mhurhangee/patent-ind-claim-en huggingface dataset:
Spring element, in particular spring-damper element for the cab suspension of vehicles, such as mobile machines, with a suspension cylinder , at the one end of which a base part forming a bearing surface , is provided and in which a suspension piston , the piston rod of which is guided out of the head part of the suspension cylinder which opposes the base part , separates working spaces for a pressure fluid, such as hydraulic oil, from each other, wherein the working spaces are in fluid communication with each other via connecting pipe , wherein the suspension cylinder is at least partially surrounded by a coaxial pipe body , the internal diameter of which is greater than the external diameter of the suspension cylinder , such that an external space is formed between said suspension cylinder and the pipe body , said external space forming at least a portion of the connecting pipe , characterised in that a controllable damping valve , forming a variable throttling point , is inserted in the connecting pipe , that the base part with a lateral attachment forms a valve block for the damping valve and that the pressure accumulator is attached directly to the valve block forming an internal connection to the damping valve .
An electrostatic filter construction including - a charging unit , which charges the particles to be filtered into a first electric potential and is arranged in the filter construction in the path of the air flow before bag shaped filter elements , - an electrode unit comprising a plurality of electrically conducting electrodes connected to a second electric potential different to the potential of the charged particles and set substantially parallel to the direction of the airflow, and - a bag unit comprising the bag shaped filter elements positioned after the charging unit in the path of the air flow, wherein each bag shaped filter element of the bag unit comprises an electrode, characterized in that - each bag shaped filter element has at least one designated UV-light source and an element of photo catalytic material like TiO 2 , wherein the electrodes inside the bag shaped filter elements are equipped with UV- light sources and are covered with photo catalytic material like TiO 2 . - a charging unit , which charges the particles to be filtered into a first electric potential and is arranged in the filter construction in the path of the air flow before bag shaped filter elements , - an electrode unit comprising a plurality of electrically conducting electrodes connected to a second electric potential different to the potential of the charged particles and set substantially parallel to the direction of the airflow, and - a bag unit comprising the bag shaped filter elements positioned after the charging unit in the path of the air flow, - each bag shaped filter element has at least one designated UV-light source and an element of photo catalytic material like TiO 2 , wherein the electrodes inside the bag shaped filter elements are equipped with UV- light sources and are covered with photo catalytic material like TiO 2 .
A computer-implemented method for displaying status during a wireless transmission of a glucose measure from a handheld glucose meter to a diabetes management application residing on a portable computing device , comprising: - determining, by the glucose meter , a blood glucose measure from a test strip inserted into a port of the glucose meter , the test strip having a reaction site for receiving a sample of blood from a patient; - displaying, by the glucose meter , the blood glucose measure on a result screen of the glucose meter , the display of the blood glucose measure being performed in response to the determination of the blood glucose measure; characterized by further comprising: - transferring, by the glucose meter , the blood glucose measure via a wireless data link to the diabetes management application , wherein the blood glucose measure is transferred in response to navigating away from the result screen; and - displaying, by the glucose meter , an interface on a display of the glucose meter concurrently with the transfer of the blood glucose measure to the diabetes management application , where the interface provides an indication of the data transfer, a numeric value for the blood glucose measure and an identifier for the portable computing device . - determining, by the glucose meter , a blood glucose measure from a test strip inserted into a port of the glucose meter , the test strip having a reaction site for receiving a sample of blood from a patient; - displaying, by the glucose meter , the blood glucose measure on a result screen of the glucose meter , the display of the blood glucose measure being performed in response to the determination of the blood glucose measure; - transferring, by the glucose meter , the blood glucose measure via a wireless data link to the diabetes management application , wherein the blood glucose measure is transferred in response to navigating away from the result screen; and - displaying, by the glucose meter , an interface on a display of the glucose meter concurrently with the transfer of the blood glucose measure to the diabetes management application , where the interface provides an indication of the data transfer, a numeric value for the blood glucose measure and an identifier for the portable computing device .
A source assembly configured to couple to a vacuum chamber of an instrument comprising a first pin and a second pin extending radially from the instrument , the source assembly comprising: a moveable component comprising a circumferential slot; a stationary component coupled to the moveable component and comprising an ion source or an electron source, in which the ion source or the electron source comprises a plurality of lenses ; in which the stationary component further comprises a slot that is configured to receive the first pin and the second pin of the instrument into the slot of the stationary component to align the ion source or the electron source in the instrument when the first pin and second pin engage the slot of the stationary component ; in which the moveable component is configured to provide an axial force to the stationary component upon rotational movement of the moveable component in a first direction and release the axial force upon movement of the moveable component in a second direction opposite the first direction; and in which rotational movement of the moveable component in the first direction is configured to engage the second pin in the circumferential slot of the moveable component to lock the stationary component in place and compress a spring to thereby provide a substantially fluid tight seal between the source assembly and the vacuum chamber . a moveable component comprising a circumferential slot; a stationary component coupled to the moveable component and comprising an ion source or an electron source, in which the ion source or the electron source comprises a plurality of lenses ; in which the stationary component further comprises a slot that is configured to receive the first pin and the second pin of the instrument into the slot of the stationary component to align the ion source or the electron source in the instrument when the first pin and second pin engage the slot of the stationary component ; in which the moveable component is configured to provide an axial force to the stationary component upon rotational movement of the moveable component in a first direction and release the axial force upon movement of the moveable component in a second direction opposite the first direction; and in which rotational movement of the moveable component in the first direction is configured to engage the second pin in the circumferential slot of the moveable component to lock the stationary component in place and compress a spring to thereby provide a substantially fluid tight seal between the source assembly and the vacuum chamber .
A hair care composition obtainable by blending a conditioning gel phase with an aqueous emulsion of a non-linear organopolysiloxane comprising monomer units of silsesquioxane having a formula (RSiO 3/2 ) n where n = 1, R is an alkyl group, preferably methyl, ethyl or propyl, and copolymer segments of polydialkylsiloxane; the conditioning gel phase being formed from a cationic surfactant, a high melting point (25°C or higher) fatty compound and an aqueous carrier; and the aqueous emulsion of the non-linear organopolysiloxane having an aqueous continuous phase consisting of water and a blend of non-ionic and cationic surfactants and a dispersed phase consisting of the non-linear organopolysiloxane and a hydrocarbon oil, wherein the weight ratio of the non-linear organopolysiloxane to the hydrocarbon oil is 40:60 to 65:35; and wherein the non-linear organopolysiloxane is a branched organopolysiloxane. where n = 1, R is an alkyl group, preferably methyl, ethyl or propyl, and copolymer segments of polydialkylsiloxane; the conditioning gel phase being formed from a cationic surfactant, a high melting point (25°C or higher) fatty compound and an aqueous carrier; and the aqueous emulsion of the non-linear organopolysiloxane having an aqueous continuous phase consisting of water and a blend of non-ionic and cationic surfactants and a dispersed phase consisting of the non-linear organopolysiloxane and a hydrocarbon oil, wherein the weight ratio of the non-linear organopolysiloxane to the hydrocarbon oil is 40:60 to 65:35; and wherein the non-linear organopolysiloxane is a branched organopolysiloxane.
A secondary-battery monitoring device, comprising: a use-state memory device that is configured to store a transition of a load parameter I, T, SOC indicating a use state of a secondary battery ; and a battery capacity prediction device that is configured to predict a temporal change of a battery capacity Q of the secondary battery on the basis of a prediction function, wherein the prediction function is a function derived from a relation between a growth of a film which is formed in an electrode surface of the secondary battery , and a reduction of a precursor component of the film which is contained in an electrolyte of the secondary battery , and wherein the battery capacity prediction device is configured to determine a coefficient A, τ of the prediction function on the basis of the transition of the load parameter I, T, SOC which is stored in the use-state memory device , and is configured to predict the temporal change of the battery capacity Q of the secondary battery on the basis of the prediction function which uses the coefficient A, τ, characterized in that the prediction function is expressed as follows: Q t = Q max , ini − γ × D t = Q max , ini − Q max , ini × X t ∫ dt τ t = − ln 1 − X t A − X t A where, Q(t) is a battery capacity of the secondary battery, Qmax, ini is an initial capacity of the secondary battery, D(t) is a film thickness, X(t) is a dimensionless function obtained by standardizing a reduced amount of the battery capacity Q(t) using the initial capacity Qmax, ini, γ is a proportional coefficient corresponding to the film thickness D(t) and a reduced capacity,and A and τ are coefficients. a use-state memory device that is configured to store a transition of a load parameter I, T, SOC indicating a use state of a secondary battery ; and a battery capacity prediction device that is configured to predict a temporal change of a battery capacity Q of the secondary battery on the basis of a prediction function, wherein the prediction function is a function derived from a relation between a growth of a film which is formed in an electrode surface of the secondary battery , and a reduction of a precursor component of the film which is contained in an electrolyte of the secondary battery , and wherein the battery capacity prediction device is configured to determine a coefficient A, τ of the prediction function on the basis of the transition of the load parameter I, T, SOC which is stored in the use-state memory device , and is configured to predict the temporal change of the battery capacity Q of the secondary battery on the basis of the prediction function which uses the coefficient A, τ, characterized in that
A mobile device comprising: a processor configured to: transmit a first mobile device beacon message that includes a first discovery threshold to one or more control devices ; receive one or more control device beacon messages transmitted by the one or more control devices ; determine a number of discovered control devices based on the received control device beacon messages; compare the number of discovered control devices to a target range; determine that the number of discovered control devices is greater than a first high-side threshold value greater than the target range; adjust the first discovery threshold based on the number of discovered control devices being greater than or less than the target range, wherein the processor being configured to adjust the first discovery threshold comprises the processor being configured to increase the first discovery threshold by a first threshold increment; and transmit a second mobile device beacon message that includes the adjusted discovery threshold. transmit a first mobile device beacon message that includes a first discovery threshold to one or more control devices ; receive one or more control device beacon messages transmitted by the one or more control devices ; determine a number of discovered control devices based on the received control device beacon messages; compare the number of discovered control devices to a target range; determine that the number of discovered control devices is greater than a first high-side threshold value greater than the target range; adjust the first discovery threshold based on the number of discovered control devices being greater than or less than the target range, wherein the processor being configured to adjust the first discovery threshold comprises the processor being configured to increase the first discovery threshold by a first threshold increment; and transmit a second mobile device beacon message that includes the adjusted discovery threshold.
A computer-implemented method comprising: receiving, by a computing device, audio data corresponding to playback of an utterance; providing, by the computing device, the audio data as an input to a model (i) that is configured to determine whether a given audio data sample includes an audio watermark and (ii) that was trained using watermarked audio data samples that each include an audio watermark sample and non-watermarked audio data samples that do not each include an audio watermark sample; receiving, by the computing device and from the model (i) that is configured to determine whether the given audio data sample includes the audio watermark and (ii) that was trained using the watermarked audio data samples that include the audio watermark and the non-watermarked audio data samples that do not include the audio watermark, data indicating whether the audio data includes the audio watermark; and based on the data indicating whether the audio data includes the audio watermark, determining, by the computing device, to continue or cease processing of the audio data. receiving, by a computing device, audio data corresponding to playback of an utterance; providing, by the computing device, the audio data as an input to a model (i) that is configured to determine whether a given audio data sample includes an audio watermark and (ii) that was trained using watermarked audio data samples that each include an audio watermark sample and non-watermarked audio data samples that do not each include an audio watermark sample; receiving, by the computing device and from the model (i) that is configured to determine whether the given audio data sample includes the audio watermark and (ii) that was trained using the watermarked audio data samples that include the audio watermark and the non-watermarked audio data samples that do not include the audio watermark, data indicating whether the audio data includes the audio watermark; and based on the data indicating whether the audio data includes the audio watermark, determining, by the computing device, to continue or cease processing of the audio data.
Running equation of time mechanism comprising a hand arrangement, whose purpose is to indicate the apparent or true solar time by means of a civil hour hand and a true solar minute hand concentric with the civil hour hand , the hand arrangement being devoid of a civil minute hand, the civil hour hand being pressed on a civil hour pipe driven in rotation by a timepiece movement and driving in turn a true solar minute pipe on which is pressed the true solar minute hand , the running equation of time mechanism also comprising an equation of time cam having a profile that is determined by the difference, on every day of the year, between the mean solar time or civil time, and the apparent solar time or true solar time, said equation of time cam being driven in rotation at the rate of one revolution per year by the timepiece movement, the position of the true solar minute hand being determined by the position of the equation of time cam , the running equation of time mechanism also including a differential gear device , a first input of which is formed by a cannon-pinion wheel , which is driven by the timepiece movement and which makes one revolution per hour, and a second input of which is formed by the equation of time cam , the differential gear device being arranged concentrically with respect to the true solar minute hand , the differential gear device including a planetary gear reduction wheel set , via which a cannon-pinion , on which the cannon-pinion wheel is fixed, drives the civil hour pipe on which is pressed the civil hour hand , and a planetary gear multiplier wheel set via which the civil hour pipe drives the true solar minute pipe on which is pressed the true solar minute hand .
A method for data processing, comprising: determining, by a terminal device, a data duplication behavior of a first entity according to first information, wherein the data duplication behavior is indicative of that the first entity transmits data to at least one second entity in at least three second entities corresponding to the first entity, and the first information comprises information from a media access control, MAC, control element, CE; wherein determining, by the terminal device, the data duplication behavior of the first entity according to the first information comprises: determining, by the terminal device, a data duplication behavior of a second set according to the information from the MAC CE, wherein the second set is formed according to the at least three second entities and contains at least one second entity; characterized in that the information from the MAC CE comprises information from a MAC CE in a master node and information from a MAC CE in a secondary node. determining, by a terminal device, a data duplication behavior of a first entity according to first information, wherein the data duplication behavior is indicative of that the first entity transmits data to at least one second entity in at least three second entities corresponding to the first entity, and the first information comprises information from a media access control, MAC, control element, CE; wherein determining, by the terminal device, the data duplication behavior of the first entity according to the first information comprises: determining, by the terminal device, a data duplication behavior of a second set according to the information from the MAC CE, wherein the second set is formed according to the at least three second entities and contains at least one second entity; characterized in that the information from the MAC CE comprises information from a MAC CE in a master node and information from a MAC CE in a secondary node. determining, by the terminal device, a data duplication behavior of a second set according to the information from the MAC CE, wherein the second set is formed according to the at least three second entities and contains at least one second entity; characterized in that the information from the MAC CE comprises information from a MAC CE in a master node and information from a MAC CE in a secondary node.
High-voltage switching apparatus comprising a cast housing consisting of a casting resin, which encloses a vacuum chamber , which has a housing body in which a fixed contact and a movable contact are arranged, an intermediate layer being provided between the inner wall of the cast housing and the outer wall of the housing body of the vacuum chamber , the intermediate layer being a casting resin layer, characterised in that the glass transition temperature of the casting resin layer being between 10 and 40 °C.
A system for producing multiple-pane insulating glazing units, the system comprising: a conveyor and a machine that assembles two or more glazing panes and one or more glazing spacers into a multiple-pane insulating glazing unit , the conveyor comprising a longitudinally extending conveyor line configured to transport glazing panes to the machine , the machine comprising a plurality of laterally spaced-apart processing stations , each processing station being movable transversely relative to the longitudinally extending conveyor line , characterized in that each processing station is configured to independently: i) assemble two or more glazing panes and one or more glazing spacers into a multiple-pane insulating glazing unit , and ii) deliver insulative gas into at least one between-pane space of the insulating glazing unit , such that the system has multiple processing stations each independently configured to assemble and gas fill multiple-pane insulating glazing units . i) assemble two or more glazing panes and one or more glazing spacers into a multiple-pane insulating glazing unit , and ii) deliver insulative gas into at least one between-pane space of the insulating glazing unit , such that the system has multiple processing stations each independently configured to assemble and gas fill multiple-pane insulating glazing units .
A refrigerant collecting apparatus comprising: a first pipe that is configured to transport a fluid containing a refrigerant that is present inside a storage of a transport refrigeration vehicle including a transport refrigeration unit ; a compressor that is configured to compress the fluid guided from the first pipe; a condenser that is configured to condense the refrigerant contained in the fluid guided from the compressor; and a gas-liquid separator that is configured to perform gas-liquid separation on the fluid guided from the condenser. a first pipe that is configured to transport a fluid containing a refrigerant that is present inside a storage of a transport refrigeration vehicle including a transport refrigeration unit ; a compressor that is configured to compress the fluid guided from the first pipe; a condenser that is configured to condense the refrigerant contained in the fluid guided from the compressor; and a gas-liquid separator that is configured to perform gas-liquid separation on the fluid guided from the condenser.