mhurhangee/ep-ind-claims huggingface dataset:
An overvoltage protection circuit for protecting a pass element (45-45"') in a controlled voltage supply circuit electrically connected between a circuit power supply interconnection terminal region suited for electrical connection to a circuit power supply and an output terminal region between which the pass element can be directed at a control region thereof to provide a conductive path of a selected conductivity, the pass element being protected from voltage surges that may occur on the circuit power supply interconnection with respect to a voltage reference interconnection, the overvoltage protection circuit comprising: a control switch having first and second terminating regions and a control region by which that control switch is capable of being directed to provide a conductive path between control switch first and second terminating regions of a selected conductivity, the control switch first terminating region being suited for electrical connection to a source of voltage; a regulated voltage source having an input electrically connected to the control switch second terminating region and an output at which a regulated voltage of a selected value is provided in response to a voltage being provided on the input thereof, and a charge pump (30, 35, 42) having an output electrically connected to the pass element control region and a first control region electrically connected to the regulated voltage source output and at which the charge pump is capable of being directed to provide a selected voltage at the charge pump output; the charge pump further comprising an oscillator having an input electrically connected to the charge pump first control region and an output at which that oscillator is capable of providing an oscillating value voltage in response to a voltage being provided on the input thereof; and the charge pump further comprising a second control region at which the oscillator is capable of being directed to cease oscillating during sufficiently large voltage surges on the power supply interconnection terminal region, thereby switching off the pass element. a control switch having first and second terminating regions and a control region by which that control switch is capable of being directed to provide a conductive path between control switch first and second terminating regions of a selected conductivity, the control switch first terminating region being suited for electrical connection to a source of voltage; a regulated voltage source having an input electrically connected to the control switch second terminating region and an output at which a regulated voltage of a selected value is provided in response to a voltage being provided on the input thereof, and
A virtualization processing method, wherein the method is performed by a computing node, wherein the computing node comprises: a hardware layer, a Host running on the hardware layer, and at least one virtual machine, VM running on the Host, wherein the hardware layer comprises an input/output, I/O device, several corresponding virtual function, VF devices are virtualized from the I/O device, the Host has several VF software instances, the several VF software instances and the several VF devices are in one-to-one correspondence; the Host further has a back-end instance, BE of an I/O virtual device having the same type with the I/O device, the VM has a front-end instance, FE of the I/O virtual device, wherein the BE in the Host is bound with an idle VF software instance; the method comprising: pre-allocating, by the FE, a cache for direct memory access, DMA (501, 607, 706); acquiring, by the VF software instance bound with the BE, an address corresponding to the cache for DMA through an exporting application programming interface of the BE, writing the acquired address corresponding to the cache for DMA into a first storage unit of a VF device corresponding to the VF software instance; selecting, by the VF device, the address corresponding to the cache for DMA from the first storage unit when there is data to be received, and initiating a DMA write request by using the selected address as a target address; notifying, by the VF device, the VF software instance, which is corresponding to the VF device and is in the Host, after the DMA write request is executed, so that the VF software instance triggers, through the BE, the FE to receive the data written into the cache corresponding to the address, wherein the FE in the VM is considered as a front-end driver of the I/O virtual device, the BE in the Host is considered as a back-end driver of the I/O virtual device, and the I/O virtual device is composed of the BE and the FE. pre-allocating, by the FE, a cache for direct memory access, DMA (501, 607, 706); acquiring, by the VF software instance bound with the BE, an address corresponding to the cache for DMA through an exporting application programming interface of the BE, writing the acquired address corresponding to the cache for DMA into a first storage unit of a VF device corresponding to the VF software instance; selecting, by the VF device, the address corresponding to the cache for DMA from the first storage unit when there is data to be received, and initiating a DMA write request by using the selected address as a target address; notifying, by the VF device, the VF software instance, which is corresponding to the VF device and is in the Host, after the DMA write request is executed, so that the VF software instance triggers, through the BE, the FE to receive the data written into the cache corresponding to the address, wherein the FE in the VM is considered as a front-end driver of the I/O virtual device, the BE in the Host is considered as a back-end driver of the I/O virtual device, and the I/O virtual device is composed of the BE and the FE.
A film stripping mechanism, comprising: a base; a platform disposed on the base and having a substrate to be stripped of film placed thereon;a blade disposed above an upper surface of the platform and capable of contacting the substrate to be stripped of film placed on the platform, the platform and the blade being movable relative to each other so as to strip off a film on the substrate to be stripped of film; an automatic alcohol-spraying module contacting the blade for spraying outwards alcohol and allowing the alcohol to flow toward the substrate to be stripped of film along the blade. a base; a platform disposed on the base and having a substrate to be stripped of film placed thereon;a blade disposed above an upper surface of the platform and capable of contacting the substrate to be stripped of film placed on the platform, the platform and the blade being movable relative to each other so as to strip off a film on the substrate to be stripped of film; an automatic alcohol-spraying module contacting the blade for spraying outwards alcohol and allowing the alcohol to flow toward the substrate to be stripped of film along the blade.
A manufacturing method of a semiconductor device comprising the steps of: forming a first conductive layer which functions as a gate electrode over a substrate; forming a first insulating layer to cover the first conductive layer; forming an oxide semiconductor layer over the first insulating layer so that the oxide semiconductor layer overlaps with the first conductive layer; forming a second conductive layer over the oxide semiconductor layer; forming a second insulating layer to cover the oxide semiconductor layer and the second conductive layer; performing a first heat treatment after the step of forming the second conductive layer and before the step of forming the second insulating layer; and performing a second heat treatment after the step of forming the second insulating layer, wherein a hydrogen concentration in the second insulating layer is lower than a hydrogen concentration in the oxide semiconductor layer, and wherein a temperature of each of the first heat treatment and the second heat treatment is 200°C or higher and 400 °C or lower. forming a first conductive layer which functions as a gate electrode over a substrate; forming a first insulating layer to cover the first conductive layer; forming an oxide semiconductor layer over the first insulating layer so that the oxide semiconductor layer overlaps with the first conductive layer; forming a second conductive layer over the oxide semiconductor layer; forming a second insulating layer to cover the oxide semiconductor layer and the second conductive layer; performing a first heat treatment after the step of forming the second conductive layer and before the step of forming the second insulating layer; and performing a second heat treatment after the step of forming the second insulating layer, wherein a hydrogen concentration in the second insulating layer is lower than a hydrogen concentration in the oxide semiconductor layer, and wherein a temperature of each of the first heat treatment and the second heat treatment is 200°C or higher and 400 °C or lower.
A method of making a plastic container having a RFID tag in a wall of the container, comprising the steps of: a) forming a plastic perform which is of a tubular body with a closed end; b) blow molding the perform into a plastic container having the RFID tag embedded in a wall of the container; characterized in that c) the plastic perform is formed in a preform mold that includes a mold core (46; 78) as by the steps of: d) mounting an insert (28; 80) that includes the RFID tag on an end of the mold core (46; 78); e) forming the plastic perform in the perform mold around the mold core (46; 78) and the insert (28; 80) such that the insert is insert molded into the closed end of the perform; f) said step (b) is carried out such that the insert (28; 80) is embedded in a base wall of the container. a) forming a plastic perform which is of a tubular body with a closed end; b) blow molding the perform into a plastic container having the RFID tag embedded in a wall of the container; characterized in that c) the plastic perform is formed in a preform mold that includes a mold core (46; 78) as by the steps of: d) mounting an insert (28; 80) that includes the RFID tag on an end of the mold core (46; 78); e) forming the plastic perform in the perform mold around the mold core (46; 78) and the insert (28; 80) such that the insert is insert molded into the closed end of the perform; f) said step (b) is carried out such that the insert (28; 80) is embedded in a base wall of the container.
A polyvinyl acetal resin composition comprising: a polyvinyl acetal; a reactive diluent; and a photopolymerization initiator, the polyvinyl acetal resin composition having a storage modulus G' at 200°C before irradiation with light of 8 × 10 4 Pa or lower and a storage modulus G' at 200°C after irradiation with light of 8 × 10 3 Pa or higher, with the storage modulus G' at 200°C after irradiation with light being higher than the storage modulus G' at 200°C before irradiation with light. a polyvinyl acetal; a reactive diluent; and a photopolymerization initiator, the polyvinyl acetal resin composition having a storage modulus G' at 200°C before irradiation with light of 8 × 10 4 Pa or lower and a storage modulus G' at 200°C after irradiation with light of 8 × 10 3 Pa or higher, with the storage modulus G' at 200°C after irradiation with light being higher than the storage modulus G' at 200°C before irradiation with light.
Flat mop cover (1, 1', 1", 1"') for arranging on a mop-cover holder, comprising an elongate main body (3, 3', 3", 3"'), wherein the main body (3, 3', 3", 3"') has a main cleaning surface (4, 4', 4", 4"') and at least one cleaning lip (5a, 5b, 5c, 5d), which can be pivoted relative to a base region of the main cleaning surface (4, 4', 4", 4"'), wherein the at least one cleaning lip (5a, 5b, 5c, 5d) can be pivoted about at least one predetermined pivoting region (6a, 6b, 6c, 6d), and wherein the main body (3, 3', 3", 3"') has a sheet-like textile material, which does not have a backing fabric with threads applied to it at any location on the main cleaning surface (4, 4', 4", 4"'), characterized in that a predetermined pivoting region (6a, 6b, 6c, 6d) is designed in the form of a seam (7a, 7b, 7c, 7d), about which the cleaning lip (5a, 5b, 5c, 5d) can be pivoted.
Sheet-fed printing machine with a delivery and a device which has a powder spray device in the delivery for the zonal application of powder, the device having multiple powder zones which extend across the width of a printed sheet, and with a control computer, which is designed as part of a printing press computer or as a separate control computer of the powder spray device or as part of another peripheral device and which has multiple data zones for controlling the powder metering, which can be selected and controlled by an operator on a display device, characterized in that the width of a powder zone (2, 4) corresponds to an integral multiple of the width of one or more data zones.
A method performed by an object size mapping system for enabling object mapping and Improved positioning of a vehicle, said object size mapping system comprising at least a first reference camera adapted to be arranged on-board a reference vehicle, said method comprising: determining a current reference position of the reference vehicle; and capturing by means of said at least first reference camera, at said current reference position of said reference vehicle, a current reference image of a stationary physical reference object situated in the surroundings of said reference vehicle; said method being characterized in further comprising: determining a current reference size value of at least a portion of said stationary physical reference object, in said current reference image; and storing said current reference size value to be associated with: - said current reference position of the reference vehicle; and - a mapped digital reference object corresponding to said stationary physical reference object. determining a current reference position of the reference vehicle; and capturing by means of said at least first reference camera, at said current reference position of said reference vehicle, a current reference image of a stationary physical reference object situated in the surroundings of said reference vehicle; said method being characterized in further comprising: determining a current reference size value of at least a portion of said stationary physical reference object, in said current reference image; and storing said current reference size value to be associated with: - said current reference position of the reference vehicle; and - a mapped digital reference object corresponding to said stationary physical reference object. determining a current reference size value of at least a portion of said stationary physical reference object, in said current reference image; and storing said current reference size value to be associated with: - said current reference position of the reference vehicle; and - a mapped digital reference object corresponding to said stationary physical reference object. - said current reference position of the reference vehicle; and - a mapped digital reference object corresponding to said stationary physical reference object.
A toner composition comprising: a binder, a colorant, and a treated alumina, wherein said treated alumina comprises alumina particles treated with a treatment agent, wherein said treatment agent is decylalkoxysilane, and wherein said treated alumina has a primary particle size of from 25 to 55 nanometers, and an average aggregate size of from 190 to 400 nanometers. a binder, a colorant, and a treated alumina, wherein said treated alumina comprises alumina particles treated with a treatment agent, wherein said treatment agent is decylalkoxysilane, and wherein said treated alumina has a primary particle size of from 25 to 55 nanometers, and an average aggregate size of from 190 to 400 nanometers.
A continuous structure capable of producing a connector cover (81, 82, 83), comprising or being a unitary structure made from a single strip-shaped flat plate, the unitary structure including a regular repetition of a predetermined structure in a longitudinal direction of the strip-shaped flat plate, the predetermined structure being referred to as a unit structure, the unit structure including a flat-plate portion and two side wall portion groups (52, 53), one of the two side wall portion groups (52, 53) including a first side wall portion standing on one of two edges of the flat-plate portion in a width direction of the flat-plate portion, another of the two side wall portion groups (52, 53) including a second side wall portion (55, 56) standing on the other of the two edges of the flat-plate portion, and the first side wall portion facing the second side wall portion (55, 56), characterized in that the second side wall portion is a spring portion generating pressing force in the width direction, the flat-plate portion of the unit structure has gap portions, the gap portions extend toward a centerline of the flat-plate portion in the unit structure, the gap portions are located at sites of the flat-plate portion in the unit structure, the sites corresponding to positions of two sides of the first or second side wall portion (54, 55, 56), and the continuous structure is cuttable at a position of one of the gap portions to produce the connector cover (81, 82, 83) having a length n times the unit structure, n being larger than 1 and not limited to an integer. the unitary structure including a regular repetition of a predetermined structure in a longitudinal direction of the strip-shaped flat plate, the predetermined structure being referred to as a unit structure, the unit structure including a flat-plate portion and two side wall portion groups (52, 53), one of the two side wall portion groups (52, 53) including a first side wall portion standing on one of two edges of the flat-plate portion in a width direction of the flat-plate portion, another of the two side wall portion groups (52, 53) including a second side wall portion (55, 56) standing on the other of the two edges of the flat-plate portion, and the first side wall portion facing the second side wall portion (55, 56), characterized in that the second side wall portion is a spring portion generating pressing force in the width direction, the flat-plate portion of the unit structure has gap portions, the gap portions extend toward a centerline of the flat-plate portion in the unit structure, the gap portions are located at sites of the flat-plate portion in the unit structure, the sites corresponding to positions of two sides of the first or second side wall portion (54, 55, 56), and the continuous structure is cuttable at a position of one of the gap portions to produce the connector cover (81, 82, 83) having a length n times the unit structure, n being larger than 1 and not limited to an integer.
A detent fitting for a vehicle seat, comprising: - a first fitting part and a second fitting part, which are rotatable relative to each other about an axis of rotation, - four locking elements (12A-12D) movably mounted relative to the first fitting part, which can be brought into a locking position in engagement with a toothing of the second fitting part, and - a cam element rotatably mounted relative to the first fitting part, comprising a plurality of cams (130A-130F) for supporting the locking elements (12A-12D) in the locking position in such a way that each of the locking elements (12A-12D) is in contact with an associated cam (130B, 130D, 130F) at a support point, characterized in that two of the support points are arranged closer to each other than to the remaining support points and the remaining support points among each other. - a first fitting part and a second fitting part, which are rotatable relative to each other about an axis of rotation, - four locking elements (12A-12D) movably mounted relative to the first fitting part, which can be brought into a locking position in engagement with a toothing of the second fitting part, and - a cam element rotatably mounted relative to the first fitting part, comprising a plurality of cams (130A-130F) for supporting the locking elements (12A-12D) in the locking position in such a way that each of the locking elements (12A-12D) is in contact with an associated cam (130B, 130D, 130F) at a support point,
A method for optimizing operation of a portable computing device, comprising: monitoring temperature of a component within the portable computing device; monitoring a parameter associated with the temperature, wherein the parameter associated with the temperature comprises one of operating frequency, transmission power, and a data flow rate; determining if the temperature has exceeded a threshold value, wherein: if the temperature has exceeded the threshold value, a first PID control loop set of adjustments to the parameter are triggered, wherein a first error value for the temperature is calculated based on a comparison of a target temperature set point and the monitored temperature and a value for the monitored parameter is determined based on the first error value; if the temperature is below or equal to the threshold value, a second PID control loop set of adjustments to the parameter are triggered, wherein a second error value for the parameter is calculated based on a comparison of a target parameter set point and the monitored parameter and the value for the monitored parameter is determined based on the second error value; and setting the component to the determined value. monitoring temperature of a component within the portable computing device; monitoring a parameter associated with the temperature, wherein the parameter associated with the temperature comprises one of operating frequency, transmission power, and a data flow rate; determining if the temperature has exceeded a threshold value, wherein: if the temperature has exceeded the threshold value, a first PID control loop set of adjustments to the parameter are triggered, wherein a first error value for the temperature is calculated based on a comparison of a target temperature set point and the monitored temperature and a value for the monitored parameter is determined based on the first error value; if the temperature is below or equal to the threshold value, a second PID control loop set of adjustments to the parameter are triggered, wherein a second error value for the parameter is calculated based on a comparison of a target parameter set point and the monitored parameter and the value for the monitored parameter is determined based on the second error value; and if the temperature has exceeded the threshold value, a first PID control loop set of adjustments to the parameter are triggered, wherein a first error value for the temperature is calculated based on a comparison of a target temperature set point and the monitored temperature and a value for the monitored parameter is determined based on the first error value; if the temperature is below or equal to the threshold value, a second PID control loop set of adjustments to the parameter are triggered, wherein a second error value for the parameter is calculated based on a comparison of a target parameter set point and the monitored parameter and the value for the monitored parameter is determined based on the second error value; and setting the component to the determined value.