mhurhangee/patent-ind-claim-en huggingface dataset:
A filler for a smoking article, comprising a gel comprising: a gelling agent; and one or more gelation promotors, wherein the filler for a smoking article has a tap density, measured in accordance with JIS 1628-1997, of 0.05 g/cm 3 or less and a degree of adaptability to compression filling of more than 60, wherein the gelling agent is selected from the group consisting of pectin; gellan gum or sodium alginate; gum arabic; and xanthan gum or gum tragacanth, wherein at least one of the gelation promotors is a compound comprising a divalent cation, and wherein the degree of adaptability to compression filling is calculated as follows: Degree of adaptability to compression filling = Compressed density − Tap density after compression measurement / Compressed density × 100; wherein the compressed density is measured in accordance with the description. wherein the gelling agent is selected from the group consisting of pectin; gellan gum or sodium alginate; gum arabic; and xanthan gum or gum tragacanth, wherein at least one of the gelation promotors is a compound comprising a divalent cation, and wherein the degree of adaptability to compression filling is calculated as follows: Degree of adaptability to compression filling = Compressed density − Tap density after compression measurement / Compressed density × 100; wherein the compressed density is measured in accordance with the description.
A system for performing cytometry comprising: a laser for generating a laser beam having a central frequency suitable for exciting at least one fluorophore, an acousto-optic deflector for receiving a laser beam from the laser that generates a plurality of angularly separated laser beams comprising one local oscillator (LO beam) and a plurality of radiofrequency (RF) comb beams, each of the LO beam and the RF comb beams having a radio frequency shift relative to the central frequency; an optical element that directs the LO beam along a different optical path from the RF comb beams; and a beam splitter that receives the LO beam and the RF comb beams and provides a combined laser beam by spatial overlap of the beams; at least one optical element for directing said combined beam onto a sample, comprising a plurality of cells at least some of which are associated with said fluorophore such that LO beam concurrently illuminates a plurality of spatial locations of the sample and each of the RF comb beams illuminates a different one of said spatial locations to elicit fluorescence radiation from said fluorophore, if present, at said spatial locations, wherein the fluorescence radiation emitted from each of the sample locations exhibits a beat frequency corresponding to a frequency difference between the LO beam and one of the RF comb beams illuminating that sample location. a laser for generating a laser beam having a central frequency suitable for exciting at least one fluorophore, an acousto-optic deflector for receiving a laser beam from the laser that generates a plurality of angularly separated laser beams comprising one local oscillator (LO beam) and a plurality of radiofrequency (RF) comb beams, each of the LO beam and the RF comb beams having a radio frequency shift relative to the central frequency; an optical element that directs the LO beam along a different optical path from the RF comb beams; and a beam splitter that receives the LO beam and the RF comb beams and provides a combined laser beam by spatial overlap of the beams; at least one optical element for directing said combined beam onto a sample, comprising a plurality of cells at least some of which are associated with said fluorophore such that LO beam concurrently illuminates a plurality of spatial locations of the sample and each of the RF comb beams illuminates a different one of said spatial locations to elicit fluorescence radiation from said fluorophore, if present, at said spatial locations, wherein the fluorescence radiation emitted from each of the sample locations exhibits a beat frequency corresponding to a frequency difference between the LO beam and one of the RF comb beams illuminating that sample location.
A sensor assembly configured to perform fault detection in a pump assembly comprising an electric motor and a fluid pump , wherein the sensor assembly comprises a housing configured to be attached into a bore provided in the pump , wherein one or more vibration sensing element(s) are arranged in the housing and that the sensor assembly comprises a calculation unit , wherein the calculation unit is configured to receive sensor signals (V 1 , V 2 , V 3 ) from the vibration sensing element(s) , characterised in that the calculation unit is configured to perform calculations and hereby detect motor bearing faults and cavitation on the basis of the sensor signals (V 1 , V 2 , V 3 ) provided by the one or more vibration sensing element(s) .
A robot system comprising: a robot ; a liquid application part provided on the robot ; an application thickness measurement part measuring an application thickness of a liquid applied by the liquid application part ; and a control part , the robot system being characterized in that in a case where the application thickness measured by the application thickness measurement part is greater than a predetermined thickness, driving the robot in a manner of moving the liquid application part closer to an application object , and in a case where the application thickness measured by the application thickness measurement part is less than the predetermined thickness, driving the robot in a manner of moving the liquid application part away from the application object . a robot ; a liquid application part provided on the robot ; an application thickness measurement part measuring an application thickness of a liquid applied by the liquid application part ; and a control part , the robot system being characterized in that in a case where the application thickness measured by the application thickness measurement part is greater than a predetermined thickness, driving the robot in a manner of moving the liquid application part closer to an application object , and in a case where the application thickness measured by the application thickness measurement part is less than the predetermined thickness, driving the robot in a manner of moving the liquid application part away from the application object .
A method for determining a body impedance (Z body ) of a user, the method comprising: coupling a sensor device (108; 208; 312; 410) to the user, wherein the sensor device includes at least a first electrode (SNS1) and a second electrode (SNS2); applying a voltage signal (V in ) through a first impedance (Z in1 ) to the first electrode and through a second impedance (Z in2 ) to the second electrode to produce an electrical output signal; measuring a differential voltage (V body ) across the first and second electrodes using the electrical output signal; and calculating the body impedance (Z body ) using the measured differential voltage (V body ), the applied voltage signal (V in ), the first impedance (Z in1 ), and the second impedance (Z in2 ), wherein calculating the body impedance (Z body ) utilizes the following equation: Z body = V body / V in − V body × Z in 1 + Z in 2 . coupling a sensor device (108; 208; 312; 410) to the user, wherein the sensor device includes at least a first electrode (SNS1) and a second electrode (SNS2); applying a voltage signal (V in ) through a first impedance (Z in1 ) to the first electrode and through a second impedance (Z in2 ) to the second electrode to produce an electrical output signal; measuring a differential voltage (V body ) across the first and second electrodes using the electrical output signal; and calculating the body impedance (Z body ) using the measured differential voltage (V body ), the applied voltage signal (V in ), the first impedance (Z in1 ), and the second impedance (Z in2 ), wherein calculating the body impedance (Z body ) utilizes the following equation: Z body = V body / V in − V body × Z in 1 + Z in 2 .
A method for producing an acrylic rubber, comprising: an emulsion polymerization step of emulsion polymerizing monomers for forming an acrylic rubber to prepare a polymer emulsion; an antioxidant addition step of adding an antioxidant in the form of a solution or a dispersion to the polymer emulsion; and a coagulation step of adding a coagulant to the polymer emulsion containing the antioxidant to yield hydrous crumbs. an emulsion polymerization step of emulsion polymerizing monomers for forming an acrylic rubber to prepare a polymer emulsion; an antioxidant addition step of adding an antioxidant in the form of a solution or a dispersion to the polymer emulsion; and a coagulation step of adding a coagulant to the polymer emulsion containing the antioxidant to yield hydrous crumbs.
A shaving unit for a shaving apparatus, wherein the shaving unit comprises at least two cutting units (10a, 10b; 410a, 410b), and wherein each cutting unit comprises: - an external cutting member having a plurality of hair entry openings ; - an internal cutting member which is rotatable relative to the external cutting member about an axis of rotation (6a, 6b; 406a, 406b, 506); and - a housing (20a, 20b; 420a, 420b; 520) accommodating a hair collection chamber (27a, 27b; 427a; 527), the housing comprising a base portion and a cover portion which is releasably coupled to the base portion, wherein the external cutting member and the internal cutting member are held in an operating position in the cover portion by means of a holding component which is releasably coupled to the cover portion; - wherein said housing has a closed condition, wherein the cover portion holding the external cutting member and the internal cutting member is coupled to the base portion and closes the hair collection chamber, and an opened condition, wherein the cover portion is at least partially released and at least partially removed from the base portion so that the hair collection chamber is accessible for a user; characterized in that the base portion of the housing (20a, 20b; 420a, 420b; 520) of each cutting unit (10a, 10b; 410a, 410b) comprises a supporting structure , wherein in the closed position of the housing the external cutting member is supported by the supporting structure at least in an axial direction parallel to the axis of rotation (6a, 6b; 406a, 406b; 506). - an external cutting member having a plurality of hair entry openings ; - an internal cutting member which is rotatable relative to the external cutting member about an axis of rotation (6a, 6b; 406a, 406b, 506); and - a housing (20a, 20b; 420a, 420b; 520) accommodating a hair collection chamber (27a, 27b; 427a; 527), the housing comprising a base portion and a cover portion which is releasably coupled to the base portion, wherein the external cutting member and the internal cutting member are held in an operating position in the cover portion by means of a holding component which is releasably coupled to the cover portion; - wherein said housing has a closed condition, wherein the cover portion holding the external cutting member and the internal cutting member is coupled to the base portion and closes the hair collection chamber, and an opened condition, wherein the cover portion is at least partially released and at least partially removed from the base portion so that the hair collection chamber is accessible for a user;
An automated guided vehicle which travels on a traveling path , wherein the automated guided vehicle conveys at least one of a member required for a production work, in which production equipment produces a product, and a production tool detachable to the production equipment, and wherein the automated guided vehicle shares at least a portion of the traveling path with another automated guided vehicle, wherein a traveling priority is variably set based on a work priority (Wp) determined from a status of the production work, and when the traveling priority of the automated guided vehicle is higher than the traveling priority of the another automated guided vehicle, the automated guided vehicle is prioritized for traveling on the traveling path, and wherein the automated guided vehicle further comprises: a storage section configured to store information about the work priority; characterised in that the automated guided vehicle further comprises a determination section configured to mutually compare the information about the work priorities by communicating with the another automated guided vehicle to determine a level of the traveling priority of the automated guided vehicle itself; and an interference avoidance section configured to, when the automated guided vehicle and the another automated guided vehicle are scheduled to enter a part of the traveling path together, control based on a determination result of the determination section whether an entry into the part of the traveling path is executed. a storage section configured to store information about the work priority; characterised in that the automated guided vehicle further comprises a determination section configured to mutually compare the information about the work priorities by communicating with the another automated guided vehicle to determine a level of the traveling priority of the automated guided vehicle itself; and an interference avoidance section configured to, when the automated guided vehicle and the another automated guided vehicle are scheduled to enter a part of the traveling path together, control based on a determination result of the determination section whether an entry into the part of the traveling path is executed.
A compound of structural Formula I or a pharmaceutically acceptable salt thereof: wherein R 1 is R 2 is halo or -C 1-3 alkyl substituted with 1 to 3 of -F; R 3 is (a) halo, (b) -C 1-3 alkyl substituted with 1 to 3 of -F, or phenyl substituted with halo; and; R 4 is R 1 is R 2 is halo or -C 1-3 alkyl substituted with 1 to 3 of -F; R 3 is (a) halo, (b) -C 1-3 alkyl substituted with 1 to 3 of -F, or phenyl substituted with halo; and; R 4 is
A method of supporting a hybrid automatic repeat and request, HARQ, at a user equipment, UE, in a mobile communication system, the method comprising: transmitting (S71) a first packet to a network; receiving (S72) a reception status signal for the first packet from the network; and transmitting a new packet, different from the first packet, through an uplink resource to the network, when: the UE receives (S72) the reception status signal for the first packet as a negative acknowledgment, NACK, wherein new radio resources for transmission of the new packet are allocated to the UE (S73), and a number of the first packet transmissions is not greater than a predetermined maximum number of retransmissions. transmitting (S71) a first packet to a network; receiving (S72) a reception status signal for the first packet from the network; and transmitting a new packet, different from the first packet, through an uplink resource to the network, when: the UE receives (S72) the reception status signal for the first packet as a negative acknowledgment, NACK, wherein new radio resources for transmission of the new packet are allocated to the UE (S73), and a number of the first packet transmissions is not greater than a predetermined maximum number of retransmissions.
A water/oil repellent composition comprising a copolymer containing structural units based on the following monomer (a), structural units based on the following monomer (b) and structural units based on the following monomer (c), and a liquid medium: Monomer (a): a compound represented by the following formula : (Z-Y) n X wherein Z is a C 1-6 perfluoroalkyl group or a group represented by the following formula , Y is a divalent organic group having no fluorine atom, or a single bond, n is 1 or 2, and X is, when n is 1, any one of groups represented by the following formulae (3-1) to (3-5), or, when n is 2, any one of groups represented by the following formulae (4-1) to (4-4): C s F 2s+1 CH 2 CF 2 -(CH 2 CF 2 ) t (CF 2 CF 2 ) u - wherein s is an integer of from 1 to 6, t is an integer of from 0 to 3, and u is an integer of from 1 to 3, -CR=CH 2 (3-1), -C(O)OCR=CH 2 (3-2), -OC(O)CR=CH 2 (3-3), -OCH 2 -φ-CR=CH 2 (3-4), -OCH=CH 2 (3-5), wherein R is a hydrogen atom, a methyl group or a halogen atom, and φ is a phenylene group, -CH[-(CH 2 ) m CR=CH 2 ]- (4-1), -CH[-(CH 2 ) m C(O)OCR=CH 2 ]- (4-2), -CH[-(CH 2 ) m OC(O)CR=CH 2 ]- (4-3), -OC(O)CH=CHC(O)O- (4-4). wherein R is a hydrogen atom, a methyl group or a halogen atom, and m is an integer of from 0 to 4, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having an alkyl group with at least 12 carbon atoms, Monomer (c): a monomer having a poly(oxypolyfluoroalkylene) chain wherein the proportion of the number of fluorine atoms to the total number of fluorine atoms and hydrogen atoms is at least 70%. Monomer (a): a compound represented by the following formula : (Z-Y) n X wherein Z is a C 1-6 perfluoroalkyl group or a group represented by the following formula , Y is a divalent organic group having no fluorine atom, or a single bond, n is 1 or 2, and X is, when n is 1, any one of groups represented by the following formulae (3-1) to (3-5), or, when n is 2, any one of groups represented by the following formulae (4-1) to (4-4): C s F 2s+1 CH 2 CF 2 -(CH 2 CF 2 ) t (CF 2 CF 2 ) u - wherein s is an integer of from 1 to 6, t is an integer of from 0 to 3, and u is an integer of from 1 to 3, -CR=CH 2 (3-1), -C(O)OCR=CH 2 (3-2), -OC(O)CR=CH 2 (3-3), -OCH 2 -φ-CR=CH 2 (3-4), -OCH=CH 2 (3-5), wherein R is a hydrogen atom, a methyl group or a halogen atom, and φ is a phenylene group, -CH[-(CH 2 ) m CR=CH 2 ]- (4-1), -CH[-(CH 2 ) m C(O)OCR=CH 2 ]- (4-2), -CH[-(CH 2 ) m OC(O)CR=CH 2 ]- (4-3), -OC(O)CH=CHC(O)O- (4-4). wherein R is a hydrogen atom, a methyl group or a halogen atom, and m is an integer of from 0 to 4, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having an alkyl group with at least 12 carbon atoms, Monomer (c): a monomer having a poly(oxypolyfluoroalkylene) chain wherein the proportion of the number of fluorine atoms to the total number of fluorine atoms and hydrogen atoms is at least 70%.
A method for receiving by a base station , BS, uplink control information, UCI, in a wireless communication system, the method comprising: transmitting, to a user equipment , UE, a physical uplink control channel, PUCCH, resource for the UCI, wherein the UCI is hybrid automatic repeat request, HARQ, feedback information of multiple downlink cells; and receiving, from the UE , the UCI on the PUCCH resource, wherein the PUCCH resource is mapped to multiple resource block, RB, pairs, wherein the multiple RB pairs include RBs included in a first slot and RBs included in a second slot, and characterized in that the RBs included in the first slot are contiguous RBs to each other, and the RBs included in the second slot are contiguous RBs to each other. transmitting, to a user equipment , UE, a physical uplink control channel, PUCCH, resource for the UCI, wherein the UCI is hybrid automatic repeat request, HARQ, feedback information of multiple downlink cells; and receiving, from the UE , the UCI on the PUCCH resource, wherein the PUCCH resource is mapped to multiple resource block, RB, pairs, wherein the multiple RB pairs include RBs included in a first slot and RBs included in a second slot, and
A visual function detection apparatus comprising: a display controller configured to cause an image for determination to be displayed on a display screen of a display unit ; a gazing point detector configured to detect a position of a gazing point of a test subject observing the display screen ; a positional relation detector configured to detect a distance between any position within the image for determination on the display screen and the position of the gazing point; and a visual function detector configured to perform determination of a trackability of the line of sight of the test subject based on the distance, wherein the display controller is configured to move a position of the image for determination in the display screen continuously and change the moving speed of the image for determination, the positional relation detector is configured to detect the distance for each moving speed, and the visual function detector is configured to perform determination of the trackability of the line of sight of the test subject for each moving speed based on the distance. a display controller configured to cause an image for determination to be displayed on a display screen of a display unit ; a gazing point detector configured to detect a position of a gazing point of a test subject observing the display screen ; a positional relation detector configured to detect a distance between any position within the image for determination on the display screen and the position of the gazing point; and a visual function detector configured to perform determination of a trackability of the line of sight of the test subject based on the distance, wherein the display controller is configured to move a position of the image for determination in the display screen continuously and change the moving speed of the image for determination, the positional relation detector is configured to detect the distance for each moving speed, and the visual function detector is configured to perform determination of the trackability of the line of sight of the test subject for each moving speed based on the distance.
A system comprising: a fuel cell consuming a fuel and outputting electrical power; one or more computing devices (111-115) primarily powered by the fuel cell; and a fuel cell controller configured, in response to a determination that the electrical power output by the fuel cell is greater than an electrical power utilized by the one or more computing devices (111-115), to request the fuel cell to generate less power ; the system characterised in that the fuel cell controller is further configured, during a time needed to change the power generated by the fuel cell, to perform, to thereby prevent a voltage of the electrical power produced by the fuel cell from surging, at least one of: increase operation of one or more cooling apparatus of the one or more computing devices, throttle up one or more processors of the one or more computing devices, request additional processing work to be performed by the one or more computing devices, and increase execution of low-priority tasks by the one or more computing devices. a fuel cell consuming a fuel and outputting electrical power; one or more computing devices (111-115) primarily powered by the fuel cell; and a fuel cell controller configured, in response to a determination that the electrical power output by the fuel cell is greater than an electrical power utilized by the one or more computing devices (111-115), to request the fuel cell to generate less power ; the system characterised in that the fuel cell controller is further configured, during a time needed to change the power generated by the fuel cell, to perform, to thereby prevent a voltage of the electrical power produced by the fuel cell from surging, at least one of: increase operation of one or more cooling apparatus of the one or more computing devices, throttle up one or more processors of the one or more computing devices, request additional processing work to be performed by the one or more computing devices, and increase execution of low-priority tasks by the one or more computing devices.