Abstract: A downhole throttling device based on wireless control includes an inlet nozzle, a throttling assembly, an electrical sealing cylinder, a gas guide cylinder, a lower adapter sleeve, an end socket, a female sleeve, and electrical components. The inlet nozzle is connected to the throttling assembly, the throttling assembly is connected to the electrical sealing cylinder and the gas guide cylinder, the electrical sealing cylinder and the gas guide cylinder are both connected to the lower adapter sleeve, the lower adapter sleeve is respectively connected to the end socket and the female sleeve, and the electrical components are arranged in the electrical sealing cylinder. A throttling effect is achieved by detecting the temperature and pressure in a tube by a temperature/pressure sensor in the electrical components and controlling a motor to rotate a movable valve in the throttling assembly by a circuit control assembly, thereby achieving wireless control over downhole throttling.

Abstract: A LED bulb apparatus has a bulb shell, a head cap, a driver circuit and at least one light strip. The bulb shell has a light passing shell and a bottom portion. A head cap has a neck portion, a first electrode and a second electrode. The neck portion of the head cap is connected to the bottom portion of the bulb shell forming a container space. A fluorescent layer covers the multiple LED modules. The driving current is transmitted via at least one of the top end and the bottom end of the light strip to the LED modules. The substrate has a light transmittance less than 50%.

Abstract: A LED bulb apparatus has a bulb shell, a head cap, a driver circuit and at least one light strip. The bulb shell has a light passing shell and a bottom portion. A head cap has a neck portion, a first electrode and a second electrode. The neck portion of the head cap is connected to the bottom portion of the bulb shell forming a container space. A fluorescent layer covers the multiple LED modules. The driving current is transmitted via at least one of the top end and the bottom end of the light strip to the LED modules. The substrate has a light transmittance less than 50%.

Abstract: A lighting apparatus includes an elongated light strip, a bracket and a driver. The elongated light strip includes a flexible substrate, a first color band, a second color band and a third color band. The first color band, the second color band and the third color band are arranged in parallel on the flexible substrate. The bracket is used for supporting and bending the elongated light strip. The driver is connected to the first color band, the second color band and the third color band to emit a light of a required light parameter.

Abstract: A light apparatus includes at least one elongated substrate mounted with a first light emitted diode covered with a first fluorescent layer and a second light emitted diode not covered with fluorescent layer. The light apparatus also has a driver circuit supplying a driving current to the first light emitted diode and the second light emitted diode and a control circuit.

Abstract: A LED bulb apparatus has a bulb shell, a head cap, a driver circuit and at least one light strip. The bulb shell has a light passing shell and a bottom portion. A head cap has a neck portion, a first electrode and a second electrode. The neck portion of the head cap is connected to the bottom portion of the bulb shell forming a container space. A fluorescent layer covers the multiple LED modules. The driving current is transmitted via at least one of the top end and the bottom end of the light strip to the LED modules. The substrate has a light transmittance less than 50%.

Abstract: A lighting apparatus includes an elongated light strip, a bracket and a driver. The elongated light strip includes a flexible substrate, a first color band, a second color band and a third color band. The first color band, the second color band and the third color band are arranged in parallel on the flexible substrate. The bracket is used for supporting and bending the elongated light strip. The driver is connected to the first color band, the second color band and the third color band to emit a light of a required light parameter.

Abstract: A light apparatus for generating a mixed light output. The light apparatus includes multiple LED modules. Each LED module includes multiple LED regions. The multiple LED regions cover a single LED chip. The multiple LED regions share the same package for emitting lights with different optical characteristics.

Abstract: A light apparatus for generating a mixed light output. The light apparatus includes multiple LED modules. Each LED module includes multiple LED regions. The multiple LED regions have separate electrodes. The multiple LED regions share the same package housing but at least two LED regions are covered with different fluorescent layers for emitting lights with different optical characteristics.

Abstract: A lighting apparatus includes multiple LED packages, a substrate and a driver. The LED package module includes a package housing, a LED chip and a second LED chip, a first fluorescent layer, and a second fluorescent layer. The first fluorescent layer is stacked below the second fluorescent layer. A light emitting area of the first chip is placed in the first fluorescent layer. A light emitting area of the second chip is placed in the second fluorescent.

Abstract: A lighting apparatus includes a light module, a driver and a wireless circuit. The light module includes an elongated substrate, a first LED chip layer mounted on a first side of the substrate and a second LED chip layer mounted on a second side of the substrate, and two electrodes on two opposite ends of the substrate. The wireless circuit is used for receiving an external command from an external device to control the driver to adjust the driving power of the light module to mix lights of different optical parameters. The driver has a plugging socket for plugging the wireless circuit.

Abstract: A LED bulb apparatus has a bulb shell, a head cap, a driver circuit and at least one light strip. The bulb shell has a light passing shell and a bottom portion. A head cap has a neck portion, a first electrode and a second electrode. The neck portion of the head cap is connected to the bottom portion of the bulb shell forming a container space. A fluorescent layer covers the multiple LED modules. The driving current is transmitted via at least one of the top end and the bottom end of the light strip to the LED modules. The substrate has a light transmittance less than 50%.

Abstract: Provided are a method for controlling fingerprint processing resources, a terminal, and a computer readable storage medium. The method includes the following. A terminal adds, in a predetermined order, N access requests for the fingerprint processing resources initiated concurrently by N applications of the terminal to a predetermined access queue upon detecting the N access requests, where, in the predetermined access queue, an access request first added is first processed, and N is an integer greater than one. The terminal allocates the fingerprint processing resources to an application corresponding to an access request currently processed in the predetermined access queue, and updates the access request currently processed in the predetermined access queue according to a duration in which the application occupies the fingerprint processing resources.

Abstract: Embodiments of the present disclosure provide unlocking control methods and related produces. The method includes the following. A face image is collected. A first operation and a second operation are performed in parallel. The first operation is configured to detect whether the face image is a real face image. The second operation is configured to extract feature data of the face image. The feature data of the face image is matched with feature data of a preset face template when the feature data of the face image is extracted and the face image is detected to be the real face image. An unlocking operation is performed when the feature data of the face image is matched with the feature data of the preset face template.

Abstract: A method and an apparatus for invoking a fingerprint identification device are provided. The method includes the following. When a request of a current application to invoke a fingerprint identification device is detected, whether the fingerprint identification device is occupied by a historical application is determined. When the fingerprint identification device is occupied by the historical application, whether the current application meets a preset invoking condition is determined, and then the fingerprint identification device is controlled to process the request of the current application according to the determination result.

Abstract: Embodiments of the present disclosure provide a control method for enrolling face template data and related products. The control method includes: controlling a face image collection device to capture a face image and generate face template data; acquiring via the face recognition service a dynamic check token sent by the face recognition trusted application; sending a face template enrolling command carrying the dynamic check token and the face template data to the face recognition trusted application via the face recognition service; and verifying the dynamic check token in the face template enrolling command is valid and storing the face template data in the security system via the face recognition trusted application.

Abstract: A light apparatus for generating a mixed light output. The light apparatus includes multiple LED modules. Each LED module includes multiple LED regions. The multiple LED regions cover a single LED chip. The multiple LED regions share the same package for emitting lights with different optical characteristics.

Abstract: A hybrid light emitting device includes a full-wave bridge rectifier, an AC-to-DC converter, a hybrid illumination module, a luminance control module and a linear constant current circuit. The full-wave bridge rectifier transforms a full sinusoidal wave voltage into a positive half sinusoidal wave voltage. The AC-to-DC converter is electrically coupled to the full-wave bridge rectifier. The AC-to-DC converter transforms the positive wave voltage into a constant DC voltage. The hybrid illumination module includes a plurality of illuminating elements having different or partially same luminance properties. The plurality of illuminating elements are disposed in respective proximities. The luminance control module generates a plurality of control signals that determine the duty cycles of the plurality of illuminating elements. The linear constant current circuit controls duty cycles of the plurality of illuminance elements using the plurality of control signals.

Abstract: A lighting apparatus, includes a first light source, a second light source, a current source, a PWM circuit and a switch circuit. The first light source and the second light source emit lights of different color temperatures. A current source is for generating a driving current. The PWM circuit is used for generating a PWM signal. The switch circuit is for guiding the driving current to either the first light source or the second light source by reference to the PWM signal.

Abstract: A light apparatus for generating a mixed light output. The light apparatus includes multiple LED modules. Each LED module includes multiple LED regions. The multiple LED regions cover a single LED chip. The multiple LED regions share the same package for emitting lights with different optical characteristics.