mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for dyeing molded parts, comprising - a container, - a basket which can be brought into and out of the interior of the container for receiving a number of molded parts to be treated, - a lid, the container being closable with the lid preferably in a pressure, fluid- and/or air-tight manner, and - an arrangement for introducing liquid or powdery surface treatment agents for dyeing into an interior of the closed container, - the arrangement comprising a capsule and a supply device, - the surface treatment agents to be introduced being received in the capsule, and - the supply device being couplable to the capsule in order to supply a gas or a fluid to at least one chamber formed in the capsule in order to transfer the surface treatment agent received in the capsule into the interior of the container, characterized in that the arrangement for introducing liquid or powdery surface agents comprises a capsule receptacle for receiving the capsule, - the capsule receptacle being arranged on the basket, the capsule being arrangeable in the capsule receptacle in such a way that when the basket is introduced into the container, the capsule can be brought up to the supply device and is pressed against the supply device. - a container, - a basket which can be brought into and out of the interior of the container for receiving a number of molded parts to be treated, - a lid, the container being closable with the lid preferably in a pressure, fluid- and/or air-tight manner, and - an arrangement for introducing liquid or powdery surface treatment agents for dyeing into an interior of the closed container, - the arrangement comprising a capsule and a supply device, - the surface treatment agents to be introduced being received in the capsule, and - the supply device being couplable to the capsule in order to supply a gas or a fluid to at least one chamber formed in the capsule in order to transfer the surface treatment agent received in the capsule into the interior of the container, characterized in that the arrangement for introducing liquid or powdery surface agents comprises a capsule receptacle for receiving the capsule, - the capsule receptacle being arranged on the basket, the capsule being arrangeable in the capsule receptacle in such a way that when the basket is introduced into the container, the capsule can be brought up to the supply device and is pressed against the supply device. - the arrangement comprising a capsule and a supply device, - the surface treatment agents to be introduced being received in the capsule, and - the supply device being couplable to the capsule in order to supply a gas or a fluid to at least one chamber formed in the capsule in order to transfer the surface treatment agent received in the capsule into the interior of the container, characterized in that - the capsule receptacle being arranged on the basket, the capsule being arrangeable in the capsule receptacle in such a way that when the basket is introduced into the container, the capsule can be brought up to the supply device and is pressed against the supply device.
A capsule for storing and dispensing dental material, comprising: - a cartridge for the dental material; and - a nozzle, the nozzle being pivotable with respect to the cartridge between a first position in which the capsule is closed for storage and a second position in which the capsule is opened for dispensing the dental material; - wherein the nozzle comprises a bearing member and the cartridge comprises a bearing shell, the bearing member and bearing shell forming a pivot; wherein the capsule further comprises: - at least one material chamber (866, 867) for holding a dental material, and - an annular ridge on the outer surface of the bearing member of the nozzle, wherein the annular ridge provides a part of the at least one material chamber (866, 867) when the nozzle is in the first position, - wherein the annular ridge further comprises a groove which provides a fluid pathway with the at least one material chamber (866, 867) when the nozzle is in the second position; and - wherein the groove is at least partially surrounded by a raised ridge which cooperates with the cartridge and/or the bearing shell to provide a seal for the pathway, such that upon pivoting the nozzle from the first to the second position, the seal between the bearing member and the bearing shell is improved. - a cartridge for the dental material; and - a nozzle, the nozzle being pivotable with respect to the cartridge between a first position in which the capsule is closed for storage and a second position in which the capsule is opened for dispensing the dental material; - wherein the nozzle comprises a bearing member and the cartridge comprises a bearing shell, the bearing member and bearing shell forming a pivot; - at least one material chamber (866, 867) for holding a dental material, and - an annular ridge on the outer surface of the bearing member of the nozzle, wherein the annular ridge provides a part of the at least one material chamber (866, 867) when the nozzle is in the first position, - wherein the annular ridge further comprises a groove which provides a fluid pathway with the at least one material chamber (866, 867) when the nozzle is in the second position; and - wherein the groove is at least partially surrounded by a raised ridge which cooperates with the cartridge and/or the bearing shell to provide a seal for the pathway, such that upon pivoting the nozzle from the first to the second position, the seal between the bearing member and the bearing shell is improved.
Laser irradiation unit for irradiating a target object with high-power laser radiation, the laser irradiation unit comprising: a plurality of rigidly interconnected laser radiation modules (16a, 16b) configured to emit laser radiation (60, 86); a directing unit for orientating the laser radiation modules (16a, 16b) onto the target object, characterised by a target illumination radiation module which is rigidly connected to the laser radiation modules (16a, 16b) and which comprises an illumination source for generating an illumination radiation and a telescope for focussing the illumination radiation; each of the laser radiation modules (16a, 16b) comprising an optical system configured to orientate laser radiation (60, 86) onto a target point of the target object; the laser radiation modules (16a, 16b) and the target illumination radiation module each having a similarly constructed cylindrical housing and being orientated with mutually parallel axes; the radiation modules (16a, 16b, 16c) being modularised in such a way that the optical system of each of the radiation modules (16a, 16b, 16c) comprises a detector (90, 94) for capturing incoming radiation (86, 88). a plurality of rigidly interconnected laser radiation modules (16a, 16b) configured to emit laser radiation (60, 86); a directing unit for orientating the laser radiation modules (16a, 16b) onto the target object, characterised by a target illumination radiation module which is rigidly connected to the laser radiation modules (16a, 16b) and which comprises an illumination source for generating an illumination radiation and a telescope for focussing the illumination radiation; each of the laser radiation modules (16a, 16b) comprising an optical system configured to orientate laser radiation (60, 86) onto a target point of the target object; the laser radiation modules (16a, 16b) and the target illumination radiation module each having a similarly constructed cylindrical housing and being orientated with mutually parallel axes; the radiation modules (16a, 16b, 16c) being modularised in such a way that the optical system of each of the radiation modules (16a, 16b, 16c) comprises a detector (90, 94) for capturing incoming radiation (86, 88).
A method for managing a Hybrid Automatic Repeat reQuest, HARQ, parameter indicating a number of autonomous HARQ transmission attempts to be applied for a transmission on at least one Device-To-Device, D2D, link between a first device and a second device, wherein the transmission on the at least one D2D link is a transmission which does not pass through a network node, wherein the method comprises: determining a load relating to D2D communication between at least the first and second devices (111, 112) on the at least one D2D link; and determining the HARQ parameter based on the load, wherein the determining of the HARQ parameter comprises determining the HARQ parameter as a step function of load, wherein the step function steps down for at least one specific increase of the load. determining a load relating to D2D communication between at least the first and second devices (111, 112) on the at least one D2D link; and determining the HARQ parameter based on the load, wherein the determining of the HARQ parameter comprises determining the HARQ parameter as a step function of load, wherein the step function steps down for at least one specific increase of the load.
Multiple beam charged particle optical system comprising: a charged particle source configured to generate a plurality of charged particle beamlets (22, 37, 47, 57, CPB), charged particle optics configured to direct the charged particle beamlets from the charged particle source towards a target, wherein each charged particle beamlet defines a beamlet centre line, said charged particle optics comprising one or more electrostatic lens arrays, each comprising two or more array electrodes (52, 53) arranged to generate a plurality of electrostatic lenslets (54, 55), wherein each lenslet is arranged to focus a corresponding charged particle beamlet, and wherein each lenslet defines a lenslet optical axis, wherein at least one of said one or more electrostatic lens arrays (31, 41) comprises one or more off-axis electrostatic lenslets (34, 35, 44, 45) arranged such, in operation, the charged particle beamlets (37, 47, 57) enter the off-axis lenslets (37, 47) substantially out of the centre of said lenslets, characterized in that, the optical system is configured such that, in operation, the beamlet centre line of the corresponding charged particle beamlet passes through said off-axis electrostatic lenslet (37, 37, 57) at a distance from its lenslet optical axis (36, 46) such that deflection (39, 49) of said beamlet (37, 47, 57) is effected by said off-axis lenslet (34, 35, 44, 45). a charged particle source configured to generate a plurality of charged particle beamlets (22, 37, 47, 57, CPB), charged particle optics configured to direct the charged particle beamlets from the charged particle source towards a target, wherein each charged particle beamlet defines a beamlet centre line, said charged particle optics comprising one or more electrostatic lens arrays, each comprising two or more array electrodes (52, 53) arranged to generate a plurality of electrostatic lenslets (54, 55), wherein each lenslet is arranged to focus a corresponding charged particle beamlet, and wherein each lenslet defines a lenslet optical axis, wherein at least one of said one or more electrostatic lens arrays (31, 41) comprises one or more off-axis electrostatic lenslets (34, 35, 44, 45) arranged such, in operation, the charged particle beamlets (37, 47, 57) enter the off-axis lenslets (37, 47) substantially out of the centre of said lenslets, characterized in that, the optical system is configured such that, in operation, the beamlet centre line of the corresponding charged particle beamlet passes through said off-axis electrostatic lenslet (37, 37, 57) at a distance from its lenslet optical axis (36, 46) such that deflection (39, 49) of said beamlet (37, 47, 57) is effected by said off-axis lenslet (34, 35, 44, 45).
A method of performing a cell reselection procedure in a wireless communication system, the method comprising: evaluating priorities of a serving cell and neighbor cells, wherein the serving cell and neighbor cells use different frequency bands, wherein the priorities are received using system information from a base station, wherein the priorities are provided to determine a priority between the different frequency bands; performing inter- frequency measurement on a neighbor cell which has a higher priority than the serving cell, wherein the inter-frequency measurement is performed irrespective of signal measurement of the serving cell; performing the inter-frequency measurement on a neighbor cell which has an equal or lower priority than the serving cell, when a signal characteristic of the serving cell is less than a threshold for the inter-frequency measurement; and performing cell reselection according to the priorities. evaluating priorities of a serving cell and neighbor cells, wherein the serving cell and neighbor cells use different frequency bands, wherein the priorities are received using system information from a base station, wherein the priorities are provided to determine a priority between the different frequency bands; performing inter- frequency measurement on a neighbor cell which has a higher priority than the serving cell, wherein the inter-frequency measurement is performed irrespective of signal measurement of the serving cell; performing the inter-frequency measurement on a neighbor cell which has an equal or lower priority than the serving cell, when a signal characteristic of the serving cell is less than a threshold for the inter-frequency measurement; and performing cell reselection according to the priorities.
Method for autonomously driving a motor vehicle, comprising the steps of: - receiving a reference trajectory for a route to be travelled along by the motor vehicle from a central server apparatus by the motor vehicle, wherein a continuous sequence of steering manoeuvres and/or acceleration manoeuvres and/or braking manoeuvres is defined by means of the reference trajectory, - acquiring surroundings data from a sensing apparatus of the motor vehicle, wherein a camera, a radar sensor, an ultrasonic sensor or a lidar sensor are used as the sensing apparatus, - checking the possibility of travelling along the reference trajectory on the basis of the surroundings data, - generating a travel trajectory by correcting the reference trajectory on the basis of the surroundings data, and - autonomously driving the motor vehicle along the travel trajectory by means of a control device of the motor vehicle, wherein - the reference trajectory used is one, which is formed by a central server apparatus independently of the surroundings data on the basis of lane data, wherein the lane data describes a carriageway profile of a road, along which the route leads. - receiving a reference trajectory for a route to be travelled along by the motor vehicle from a central server apparatus by the motor vehicle, wherein a continuous sequence of steering manoeuvres and/or acceleration manoeuvres and/or braking manoeuvres is defined by means of the reference trajectory, - acquiring surroundings data from a sensing apparatus of the motor vehicle, wherein a camera, a radar sensor, an ultrasonic sensor or a lidar sensor are used as the sensing apparatus, - checking the possibility of travelling along the reference trajectory on the basis of the surroundings data, - generating a travel trajectory by correcting the reference trajectory on the basis of the surroundings data, and - autonomously driving the motor vehicle along the travel trajectory by means of a control device of the motor vehicle, wherein - the reference trajectory used is one, which is formed by a central server apparatus independently of the surroundings data on the basis of lane data, wherein the lane data describes a carriageway profile of a road, along which the route leads.
A method for manufacturing a direct thermal linerless label web, the direct thermal linerless label web comprising a face having a multilayer structure comprising at least three layers, the face comprising - a base layer, - a direct thermal printable coating, and - an intermediate layer disposed between the base layer and the direct thermal printable coating, wherein - the intermediate layer has a grammage in a range between 0.9 g/m 2 and 7 g/m 2, - the intermediate layer comprises ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, - total amount of mineral pigments in the intermediate layer is equal to or less than 4 g/m 2, preferably equal to or less than 3 g/m 2, and - a mineral pigment content of the intermediate layer is less than 85 wt.%, preferably equal to or less than 75 wt.%, calculated from total dry weight of the intermediate layer, - a total mineral content of the direct thermal linerless label web is in a range between 0 and 20 wt.%, calculated from total dry weight of the direct thermal linerless label web, and wherein the method comprises - supplying the face, - applying a water-based acrylic adhesive coating, and - thermally drying the adhesive coating into a pressure sensitive adhesive coating, wherein - the water-based acrylic adhesive coating is applied on to the face, or - the water-based acrylic adhesive coating is applied on to a carrier material, and the method further comprises: - transferring the pressure sensitive adhesive coating from the carrier material on to the face. - a base layer, - a direct thermal printable coating, and - an intermediate layer disposed between the base layer and the direct thermal printable coating, - the intermediate layer has a grammage in a range between 0.9 g/m 2 and 7 g/m 2, - the intermediate layer comprises ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, - total amount of mineral pigments in the intermediate layer is equal to or less than 4 g/m 2, preferably equal to or less than 3 g/m 2, and - a mineral pigment content of the intermediate layer is less than 85 wt.%, preferably equal to or less than 75 wt.%, calculated from total dry weight of the intermediate layer, - a total mineral content of the direct thermal linerless label web is in a range between 0 and 20 wt.%, calculated from total dry weight of the direct thermal linerless label web, and - supplying the face, - applying a water-based acrylic adhesive coating, and - thermally drying the adhesive coating into a pressure sensitive adhesive coating, - the water-based acrylic adhesive coating is applied on to the face, or - the water-based acrylic adhesive coating is applied on to a carrier material, and the method further comprises: - transferring the pressure sensitive adhesive coating from the carrier material on to the face.
A magnetic position sensor comprising: first and second detecting cores (2 and 3, 32 and 33) that are disposed so as to line up with each other on opposite sides of a detecting gap; a magnet unit (6, 36) having: first and second magnet cores (8 and 9, 38 and 39) that are disposed so as to line up with each other on opposite sides of an origin gap; and a magnet (10, 40) that generates two magnetic flux loops between the first and second detecting cores (2 and 3, 32 and 33) and the first and second magnet cores (8 and 9, 38 and 39), the magnetic flux loops having a boundary at the origin gap, the magnet unit being displaced relative to the first and second detecting cores (2 and 3, 32 and 33) together with displacement of a measured object; and a magnetic detecting element that is disposed in the detecting gap, and that detects magnetic flux that passes through the detecting gap. first and second detecting cores (2 and 3, 32 and 33) that are disposed so as to line up with each other on opposite sides of a detecting gap; a magnet unit (6, 36) having: first and second magnet cores (8 and 9, 38 and 39) that are disposed so as to line up with each other on opposite sides of an origin gap; and a magnet (10, 40) that generates two magnetic flux loops between the first and second detecting cores (2 and 3, 32 and 33) and the first and second magnet cores (8 and 9, 38 and 39), the magnetic flux loops having a boundary at the origin gap, the magnet unit being displaced relative to the first and second detecting cores (2 and 3, 32 and 33) together with displacement of a measured object; and first and second magnet cores (8 and 9, 38 and 39) that are disposed so as to line up with each other on opposite sides of an origin gap; and a magnet (10, 40) that generates two magnetic flux loops between the first and second detecting cores (2 and 3, 32 and 33) and the first and second magnet cores (8 and 9, 38 and 39), the magnetic flux loops having a boundary at the origin gap, a magnetic detecting element that is disposed in the detecting gap, and that detects magnetic flux that passes through the detecting gap.
Rear-wall rack for installing on the rear of a vehicle with a rear door and a door hinge, wherein the rear-wall rack has a supporting frame with an upper transverse arm and an upright longitudinal arm and with a fastening means for installing on the rear, wherein the fastening means has an adapter for fastening a longitudinal arm on the vehicle, characterized in that the fastening means has a lamp adapter for fastening the transverse arm on a roof-side vehicle lamp or the mount for said lamp on the vehicle.
A method comprising: i) sending a first message from a communication device to an access network, the first message indicating that a data session has ended, wherein the data session is supported by a wireless channel between the communication device and the access network; characterised in that the method further comprises ii) monitoring the wireless channel during a time period and wherein a value of a parameter is modified in response to data being communicated via the wireless channel during the time period, further comprising comparing a first value of the parameter at a beginning of the time period to a second value of the parameter at an end of the time period; iii) after the time period, selectively sending a second message to the access network, the second message indicating that the data session has ended, wherein the second message is selectively sent based at least in part on whether a measurement indicates that data was communicated via the wireless channel during the time period, wherein the communication device repeats steps ii) and iii) for up to N cycles where N is a positive integer or until the communication device is transitioned into a battery saving state. i) sending a first message from a communication device to an access network, the first message indicating that a data session has ended, wherein the data session is supported by a wireless channel between the communication device and the access network; characterised in that the method further comprises ii) monitoring the wireless channel during a time period and wherein a value of a parameter is modified in response to data being communicated via the wireless channel during the time period, further comprising comparing a first value of the parameter at a beginning of the time period to a second value of the parameter at an end of the time period; iii) after the time period, selectively sending a second message to the access network, the second message indicating that the data session has ended, wherein the second message is selectively sent based at least in part on whether a measurement indicates that data was communicated via the wireless channel during the time period, wherein the communication device repeats steps ii) and iii) for up to N cycles where N is a positive integer or until the communication device is transitioned into a battery saving state.
Motor vehicle trim panel (10, 100) made of expanded polymer material (16, 118), characterized in that it comprises a plurality of distinct reinforcing inserts (11-15, 111-117) covered with expanded polymer material and embedded in the latter, and in that at least one reinforcing insert is connected to an adjacent reinforcing insert by a mechanical connection element (21-25, 121-123) applied to an outer face of the trim panel.