mhurhangee/patent-ind-claim-en huggingface dataset:
An indicia reader comprising: a processor and a memory , the memory having configuration settings and software comprising firmware and/or a device driver stored therein, the indicia reader being characterised by the software being configured to, when executed on the processor , cause the indicia reader to: cause a first information bearing indicia to be read, wherein the first information bearing indicia is representative of software for use on a portable device, and wherein the first information bearing indicia comprises encoded instructions that contain configuration settings for the indicia reader; cause the encoded instructions to be stored in the memory ; and execute the encoded instructions on the indicia reader , wherein the encoded instructions cause the configuration settings to be set on the indicia reader . a processor and a memory , the memory having configuration settings and software comprising firmware and/or a device driver stored therein, the indicia reader being characterised by the software being configured to, when executed on the processor , cause the indicia reader to: cause a first information bearing indicia to be read, wherein the first information bearing indicia is representative of software for use on a portable device, and wherein the first information bearing indicia comprises encoded instructions that contain configuration settings for the indicia reader; cause the encoded instructions to be stored in the memory ; and execute the encoded instructions on the indicia reader , wherein the encoded instructions cause the configuration settings to be set on the indicia reader . cause a first information bearing indicia to be read, wherein the first information bearing indicia is representative of software for use on a portable device, and wherein the first information bearing indicia comprises encoded instructions that contain configuration settings for the indicia reader; cause the encoded instructions to be stored in the memory ; and execute the encoded instructions on the indicia reader , wherein the encoded instructions cause the configuration settings to be set on the indicia reader .
Roof protection element, in particular for protecting the roof of a military vehicle , having an active layer composed of a first plastics material for protection against bombardment, in particular by means of ballistic bomblets, and a cover layer composed of a second plastics material which differs from the first plastics material, for covering the active layer , wherein the plastics material of the active layer and the plastics material or the cover layer are connected to one another in a crosslinking manner, characterized in that the cover layer surrounds the active layer in the manner of a hood. the plastics material of the active layer and the plastics material or the cover layer are connected to one another in a crosslinking manner, characterized in that the cover layer surrounds the active layer in the manner of a hood.
A container rotation device comprising: a linear actuator having a motor operably connected to a first end of a lead screw and slidably mounted on a vertical linear guide , wherein the motor is configured to rotate the lead screw ; a container engaging member operably connected to a second end of the lead screw ; a nut threaded onto helical threads on the lead screw , wherein the nut is slidably mounted on the vertical linear guide between the motor and the container engaging member ; a stop marking one end of a downward distance moveable by the nut on the vertical linear guide ; and a controller for controlling the operation of the motor , wherein, responsive to operation of the motor , the container engaging member is moveable along the axis of the lead screw between a first position, in which the container engaging member is rotatably engaged with a container , and a second position, in which the container engaging member is disengaged from the container . a linear actuator having a motor operably connected to a first end of a lead screw and slidably mounted on a vertical linear guide , wherein the motor is configured to rotate the lead screw ; a container engaging member operably connected to a second end of the lead screw ; a nut threaded onto helical threads on the lead screw , wherein the nut is slidably mounted on the vertical linear guide between the motor and the container engaging member ; a stop marking one end of a downward distance moveable by the nut on the vertical linear guide ; and a controller for controlling the operation of the motor , wherein, responsive to operation of the motor , the container engaging member is moveable along the axis of the lead screw between a first position, in which the container engaging member is rotatably engaged with a container , and a second position, in which the container engaging member is disengaged from the container .
A blower for a breathing apparatus comprising: a housing with an inlet and outlet , a motor within the housing for rotating an impeller , a diffuser within the housing between the impeller and outlet , the diffuser comprising a plate with diffuser vanes , wherein the diffuser vanes are arranged in cascades on the plate , each cascade comprising a series of diffuser vanes (31a-31c) that spirals towards a centre of the plate , wherein a spacing between each cascade increases from narrower to wider as the cascade spirals towards the centre of the plate , wherein the diffuser includes a second plate and the diffuser vanes extend between the plate and the second plate , characterised in that the diffuser vanes , the plate and the second plate are integrally formed. a housing with an inlet and outlet , a motor within the housing for rotating an impeller , a diffuser within the housing between the impeller and outlet , the diffuser comprising a plate with diffuser vanes , wherein the diffuser vanes are arranged in cascades on the plate , each cascade comprising a series of diffuser vanes (31a-31c) that spirals towards a centre of the plate , wherein a spacing between each cascade increases from narrower to wider as the cascade spirals towards the centre of the plate , wherein the diffuser includes a second plate and the diffuser vanes extend between the plate and the second plate , characterised in that the diffuser vanes , the plate and the second plate are integrally formed.
A method for producing purified chlorosilanes, comprising: bringing crude chlorosilanes containing a boron compound and/or a phosphorus compound into contact with chlorine in presence of alkylphenol and then distilling the crude chlorosilanes.
An aqueous coating composition comprising an aqueous polymeric dispersion and a compound according to Formula 1: wherein the sum of the x values is 5, the sum of the y values is 12, z is 0, R 1 is hydrogen, R 2 is an ethyl group, and R 4 is hydrogen, wherein x has an average value from 0 to 10, wherein y has an average value ranging from 0 to 10, wherein x+y+z is from 3 to 20, and wherein the coating composition comprises 0.1 to 10 percent by weight of compounds according to Formula 1 based on the weight of the polymeric dispersion solids. wherein the sum of the x values is 5, the sum of the y values is 12, z is 0, R 1 is hydrogen, R 2 is an ethyl group, and R 4 is hydrogen, wherein x has an average value from 0 to 10, wherein y has an average value ranging from 0 to 10, wherein x+y+z is from 3 to 20, and wherein the coating composition comprises 0.1 to 10 percent by weight of compounds according to Formula 1 based on the weight of the polymeric dispersion solids.
A method for classifying sleep stages of a subject, the method comprising using a processor to: access one or more detected signals related to respiration movements of the subject; analyze at least a portion of the detected signals to calculate respiration variability, the respiration variability comprising one or more of variability of respiration rate and variability of respiration amplitude, the analysis further including: • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value (302-304), and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs ; comparing the calculated respiration rate range with the stability threshold value for the epoch ; and classifying a sleep stage for the epoch as deep sleep if the calculated respiration range is smaller than the stability threshold, or otherwise classifying the sleep stage for the epoch as light sleep . access one or more detected signals related to respiration movements of the subject; analyze at least a portion of the detected signals to calculate respiration variability, the respiration variability comprising one or more of variability of respiration rate and variability of respiration amplitude, the analysis further including: • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value (302-304), and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs ; • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value (302-304), and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs ; comparing the calculated respiration rate range with the stability threshold value for the epoch ; and classifying a sleep stage for the epoch as deep sleep if the calculated respiration range is smaller than the stability threshold, or otherwise classifying the sleep stage for the epoch as light sleep .
An in-vehicle power supply device that includes a power supply part including a noise generation source and one or more output terminals capable of connecting a desired load to an output of the power supply part , the device comprising: one or more adjustment units configured to house one or more electric components (14b to 14d) that affect impedance in the output of the power supply part in a unit housing in which at least a connection portion has a predetermined shape and size; and a unit support part that detachably supports the adjustment unit , characterized in that : the unit support part is disposed inside the power supply part or between the output of the power supply part and the one or more output terminals of the in-vehicle power supply device for connecting the load. one or more adjustment units configured to house one or more electric components (14b to 14d) that affect impedance in the output of the power supply part in a unit housing in which at least a connection portion has a predetermined shape and size; and a unit support part that detachably supports the adjustment unit , characterized in that : the unit support part is disposed inside the power supply part or between the output of the power supply part and the one or more output terminals of the in-vehicle power supply device for connecting the load.
A guidewire comprising: an elongate guide member defining a longitudinal axis (A) and having trailing and leading end segments, the leading end segment dimensioned for positioning within a body vessel, the leading end segment including a remote segment having a reduced cross-sectional dimension relative to a cross-sectional dimension of the trailing end segment , the remote segment including a pair of lateral sides extending along the longitudinal axis; and at least two fingers disposed on the remote segment , adjacent fingers being axially spaced relative to the longitudinal axis to define a predetermined distance ("AF A ") therebetween, a first transverse dimension (F B ) of each of the at least two fingers being greater than a corresponding first transverse dimension (S B ) of the remote segment in contact therewith; characterized by : each of the at least two fingers project laterally beyond both of the lateral sides of the remote segment , the at least two fingers each defining a longitudinal dimension ("F A ") along the longitudinal axis less than the predetermined distance ("AF A ") between the at least two fingers , the longitudinal dimension (F A ) being greater than the first transverse dimension (S B ) of the remote segment. an elongate guide member defining a longitudinal axis (A) and having trailing and leading end segments, the leading end segment dimensioned for positioning within a body vessel, the leading end segment including a remote segment having a reduced cross-sectional dimension relative to a cross-sectional dimension of the trailing end segment , the remote segment including a pair of lateral sides extending along the longitudinal axis; and at least two fingers disposed on the remote segment , adjacent fingers being axially spaced relative to the longitudinal axis to define a predetermined distance ("AF A ") therebetween, a first transverse dimension (F B ) of each of the at least two fingers being greater than a corresponding first transverse dimension (S B ) of the remote segment in contact therewith; characterized by : each of the at least two fingers project laterally beyond both of the lateral sides of the remote segment , the at least two fingers each defining a longitudinal dimension ("F A ") along the longitudinal axis less than the predetermined distance ("AF A ") between the at least two fingers , the longitudinal dimension (F A ) being greater than the first transverse dimension (S B ) of the remote segment.
A radio tag reading device comprising: a transmission unit configured to transmit a radio wave for communication with a radio tag toward at least a predetermined region including a placement region in which an operator places a commodity on a placement table on which the commodity with the radio tag storing commodity information is placed; a reception unit configured to receive a response signal including the commodity information from the radio tag in response to the radio wave transmitted by the transmission unit ; characterized by : a detection unit configured to detect the operator approaching the placement table ; a reading start unit configured to, when the detection unit detects approaching of the operator, start operations of the transmission unit and of the reception unit ; and a reading unit configured to read and store the commodity information from the response signal received by the reception unit . a transmission unit configured to transmit a radio wave for communication with a radio tag toward at least a predetermined region including a placement region in which an operator places a commodity on a placement table on which the commodity with the radio tag storing commodity information is placed; a reception unit configured to receive a response signal including the commodity information from the radio tag in response to the radio wave transmitted by the transmission unit ; characterized by : a detection unit configured to detect the operator approaching the placement table ; a reading start unit configured to, when the detection unit detects approaching of the operator, start operations of the transmission unit and of the reception unit ; and a reading unit configured to read and store the commodity information from the response signal received by the reception unit .
A sensing agent, comprising: a quantum dot; and a dye moiety coupled to the quantum dot, wherein the sensing agent is capable of sensing at least one analyte chosen from hydrogen sulfide (H 2 S) and bisulfide, and wherein the sensing agent has the formula: QD(̵X 2 -R 2 -S-S-R 1 -X 1 -Y), wherein: QD is the quantum dot, Y is the dye moiety, R 1 and R 2 are organic bridging groups that will, in combination with the associated linkages X 1 and X 2 and disulfide bond (-S-S-), provide a distance between the dye and the QD that is the same as the Forster distance or less, and X 1 and X 2 are linkages that respectively function to attach the R 1 group to the dye and R 2 group to the quantum dot; and n is the number of coupling-dye groups attached to the QD. a quantum dot; and a dye moiety coupled to the quantum dot, wherein the sensing agent is capable of sensing at least one analyte chosen from hydrogen sulfide (H 2 S) and bisulfide, and wherein the sensing agent has the formula: QD(̵X 2 -R 2 -S-S-R 1 -X 1 -Y), wherein: QD is the quantum dot, Y is the dye moiety, R 1 and R 2 are organic bridging groups that will, in combination with the associated linkages X 1 and X 2 and disulfide bond (-S-S-), provide a distance between the dye and the QD that is the same as the Forster distance or less, and X 1 and X 2 are linkages that respectively function to attach the R 1 group to the dye and R 2 group to the quantum dot; and n is the number of coupling-dye groups attached to the QD. wherein: QD is the quantum dot, Y is the dye moiety, R 1 and R 2 are organic bridging groups that will, in combination with the associated linkages X 1 and X 2 and disulfide bond (-S-S-), provide a distance between the dye and the QD that is the same as the Forster distance or less, and X 1 and X 2 are linkages that respectively function to attach the R 1 group to the dye and R 2 group to the quantum dot; and n is the number of coupling-dye groups attached to the QD.
A method performed by a device of detecting persistency of a first network node , the method comprising the step of monitoring (S201), during a specified observation period, whether the first network node has established a connection to a second network node ; and being characterized by the steps of: determining (S202) a total number of sessions of connectivity occurring between the first network node and the second network node during said specified observation period; determining (S203), from the total number of sessions of connectivity determined, a number of sessions comprising at least one communication flow between the first network node and the second network node; dividing (S204) at least one determined session of connectivity into a number of sub-sessions; determining (S205), for the at least one divided session of connectivity, the number of sub-sessions comprising at least one communication flow between the first network node and the second network node; and determining (S206) intra-session persistence of the first network node for the at least one divided session of connectivity on the basis of the number of sub-sessions and said number of sub-sessions comprising at least one communication flow. determining (S202) a total number of sessions of connectivity occurring between the first network node and the second network node during said specified observation period; determining (S203), from the total number of sessions of connectivity determined, a number of sessions comprising at least one communication flow between the first network node and the second network node; dividing (S204) at least one determined session of connectivity into a number of sub-sessions; determining (S205), for the at least one divided session of connectivity, the number of sub-sessions comprising at least one communication flow between the first network node and the second network node; and determining (S206) intra-session persistence of the first network node for the at least one divided session of connectivity on the basis of the number of sub-sessions and said number of sub-sessions comprising at least one communication flow.
Membrane characterized in that it contains polybenzimidazole and at least one aminophosphonic acid, the latter having the sequence of atoms N-C-P, where P stands for phosphonic acid, N for nitrogen and C for carbon.
A monitoring device, comprising: a monitor screen, an electrocardiograph adapted to derive an electrocardiogram from at least one of ECG lead responsive to a connection of the electrocardiograph to the at least one ECG lead ; an ECG quality controller adapted, in response to the connection of the electrocardiograph to the at least one ECG lead , - to control separate evaluations of a high-frequency noise level and a low-frequency noise level of an individual ECG lead on an electrocardiogram segmentation basis, and - to ascertain, in the high-frequency noise level evaluation of the individual ECG lead , the standard deviation of an electrocardiogram segment for each individual ECG lead per segment section as an estimation of the high-frequency noise level for each individual ECG lead , the electrocardiogram segment being divided into a plurality of segment sections; wherein the ECG quality controller is further adapted to control the monitor screen to display the separate evaluations of the high-frequency noise level and the low-frequency noise level of the individual ECG lead on an electrocardiogram segmentation basis. a monitor screen, an electrocardiograph adapted to derive an electrocardiogram from at least one of ECG lead responsive to a connection of the electrocardiograph to the at least one ECG lead ; an ECG quality controller adapted, in response to the connection of the electrocardiograph to the at least one ECG lead , - to control separate evaluations of a high-frequency noise level and a low-frequency noise level of an individual ECG lead on an electrocardiogram segmentation basis, and - to ascertain, in the high-frequency noise level evaluation of the individual ECG lead , the standard deviation of an electrocardiogram segment for each individual ECG lead per segment section as an estimation of the high-frequency noise level for each individual ECG lead , the electrocardiogram segment being divided into a plurality of segment sections; - to control separate evaluations of a high-frequency noise level and a low-frequency noise level of an individual ECG lead on an electrocardiogram segmentation basis, and - to ascertain, in the high-frequency noise level evaluation of the individual ECG lead , the standard deviation of an electrocardiogram segment for each individual ECG lead per segment section as an estimation of the high-frequency noise level for each individual ECG lead , the electrocardiogram segment being divided into a plurality of segment sections; wherein the ECG quality controller is further adapted to control the monitor screen to display the separate evaluations of the high-frequency noise level and the low-frequency noise level of the individual ECG lead on an electrocardiogram segmentation basis.