mhurhangee/patent-ind-claim-en huggingface dataset:
Digital control comprising at least a thermostat function for controlling heating and/or cooling in at least one room of a house or building, the digital control further comprising: - a display, - a temperature sensor for measuring the temperature in the at least one room, - a central processing unit adapted for: - compensating for internal heating of the display of the digital control, - correcting the measured temperature with the determined internal heating, and - sending the corrected temperature to the display and to a remote heating and/or cooling unit for controlling heating and/or cooling in the at least one room, characterized in that the central processing unit is further adapted for determining, at the time the digital control goes from an on-state to an off-state, the internal heating of the display of the digital control according to quadratic function: Internal heating up display = ax 2 + bx wherein a and b are coefficients that depend on the used brightness of the display of the digital control and x is the time during which the display was in the on-state. - a display, - a temperature sensor for measuring the temperature in the at least one room, - a central processing unit adapted for: - compensating for internal heating of the display of the digital control, - correcting the measured temperature with the determined internal heating, and - sending the corrected temperature to the display and to a remote heating and/or cooling unit for controlling heating and/or cooling in the at least one room, - compensating for internal heating of the display of the digital control, - correcting the measured temperature with the determined internal heating, and - sending the corrected temperature to the display and to a remote heating and/or cooling unit for controlling heating and/or cooling in the at least one room,
A two-component aqueous textured layer forming composition comprising: a first component of (i) an acrylic emulsion copolymer blend of (a) a first acrylic emulsion copolymer A having a calculated glass transition temperature (calculated Tg) of from -60 to -5 °C and, (b) a second acrylic emulsion copolymer B having a calculated Tg of from 15 to 60 °C in a solids weight ratio of copolymer A: copolymer B of from 25:75 to 90:10; (ii) vulcanized or crosslinked rubber granules, in an amount wherein a solids weight ratio of the acrylic emulsion copolymer blend:vulcanized or crosslinked rubber granules ranges from less than 1:4 to 1:9, (iii) one or more polyalkylene oxide rheology modifier having a viscosity average molecular weight of from 400,000 to 5,000,000; and (iv) one or more high boiling alcohols having a normal boiling point of from 170 to 315°C, and, further, having a formula MW of 100 to 250; and, as a second component, (v) a crosslinking agent comprising both an aliphatic water-dispersible polyisocyanate composition and an epoxy silane. a first component of (i) an acrylic emulsion copolymer blend of (a) a first acrylic emulsion copolymer A having a calculated glass transition temperature (calculated Tg) of from -60 to -5 °C and, (b) a second acrylic emulsion copolymer B having a calculated Tg of from 15 to 60 °C in a solids weight ratio of copolymer A: copolymer B of from 25:75 to 90:10; (ii) vulcanized or crosslinked rubber granules, in an amount wherein a solids weight ratio of the acrylic emulsion copolymer blend:vulcanized or crosslinked rubber granules ranges from less than 1:4 to 1:9, (iii) one or more polyalkylene oxide rheology modifier having a viscosity average molecular weight of from 400,000 to 5,000,000; and (iv) one or more high boiling alcohols having a normal boiling point of from 170 to 315°C, and, further, having a formula MW of 100 to 250; and, as a second component, (v) a crosslinking agent comprising both an aliphatic water-dispersible polyisocyanate composition and an epoxy silane.
An optical fiber cutting system (1; 1A; 1B; 1C; 1D) comprising: a pair of clamps disposed at an interval in a longitudinal direction of an optical fiber , the pair of clamps being configured to grip the optical fiber ; a disk-shaped blade member including an outer peripheral edge portion , the blade member being configured to scratch the optical fiber by moving between the pair of clamps and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber , the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber ; a pressing member configured to cut the optical fiber by pressing and bending a scratched portion on the optical fiber ; and characterized in that said optical fiber system furthermore comprises an acquisition unit configured to acquire position information of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber , the acquisition unit being a sensor (15; 16) configured to acquire the position information of the outer peripheral edge portion by detecting a direction of a magnetic line corresponding to the position of the outer peripheral edge portion . a pair of clamps disposed at an interval in a longitudinal direction of an optical fiber , the pair of clamps being configured to grip the optical fiber ; a disk-shaped blade member including an outer peripheral edge portion , the blade member being configured to scratch the optical fiber by moving between the pair of clamps and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber , the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber ; the blade member being configured to scratch the optical fiber by moving between the pair of clamps and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber , the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber ; a pressing member configured to cut the optical fiber by pressing and bending a scratched portion on the optical fiber ; and characterized in that said optical fiber system furthermore comprises an acquisition unit configured to acquire position information of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber , the acquisition unit being a sensor (15; 16) configured to acquire the position information of the outer peripheral edge portion by detecting a direction of a magnetic line corresponding to the position of the outer peripheral edge portion .
A monitoring method for monitoring an unwinding process of an unwinding device , comprising the following steps: - At least partial unwinding of a web material from a winding , - detection of at least one irregularity of the web material and/or of the unwinding process, - determination of a correlation of the irregularity to at least one running parameter of the winding , - entry of the correlation of the irregularity to the running parameter into a database , characterized in that several irregularities from several different unwinding processes are jointly evaluated, wherein several windings of one batch are jointly examined for irregularities via the database . - At least partial unwinding of a web material from a winding , - detection of at least one irregularity of the web material and/or of the unwinding process, - determination of a correlation of the irregularity to at least one running parameter of the winding , - entry of the correlation of the irregularity to the running parameter into a database ,
A fuel tank inerting system, comprising a fuel tank ; an electrochemical cell catalytic reactor arranged to receive a first reactant from a first reactant source and to receive a second reactant from a second reactant source, and to react the first and second reactants to generate an inert gas; and an inert gas flow path from the catalytic reactor to the fuel tank, characterised in that the catalytic reactor comprises: a first flow path comprising a first inlet in operative fluid communication the first reactant source, a first outlet in operative fluid communication with the inert gas flow path, and a reactive flow path including a catalyst between the first inlet and the first outlet; a second flow path comprising a second inlet in operative fluid communication with the second reactant source, said second flow path in operative fluid communication with the first flow path through a first barrier between the first and second flow paths that is permeable to the second reactant; and a third flow path comprising a third inlet in operative fluid communication with a fluid coolant, and a third outlet, said third flow path in operative thermal communication with the first flow path. a first flow path comprising a first inlet in operative fluid communication the first reactant source, a first outlet in operative fluid communication with the inert gas flow path, and a reactive flow path including a catalyst between the first inlet and the first outlet; a second flow path comprising a second inlet in operative fluid communication with the second reactant source, said second flow path in operative fluid communication with the first flow path through a first barrier between the first and second flow paths that is permeable to the second reactant; and a third flow path comprising a third inlet in operative fluid communication with a fluid coolant, and a third outlet, said third flow path in operative thermal communication with the first flow path.
The use of an oil-soluble mono-, di-, or tri-glyceride of at least one hydroxy polycarboxylic acid, or a derivative thereof, as an anti-camshaft-wear additive in a non-aqueous lubricant composition and/or in a fuel composition, wherein the non-aqueous lubricant composition and/or fuel composition is used in a compression-ignition internal combustion engine.
A flow meter system comprising: a flow meter configured to enable a first flow of a first fluid through the flow meter; and transmitter electronics coupled to the flow meter and configured to: calculate a first profile factor (PF) of the first fluid during the first flow, calculate a first meter factor (MF) corresponding to the first profile factor (PF) based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor (MF). a flow meter configured to enable a first flow of a first fluid through the flow meter; and transmitter electronics coupled to the flow meter and configured to: calculate a first profile factor (PF) of the first fluid during the first flow, calculate a first meter factor (MF) corresponding to the first profile factor (PF) based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor (MF). calculate a first profile factor (PF) of the first fluid during the first flow, calculate a first meter factor (MF) corresponding to the first profile factor (PF) based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor (MF).
Method for creating a decoy of an operation of at least one module (CRY) located in at least one first zone (Z1) of a semiconductor substrate of an integrated electronic circuit (CI), comprising arranging at least one first antenna above at least one second zone (Z2) of the integrated circuit, that is different from said at least one first zone, generating at least one decoy electrical signal (SE) on the basis of at least one first electrical signal (S) that is characteristic of an operation of said at least one module and of at least one pseudo-random parameter, the first electrical signal being generated by said at least one module and delivered over an output of said at least one module, and circulating said at least one decoy electrical signal (SE) in said at least one first antenna so as to generate at least one decoy electromagnetic radiation, said module being capable of generating and of delivering, over an output of said module, said at least one first electrical signal.
A method for transmitting data, performed by a terminal comprising at least two antenna panels, wherein the method comprises: performing channel detection by each of the at least two antenna panels on each bandwidth unit, BWU, to be detected on an active bandwidth part, BWP, and determining one or more idle BWUs detected by each of the at least two antenna panels on the BWP; selecting (S11) one or more BWUs as a first BWU subset, from a first BWU set, wherein the first BWU set is determined based on the one or more idle BWUs detected by each of the at least two antenna panels on the BWP; and transmitting (S12) uplink information by one or more antenna panels of the at least two antenna panels separately on one or more BWUs in the first BWU subset. performing channel detection by each of the at least two antenna panels on each bandwidth unit, BWU, to be detected on an active bandwidth part, BWP, and determining one or more idle BWUs detected by each of the at least two antenna panels on the BWP; selecting (S11) one or more BWUs as a first BWU subset, from a first BWU set, wherein the first BWU set is determined based on the one or more idle BWUs detected by each of the at least two antenna panels on the BWP; and transmitting (S12) uplink information by one or more antenna panels of the at least two antenna panels separately on one or more BWUs in the first BWU subset.
An eyewear frame structure for holding at least one lens thereto, the eyewear frame structure comprising: a base frame including an upper member extending between opposed ends of the base frame , the opposed ends configured with respective enlarged end sections for providing pivotal connections to temples of the eyewear frame structure , and defining a groove in a front side of the upper member thereof, the groove extending along a length of the upper member ; a front frame molded to the front side of the upper member of the base frame and thereby attached thereto, the front frame including an elongate member attached to a front side of the upper member of the base frame , the elongate member of the front frame being partially received in the groove of the base frame ; a comfort bar molded to the base frame and thereby attached thereto, the comfort bar disposed on a back side of the upper member of the base frame ; and a plurality of vent passages extending through the frame structure , each of the vent passages including a substantially horizontal section defined between the base frame and the front frame and a substantially vertical section defined between the base frame and the comfort bar , wherein the substantially horizontal section of the vent passage comprises a top surface defined on the base frame and a bottom surface defined on the front frame , and wherein the substantially vertical section of the vent passage comprises a front surface thereof defined on the base frame and a rear surface defined on the comfort bar . a base frame including an upper member extending between opposed ends of the base frame , the opposed ends configured with respective enlarged end sections for providing pivotal connections to temples of the eyewear frame structure , and defining a groove in a front side of the upper member thereof, the groove extending along a length of the upper member ; a front frame molded to the front side of the upper member of the base frame and thereby attached thereto, the front frame including an elongate member attached to a front side of the upper member of the base frame , the elongate member of the front frame being partially received in the groove of the base frame ; a comfort bar molded to the base frame and thereby attached thereto, the comfort bar disposed on a back side of the upper member of the base frame ; and a plurality of vent passages extending through the frame structure , each of the vent passages including a substantially horizontal section defined between the base frame and the front frame and a substantially vertical section defined between the base frame and the comfort bar , wherein the substantially horizontal section of the vent passage comprises a top surface defined on the base frame and a bottom surface defined on the front frame , and wherein the substantially vertical section of the vent passage comprises a front surface thereof defined on the base frame and a rear surface defined on the comfort bar .
A surgical device comprising: an elongate body with a proximal end (11.1) and a distal end (11.2), and attachment means capable of attaching the elongate body to tubing (19.1), characterised by the elongate body comprising an abutment portion comprising a pair of integral outwardly flaring elongate wings which between them define a channel adapted for receiving a longitudinally adjacent trocar ; wherein the dimensions of the wings are longer at the proximal end (11.1) than at the distal end (11.2) of the elongate body , thereby defining a relatively deeper channel (30.2) at the proximal end (11.1) of the elongate body and a relatively shallower channel (30.1) at the distal end (11.2) of the elongate body . an elongate body with a proximal end (11.1) and a distal end (11.2), and attachment means capable of attaching the elongate body to tubing (19.1), characterised by the elongate body comprising an abutment portion comprising a pair of integral outwardly flaring elongate wings which between them define a channel adapted for receiving a longitudinally adjacent trocar ; wherein the dimensions of the wings are longer at the proximal end (11.1) than at the distal end (11.2) of the elongate body , thereby defining a relatively deeper channel (30.2) at the proximal end (11.1) of the elongate body and a relatively shallower channel (30.1) at the distal end (11.2) of the elongate body .
A method for controlling a transmission power by a user equipment , the method comprising: when a physical random access channel, PRACH, transmission on a first timing advance group, TAG, overlaps with a sounding reference signal, SRS, transmission on a second TAG in time, and when a total transmission power of the PRACH transmission and the SRS transmission exceeds a maximum transmission power configured for the user equipment in the overlapped time, allocating a transmission power for the PRACH transmission with priority over a transmission power for the SRS transmission.
A cargo restraint , comprising: a housing ; an inner pawl and an outer pawl coupled to the housing and configured to rotate between a retracted position and an erected position relative to the housing; an elastic element coupled to the inner pawl and to the outer pawl, wherein a first coupling between the elastic element and the inner pawl and a second coupling between the elastic element and the outer pawl are configured such that as the outer pawl rotates between the retracted position and the erected position, the elastic element causes the inner pawl to correspondingly rotate between the retracted position and the erected position, and wherein the first coupling and the second coupling are configured such that, as the outer pawl rotates between the erected position and the retracted position, the elastic element causes the inner pawl to correspondingly rotate between the erected position and the retracted position; and a locking pawl rotatably coupled to at least one of the inner pawl or the outer pawl and configured to rotate between a locked position in which the inner pawl and the outer pawl are locked in the erected position and an unlocked position. a housing ; an inner pawl and an outer pawl coupled to the housing and configured to rotate between a retracted position and an erected position relative to the housing; an elastic element coupled to the inner pawl and to the outer pawl, wherein a first coupling between the elastic element and the inner pawl and a second coupling between the elastic element and the outer pawl are configured such that as the outer pawl rotates between the retracted position and the erected position, the elastic element causes the inner pawl to correspondingly rotate between the retracted position and the erected position, and wherein the first coupling and the second coupling are configured such that, as the outer pawl rotates between the erected position and the retracted position, the elastic element causes the inner pawl to correspondingly rotate between the erected position and the retracted position; and a locking pawl rotatably coupled to at least one of the inner pawl or the outer pawl and configured to rotate between a locked position in which the inner pawl and the outer pawl are locked in the erected position and an unlocked position.
An optical probe comprising: an optical fiber configured to carry light for scanning a target, the light entering from a light source; a lens configured to focus the light entered into the optical fiber; and a wavefront modulator having a pattern formed therein, the pattern configured to modulate a wavefront of the light entered into the optical fiber, characterised in that the pattern formed in the wavefront modulator comprises a plurality of annular regions, the plurality of annular regions include: a first annular region; a second annular region radially separated from the first annular region; and a third annular region arranged between the first annular region and the second annular region; and wherein the optical fiber, the lens, and the midpoint of the first annular region are arranged along a common axis, the probe being configured such that the light having passed through the wavefront modulator can form a focus on the common axis, and a resolution or a focal depth of the light is adjustable according to a design of the pattern formed in the wavefront modulator. an optical fiber configured to carry light for scanning a target, the light entering from a light source; a lens configured to focus the light entered into the optical fiber; and a wavefront modulator having a pattern formed therein, the pattern configured to modulate a wavefront of the light entered into the optical fiber, characterised in that the pattern formed in the wavefront modulator comprises a plurality of annular regions, the plurality of annular regions include: a first annular region; a second annular region radially separated from the first annular region; and a third annular region arranged between the first annular region and the second annular region; and wherein the optical fiber, the lens, and the midpoint of the first annular region are arranged along a common axis, the probe being configured such that the light having passed through the wavefront modulator can form a focus on the common axis, and a resolution or a focal depth of the light is adjustable according to a design of the pattern formed in the wavefront modulator.