mhurhangee/patent-ind-claim-en huggingface dataset:
Solar cell apparatus comprising: a solar cell panel comprising a central region (CR) and an outer region (OR) surrounding the central region (CR), a first adhesive member adhered to the central region (CR), and a second adhesive member adhered to the outer region (OR) and having an adhesive strength greater than the first adhesive member , wherein the first adhesive member and the second adhesive member are formed of ethylene vinyl acetate, and characterized in that the ethylene vinyl acetate of the first adhesive member has a content of vinyl acetate less than the ethylene vinyl acetate of the second adhesive member . a solar cell panel comprising a central region (CR) and an outer region (OR) surrounding the central region (CR), a first adhesive member adhered to the central region (CR), and a second adhesive member adhered to the outer region (OR) and having an adhesive strength greater than the first adhesive member , wherein the first adhesive member and the second adhesive member are formed of ethylene vinyl acetate, and characterized in that the ethylene vinyl acetate of the first adhesive member has a content of vinyl acetate less than the ethylene vinyl acetate of the second adhesive member .
A method for protecting against mistaken dialing of a mobile terminal by an inadvertent keystroke, the mobile terminal comprising a distance sensor and a touch screen , wherein the method comprises the following steps of: when the touch screen is not locked and is displaying a dial plate icon, activating the distance sensor to detect whether there is an obstruction above the touch screen within an effective distance from the distance sensor ; when there is an obstruction, then detecting by the distance sensor a current distance between the obstruction and the distance sensor of the mobile terminal ; when the current distance is smaller than a preset critical distance threshold, then controlling the touch screen to not display the dial plate icon and switching off the distance sensor by the mobile terminal ; and the method is characterized in that when the current distance is greater than the preset critical distance threshold or the distance sensor detects that there is not an obstruction above the touch screen within the effective distance from the distance sensor, determining whether the dial plate icon is still displayed on the touch screen , and when the dial plate icon is not displayed, switching off the distance sensor , when the dial plate icon is still displayed, controlling the distance sensor to keep activated. when the touch screen is not locked and is displaying a dial plate icon, activating the distance sensor to detect whether there is an obstruction above the touch screen within an effective distance from the distance sensor ; when there is an obstruction, then detecting by the distance sensor a current distance between the obstruction and the distance sensor of the mobile terminal ; when the current distance is smaller than a preset critical distance threshold, then controlling the touch screen to not display the dial plate icon and switching off the distance sensor by the mobile terminal ; and the method is characterized in that when the current distance is greater than the preset critical distance threshold or the distance sensor detects that there is not an obstruction above the touch screen within the effective distance from the distance sensor, determining whether the dial plate icon is still displayed on the touch screen , and when the dial plate icon is not displayed, switching off the distance sensor , when the dial plate icon is still displayed, controlling the distance sensor to keep activated.
A wrist-worn apparatus for measuring a user's heart activity, the apparatus comprising: an optical heart activity sensor configured to measure the user's heart activity by optical heart rate measurement; a wrist strap adapted to physically couple the optical heart rate activity sensor against the user's skin by attaching the wrist-worn apparatus around the user's wrist, the wrist strap comprising a first and a second curved connection members, wherein the first connection member is adapted to slide inside the second connection member, and wherein the wrist strap comprises at least one groove and a fixing claw acting as a counterpart for the at least one groove, wherein the fixing claw is arranged to engage the at least one groove when the first connection member is slid inside the second connection member; a processing circuitry configured to receive and process heart activity related data from the optical heart activity sensor; and a detector circuitry for detecting the number of grooves engaged by the fixing claw, and wherein the processing circuitry is further configured to receive detected data from the detector circuitry and to calculate the number of grooves engaged by the fixing claw based on the detected data. an optical heart activity sensor configured to measure the user's heart activity by optical heart rate measurement; a wrist strap adapted to physically couple the optical heart rate activity sensor against the user's skin by attaching the wrist-worn apparatus around the user's wrist, the wrist strap comprising a first and a second curved connection members, wherein the first connection member is adapted to slide inside the second connection member, and wherein the wrist strap comprises at least one groove and a fixing claw acting as a counterpart for the at least one groove, wherein the fixing claw is arranged to engage the at least one groove when the first connection member is slid inside the second connection member; a processing circuitry configured to receive and process heart activity related data from the optical heart activity sensor; and a detector circuitry for detecting the number of grooves engaged by the fixing claw, and wherein the processing circuitry is further configured to receive detected data from the detector circuitry and to calculate the number of grooves engaged by the fixing claw based on the detected data.
Computer-implemented machine learning system , which is a deep neural network , wherein the machine learning system comprises a plurality of layers, each of which is connected to at least one further layer of the plurality of layers on the input side, wherein the layers are each configured to determine an output variable depending on activations, wherein the layers are furthermore each configured to determine the activations depending on at least one input variable of the respective layer and depending on parameters assigned to the respective layer, wherein a resolution of the parameters is dependent on whether or not one of the layers is connected to a plurality of layers directly on the input side, wherein a number of bits by means of which the parameters are stored, in particular in a memory, characterizes the resolution, wherein the resolution of the parameters of that layer which is connected to a plurality of layers directly on the input side is in each case at least more than one bit lower than the resolution of the parameters of those layers which are connected to exactly one layer directly on the input side, wherein the machine learning system comprises an input layer and an output layer, which outputs an output variable, wherein the input layer receives a sensor variable of a sensor, and either the output layer is connected to a control unit and the control unit determines a control variable for controlling a physical actuator depending on the output variable or the output variable classifies the sensor variable. wherein the machine learning system comprises a plurality of layers, each of which is connected to at least one further layer of the plurality of layers on the input side, wherein the layers are each configured to determine an output variable depending on activations, wherein the layers are furthermore each configured to determine the activations depending on at least one input variable of the respective layer and depending on parameters assigned to the respective layer, wherein a resolution of the parameters is dependent on whether or not one of the layers is connected to a plurality of layers directly on the input side, wherein a number of bits by means of which the parameters are stored, in particular in a memory, characterizes the resolution, wherein the resolution of the parameters of that layer which is connected to a plurality of layers directly on the input side is in each case at least more than one bit lower than the resolution of the parameters of those layers which are connected to exactly one layer directly on the input side, wherein the machine learning system comprises an input layer and an output layer, which outputs an output variable, wherein the input layer receives a sensor variable of a sensor, and either the output layer is connected to a control unit and the control unit determines a control variable for controlling a physical actuator depending on the output variable or the output variable classifies the sensor variable.
A modular display assembly comprising: a plurality of interchangeable vertically positioned side walls , each side wall having a lower end and an upper end, each side wall including one or more brackets for fastening to the lower end of the side wall so as to anchor the side wall to a floor base, the side walls having a notched region in the upper end at the rear, the spaces between adjacent side walls defining a plurality of display sections ; a plurality of interchangeable back panels extending above the side walls; a plurality of angle brackets for fastening the back panels to the plurality of interchangeable side walls to enclose an end of the space between the side walls; a plurality of interchangeable cabinets , the cabinets being joined together to serve as support for the vertically positioned side walls; a plurality of flat braces each coupling an interchangeable cabinet of the plurality of interchangeable cabinets to an interchangeable back panel of the plurality of interchangeable back panels between adjacent side walls; an upper structure supported by the vertically positioned side walls, the upper structure being adapted to be received in and supported by the notched regions in the upper end of the vertically positioned side walls and to be fastened to the vertically positioned side walls; and display panels mounted on the upper structure. a plurality of interchangeable vertically positioned side walls , each side wall having a lower end and an upper end, each side wall including one or more brackets for fastening to the lower end of the side wall so as to anchor the side wall to a floor base, the side walls having a notched region in the upper end at the rear, the spaces between adjacent side walls defining a plurality of display sections ; a plurality of interchangeable back panels extending above the side walls; a plurality of angle brackets for fastening the back panels to the plurality of interchangeable side walls to enclose an end of the space between the side walls; a plurality of interchangeable cabinets , the cabinets being joined together to serve as support for the vertically positioned side walls; a plurality of flat braces each coupling an interchangeable cabinet of the plurality of interchangeable cabinets to an interchangeable back panel of the plurality of interchangeable back panels between adjacent side walls; an upper structure supported by the vertically positioned side walls, the upper structure being adapted to be received in and supported by the notched regions in the upper end of the vertically positioned side walls and to be fastened to the vertically positioned side walls; and display panels mounted on the upper structure.
An apparatus for inhibiting spreading of cancer cells in a target region , wherein the apparatus comprises an AC signal generator and a controller which are configured to: (a) impose a first AC electric field in the target region for a first interval of time, wherein the first AC electric field has a first frequency and a first electric field intensity; (b) impose a second AC electric field in the target region for a second interval of time, wherein the second AC electric field has a second frequency and a second electric field intensity; and (c) continuously repeating (a) and (b) in an alternating sequence during a course of treatment; the second electric field intensity being at least 0.6 V/cm RMS; and the first and second frequencies being different; characterised by the second electric field intensity being less than 75% of the first electric field intensity. (a) impose a first AC electric field in the target region for a first interval of time, wherein the first AC electric field has a first frequency and a first electric field intensity; (b) impose a second AC electric field in the target region for a second interval of time, wherein the second AC electric field has a second frequency and a second electric field intensity; and (c) continuously repeating (a) and (b) in an alternating sequence during a course of treatment; the second electric field intensity being at least 0.6 V/cm RMS; and the first and second frequencies being different; characterised by the second electric field intensity being less than 75% of the first electric field intensity. the second electric field intensity being at least 0.6 V/cm RMS; and the first and second frequencies being different; characterised by the second electric field intensity being less than 75% of the first electric field intensity.
A portable measurement device , comprising: an elongated body with a distal end and a proximal end; a stationary portion fixedly mounted to the distal end , and a movable jaw movably mounted to the distal end and movable between a closed position and an open position, wherein a closed loop formed in the closed position is configured to generate a sensing current, and in the open position the movable jaw and the stationary portion define a gap allowing a wire under test to pass therethrough into the loop between the movable jaw and the stationary portion; a switch configured to drive the movable jaw to move between the closed position and the open position; and a measurement circuit disposed within the elongated body and electrically coupled to the stationary portion and the movable jaw , the measurement circuit being configured to receive and measure the sensing current, wherein the movable jaw is of a semi-circular shape and is slidable along a lengthwise direction of the elongated body to move between the open position and the closed position; in the open position, the movable jaw is slid in the lengthwise direction away from the elongated body , characterized in that in the closed position, the movable jaw and the stationary portion form the closed loop with an inner diameter of less than or equal to 10 mm; and the stationary portion has at its distal end an extension arm which forms a portion of the closed loop, wherein the extension arm is movable relative to the movable jaw for opening or closing the closed loop. an elongated body with a distal end and a proximal end; a stationary portion fixedly mounted to the distal end , and a movable jaw movably mounted to the distal end and movable between a closed position and an open position, wherein a closed loop formed in the closed position is configured to generate a sensing current, and in the open position the movable jaw and the stationary portion define a gap allowing a wire under test to pass therethrough into the loop between the movable jaw and the stationary portion; a switch configured to drive the movable jaw to move between the closed position and the open position; and a measurement circuit disposed within the elongated body and electrically coupled to the stationary portion and the movable jaw , the measurement circuit being configured to receive and measure the sensing current, wherein the movable jaw is of a semi-circular shape and is slidable along a lengthwise direction of the elongated body to move between the open position and the closed position; in the open position, the movable jaw is slid in the lengthwise direction away from the elongated body , characterized in that in the closed position, the movable jaw and the stationary portion form the closed loop with an inner diameter of less than or equal to 10 mm; and the stationary portion has at its distal end an extension arm which forms a portion of the closed loop, wherein the extension arm is movable relative to the movable jaw for opening or closing the closed loop.
A surgical stapler end effector, the end effector comprising: (a) a staple cartridge, wherein the staple cartridge comprises: (i) a plurality of staples, and (ii) a deck, wherein the staple cartridge is operable to drive the staples through the deck; (b) an anvil, wherein the anvil is movable from an open position toward the staple cartridge to reach a closed position, wherein the anvil includes an underside having staple forming surface configured to receive staples driven through the deck; and (c) a buttress assembly, wherein the buttress assembly comprises: (i) a buttress body, and (ii) an adhesive material, wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, wherein the adhesive material comprises a polymer, wherein the polymer is bioabsorbable, wherein the polymer has a glass transition temperature (Tg) at or below 0°C. (a) a staple cartridge, wherein the staple cartridge comprises: (i) a plurality of staples, and (ii) a deck, wherein the staple cartridge is operable to drive the staples through the deck; (i) a plurality of staples, and (ii) a deck, wherein the staple cartridge is operable to drive the staples through the deck; (b) an anvil, wherein the anvil is movable from an open position toward the staple cartridge to reach a closed position, wherein the anvil includes an underside having staple forming surface configured to receive staples driven through the deck; and (c) a buttress assembly, wherein the buttress assembly comprises: (i) a buttress body, and (ii) an adhesive material, wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, wherein the adhesive material comprises a polymer, wherein the polymer is bioabsorbable, wherein the polymer has a glass transition temperature (Tg) at or below 0°C. (i) a buttress body, and (ii) an adhesive material, wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, wherein the adhesive material comprises a polymer, wherein the polymer is bioabsorbable, wherein the polymer has a glass transition temperature (Tg) at or below 0°C.
A method of treating air, adapted to decontaminate air, within the passenger compartment of a motor vehicle , the method comprising: - a temperature determination step (E1) within the passenger compartment of the vehicle , - a stage (E2) for determining the humidity in the passenger compartment of the vehicle , the said method being characterized in that , if the determined temperature is within a predetermined interval and the determined humidity is within a predetermined interval, the method comprises a step (E5) of treating the air within the passenger compartment of the vehicle , said vehicle comprising a temperature measuring sensor and a humidity measuring sensor , the step of determining the temperature (E1) and the step of determining the humidity (E2) being carried out by means of said measuring sensors , and the method comprising a step (E4) of calculating the electrical energy required for the air treatment within the passenger compartment of the vehicle , said air treatment step (E5) being carried out if the calculated required energy is less than the electrical energy available in the vehicle . - a temperature determination step (E1) within the passenger compartment of the vehicle , - a stage (E2) for determining the humidity in the passenger compartment of the vehicle ,
A sensor assembly (M) for mounting a sensor to an aperture of a vehicle trim panel , comprising: a sensor ; a housing containing the sensor and having an opening permitting external conditions to reach the sensor ; the sensor assembly (M) includes a channel comprising a generally tubular body defining a through passage, the body having at a first end a grid portion in the form of a first radially extending flange and having at a second end an engagement portion in the form of a second radially extending flange; characterised in that : the housing having a T-slot recess on a surface thereof in the vicinity of the opening, the recess having an open end and a closed end and a width substantially identical to the diameter of the second radially extending flange of the sound channel engagement portion; and wherein, with the channel engagement portion received within the T-slot recess and slid to the closed end thereof, the through passage is brought into alignment with the sensor . a sensor ; a housing containing the sensor and having an opening permitting external conditions to reach the sensor ; the sensor assembly (M) includes a channel comprising a generally tubular body defining a through passage, the body having at a first end a grid portion in the form of a first radially extending flange and having at a second end an engagement portion in the form of a second radially extending flange; characterised in that : the housing having a T-slot recess on a surface thereof in the vicinity of the opening, the recess having an open end and a closed end and a width substantially identical to the diameter of the second radially extending flange of the sound channel engagement portion; and wherein, with the channel engagement portion received within the T-slot recess and slid to the closed end thereof, the through passage is brought into alignment with the sensor . the housing having a T-slot recess on a surface thereof in the vicinity of the opening, the recess having an open end and a closed end and a width substantially identical to the diameter of the second radially extending flange of the sound channel engagement portion; and wherein, with the channel engagement portion received within the T-slot recess and slid to the closed end thereof, the through passage is brought into alignment with the sensor .
A method for wireless communication, comprising: determining (S310) availability of a second serving cell before data communication, wherein the data communication is scheduled from a first serving cell, and wherein the data communication is an uplink or downlink Hybrid Automatic Repeat reQuest HARQ process; informing (S320) a device of the determined availability of the second serving cell, which comprises indicating the determined availability of the second serving cell via physical layer signaling, wherein the physical layer signaling comprises a bitmap corresponding at least to the availability of all serving cells operated on an unlicensed band; and performing (S330) the data communication on one of the second serving cell and a third serving cell, based on the determined availability of the second serving cell, wherein the third serving cell is the first serving cell. determining (S310) availability of a second serving cell before data communication, wherein the data communication is scheduled from a first serving cell, and wherein the data communication is an uplink or downlink Hybrid Automatic Repeat reQuest HARQ process; informing (S320) a device of the determined availability of the second serving cell, which comprises indicating the determined availability of the second serving cell via physical layer signaling, wherein the physical layer signaling comprises a bitmap corresponding at least to the availability of all serving cells operated on an unlicensed band; and performing (S330) the data communication on one of the second serving cell and a third serving cell, based on the determined availability of the second serving cell, wherein the third serving cell is the first serving cell.