mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: an encoder ; and a device operable to intercept a Property Management Systems (PMS) request to the encoder to obtain card data from the encoder and determine if the request is for a virtual card, wherein the device is configured to, when the PMS request is for a virtual card, send a request addressed to encoder 0 supporting legacy encoders to retrieve virtual card data; then send a message comprising data elements including the virtual card data to a credential service , the credential service operable to manage digital access credentials by creating a virtual key using the virtual card data that is operable to operate an access control device for unlocking an electronic door lock and to provision a mobile phone with the virtual key; and then upon receiving a successful response from the credential service send a message to the PMS to indicate that the operation was completed successfully; and wherein the device is not detectable nor affects the operation of, or the formatting of, the data and communications that is sent back and forth to the PMS and the encoder except when the PMS requests a virtual card. an encoder ; and a device operable to intercept a Property Management Systems (PMS) request to the encoder to obtain card data from the encoder and determine if the request is for a virtual card, wherein the device is configured to, when the PMS request is for a virtual card, send a request addressed to encoder 0 supporting legacy encoders to retrieve virtual card data; then send a message comprising data elements including the virtual card data to a credential service , the credential service operable to manage digital access credentials by creating a virtual key using the virtual card data that is operable to operate an access control device for unlocking an electronic door lock and to provision a mobile phone with the virtual key; and then upon receiving a successful response from the credential service send a message to the PMS to indicate that the operation was completed successfully; and wherein the device is not detectable nor affects the operation of, or the formatting of, the data and communications that is sent back and forth to the PMS and the encoder except when the PMS requests a virtual card.
A stock solution comprising: (a) 20 - 70 wt%. of an organic acid selected from the group consisting of acetic, propionic, butyric and mixtures thereof, (b) 1 - 9 wt.% of ethoxylated castor oil surfactant having an HLB from 4 to 18 and a molar ratio of 1 molecule of castor oil to 1 - 200 molecules of ethylene oxide, wherein the ethoxylated castor oil surfactant has 1 to 200 ethylene oxide molecules distributed normally around a mean of 40 to 80, (c) antimicrobial terpenes or essential oils, wherein the antimicrobial terpenes or essential oils are present in an amount of up to 10 % by weight. (a) 20 - 70 wt%. of an organic acid selected from the group consisting of acetic, propionic, butyric and mixtures thereof, (b) 1 - 9 wt.% of ethoxylated castor oil surfactant having an HLB from 4 to 18 and a molar ratio of 1 molecule of castor oil to 1 - 200 molecules of ethylene oxide, wherein the ethoxylated castor oil surfactant has 1 to 200 ethylene oxide molecules distributed normally around a mean of 40 to 80, (c) antimicrobial terpenes or essential oils, wherein the antimicrobial terpenes or essential oils are present in an amount of up to 10 % by weight.
An ultrasonic welding method for joining first and second thermoplastic parts, said method comprising forming at least one energy director on at least one surface of said first thermoplastic part, said energy director projecting from said surface of said first thermoplastic part toward an opposed surface of said second thermoplastic part, the end portion of said energy director having a curved surface that initially engages said opposed surface when said first and second thermoplastic parts are brought into engagement with each other, wherein a longitudinal section taken through said energy director, in a direction normal to the surface to be engaged by said director, has a curved profile at a distal end of said director, and ultrasonically welding said first and second thermoplastic parts by pressing the parts together while vibrating at least said first part in a direction parallel to the direction of projection of said energy director, characterized in that said curved profile has a radius of curvature of at least 0.20 mm at the distal end of said energy director, wherein the parts are pressed together using a servo-driven ultrasonic press employing a delayed motion technique in which motion is suspended until initial melting of plastic material occurs and forces are changed rapidly during the weld process.
Battery cell , comprising a housing , a negative terminal protruding from the housing and a positive terminal protruding from the housing , negative contact segments joined to the negative terminal and positive contact segments joined to the positive terminal , wherein the negative contact segments are bent relatively to each other and relatively to the negative terminal as to form a negative cell connector having a prismatic shape, and that the positive contact segments are bent relatively to each other and relatively to the positive terminal as to form a positive cell connector having a prismatic shape; characterised in that the negative terminal and the positive terminal protrude parallel to one another in longitudinal direction (x) from the housing ; and the negative cell connector and the positive cell connector project in cross direction (z) which is orientated perpendicular to the longitudinal direction (x) at least as much as the housing .
A Btk inhibitor for use in a method for the delay of progression or treatment of cancer in a subject, comprising administering to the subject in need thereof a therapeutically effective amount of the Btk inhibitor, in combination with a therapeutically effective amount of an anti-CD20 antibody, or an anti-PD-1 antibody, wherein the Btk inhibitor is (S)-7-(1-acryloylpiperidin-4-yl)-2-(4-phenoxyphenyl)-4,5,6,7-tetra-hydropyrazolo[1,5-a]pyrimidine-3-carboxamide, or a pharmaceutically acceptable salt thereof, wherein the anti-CD20 antibody is rituximab, ibritumomab tiuxetan, tositumonmab, ofatumumab or obinutuzumab, and wherein the anti-PD-1 antibody is an anti-PD-1 monoclonal antibody comprising a heavy chain variable region (Vh) amino acid sequence of SEQ ID No 24, a light chain variable region (Vl) amino acid sequence of SEQ ID No 26, and a IgG4 constant domain amino acid sequence of SEQ ID NO 88. wherein the Btk inhibitor is (S)-7-(1-acryloylpiperidin-4-yl)-2-(4-phenoxyphenyl)-4,5,6,7-tetra-hydropyrazolo[1,5-a]pyrimidine-3-carboxamide, or a pharmaceutically acceptable salt thereof, wherein the anti-CD20 antibody is rituximab, ibritumomab tiuxetan, tositumonmab, ofatumumab or obinutuzumab, and wherein the anti-PD-1 antibody is an anti-PD-1 monoclonal antibody comprising a heavy chain variable region (Vh) amino acid sequence of SEQ ID No 24, a light chain variable region (Vl) amino acid sequence of SEQ ID No 26, and a IgG4 constant domain amino acid sequence of SEQ ID NO 88.
Display device for a motor vehicle, which comprises: - at least one support structure ; - at least one electronic control apparatus mechanically mounted on said support structure , which comprises: - a computing unit ; - at least one memory unit electrically connected to at least said computing unit ; - at least one receiver module electrically connected at least to said computing unit ; - at least one display mechanically mounted on said support structure and electrically connected to said electronic control apparatus and visible from the outside by a user; - said memory unit contains a plurality of images , in which each image has associated at least one identifier; characterized by the fact that - said receiver module is configured to receive at least one command signal containing at least said identifier of at least one said image contained in said memory unit ; - said computing unit is programmed to receive said command signal from said receiver module , to select said image equipped with said identifier contained in said command signal and to send a display signal to said display comprising at least said image contained in said memory unit . - at least one support structure ; - at least one electronic control apparatus mechanically mounted on said support structure , which comprises: - a computing unit ; - at least one memory unit electrically connected to at least said computing unit ; - at least one receiver module electrically connected at least to said computing unit ; - at least one display mechanically mounted on said support structure and electrically connected to said electronic control apparatus and visible from the outside by a user; - said memory unit contains a plurality of images , in which each image has associated at least one identifier; - a computing unit ; - at least one memory unit electrically connected to at least said computing unit ; - at least one receiver module electrically connected at least to said computing unit ; - at least one display mechanically mounted on said support structure and electrically connected to said electronic control apparatus and visible from the outside by a user; - said memory unit contains a plurality of images , in which each image has associated at least one identifier; - said receiver module is configured to receive at least one command signal containing at least said identifier of at least one said image contained in said memory unit ; - said computing unit is programmed to receive said command signal from said receiver module , to select said image equipped with said identifier contained in said command signal and to send a display signal to said display comprising at least said image contained in said memory unit .
A pulse arc welding power supply comprising: a power control circuit (PM) configured to output a welding current (Iw) for a repetition of a pulse period (Tf) including a combination of a rising period (Tu), a peak period (Tp), a falling period (Td) and a base period (Tb), the power control circuit (PM) outputting: a rising transient current increasing from a base current (Ib) to a peak current (Ip) during the rising period (Tu); the peak current (Ip) during the peak period (Tp); a falling transient current decreasing from the peak current (Ip) to the base current (Ib) during the falling period (Td); and the base current (Ib) during the base period (Tb); characterized in that it further comprises a short circuit occurrence timing detection circuit (TSA) configured to detect a timing when a short circuit occurs between a welding wire and a base material for every pulse period (Tf); a total correction amount calculation circuit (SD) configured to calculate a sum of correction amounts for a correction cycle including a predetermined number of pulse periods (Tf), each correction amount being predetermined correspondingly to a short circuit occurrence timing during a pulse period (Tf); and a parameter correction circuit (PC) configured to adjust, based on the sum of correction amounts, at least one pulse parameter relating to a waveform of the welding current (Iw). a short circuit occurrence timing detection circuit (TSA) configured to detect a timing when a short circuit occurs between a welding wire and a base material for every pulse period (Tf); a total correction amount calculation circuit (SD) configured to calculate a sum of correction amounts for a correction cycle including a predetermined number of pulse periods (Tf), each correction amount being predetermined correspondingly to a short circuit occurrence timing during a pulse period (Tf); and a parameter correction circuit (PC) configured to adjust, based on the sum of correction amounts, at least one pulse parameter relating to a waveform of the welding current (Iw).
An aircraft gas turbine engine comprising: a compressor system comprising a low pressure compressor coupled to a low pressure shaft , and a high pressure compressor coupled to a high pressure shaft ; an inner core casing provided radially inwardly of compressor blades of the compressor system; a fan coupled to the low pressure shaft via a reduction gearbox ; the high pressure compressor comprises an outer core casing arrangement provided radially outwardly of compressor blades of the high pressure compressor , the inner core casing and outer core casing arrangement defining a core working gas flow path (B) therebetween; characterised in that the outer core casing arrangement comprises a first outer core casing and a second outer core casing spaced radially outward from the first outer core casing , and spaced radially inwardly from a bypass nacelle inner casing ; wherein, at an axial plane (E) of an inlet to the high pressure compressor , the second outer core casing has a radius greater than 0.25 times a radius of the fan . a compressor system comprising a low pressure compressor coupled to a low pressure shaft , and a high pressure compressor coupled to a high pressure shaft ; an inner core casing provided radially inwardly of compressor blades of the compressor system; a fan coupled to the low pressure shaft via a reduction gearbox ; the high pressure compressor comprises an outer core casing arrangement provided radially outwardly of compressor blades of the high pressure compressor , the inner core casing and outer core casing arrangement defining a core working gas flow path (B) therebetween; characterised in that the outer core casing arrangement comprises a first outer core casing and a second outer core casing spaced radially outward from the first outer core casing , and spaced radially inwardly from a bypass nacelle inner casing ; wherein, at an axial plane (E) of an inlet to the high pressure compressor , the second outer core casing has a radius greater than 0.25 times a radius of the fan .
A method for generating an index of compatibility between two ends of two tubes, in particular before welding operations, said method comprising the steps of: (a) marking an angular reference (M 0 ) on each of the two ends; (b) orbitally measuring a characteristic relating to the profile of each of the ends; (c) determining an index (IND thetak ) of angular compatibility between the two ends for an angular deviation (Θ, theta) between the angular references of said ends, this angular compatibility index being derived from a difference maximum between the orbital measurements, this maximum being searched for facing places of the profile, (d) iterating the determination of the angular compatibility index for a plurality of values of angular deviation between the angular references of said ends; (e) generating an overall score (Hk) of compatibility between these two ends, the overall compatibility score being a function of the angular compatibility indexes determined for a plurality of angular deviation values, said overall score (Hk) of compatibility between the two ends takes a discrete score among: - compatible (c), or; - compatible on condition of controlled angular presentation (cc), or alternatively; - incompatible (nc). (a) marking an angular reference (M 0 ) on each of the two ends; (b) orbitally measuring a characteristic relating to the profile of each of the ends; (c) determining an index (IND thetak ) of angular compatibility between the two ends for an angular deviation (Θ, theta) between the angular references of said ends, this angular compatibility index being derived from a difference maximum between the orbital measurements, this maximum being searched for facing places of the profile, (d) iterating the determination of the angular compatibility index for a plurality of values of angular deviation between the angular references of said ends; (e) generating an overall score (Hk) of compatibility between these two ends, the overall compatibility score being a function of the angular compatibility indexes determined for a plurality of angular deviation values, - compatible (c), or; - compatible on condition of controlled angular presentation (cc), or alternatively; - incompatible (nc).
A hydraulic drive unit of a closed circuit type for driving a hydraulic actuator including a pair of supply-discharge ports , the hydraulic drive unit comprising: a pump including a casing , a pair of pump ports , and an air vent port provided in the casing from which air in the casing is discharged to an outside of the casing together with hydraulic oil; a pair of supply-discharge lines for connecting between the pair of pump ports and the pair of supply-discharge ports of the hydraulic actuator; a valve block that incorporates at least one valve therein, the at least one valve being provided on the pair of supply-discharge lines and/or oil passages connected to the pair of supply-discharge lines; a sealed tank that is connected to the pair of supply-discharge lines, the sealed tank storing the hydraulic oil; a suction line that leads the hydraulic oil in the sealed tank to the pump; a connecting line that connects the air vent port to the suction line; and a gas-liquid separator that separates air and the hydraulic oil flowing through the connecting line from each other, the gas-liquid separator supplying the separated hydraulic oil to the suction line while releasing the separated air from the connecting line, wherein the pump is disposed upward of the valve block and the sealed tank in a vertical direction. a pump including a casing , a pair of pump ports , and an air vent port provided in the casing from which air in the casing is discharged to an outside of the casing together with hydraulic oil; a pair of supply-discharge lines for connecting between the pair of pump ports and the pair of supply-discharge ports of the hydraulic actuator; a valve block that incorporates at least one valve therein, the at least one valve being provided on the pair of supply-discharge lines and/or oil passages connected to the pair of supply-discharge lines; a sealed tank that is connected to the pair of supply-discharge lines, the sealed tank storing the hydraulic oil; a suction line that leads the hydraulic oil in the sealed tank to the pump; a connecting line that connects the air vent port to the suction line; and a gas-liquid separator that separates air and the hydraulic oil flowing through the connecting line from each other, the gas-liquid separator supplying the separated hydraulic oil to the suction line while releasing the separated air from the connecting line, wherein the pump is disposed upward of the valve block and the sealed tank in a vertical direction.
Manifold arrangement of a heating or cooling system comprising a manifold and means for fixing the manifold to a part of a building, wherein the fixing means comprise a mounting rail which runs parallel to the manifold , characterized in that at least one mounting clip is clipped to the mounting rail , wherein the manifold is connected to the mounting clip which comprises a track arrangement running perpendicular to a longitudinal extension of the mounting rail and having a geometry, wherein the manifold comprises a mounting member with a corresponding counter geometry, configured for engagement with the track arrangement geometry.
A method of a user equipment, UE , in a wireless communication system, the method comprising: identifying whether the UE is in a camped on any cell state or a camped normally state; monitoring a short message in case that the UE is in the camped on any cell state or the camped normally state; and monitoring a paging message in case that the UE is in the camped normally state, wherein the short message is received via downlink control information, DCI, with or without the paging message using a short message field. identifying whether the UE is in a camped on any cell state or a camped normally state; monitoring a short message in case that the UE is in the camped on any cell state or the camped normally state; and monitoring a paging message in case that the UE is in the camped normally state, wherein the short message is received via downlink control information, DCI, with or without the paging message using a short message field.
A battery pack temperature detection system, comprising a battery pack, disposed with a plurality of temperature monitoring points, wherein the plurality of temperature monitoring points at least comprises a temperature monitoring point disposed at a positive electrode of the battery pack, a temperature monitoring point disposed at a negative electrode of the battery pack, and a temperature monitoring point disposed at a region between the positive and negative electrodes of the battery pack; a plurality of sampling circuits, wherein each temperature monitoring point of the plurality of temperature monitoring points is disposed with at least two sampling circuits of the plurality of sampling circuits, and the at least two sampling circuits of the plurality of sampling circuits are different sampling circuits; a control module comprising at least two analog-digital conversion units and being configured to: acquire temperature data of each temperature monitoring point of the plurality of temperature monitoring points by each of the at least two sampling circuits associated therewith and determine a current temperature of the battery pack according to the temperature data to determine whether the current temperature of the battery pack exceeds a preset value; wherein the plurality of temperature monitoring points comprises at least one special monitoring point and a non-special monitoring point, each sampling circuit disposed to a special monitoring point is connected with at least two of the analog-digital conversion units in the control module, and all sampling circuits disposed to a non-special monitoring point are connected with the at least two analog-digital conversion units in the control module, and wherein the term non-special monitoring point refers to any temperature monitoring point among the temperature monitoring points except the special monitoring point/points. acquire temperature data of each temperature monitoring point of the plurality of temperature monitoring points by each of the at least two sampling circuits associated therewith and determine a current temperature of the battery pack according to the temperature data to determine whether the current temperature of the battery pack exceeds a preset value; wherein the plurality of temperature monitoring points comprises at least one special monitoring point and a non-special monitoring point, each sampling circuit disposed to a special monitoring point is connected with at least two of the analog-digital conversion units in the control module, and all sampling circuits disposed to a non-special monitoring point are connected with the at least two analog-digital conversion units in the control module, and wherein the term non-special monitoring point refers to any temperature monitoring point among the temperature monitoring points except the special monitoring point/points.