mhurhangee/patent-ind-claim-en huggingface dataset:
A seat pad having a loading surface , wherein a lateral slit portion , extending from an outside towards an inside of the seat pad in a first lateral direction (B1) that is parallel to the loading surface , is formed; a longitudinal slit portion is provided at an end portion of the lateral slit portion , in a second lateral direction (B2) that is orthogonal to the first lateral direction (B1) and that is parallel to the loading surface ; and the longitudinal slit portion extends from the lateral slit portion towards the loading surface in a thickness direction (H) that is orthogonal to the loading surface , characterised in that lateral slit portions as defined above are provided separately in parts of the seat pad that are located on both sides in the first lateral direction (B1).
A method for temperature compensation of a signal in a vibratory meter, the method comprising: obtaining two or more signals from a meter assembly in the vibratory meter; providing the two or more signals to an analog circuit in a meter electronics of the vibratory meter; determining a time delay between the two or more signals; characterized by : measuring a temperature of the analog circuit in the meter electronics; and generating a signal parameter offset for compensating the time delay by correlating the signal parameter offset with the measured temperature. obtaining two or more signals from a meter assembly in the vibratory meter; providing the two or more signals to an analog circuit in a meter electronics of the vibratory meter; determining a time delay between the two or more signals; characterized by : measuring a temperature of the analog circuit in the meter electronics; and generating a signal parameter offset for compensating the time delay by correlating the signal parameter offset with the measured temperature. measuring a temperature of the analog circuit in the meter electronics; and generating a signal parameter offset for compensating the time delay by correlating the signal parameter offset with the measured temperature.
A conjugate of a cell-penetrating carrier peptide and an active ingredient, wherein the carrier peptide consists of the amino acid sequence of SEQ ID NO: 1, and wherein the active ingredient is selected from a protein, a nucleic acid, a peptide, a mineral, a sugar, a nano-particle, a biological product, a contrast agent, a drug and a chemical compound, wherein the carrier peptide and the active ingredient are combined via a covalent bond via the C-terminus of the carrier peptide. wherein the carrier peptide consists of the amino acid sequence of SEQ ID NO: 1, and wherein the active ingredient is selected from a protein, a nucleic acid, a peptide, a mineral, a sugar, a nano-particle, a biological product, a contrast agent, a drug and a chemical compound, wherein the carrier peptide and the active ingredient are combined via a covalent bond via the C-terminus of the carrier peptide.
A method of wireless communication, comprising: receiving, at a user equipment, UE , from a serving base station, wherein the UE is configured by the serving base station for carrier aggregation, CA, using a primary cell, PCell, in dedicated spectrum and secondary cell, SCell, in a shared spectrum, a radio resource management, RRM, measurement configuration for one or more frequency channels of a shared frequency band , the RRM measurement configuration comprising a received signal strength indicator, RSSI, observation period and at least one channel occupancy measurement parameter for the one or more frequency channels, wherein the at least one channel occupancy measurement parameter is an RSSI threshold; determining, at the UE at least one channel occupancy metric for the one or more frequency channels by determining a percentage of time RSSI measurements are above the RSSI threshold over the RSSI observation period, wherein the at least one channel occupancy metric for the one or more frequency channels is determined for a time period including one or more discovery reference signal, DRS, transmissions from a configured SCell , wherein the determining comprises subtracting a reference signal received power, RSRP, associated with the configured SCell from a measured received signal strength indicator, RSSI, for the one or more DRS transmissions; and reporting , by the UE to the serving base station , the at least one channel occupancy metric. receiving, at a user equipment, UE , from a serving base station, wherein the UE is configured by the serving base station for carrier aggregation, CA, using a primary cell, PCell, in dedicated spectrum and secondary cell, SCell, in a shared spectrum, a radio resource management, RRM, measurement configuration for one or more frequency channels of a shared frequency band , the RRM measurement configuration comprising a received signal strength indicator, RSSI, observation period and at least one channel occupancy measurement parameter for the one or more frequency channels, wherein the at least one channel occupancy measurement parameter is an RSSI threshold; determining, at the UE at least one channel occupancy metric for the one or more frequency channels by determining a percentage of time RSSI measurements are above the RSSI threshold over the RSSI observation period, wherein the at least one channel occupancy metric for the one or more frequency channels is determined for a time period including one or more discovery reference signal, DRS, transmissions from a configured SCell , wherein the determining comprises subtracting a reference signal received power, RSRP, associated with the configured SCell from a measured received signal strength indicator, RSSI, for the one or more DRS transmissions; and reporting , by the UE to the serving base station , the at least one channel occupancy metric.
Cleaning cloth and mop base with coupling devices , where said cleaning cloth includes tabs on the transverse sides that can automatically connect to the coupling devices of the aforesaid base placed at the transverse ends of said base , where each coupling device is configured with an inlet mouth for the entrance of the end of the cloth , which is normally closed by elastic devices on the coupling device , characterised by the fact that each of the two transverse ends of the cloth comprises a tab , which is configured with a profile that has an increasing cross-section , starting from the free end , and is able to open wide said inlet , while, with an insertion movement, it enters the mouth opening with an extension at least equal to the maximum thickness of the increasing cross-section , and the sectional profile of said tab , after the maximum thickness , decreases with a steep front of the decreasing profile that is orthogonal to said movement for inserting said tab inside said inlet , said decreasing profile joins to the profile of an internal wall of the coupling devices for retaining the coupling device , after the inlet has closed on the connecting lamina of the increased section with the cloth . said cleaning cloth includes tabs on the transverse sides that can automatically connect to the coupling devices of the aforesaid base placed at the transverse ends of said base , where each coupling device is configured with an inlet mouth for the entrance of the end of the cloth , which is normally closed by elastic devices on the coupling device , characterised by the fact that each of the two transverse ends of the cloth comprises a tab , which is configured with a profile that has an increasing cross-section , starting from the free end , and is able to open wide said inlet , while, with an insertion movement, it enters the mouth opening with an extension at least equal to the maximum thickness of the increasing cross-section , and the sectional profile of said tab , after the maximum thickness , decreases with a steep front of the decreasing profile that is orthogonal to said movement for inserting said tab inside said inlet , said decreasing profile joins to the profile of an internal wall of the coupling devices for retaining the coupling device , after the inlet has closed on the connecting lamina of the increased section with the cloth .
A piece of sportswear with at least one controlled temperature zone (10.1, ..., 10.6) comprising a textile fabric structure (11.1, ..., 11.6), which is locally shirred over tension zones (15.1, ..., 15.6) into webs, wherein the webs (14.1, ..., 14.6) are designed to contact the skin of the wearer on the inner side of the fabric structure (11.1, ..., 11.6), wherein inner air channels (13.1, ..., 13.6) are formed between adjacent webs (14.1, ..., 14.6), wherein a respective at least one channel is formed on the rear face of the webs (14.1, ..., 14.6) on the shirred fabric structure (11.1, ..., 11.6), and forms an outer air channel (18.1, ..., 18.6), and wherein several webs (14.1, ..., 14.6) are arranged one over the other in the controlled temperature zone (10.1, ..., 10.6), characterized in that - a plurality of isolated controlled temperature elements (12.1, ..., 12.6) are arranged in the controlled temperature zone (10.1, ..., 10.6), and contain short webs (14.1, ..., 14.6) that are separated from each other by lateral separation zones (16.1, ..., 16.6), - adjacent inner air channels (13.1, ..., 13.6) on the inner side of the fabric structure (11.1, ..., 11.6) are connected with each other by the separation zones (16.1, ..., 16.6), and - the separation zones (16.1, ..., 16.6) between the controlled temperature elements (12.1, ..., 12.6) are laterally offset to each other, such that the controlled temperature elements (12.1, ..., 12.6) at least partially overlap in relation to the longitudinal extension of the vertical body axis (X). - a plurality of isolated controlled temperature elements (12.1, ..., 12.6) are arranged in the controlled temperature zone (10.1, ..., 10.6), and contain short webs (14.1, ..., 14.6) that are separated from each other by lateral separation zones (16.1, ..., 16.6), - adjacent inner air channels (13.1, ..., 13.6) on the inner side of the fabric structure (11.1, ..., 11.6) are connected with each other by the separation zones (16.1, ..., 16.6), and - the separation zones (16.1, ..., 16.6) between the controlled temperature elements (12.1, ..., 12.6) are laterally offset to each other, such that the controlled temperature elements (12.1, ..., 12.6) at least partially overlap in relation to the longitudinal extension of the vertical body axis (X).
An aircraft environmental control system comprising a double-walled pipe for transporting air of the environmental control system and further comprising; air; and a temperature-controlled fluid for avoiding ice build-up within the double-walled pipe, wherein the double-walled pipe comprises: an inner wall , which bounds a flowpath for the air; an outer wall radially spaced from the inner wall so that there is an annular gap between the inner wall and the outer wall; and walls (30; 40; 42) extending in the annular gap between the inner wall and the outer wall, such that flow passages are formed in the annular gap, through which, in use, the temperature-controlled fluid is circulated to control the temperature of the inner wall; wherein the double-walled pipe is formed by an additive manufacturing process. an inner wall , which bounds a flowpath for the air; an outer wall radially spaced from the inner wall so that there is an annular gap between the inner wall and the outer wall; and walls (30; 40; 42) extending in the annular gap between the inner wall and the outer wall, such that flow passages are formed in the annular gap, through which, in use, the temperature-controlled fluid is circulated to control the temperature of the inner wall; wherein the double-walled pipe is formed by an additive manufacturing process.
A memory device, comprising: a chalcogenide material memory storage element with a first surface and a second surface opposite the first surface , the second surface having a greater area than the first surface , wherein a logic state stored to the chalcogenide material memory storage element is based at least in part on the chalcogenide memory material storage element and a concentration of a chemical element relative to the first surface or the second surface , and wherein the concentration of the chemical element relative to the first surface or the second surface is based at least in part on a polarity of a voltage applied across the chalcogenide material memory storage element ; a first electrode coupled with the first surface ; and a second electrode coupled with the second surface and in electronic communication with the first electrode via the chalcogenide material memory storage element . a chalcogenide material memory storage element with a first surface and a second surface opposite the first surface , the second surface having a greater area than the first surface , wherein a logic state stored to the chalcogenide material memory storage element is based at least in part on the chalcogenide memory material storage element and a concentration of a chemical element relative to the first surface or the second surface , and wherein the concentration of the chemical element relative to the first surface or the second surface is based at least in part on a polarity of a voltage applied across the chalcogenide material memory storage element ; a first electrode coupled with the first surface ; and a second electrode coupled with the second surface and in electronic communication with the first electrode via the chalcogenide material memory storage element .
A method at a communication device , the method comprising: indicating a control channel search space by a pair of parameters, wherein the pair of parameters consists of a physical resource block index and a control channel element index, wherein a physical resource block indexed by the physical resource block index is divided into N control channel elements and a control channel element indexed by the control channel element index is one of the N control channel elements; wherein the control channel search space comprises a primary control channel search space element and an additional search space element; wherein the pair of parameters defines the primary control channel search space element; wherein the primary control channel search space element has an aggregation level; wherein the additional control channel search space element includes the primary control channel search space element and has another aggregation level, transmitting on the control channel within the search space. indicating a control channel search space by a pair of parameters, wherein the pair of parameters consists of a physical resource block index and a control channel element index, wherein a physical resource block indexed by the physical resource block index is divided into N control channel elements and a control channel element indexed by the control channel element index is one of the N control channel elements; wherein the control channel search space comprises a primary control channel search space element and an additional search space element; wherein the pair of parameters defines the primary control channel search space element; wherein the primary control channel search space element has an aggregation level; wherein the additional control channel search space element includes the primary control channel search space element and has another aggregation level, transmitting on the control channel within the search space.
A joint device of an orthosis with an upper part and with a lower part arranged on the latter in an articulated manner, with a first fastening device for securing the upper part to a patient and a second fastening device for securing the lower part to a limb, wherein the joint device connects the upper part to the lower part in an articulated manner and has an upper-part connection and a lower-part connection , via which the upper part and the lower part can be secured to the fastening devices , wherein the joint device has at least four degrees of freedom , and wherein an actuator is assigned to at least one rotational degree of freedom , characterized in that the actuator is mounted in or on a holder , which is arranged between the upper part and the lower part and has the at least two degrees of freedom .
A method of tissue assessment, comprising: receiving a data structure correlating values of dielectric parameters with values of at least one parameter of a tissue state, wherein the at least one parameter of a tissue state comprises a reversible lesion type and an irreversible lesion type; determining a value of at least one dielectric parameter of a target tissue , based on signal outputs from multiple electrical circuits, each electrical circuit comprising a first electrode positioned intra-body and in proximity to the target tissue and a second electrode selected from a body surface electrode and an electrode positioned intra-body and in proximity to the target tissue , wherein the signal outputs from the multiple electrical circuits are measured at each of multiple frequencies of an applied electrical field ; estimating a value of the reversible lesion type or the irreversible lesion type, based on the determined values of the at least one dielectric parameter of the target tissue and the received data structure; and providing a feedback indicative of said estimate, wherein the determining and the estimating are performed after ablating of a portion of said target tissue to form a lesion and the feedback comprises an estimate of the irreversibility of lesioning in a region of said ablating. receiving a data structure correlating values of dielectric parameters with values of at least one parameter of a tissue state, wherein the at least one parameter of a tissue state comprises a reversible lesion type and an irreversible lesion type; determining a value of at least one dielectric parameter of a target tissue , based on signal outputs from multiple electrical circuits, each electrical circuit comprising a first electrode positioned intra-body and in proximity to the target tissue and a second electrode selected from a body surface electrode and an electrode positioned intra-body and in proximity to the target tissue , wherein the signal outputs from the multiple electrical circuits are measured at each of multiple frequencies of an applied electrical field ; estimating a value of the reversible lesion type or the irreversible lesion type, based on the determined values of the at least one dielectric parameter of the target tissue and the received data structure; and providing a feedback indicative of said estimate, wherein the determining and the estimating are performed after ablating of a portion of said target tissue to form a lesion and the feedback comprises an estimate of the irreversibility of lesioning in a region of said ablating.
Method for developing a predictive control setpoint that can be implanted in a trajectory control unit of a motor vehicle , the method comprising, for at least one given speed of movement of the motor vehicle on a traffic lane, steps of: - determining a plurality of regulation data (K S ), each regulation datum (K S ) making it possible, from at least one input datum, to generate the command setpoint which satisfies a robustness parameter, and each regulation datum (K S ) being associated with a particular configuration of use of said motor vehicle , - identifying at least one regulation datum (K S ) out of the plurality of determined regulation data (K S ), as a function of a result of a simulation of the trajectory of the motor vehicle on the traffic lane, and - using said at least one identified regulation datum to control the trajectory of said motor vehicle . - determining a plurality of regulation data (K S ), each regulation datum (K S ) making it possible, from at least one input datum, to generate the command setpoint which satisfies a robustness parameter, and each regulation datum (K S ) being associated with a particular configuration of use of said motor vehicle , - identifying at least one regulation datum (K S ) out of the plurality of determined regulation data (K S ), as a function of a result of a simulation of the trajectory of the motor vehicle on the traffic lane, and - using said at least one identified regulation datum to control the trajectory of said motor vehicle .
A headrest (100;200;300) of a seat, comprising: an enclosure for housing one or more acoustic transducers ; an adjustable headrest wing disposed in front of the enclosure, the headrest wing coupled to the enclosure by a pivot , and configured to be adjusted to one of multiple positions within an angle range around the pivot, wherein the headrest wing is configured to support the head of a seat-occupant; and a connector disposed between the enclosure and a rear portion of the headrest wing , the connector configured to provide an acoustic channel between the enclosure and the headrest wing such that audio signals from the one or more acoustic transducers are radiated outward through the headrest wing. an enclosure for housing one or more acoustic transducers ; an adjustable headrest wing disposed in front of the enclosure, the headrest wing coupled to the enclosure by a pivot , and configured to be adjusted to one of multiple positions within an angle range around the pivot, wherein the headrest wing is configured to support the head of a seat-occupant; and a connector disposed between the enclosure and a rear portion of the headrest wing , the connector configured to provide an acoustic channel between the enclosure and the headrest wing such that audio signals from the one or more acoustic transducers are radiated outward through the headrest wing.
A transformer comprising a primary winding , a secondary winding and a shell enclosing the primary winding and separating the primary winding from the secondary winding , wherein the primary winding is encased within a composite insulation within the shell , wherein the composite insulation comprises an inorganic particulate filler impregnated with an oil-based thermo-reversible gel comprising a thickener, the gel being in solid form, wherein the inorganic particulate filler comprises sand.
A monohydrate crystalline form of 6-[ -4-methyl-1-(pyrimidin-2-ylmethyl)pyrrolidin-3-yl]-3-tetrahydropyran-4-yl-7H-imidazo[1,5-a]pyrazin-8-one wherein the monohydrate crystalline form is MH1 having an XRPD pattern comprising peaks of 2θ angles at 9.1, 11.5, 16.2, 16.7, 18.2, 18.9, 19.8, 22.6, and 26.4 degrees 2θ, each ±0.2 degrees 2θ.
An inhibitor of T cell costimulation and/or activation for use in the treatment and/or prevention of pressure overload-induced heart failure, wherein the inhibitor inhibits CD80 and/or CD86.