mhurhangee/patent-ind-claim-en huggingface dataset:
An adhesive patch comprising: a support; and an adhesive agent layer laminated on the support, wherein the support consists of spunlace nonwoven fabric, the adhesive agent layer comprises a styrene-isoprene-styrene block copolymer and liquid paraffin, the adhesive patch has a first direction, which is a predetermined reference axis direction, and a second direction, which is orthogonal to the first direction, a bending resistance in the first direction of the adhesive patch measured by a 45° cantilever method defined in JIS L 1085:1998 is 18 to 30 mm, wherein a mass ratio of the styrene-isoprene-styrene block copolymer to the liquid paraffin in the adhesive agent layer is 1 to 1.65:1, wherein the stretchability of the spunlace nonwoven fabric has a 20% modulus in a width direction of the nonwoven fabric of 3.6 to 4.4 N/50 mm, and a 20% modulus in a flow direction of the nonwoven fabric of 40 to 90 N/50 mm, wherein the measurement of the stretchability is based on the load for stretching under fixed elongation as defined in JIS L 1096:2010. a support; and an adhesive agent layer laminated on the support, wherein the support consists of spunlace nonwoven fabric, the adhesive agent layer comprises a styrene-isoprene-styrene block copolymer and liquid paraffin, the adhesive patch has a first direction, which is a predetermined reference axis direction, and a second direction, which is orthogonal to the first direction, a bending resistance in the first direction of the adhesive patch measured by a 45° cantilever method defined in JIS L 1085:1998 is 18 to 30 mm, wherein a mass ratio of the styrene-isoprene-styrene block copolymer to the liquid paraffin in the adhesive agent layer is 1 to 1.65:1, wherein the stretchability of the spunlace nonwoven fabric has a 20% modulus in a width direction of the nonwoven fabric of 3.6 to 4.4 N/50 mm, and a 20% modulus in a flow direction of the nonwoven fabric of 40 to 90 N/50 mm, wherein the measurement of the stretchability is based on the load for stretching under fixed elongation as defined in JIS L 1096:2010.
A light emitting device comprising: an excitation source; and a photoluminescence material comprising a combination of a cerium-activated garnet phosphor of general composition Y 3 (Al,Ga) 5 O 12 :Ce or an aluminate phosphor of general composition Lu 3 Al 5 O 12 :Ce which generates light with a peak emission wavelength from 520 nm to 570 nm; a first narrow-band phosphor of a Group IIA/IIB selenide sulfide-based phosphor of general composition MSe 1-x S x : Eu, wherein M is at least one of Mg, Ca, Sr, Ba and Zn and 0 < x < 1.0 which generates light with a peak emission wavelength from 580 nm to 628 nm and a full width at half maximum emission intensity from 45 nm to 60 nm; and a second narrow-band phosphor of a manganese-activated fluoride phosphor which generates light with a peak emission wavelength from 628 nm to 640 nm and a full width at half maximum emission intensity from 5 nm to 20 nm, and wherein said light emitting device is characterized by generating light with a CRI Ra of at least 90 and a CRI R9 of at least 50. an excitation source; and a photoluminescence material comprising a combination of a cerium-activated garnet phosphor of general composition Y 3 (Al,Ga) 5 O 12 :Ce or an aluminate phosphor of general composition Lu 3 Al 5 O 12 :Ce which generates light with a peak emission wavelength from 520 nm to 570 nm; a first narrow-band phosphor of a Group IIA/IIB selenide sulfide-based phosphor of general composition MSe 1-x S x : Eu, wherein M is at least one of Mg, Ca, Sr, Ba and Zn and 0 < x < 1.0 which generates light with a peak emission wavelength from 580 nm to 628 nm and a full width at half maximum emission intensity from 45 nm to 60 nm; and a second narrow-band phosphor of a manganese-activated fluoride phosphor which generates light with a peak emission wavelength from 628 nm to 640 nm and a full width at half maximum emission intensity from 5 nm to 20 nm, and wherein said light emitting device is characterized by generating light with a CRI Ra of at least 90 and a CRI R9 of at least 50.
An aerosol-generating system comprising: an aerosol-generating article having: an article housing ; and aerosol-forming substrate disposed in the article housing ; and a device having: a device housing defining a receptacle configured to receive the aerosol-generating article ; control electronics disposed in the device housing ; and a sensor operably coupled to the control electronics and configured to detect a state of the device or the article when the article is received in the receptacle, wherein the system further comprises a shape-changing element disposed on or in at least one of the article housing and the device housing , wherein the control electronics are operably couplable to the shape-changing element and are configured to cause the shape-changing element to change shape in response to the state of the device or the article detected by the sensor , wherein the change in shape of the shape-changing element causes a sufficient change in shape of an exterior surface of the device or the article to provide tactile feedback to a user. an aerosol-generating article having: an article housing ; and aerosol-forming substrate disposed in the article housing ; and an article housing ; and aerosol-forming substrate disposed in the article housing ; and a device having: a device housing defining a receptacle configured to receive the aerosol-generating article ; control electronics disposed in the device housing ; and a sensor operably coupled to the control electronics and configured to detect a state of the device or the article when the article is received in the receptacle, a device housing defining a receptacle configured to receive the aerosol-generating article ; control electronics disposed in the device housing ; and a sensor operably coupled to the control electronics and configured to detect a state of the device or the article when the article is received in the receptacle, wherein the system further comprises a shape-changing element disposed on or in at least one of the article housing and the device housing , wherein the control electronics are operably couplable to the shape-changing element and are configured to cause the shape-changing element to change shape in response to the state of the device or the article detected by the sensor , wherein the change in shape of the shape-changing element causes a sufficient change in shape of an exterior surface of the device or the article to provide tactile feedback to a user.
A surface cleaning machine, comprising a cleaning roller holder (38; 204), at least one cleaning roller (26; 202) which is arranged on the cleaning roller holder (38; 204), a drive device for driving the at least one cleaning roller (26; 202) in rotation; and a sweeping element (66; 220) which is associated with the at least one cleaning roller (26; 202) and which feeds swept material to the at least one cleaning roller (26; 202), characterized in that the sweeping element (66; 220), at least during a cleaning operation, projects with a front region (96; 228) into a jacket of the at least one cleaning roller (26; 202), wherein a front face end (97; 230) of the sweeping element (66; 220) is arranged on the front region (96; 228).
A document scanning apparatus for scanning a document, the apparatus comprising: an image sensor unit operable to irradiate an incident light towards the document and generate image data by sensing a reflected light reflected from the document; a supporting unit which supports the image sensor unit; a movement unit operable to move the image sensor unit between a scanning position and a calibration position ; a housing operable to house the image sensor unit and the supporting unit; characterised by the apparatus further comprising, a housing cover which is coupled to the housing and seals inside of the housing ,a transparent plate , formed in the housing cover , operable to transmit the incident light and the reflected light; a calibration sheet which is attached to a surface of the transparent plate formed in the housing cover , which is exposed to outside, the calibration sheet being positioned in an area including the calibration position ; and the movement unit further comprising: a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit , and wherein the housing is further operable to house the movement unit . an image sensor unit operable to irradiate an incident light towards the document and generate image data by sensing a reflected light reflected from the document; a supporting unit which supports the image sensor unit; a movement unit operable to move the image sensor unit between a scanning position and a calibration position ; a housing operable to house the image sensor unit and the supporting unit; characterised by the apparatus further comprising, a housing cover which is coupled to the housing and seals inside of the housing ,a transparent plate , formed in the housing cover , operable to transmit the incident light and the reflected light; a calibration sheet which is attached to a surface of the transparent plate formed in the housing cover , which is exposed to outside, the calibration sheet being positioned in an area including the calibration position ; and the movement unit further comprising: a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit , and wherein the housing is further operable to house the movement unit . a motor operable to provide driving power; and a power transmission apparatus operable to transmit driving power provided by the motor to the supporting unit which supports the image sensor unit , and wherein the housing is further operable to house the movement unit .
An oven comprising a body ; a casing surrounding the body ; a water tank disposed between the casing and the body and filled with water; a pipe with one end opening into the water tank and the other end opening into the body and providing the transfer of water vapor into the body ; a valve disposed on the pipe and providing the delivery of the water vapor into the body in a controlled manner; and a shape memory spring which enables the valve to open/close according to the temperature in the body , characterized by a connection member ensuring the connection of the valve and the pipe ; an enclosure in the form of a cone tapering downwards in which the shape memory spring is vertically positioned and providing the fixing of the spring ; a sealing body positioned between said connection member and enclosure ; and a piston positioned vertically in the sealing body , configured to block the fluid passage in a first position and allow the fluid passage in a second position , and entering the shape memory spring so as to move along the displacement direction from the first position to the second position .
A module-type home robot, comprising: a main body ; a plurality of device modules including an LED module , a camera module , a projector module and a dust sensing module configured to perform specific functions; a device module coupling unit on the main body and configured to couple to any one of the plurality of device modules ; an input unit configured to receive a user input; an output unit configured to output voice and images; a sensing unit configured to sense a user; and a control unit configured to: receive a trigger signal; and activate the device module or the output unit according to the received trigger signal to perform one of the specific functions, wherein the received trigger signal is a user proximity signal, a user voice signal, a user movement signal, a specific time sensing signal or an environment change sensing signal, wherein the plurality of device modules and the device module coupling unit are configured to have magnetism, wherein the main body is configured to adjust the magnetism of the device modules and the device module coupling unit , and wherein the device module and the main body are spaced apart by a certain height based on an adjustment of magnetism. a main body ; a plurality of device modules including an LED module , a camera module , a projector module and a dust sensing module configured to perform specific functions; a device module coupling unit on the main body and configured to couple to any one of the plurality of device modules ; an input unit configured to receive a user input; an output unit configured to output voice and images; a sensing unit configured to sense a user; and a control unit configured to: receive a trigger signal; and activate the device module or the output unit according to the received trigger signal to perform one of the specific functions, wherein the received trigger signal is a user proximity signal, a user voice signal, a user movement signal, a specific time sensing signal or an environment change sensing signal, wherein the plurality of device modules and the device module coupling unit are configured to have magnetism, wherein the main body is configured to adjust the magnetism of the device modules and the device module coupling unit , and wherein the device module and the main body are spaced apart by a certain height based on an adjustment of magnetism. receive a trigger signal; and activate the device module or the output unit according to the received trigger signal to perform one of the specific functions, wherein the received trigger signal is a user proximity signal, a user voice signal, a user movement signal, a specific time sensing signal or an environment change sensing signal, wherein the plurality of device modules and the device module coupling unit are configured to have magnetism, wherein the main body is configured to adjust the magnetism of the device modules and the device module coupling unit , and wherein the device module and the main body are spaced apart by a certain height based on an adjustment of magnetism.
A smart trailer system coupled to a trailer of a vehicle , the smart trailer system comprising: a sensor coupled to the trailer and configured to measure a parameter of the trailer; a sensor interface board (SIB) electrically coupled to the sensor and configured to control the sensor and to generate sensed data based on the measured parameter; and a controller communicatively coupled to the SIB via a data bus , and configured to aggregate the sensed data; characterized in that the controller is further configured to perform a diagnostic operation by identifying a status of the sensor, the SIB, and each of the components of the controller and to transmit status data corresponding to status of the sensor, the SIB and each of the components of the controller to a remote server , and wherein the controller is configured to perform the diagnostic operation in response to one or more of electrical power being applied to the controller and receiving an external command. a sensor coupled to the trailer and configured to measure a parameter of the trailer; a sensor interface board (SIB) electrically coupled to the sensor and configured to control the sensor and to generate sensed data based on the measured parameter; and a controller communicatively coupled to the SIB via a data bus , and configured to aggregate the sensed data; characterized in that the controller is further configured to perform a diagnostic operation by identifying a status of the sensor, the SIB, and each of the components of the controller and to transmit status data corresponding to status of the sensor, the SIB and each of the components of the controller to a remote server , and wherein the controller is configured to perform the diagnostic operation in response to one or more of electrical power being applied to the controller and receiving an external command.
A method for screening cervical, endometrial or ovarian cancer, which detects the methylation status of target gene in the cells of a sample to be detected, and the detection serves as a screening indicator of the presence or absence of cancer, characterized in that the method comprises the following steps: step 1: detecting the methylation status of CpG sequence of at least one target gene which is POU4F3, and optionally at least one of ADRA1D, AJAP1, HS3ST2, MAGI2, POU4F2, PTGDR, SOX17 and SYT9 in genomic DNA of the sample; and step 2: determining whether cancer or precancerous lesions are present in the sample according to the methylation status of the target gene, or utilizing the methylation status as an indicator of prognosis after treatment. step 1: detecting the methylation status of CpG sequence of at least one target gene which is POU4F3, and optionally at least one of ADRA1D, AJAP1, HS3ST2, MAGI2, POU4F2, PTGDR, SOX17 and SYT9 in genomic DNA of the sample; and step 2: determining whether cancer or precancerous lesions are present in the sample according to the methylation status of the target gene, or utilizing the methylation status as an indicator of prognosis after treatment.
An adjustable pointing device that comprises a base , a grip portion installed on the base , and an adjusting mechanism to define a separation distance between the base and the grip portion , the adjusting mechanism characterised by : • a column intermediate to the base and the grip portion , the column thereby defining the separation distance, the column comprising an elastic member to bias the grip portion away from the base ; • a locking assembly having a primary toothed element with several teeth and a secondary toothed element with at least one tooth complementary to the teeth of the primary toothed element ; wherein the locking assembly is attached to the column so that a modification of the separation distance causes a relative movement between the primary toothed element and the secondary toothed element , and wherein the adjusting mechanism further comprises a switch to lock the relative position between the primary toothed element and the secondary toothed element and prevent the elastic member from biasing the grip portion away from the base . • a column intermediate to the base and the grip portion , the column thereby defining the separation distance, the column comprising an elastic member to bias the grip portion away from the base ; • a locking assembly having a primary toothed element with several teeth and a secondary toothed element with at least one tooth complementary to the teeth of the primary toothed element ; wherein the locking assembly is attached to the column so that a modification of the separation distance causes a relative movement between the primary toothed element and the secondary toothed element , and wherein the adjusting mechanism further comprises a switch to lock the relative position between the primary toothed element and the secondary toothed element and prevent the elastic member from biasing the grip portion away from the base .
A method for estimating the ageing of an exhaust gas sensor placed in an exhaust line of a diesel internal combustion engine of an industrial vehicle , the method being executed automatically by an electronic control unit of the industrial vehicle, wherein the method includes: - acquiring (S100) an initial value of an estimated remaining lifetime of the exhaust gas sensor ; - measuring (S102) the time spent by the engine in each of several predefined engine operation modes during a predefined time period; - for each of the engine operation modes, calculating (S104) a lifetime loss value depending on the time spent by the engine in said engine operation mode during the predefined time period and on a predefined ageing rate associated to said engine operation mode; - updating (S106) the estimated remaining lifetime value by subtracting each calculated lifetime loss value from the initial value, wherein the engine is automatically switched between the predefined engine operation modes based on measured values of engine operation variables, each engine operation mode being associated to predefined reference values of the engine operation variables, each engine operation mode being selected when the measured engine operation variables correspond to the predefined reference values associated to this engine operation mode, and wherein at least two engine operation variables are selected from the group comprising: the fuel consumption rate of the engine, the nitrogen oxide gases emission rate of the engine, the soot emission rate of the engine. - acquiring (S100) an initial value of an estimated remaining lifetime of the exhaust gas sensor ; - measuring (S102) the time spent by the engine in each of several predefined engine operation modes during a predefined time period; - for each of the engine operation modes, calculating (S104) a lifetime loss value depending on the time spent by the engine in said engine operation mode during the predefined time period and on a predefined ageing rate associated to said engine operation mode; - updating (S106) the estimated remaining lifetime value by subtracting each calculated lifetime loss value from the initial value, wherein the engine is automatically switched between the predefined engine operation modes based on measured values of engine operation variables, each engine operation mode being associated to predefined reference values of the engine operation variables, each engine operation mode being selected when the measured engine operation variables correspond to the predefined reference values associated to this engine operation mode, and wherein at least two engine operation variables are selected from the group comprising: the fuel consumption rate of the engine, the nitrogen oxide gases emission rate of the engine, the soot emission rate of the engine.
A hydraulic machine comprising an impeller and a guide apparatus , wherein the impeller comprises a plurality of impeller blades (1.1) and the guide apparatus comprises at least one ring of guide vanes (2.1, 2.2), and wherein a vane-less space extends between the impeller and the guide apparatus , wherein the hydraulic machine comprises a plurality of resonators for suppressing pressure fluctuations which may occur during operation of the hydraulic machine, and wherein each resonator comprises a chamber , and wherein the resonators are designed such that they can suppress the pressure fluctuations occurring during operation of the hydraulic machine, characterised in that each resonator comprises a pipe socket , and in each case the pipe socket is connected to the associated chamber , and in each case the end of the pipe socket facing away from the chamber opens into the bladeless space , and in which the number of resonators is at least three, and wherein the resonators are arranged in a circumferential direction around the impeller at uniform intervals, and wherein all resonators are set to one and the same resonant frequency, and wherein the hydraulic machine is of the Francis type.