Abstract: The present disclosure relates to utilizing a firmware configuration system to efficiently update a firmware profile configuration of computing devices (e.g., host devices in a datacenter). For example, the firmware configuration system facilitates updating the firmware profile configuration, such as for a Unified Extensible Firmware Interface (UEFI) profile and/or a Basic Input/Output System (BIOS), without needing to develop, deploy, and install a new BIOS. More specifically, the firmware configuration system updates (e.g., via a baseband management controller) firmware profile configurations by modifying a profile configuration table in flash memory (i.e., on an SPI flash-based chip) of a BIOS with a firmware profile configuration update patch and without affecting other parts of the BIOS.

Abstract: A method of process technology assessment is provided. The method includes: defining a scope of the process technology assessment, the scope comprising an original process technology and a first process technology; modeling a first object in an integrated circuit into a resistance domain and a capacitance domain; generating a first resistance scaling factor and a first capacitance scaling factor based on the modeling, the original process technology, and the first process technology; and utilizing, by an electronic design automation (EDA) tool, the first resistance scaling factor and the first capacitance scaling factor for simulation of the integrated circuit.

Abstract: A rubber detection system for rubber raw material includes a controller, a rubber sampling module, a rubber calender, a temperature control module, a mooney sensor, a power meter, an expansion ratio detection module, a rotation counter, and a specific gravity detection module. The rubber sampling module obtains a rubber to be tested consistent with a weight value. After the temperature control module determines that the rubber to be tested has reached a temperature value, the rubber calender outputs the rubber to be tested having a thickness value. The power meter records and obtains a power consumption value form the rubber calender. The expansion ratio detection module obtains an expansion ratio based on the thickness value and a roller spacing. The rotation counter obtains the number of rotations of the rubber calender. The specific gravity detection module obtains an actual specific gravity value of the rubber to be tested.

Abstract: A secure firmware update patch release process includes providing (1) a test mode in firmware for performing firmware verification testing on a firmware update patch and (2) an additional signing applied to the firmware update patch after the firmware verification testing and before deployment of the firmware update patch in a production environment. A developer may generate and build a firmware update patch and release the patch for firmware verification testing. Before the firmware verification testing, a platform signature is added to the firmware update patch. The test mode may authenticate the firmware update patch based on the platform signature. If the firmware update patch passes the firmware verification testing, a system signature may be added to the firmware update patch. The system signature may be required to authenticate the firmware update patch while the firmware operates in an official mode of operation.

Abstract: An expansion ratio detection system for rubber, including a controller, a rubber sampling module, a rubber calender, a temperature control module, and an expansion ratio detection module. The rubber sampling module obtains a rubber to be tested consistent with a weight value. After the temperature control module determines that the rubber to be tested has reached a first temperature value, the rubber calender outputs the rubber to be tested having a thickness value. The expansion ratio detection module obtains an expansion ratio according to twice the thickness value and a roller pitch.

Abstract: A power consumption detection system includes a controller, a rubber sampling module, a rubber calender, a temperature control module, a mooney sensor, and a power meter. The rubber sampling module samples a rubber material according to a weight value and obtains a rubber to be tested. The rubber calender continuously calenders the rubber to be tested at least six times. The temperature control module maintains the rubber to be tested with a temperature value. The mooney sensor obtains an actual viscosity index and the controller controls the calendaring number of the rubber calender until the target viscosity index is consistent with the actual viscosity index. The power meter records a power consumed by the rubber calender and obtains a power consumption value.

Abstract: A power consumption detection system includes a controller, a rubber sampling module, a rubber calender, a temperature control module, a mooney sensor, and a power meter. The rubber sampling module samples a rubber material according to a weight value and obtains a rubber to be tested. The rubber calender continuously calenders the rubber to be tested at least six times. The temperature control module maintains the rubber to be tested with a temperature value. The mooney sensor obtains an actual viscosity index and the controller controls the calendaring number of the rubber calender until the target viscosity index is consistent with the actual viscosity index. The power meter records a power consumed by the rubber calender and obtains a power consumption value.

Abstract: An expansion ratio detection system for rubber, including a controller, a rubber sampling module, a rubber calender, a temperature control module, and an expansion ratio detection module. The rubber sampling module obtains a rubber to be tested consistent with a weight value. After the temperature control module determines that the rubber to be tested has reached a first temperature value, the rubber calender outputs the rubber to be tested having a thickness value. The expansion ratio detection module obtains an expansion ratio according to twice the thickness value and a roller pitch.

Abstract: A rubber detection system for rubber raw material includes a controller, a rubber sampling module, a rubber calender, a temperature control module, a mooney sensor, a power meter, an expansion ratio detection module, a rotation counter, and a specific gravity detection module. The rubber sampling module obtains a rubber to be tested consistent with a weight value. After the temperature control module determines that the rubber to be tested has reached a temperature value, the rubber calender outputs the rubber to be tested having a thickness value. The power meter records and obtains a power consumption value form the rubber calender. The expansion ratio detection module obtains an expansion ratio based on the thickness value and a roller spacing. The rotation counter obtains the number of rotations of the rubber calender. The specific gravity detection module obtains an actual specific gravity value of the rubber to be tested.

Abstract: A portable electronic device includes a touch sensing circuit, a substrate, a conductive layer on the substrate, a resistance measuring circuit and a control circuit. The conductive layer includes a plurality of sensing electrodes. The touch sensing circuit determines whether a touch point occurs according to a plurality of capacitance changes of the plurality of sensing electrodes. The resistance measuring circuit measures a resistance value of at least a part of the conductive layer. The control circuit determines whether the touch sensing circuit should enter a correction mode according to the resistance value.

Abstract: A portable electronic device includes a touch sensing circuit, a substrate, a conductive layer on the substrate, a resistance measuring circuit and a control circuit. The conductive layer includes a plurality of sensing electrodes. The touch sensing circuit determines whether a touch point occurs according to a plurality of capacitance changes of the plurality of sensing electrodes. The resistance measuring circuit measures a resistance value of at least a part of the conductive layer. The control circuit determines whether the touch sensing circuit should enter a correction mode according to the resistance value.

Abstract: Disclosed is a full spectrum sunshine simulation apparatus for developing biological growth which comprises a full spectrum light emitting diode module and a photoperiod controller. Therein, the full spectrum light emitting diode module includes a printed circuit board and a plurality of full spectrum light emitting diodes, wherein the luminescence spectrum of the full spectrum light emitting diodes has a wavelength range of 350 nm to 800 nm. The photoperiod controller, connected to the full spectrum light emitting diode module, is in charge of lighting periods of the plurality of full spectrum light emitting diodes, color temperatures and emitting angles of the lights emitted from the plurality of full spectrum light emitting diodes, thereby simulating a environment under artificial sunlight.

Abstract: Disclosed is a full spectrum sunshine simulation apparatus for developing biological growth which comprises a full spectrum light emitting diode module and a photoperiod controller. Therein, the full spectrum light emitting diode module includes a printed circuit board and a plurality of full spectrum light emitting diodes, wherein the luminescence spectrum of the full spectrum light emitting diodes has a wavelength range of 350 nm to 800 nm. The photoperiod controller, connected to the full spectrum light emitting diode module, is in charge of lighting periods of the plurality of full spectrum light emitting diodes, color temperatures and emitting angles of the lights emitted from the plurality of full spectrum light emitting diodes, thereby simulating a environment under artificial sunlight.

Abstract: A solid-state illumination lamp structure includes a sleeve, a first electrode, a second electrode and a light-emitting assembly. The first electrode is mounted on one end of the sleeve and the second electrode is mounted on the other end of the sleeve. The light emitting assembly is mounted inside the sleeve and includes a circuit substrate, at least one light-emitting diode and two conducting assemblies. The two conducting assemblies are electrically connected to the first electrode and the second electrode, respectively, so that the light emitting assembly emits light.

Abstract: A sunshade for vehicle has a blind and at an operating device. The blind has multiple panels pivotally connected to each other for covering a window of the vehicle. The operating device is mounted adjacent to the window of the vehicle and comprises a base, a cover and a winding assembly. The base and the cover are mounted to each other using clips and corresponding notches engaging each other to provide a strong connection. The winding assembly has two shafts mounted securely between the cover and the base, a resilient element mounted securely around each shaft and a drive wheel mounted rotatably on each shaft and connected with the resilient element to provide the recoiling force. The structure of the sunshade is simple and therefore is easily assembled, whilst internal structures are robust to prevent breakage and vibration.

Abstract: A sunshade for vehicle has a blind and at an operating device. The blind has multiple panels pivotally connected to each other for covering a window of the vehicle. The operating device is mounted adjacent to the window of the vehicle and comprises a base, a cover and a winding assembly. The base and the cover are mounted to each other using clips and corresponding notches engaging each other to provide a strong connection. The winding assembly has two shafts mounted securely between the cover and the base, a resilient element mounted securely around each shaft and a drive wheel mounted rotatably on each shaft and connected with the resilient element to provide the recoiling force. The structure of the sunshade is simple and therefore is easily assembled, whilst internal structures are robust to prevent breakage and vibration.

Abstract: A solid-state illumination lamp structure includes a sleeve, a first electrode, a second electrode and a light-emitting assembly. The first electrode is mounted on one end of the sleeve and the second electrode is mounted on the other end of the sleeve. The light emitting assembly is mounted inside the sleeve and includes a circuit substrate, at least one light-emitting diode and two conducting assemblies. The two conducting assemblies are electrically connected to the first electrode and the second electrode, respectively, so that the light emitting assembly emits light.

Abstract: A novel light source device assembly comprises a substrate, a plurality of light source devices and a heat dissipation plate. In the substrate, a plurality of through holes is provided at a plurality of predetermined positions, to support the plurality of light source devices. In the heat dissipation plate, at positions corresponding to that of the plurality of through holes, a plurality of upwardly protruded tongue pieces is provided, whereby each tongue piece is in contact with its respectively corresponding light source device in the plurality of through holes. Metal solders may be applied in between the plurality of tongue pieces and their corresponding plurality of light source devices to enhance the heat dissipation efficiencies. Necessary circuitry may be provided in the substrate and the circuitry may be in connection with the light source device electrically.

Abstract: A white light LED assembly has at least two kinds of light-emitting units. The units can be a white light-emitting unit composed of red, green and blue LEDs, a white light-emitting unit composed of a blue and yellowish-green LEDs, a white light-emitting unit composed of a blue LED and yellow phosphor, or a white light-emitting units composed of UV LED and red, green and blue phosphors. The white light LED assembly according to the present invention has satisfactory efficiency and color rendering property as well as flexible phosphor usage.

Abstract: A BLU module has a plurality of BLUs assembled together. Each of the BLUs includes a light guide, a light source structure adjacent to the light guide, and a heat conduction member contacting the light source structure. The light guide has a light-emitting surface arranged on a top thereof and a bottom surface opposing the light-emitting surface, the light-emitting surface being larger than the bottom surface so that that light guide defines a first cavity formed therebetween. The light source structure is received in the first cavity. The light guide in two adjacent BLUs of the module defines a second cavity opposite the first cavity for receiving an adjacent heat conduction member of a prior adjacent light guide. The module is provided with a variable size with the BLUs assembled together to meet requirements.