.

Abstract: A method for maximizing the availability of start-stop operations within a microhybrid vehicle includes determining the electric current drawn by a set of electrical components of the vehicle, from the vehicle's battery. The internal resistance of the vehicle's battery, and the resistance of a starter motor loop circuit coupled to the engine of the vehicle are dynamically calculated. The closed-circuit voltage of the battery is predicted, using the internal resistance of the battery, the resistance of the starter motor loop circuit, and the current drawn by the set of electrical components of the vehicle. The start-stop operation is carried out if the closed-circuit voltage of the battery is predicted to be above a pre-determined minimum value.

Abstract: A passive two-terminal circuit element may include a resistor including a carbon-metal composite resistive element. The resistive element is configured to maintain a resistivity that fluctuates less than one tenth of an ohm per ten degree temperature change up to 400 degrees Celsius.

Abstract: A method for maximizing the availability of start-stop operations within a microhybrid vehicle includes determining the electric current drawn by a set of electrical components of the vehicle, from the vehicle's battery. The internal resistance of the vehicle's battery, and the resistance of a starter motor loop circuit coupled to the engine of the vehicle are dynamically calculated. The closed-circuit voltage of the battery is predicted, using the internal resistance of the battery, the resistance of the starter motor loop circuit, and the current drawn by the set of electrical components of the vehicle. The start-stop operation is carried out if the closed-circuit voltage of the battery is predicted to be above a pre-determined minimum value.

Abstract: A control circuit receives a starting signal from a powertrain control module of a vehicle and delays the coupling of the main starting current from the battery to the starting motor until a reduced current in an alternative flow path is provided to the starter motor, initiating its motion. In a preferred, the pre-start sequence is controlled by a microprocessor which provides a control signal to a solid state switch coupled by a conductor providing current limiting resistance between the battery supply and the starter motor for a predetermined period of time. Subsequent to the pre-spin period, the control circuit provides a signal to a different solid state switch which activates the starter solenoid, in turn, coupling the battery to the starter motor and engaging the pinion gear with the ring gear.