mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method for an elevator communication system inside a building, wherein the elevator communication system is part of an elevator system and the communication method being intended to realize a communication between a first terminal corresponding to a visitor and a second terminal corresponding to a to-be-visited target object inside the building, the communication method comprising the steps of: determining the to-be-visited target object by the first terminal from the elevator communication system ; initiating, via the elevator communication system , a request to establish communication with the second terminal by the first terminal ; accepting the request by the second terminal , and transmitting its second indoor positioning information to the first terminal by the second terminal via the elevator communication system ; and presenting the second indoor positioning information by the first terminal ; and characterized in that the second indoor positioning information is the indoor positioning information of the second terminal acquired by an indoor positioning system . the communication method comprising the steps of: determining the to-be-visited target object by the first terminal from the elevator communication system ; initiating, via the elevator communication system , a request to establish communication with the second terminal by the first terminal ; accepting the request by the second terminal , and transmitting its second indoor positioning information to the first terminal by the second terminal via the elevator communication system ; and presenting the second indoor positioning information by the first terminal ; and determining the to-be-visited target object by the first terminal from the elevator communication system ; initiating, via the elevator communication system , a request to establish communication with the second terminal by the first terminal ; accepting the request by the second terminal , and transmitting its second indoor positioning information to the first terminal by the second terminal via the elevator communication system ; and presenting the second indoor positioning information by the first terminal ; and characterized in that the second indoor positioning information is the indoor positioning information of the second terminal acquired by an indoor positioning system .
A method of measuring and transmitting a Channel occupancy Ratio, CR, by a user equipment, UE, in a wireless communication system, the method comprising: measuring the CR which is evaluated as a ratio of the number of subchannels used for a sidelink transmission of the UE to the total number of subchannels in a CR measurement window; and performing the sidelink transmission based on the measured CR, wherein the sidelink transmission comprises the UE selecting a resource unit corresponding to a specific resource from a resource pool corresponding to a set of resources and the UE transmitting a sidelink signal using the selected resource unit, the method being characterised in that : measuring the CR is performed per resource pool at a subframe N and a size of the CR measurement window is X ms, wherein the CR measurement window consists of a first interval between the subframe N-Y and a subframe N-1, and a second interval between the w subframe N and a subframe N-Y+X, wherein Y ms has passed in the resource pool, wherein the UE measures the CR based on subchannels which were used for the sidelink transmission in the first interval and subchannels which are assumed to be used for the sidelink transmission in the second interval. measuring the CR which is evaluated as a ratio of the number of subchannels used for a sidelink transmission of the UE to the total number of subchannels in a CR measurement window; and performing the sidelink transmission based on the measured CR, wherein the sidelink transmission comprises the UE selecting a resource unit corresponding to a specific resource from a resource pool corresponding to a set of resources and the UE transmitting a sidelink signal using the selected resource unit, the method being characterised in that : measuring the CR is performed per resource pool at a subframe N and a size of the CR measurement window is X ms, wherein the CR measurement window consists of a first interval between the subframe N-Y and a subframe N-1, and a second interval between the w subframe N and a subframe N-Y+X, wherein Y ms has passed in the resource pool, wherein the UE measures the CR based on subchannels which were used for the sidelink transmission in the first interval and subchannels which are assumed to be used for the sidelink transmission in the second interval. measuring the CR is performed per resource pool at a subframe N and a size of the CR measurement window is X ms, wherein the CR measurement window consists of a first interval between the subframe N-Y and a subframe N-1, and a second interval between the w subframe N and a subframe N-Y+X, wherein Y ms has passed in the resource pool, wherein the UE measures the CR based on subchannels which were used for the sidelink transmission in the first interval and subchannels which are assumed to be used for the sidelink transmission in the second interval.
A system comprising: a first wearable sensor , being an inertial sensor; a second sensor , comprising a camera being configured to perform image analysis to determine a user's facial expression and being operable to provide second sensor data; and means for: obtaining first sensor data from the first sensor ; comparing the first sensor data to a context parameter; and causing the second sensor to be dynamically reconfigured based on the comparison to obtain the second sensor data; wherein: the first and second sensor data both indicate a facial expression of the user wearing the first sensor , the first sensor data being based on a detected movement of the user's jaw and being a coarser-grain indication of the facial expression than the second sensor data which is based on image analysis; and use of the second sensor to provide the second sensor data has a higher resource consumption than use of the first sensor to provide the first sensor data. a first wearable sensor , being an inertial sensor; a second sensor , comprising a camera being configured to perform image analysis to determine a user's facial expression and being operable to provide second sensor data; and means for: obtaining first sensor data from the first sensor ; comparing the first sensor data to a context parameter; and causing the second sensor to be dynamically reconfigured based on the comparison to obtain the second sensor data; obtaining first sensor data from the first sensor ; comparing the first sensor data to a context parameter; and causing the second sensor to be dynamically reconfigured based on the comparison to obtain the second sensor data; wherein: the first and second sensor data both indicate a facial expression of the user wearing the first sensor , the first sensor data being based on a detected movement of the user's jaw and being a coarser-grain indication of the facial expression than the second sensor data which is based on image analysis; and use of the second sensor to provide the second sensor data has a higher resource consumption than use of the first sensor to provide the first sensor data.
Use of a Real Michael Addition (RMA) crosslinkable composition for the preparation of a floor coating, said RMA crosslinkable composition comprising at least one crosslinkable component comprising reactive components A and B each comprising at least 2 reactive groups wherein the at least 2 reactive groups of component A are acidic protons (C-H) in activated methylene or methine groups, and the at least 2 reactive groups of component B are activated unsaturated groups (C=C) which reactive groups react to achieve crosslinking by RMA reaction between said at least one crosslinkable components in the presence of a base catalyst (C), preferably comprising a reactivity moderator D comprising an X-H group that is also a Michael addition donor reactable with component B under the action of catalyst C, wherein X is C, N, P, O or S to improve open time and preferably an alcohol with 2 to 12 carbon atoms to improve potlife.
Laser scanner (1, 1', 1") for motor vehicles, having at least two optical transmitters for emitting in each case one transmitted light beam onto the scene to be measured and also having an optical deflecting device , which is arranged in the beam path of at least one transmitted light beam upstream of a micromirror and is embodied and arranged such that the transmitted light beams are guided onto the micromirror , wherein the deflecting device has at least one deflecting mirror arranged in the beam path of a transmitted light beam and wherein the optical transmitters are arranged in a row, characterized in that in each case one deflecting mirror is assigned to the outwardly located optical transmitters and in that the deflecting mirrors are arranged and oriented relative to the respectively assigned optical transmitter such that the respective transmitted light beams are reflected onto the micromirror at a specified angular distance (α) from the neighbouring transmitted light beams , wherein the transmitted light beams lie in a common scanning plane.
Device for fitting a rivet in an orifice provided in a structure to be worked, said device comprising at least: - a rivet support module that is able to contain a rivet ; - means for moving said module between at least a rivet loading station (P3) and a workstation (P5) for fitting the rivet; - means for introducing a rivet into said module at said loading station (P3); - means for discharging a rivet contained in said module out of the latter at said workstation (P5), said means for discharging being configured to fit said rivet in said orifice, characterized in that said module comprises a sheath housing a piston mounted so as to be able to move in translation inside said sheath between at least: - a retracted position in which it extends inside said sheath , and - a deployed position in which it extends at least partly outside said sheath , said module comprising means for holding said rivet at the end of said piston , said means for discharging comprise a telescopic spindle , mounted so as to be able to move in translation along the axis of said module , comprising an end intended to come into contact with a rivet placed in said module , said device comprising means (510, T) for driving said spindle in translation. - a rivet support module that is able to contain a rivet ; - means for moving said module between at least a rivet loading station (P3) and a workstation (P5) for fitting the rivet; - means for introducing a rivet into said module at said loading station (P3); - means for discharging a rivet contained in said module out of the latter at said workstation (P5), said means for discharging being configured to fit said rivet in said orifice, characterized in that said module comprises a sheath housing a piston mounted so as to be able to move in translation inside said sheath between at least: - a retracted position in which it extends inside said sheath , and - a deployed position in which it extends at least partly outside said sheath , said module comprising means for holding said rivet at the end of said piston ,
A method of imaging in a patient, the method comprising: acquiring a plurality of raw radio frequency (RF) signals using a pulse-echo ultrasound transducer , each of the plurality of raw RF signals representing a return signal from a scan line of a pulse-echo ultrasound ; determining a position of the pulse-echo ultrasound transducer corresponding to each of the acquired raw RF signals, using a tracking element ; generating a plurality of bone surface contour lines from the plurality of raw RF signals; and estimating a 3-D shape and position of an anatomical feature of the patient based on the generated contour lines and corresponding ultrasound transducer positions, wherein acquiring the plurality of raw RF signals includes: acquiring at least one raw RF signal having a first frequency; and acquiring at least one other raw RF signal having a second frequency different from the first frequency. acquiring a plurality of raw radio frequency (RF) signals using a pulse-echo ultrasound transducer , each of the plurality of raw RF signals representing a return signal from a scan line of a pulse-echo ultrasound ; determining a position of the pulse-echo ultrasound transducer corresponding to each of the acquired raw RF signals, using a tracking element ; generating a plurality of bone surface contour lines from the plurality of raw RF signals; and estimating a 3-D shape and position of an anatomical feature of the patient based on the generated contour lines and corresponding ultrasound transducer positions, wherein acquiring the plurality of raw RF signals includes: acquiring at least one raw RF signal having a first frequency; and acquiring at least one other raw RF signal having a second frequency different from the first frequency. acquiring at least one raw RF signal having a first frequency; and acquiring at least one other raw RF signal having a second frequency different from the first frequency.
A heat transfer suppression sheet (A50; A60; A90; A95; A110; A120; A130; B60) for a battery pack (A100; B100), the heat transfer suppression sheet (A50; A60; A90; A95; A110; A120; A130; B60) being used in a battery pack (A100; B100) in which battery cells (A20; B20) are connected in series or in parallel, and being interposed between the battery cells (A20; B20), the heat transfer suppression sheet (A50; A60; A90; A95; A110; A120; A130; B60) comprising: a heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) containing at least one of inorganic particles or inorganic fibers; and a covering material (A52; B52) covering at least a part of the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), wherein a gap (A14; B14) is formed between the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) and the covering material (A52; B52), wherein the covering material (A52; B52) has a concave portion (A53a; B53a) and a convex portion (A53b; B53b) on the surface facing the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), the gap (A14; B14) is formed between the concave portion (A53a; B53a) and the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), and the gap (A14; B14) communicates with the outside of the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) and the covering material (A52; B52). a heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) containing at least one of inorganic particles or inorganic fibers; and a covering material (A52; B52) covering at least a part of the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), wherein a gap (A14; B14) is formed between the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) and the covering material (A52; B52), wherein the covering material (A52; B52) has a concave portion (A53a; B53a) and a convex portion (A53b; B53b) on the surface facing the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), the gap (A14; B14) is formed between the concave portion (A53a; B53a) and the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71), and the gap (A14; B14) communicates with the outside of the heat-insulating material (A11; A21; A31; A41; A51; A61; A71; B11; B21; B31; B41; B61; B71) and the covering material (A52; B52).
A wax for toners for developing electrostatic images, wherein the wax is an ester wax generated by esterification of a pentaerythritol and a monocarboxylic acid; wherein the monocarboxylic acid used for the esterification contains a behenic acid, an arachidic acid and a stearic acid; and wherein, with respect to 100% by mass of the monocarboxylic acid, a content ratio of the behenic acid is from 60% by mass to 80% by mass; a content ratio of the arachidic acid is from 5% by mass to 15% by mass; and a content ratio of the stearic acid is from 15% by mass to 25% by mass. wherein the wax is an ester wax generated by esterification of a pentaerythritol and a monocarboxylic acid; wherein the monocarboxylic acid used for the esterification contains a behenic acid, an arachidic acid and a stearic acid; and wherein, with respect to 100% by mass of the monocarboxylic acid, a content ratio of the behenic acid is from 60% by mass to 80% by mass; a content ratio of the arachidic acid is from 5% by mass to 15% by mass; and a content ratio of the stearic acid is from 15% by mass to 25% by mass.
Shaped component as a connecting element for connecting two cable guide components comprising a base metal-plate and at least two torsion tabs , wherein the torsion tabs include a torsion region and a tab head , wherein an extension of the torsion region perpendicular to a central longitudinal axis of the torsion tabs is smaller than an extension of the tab head perpendicular to a central longitudinal axis of the torsion tabs , and wherein the tab head comprises a clamping region and wherein the torsion tabs are detached from the base metal plate and project from a base plate plane .
A power line communication device comprising: a transmission processing unit for generating a transmission signal from transmission data to be output to a power line; an inverter noise detection processing unit for detecting inverter noise by a DC/AC inverter of the power line, a transmission position determination unit for determining a transmission period of the transmission signal; and an output unit for outputting the transmission signal in the transmission period, wherein the transmission position determination unit is configured to determine the transmission period based on an amplitude of the transmission signal and a noise voltage amplitude of the power line, the noise voltage amplitude being a voltage amplitude of the inverter noise. a transmission processing unit for generating a transmission signal from transmission data to be output to a power line; an inverter noise detection processing unit for detecting inverter noise by a DC/AC inverter of the power line, a transmission position determination unit for determining a transmission period of the transmission signal; and an output unit for outputting the transmission signal in the transmission period, wherein the transmission position determination unit is configured to determine the transmission period based on an amplitude of the transmission signal and a noise voltage amplitude of the power line, the noise voltage amplitude being a voltage amplitude of the inverter noise.
An expanded human cord blood stem cell sample comprising Notch agonist-expanded hematopoietic stem cells or Notch agonist-expanded hematopoietic stem and progenitor cells for use in a method for treating pancytopenia, neutropenia, or leukopenia in a human patient in need thereof, which method comprises administering the sample, or an aliquot thereof, to the patient, wherein the administering is without regard to the HLA type of the patient or the HLA type of the sample.
Method for preparing a curd body used in cheese making, said method comprising the steps of: feeding a drainage column with a curd and whey mixture , whereby said curd and whey mixture will be compressed and form a curd body ; forming at least a portion of the curd body with a profiled surface (134', 132, 122") having a pattern of alternating ridges and grooves (134'A, 134'B, 132A, 132B, 122"A, 122"B), wherein said curd body comprises a bottom side resting on a resting surface of said drainage column , and at least one lateral side connected to said bottom side , the method further comprising the steps of: transferring at least a portion of the lateral side , and said bottom side of the curd body into a dosage chamber having a dosing plate , such that said bottom side of the curd body rests on said dosing plate , characterized in that the profiled surface is at least comprised in said dosing plate , whereby said bottom side of the curd body will be formed by said pattern of alternating ridges and groves (134'A, 134'B). feeding a drainage column with a curd and whey mixture , whereby said curd and whey mixture will be compressed and form a curd body ; forming at least a portion of the curd body with a profiled surface (134', 132, 122") having a pattern of alternating ridges and grooves (134'A, 134'B, 132A, 132B, 122"A, 122"B), wherein said curd body comprises a bottom side resting on a resting surface of said drainage column , and at least one lateral side connected to said bottom side , the method further comprising the steps of: transferring at least a portion of the lateral side , and said bottom side of the curd body into a dosage chamber having a dosing plate , such that said bottom side of the curd body rests on said dosing plate , characterized in that the profiled surface is at least comprised in said dosing plate , whereby said bottom side of the curd body will be formed by said pattern of alternating ridges and groves (134'A, 134'B). transferring at least a portion of the lateral side , and said bottom side of the curd body into a dosage chamber having a dosing plate , such that said bottom side of the curd body rests on said dosing plate , characterized in that the profiled surface is at least comprised in said dosing plate , whereby said bottom side of the curd body will be formed by said pattern of alternating ridges and groves (134'A, 134'B).
A printing apparatus comprising: a carriage including a print head that discharges ink, the carriage reciprocally moving relative to a print medium ; and wiping means for wiping a discharge port surface in which an ink discharge port of the print head is formed; characterized by further comprising: control means for controlling a movement operation of the carriage and a wiping operation of the wiping means such that when a deceleration (a) when stopping the carriage for the wiping operation is a first deceleration (a802), a time (T w ) from when the carriage stops to when the wiping means starts wiping the discharge port surface is set to a first time (T802), and when the deceleration when stopping the carriage is a second deceleration (a801) lower than the first deceleration, the time from when the carriage stops to when the wiping means starts wiping the discharge port surface is set to a second time (T801) shorter than the first time. a carriage including a print head that discharges ink, the carriage reciprocally moving relative to a print medium ; and wiping means for wiping a discharge port surface in which an ink discharge port of the print head is formed; characterized by further comprising: control means for controlling a movement operation of the carriage and a wiping operation of the wiping means such that when a deceleration (a) when stopping the carriage for the wiping operation is a first deceleration (a802), a time (T w ) from when the carriage stops to when the wiping means starts wiping the discharge port surface is set to a first time (T802), and when the deceleration when stopping the carriage is a second deceleration (a801) lower than the first deceleration, the time from when the carriage stops to when the wiping means starts wiping the discharge port surface is set to a second time (T801) shorter than the first time.