mhurhangee/ep-ind-claims huggingface dataset:
A device for spreading a tire, wherein the device comprises a first arm assembly and a second arm assembly, the first arm assembly and the second arm assembly comprise at least one arm, respectively, and each arm, comprises at least two arm sections,;,, wherein the at least two arm sections,;, of each arm, form an angle with respect to each other, wherein the device is configured to: move the first arm assembly or the second arm assembly along a first direction so as to spread the tire, and/or move the first arm assembly along a second direction and the second arm assembly along a third direction so as to spread the tire, wherein the second direction and the third direction are opposite to each other, wherein the at least two arm sections,;, contact two tire beads and the angle is located substantially between the tire beads, and wherein the angle determines substantially a width or a distance of the tire beads can be spread. wherein the device comprises a first arm assembly and a second arm assembly, the first arm assembly and the second arm assembly comprise at least one arm, respectively, and each arm, comprises at least two arm sections,;,, wherein the at least two arm sections,;, of each arm, form an angle with respect to each other, wherein the device is configured to: move the first arm assembly or the second arm assembly along a first direction so as to spread the tire, and/or move the first arm assembly along a second direction and the second arm assembly along a third direction so as to spread the tire, wherein the second direction and the third direction are opposite to each other, wherein the at least two arm sections,;, contact two tire beads and the angle is located substantially between the tire beads, and wherein the angle determines substantially a width or a distance of the tire beads can be spread. move the first arm assembly or the second arm assembly along a first direction so as to spread the tire, and/or move the first arm assembly along a second direction and the second arm assembly along a third direction so as to spread the tire, wherein the second direction and the third direction are opposite to each other, wherein the at least two arm sections,;, contact two tire beads and the angle is located substantially between the tire beads, and wherein the angle determines substantially a width or a distance of the tire beads can be spread.
A system for collection and analysis of a biofluid from skin of a user, the system comprising: a collection and delivery module; a sensing module; a passive flow regulation module comprising an overflow device comprising a surface property barrier, preferably a hydrophobic barrier, and a capillary pump disposed after the surface property barrier; and a waste module, wherein the collection and delivery module is configured to collect the biofluid from the skin and transport the fluid to the sensing module, wherein the sensing module is configured to determine one or more chemical and/or physical properties of the biofluid, wherein the flow regulation module is configured to control flow of the biofluid through the system, wherein the waste module is configured to collect and dispose of the biofluid after the analysis is complete, and wherein the passive flow regulation module is disposed after the sensing module and the collection and delivery module. a collection and delivery module; a sensing module; a passive flow regulation module comprising an overflow device comprising a surface property barrier, preferably a hydrophobic barrier, and a capillary pump disposed after the surface property barrier; and a waste module, wherein the collection and delivery module is configured to collect the biofluid from the skin and transport the fluid to the sensing module, wherein the sensing module is configured to determine one or more chemical and/or physical properties of the biofluid, wherein the flow regulation module is configured to control flow of the biofluid through the system, wherein the waste module is configured to collect and dispose of the biofluid after the analysis is complete, and wherein the passive flow regulation module is disposed after the sensing module and the collection and delivery module.
A door outside handle device for a motor vehicle, featuring a handle carrier that can be fastened on the inner side of the door and a handle unit that in the installed state lies on the outer side of the door and is provided with an actuating lever, wherein a first longitudinal end of the actuating lever is mounted on the handle carrier such that it can be pivoted about a rotational axis, with the actuating lever being movably coupled to the handle carrier on its second, opposite longitudinal end and essentially movable transverse to the handle carrier, wherein a support structure with at least one limit stop is arranged in the region of the pivotably mounted first longitudinal end of the actuating lever in extension of the longitudinal extent of the actuating lever and at a distance from the actuating lever, with said support structure limiting the movement of the actuating lever in the region of the rotational axis and in its longitudinal direction to a maximum that is defined by a distance of the rotational axis from the limit stop, wherein the support structure forms part of the handle carrier, and wherein the limit stop is realized in the form of at least one support rib on the support structure.
An optically variable see-through security element for securing objects of value with a planar, optically variable area pattern (16, 18), wherein the optically variable area pattern includes a multiplicity of facets which have a substantially ray-optical effect and the orientation of which is distinguished respectively by an inclination angle α relative to the plane of the area pattern, and by an azimuth angle θ in the plane of the area pattern, wherein the optically variable area pattern includes at least two subregions (16, 18) respectively having a multiplicity of identically oriented facets, wherein the facets of the at least two subregions differ from each other with respect to the inclination angle relative to the plane and/or the azimuth angle in the plane, the inclination angle α is between 0° and 45°, characterized in that the facets of the at least two subregions are supplied with an interference layer, the interference layer has a viewing-angle-dependent color change in transmitted light, and the optically variable area pattern shows a colored appearance with a viewing-angle-dependent, polychrome color change in transmission.
A reception configuration method, comprising: receiving, by a terminal, indication information from a base station; determining, by the terminal, a detection result of the indication information within a first time length in a discontinuous reception, DRX, cycle of a plurality of DRX cycles, each comprising an on duration and an off duration, wherein the indication information is in a downlink control information, DCI, format, and a bit in the DCI format indicates a switch to a wake up state or a switch to a dormancy state; and determining, by the terminal a DRX operation according to the detection result, wherein the DRX operation corresponds to a DRX wake up state operation and comprises: maintaining the dormancy state in an on duration of a subsequent DRX cycle subsequent to the DRX cycle, or performing physical downlink control channel, PDCCH, detection in the on duration of the subsequent DRX cycle, wherein a starting time of the first time length and an end time of the first time length are in different DRX cycles, wherein the first time length comprises at least one of: a time length required for transmitting the indication information, a time length required for switching from the dormancy state to the wake up state, or a response feedback time length of the indication information, and wherein a cycle of the indication information and the DRX cycle are independently configured. receiving, by a terminal, indication information from a base station; determining, by the terminal, a detection result of the indication information within a first time length in a discontinuous reception, DRX, cycle of a plurality of DRX cycles, each comprising an on duration and an off duration, wherein the indication information is in a downlink control information, DCI, format, and a bit in the DCI format indicates a switch to a wake up state or a switch to a dormancy state; and determining, by the terminal a DRX operation according to the detection result, wherein the DRX operation corresponds to a DRX wake up state operation and comprises: maintaining the dormancy state in an on duration of a subsequent DRX cycle subsequent to the DRX cycle, or performing physical downlink control channel, PDCCH, detection in the on duration of the subsequent DRX cycle, wherein a starting time of the first time length and an end time of the first time length are in different DRX cycles, wherein the first time length comprises at least one of: a time length required for transmitting the indication information, a time length required for switching from the dormancy state to the wake up state, or a response feedback time length of the indication information, and wherein a cycle of the indication information and the DRX cycle are independently configured.
A method of wireless communication, comprising: transmitting a request for channel state information; receiving a communication comprising a first field for indicating if the first segment of channel state information of a plurality of segments of channel state information is included in the communication, a second field for indicating a number of segments of channel state information remaining to be received, and determining based on the first field and the second field that no channel state information, CSI, will be received and a previously stored CSI should be used; and processing the communication based on the first field and the second field. transmitting a request for channel state information; receiving a communication comprising a first field for indicating if the first segment of channel state information of a plurality of segments of channel state information is included in the communication, a second field for indicating a number of segments of channel state information remaining to be received, and determining based on the first field and the second field that no channel state information, CSI, will be received and a previously stored CSI should be used; and processing the communication based on the first field and the second field.
A polyphase electrosurgical system for ablating tissue comprising: a controller; a polyphase generator module operably coupled to the controller, the generator module configured to generate three independently variable radiofrequency signals having a selectable phase offset therebetween and to provide the three radiofrequency signals to respective outputs (331, 332, 333); an electrosurgical instrument having three electrodes (356, 357, 358) disposed in spaced relation the electrodes (356, 357, 358) operably coupled to the respective outputs (331, 332, 333) of the generator module corresponding to the three radiofrequency signals; a sensor in communication with at least one electrode for sensing a tissue impedance, the sensor operatively coupled to the controller, wherein the controller is configured to vary the frequency of one or more of the three radiofrequency· signals in response to the tissue impedance, and an actuator operably coupled to the controller for activating the generator module; wherein the phase offsets and the frequencies of the three signals are selectable to tailor energy delivery patterns applied to the tissue. a controller; a polyphase generator module operably coupled to the controller, the generator module configured to generate three independently variable radiofrequency signals having a selectable phase offset therebetween and to provide the three radiofrequency signals to respective outputs (331, 332, 333); an electrosurgical instrument having three electrodes (356, 357, 358) disposed in spaced relation the electrodes (356, 357, 358) operably coupled to the respective outputs (331, 332, 333) of the generator module corresponding to the three radiofrequency signals; a sensor in communication with at least one electrode for sensing a tissue impedance, the sensor operatively coupled to the controller, wherein the controller is configured to vary the frequency of one or more of the three radiofrequency· signals in response to the tissue impedance, and an actuator operably coupled to the controller for activating the generator module; wherein the phase offsets and the frequencies of the three signals are selectable to tailor energy delivery patterns applied to the tissue.
A vacuum pump, in particular a turbomolecular pump, which comprises a bearing; a base body forming a part of a housing of the pump at a pre-vacuum side; a reception space for the bearing integrally formed in the base body; at least one axial damping element which is arranged in the reception space and which is provided for preloading the bearing in the reception space; and a separate end element which bounds the reception space in an axial direction, wherein at least one spacer element, in particular an adjustment washer, is provided to clamp the bearing in a defined axial position in the reception space, characterized in that openings are provided in the end element and/or in the base body; and in that the spacer element has apertures aligned with the openings to supply the bearing with lubricant and/or to introduce fixing means for fixing the end element to the base body.
Use of a measuring system comprising: (a) at least one light-emitting unit (18, 20), comprising a first structure which is integrated in a vessel wall and emits light into the vessel such that said light is scattered and/or reflected by a deposit, if any deposit is present, and (b) a detection unit, comprising a second structure which is integrated in the vessel wall and which is designed in such a manner that at least a portion of the light scattered and/or reflected by the deposit, if present, can pass from the interior of the vessel toward its exterior, and a light detector disposed such that its light-sensitive surface faces the second structure, wherein the photo-sensitive surface of the light detector is a photodetector array providing a spatially resolved signal for the scattered and/or reflected beam of light; wherein the use of the measuring system comprises using the system for determining a characteristic of a deposit that accumulates on the inside of a vessel wall in a component of a papermaking plant which serves the purpose of accommodating or transferring an aqueous fiber suspension employed in papermaking from the spatially resolved signal provided by the photodetector array. (a) at least one light-emitting unit (18, 20), comprising a first structure which is integrated in a vessel wall and emits light into the vessel such that said light is scattered and/or reflected by a deposit, if any deposit is present, and (b) a detection unit, comprising a second structure which is integrated in the vessel wall and which is designed in such a manner that at least a portion of the light scattered and/or reflected by the deposit, if present, can pass from the interior of the vessel toward its exterior, and a light detector disposed such that its light-sensitive surface faces the second structure, wherein the photo-sensitive surface of the light detector is a photodetector array providing a spatially resolved signal for the scattered and/or reflected beam of light; a second structure which is integrated in the vessel wall and which is designed in such a manner that at least a portion of the light scattered and/or reflected by the deposit, if present, can pass from the interior of the vessel toward its exterior, and a light detector disposed such that its light-sensitive surface faces the second structure, wherein the photo-sensitive surface of the light detector is a photodetector array providing a spatially resolved signal for the scattered and/or reflected beam of light;
An electrochemical machining electrode device for realizing a cooling slot in a surface of a body, preferably a blade, to be cooled of a gas turbine assembly; the device being a sandwich body comprising: - two outer electrically non-conducting plates; - two inner electrically conducting plates in direct contact with the two outer non-conducting plates; the two inner electrically conducting plates being separated for forming a central gap used to provide flow of fresh electrolyte to the surface to be machined; wherein the inner electrically conducting plates serve as a cathode providing current from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source; - a plurality of bridge bodies connecting the two inner electrically conducting plates; characterized in that the device is comb-shaped comprising a base and a plurality of tubes connected to the base; the base being open and the tubes are hollow each comprising of an outer electrically non-conducting tube in direct contact with an inner electrically conducting tube for forming a plurality of passing channels allowing the electrolyte to enter the device by the base and to leave the device by the tubes; each inner electrically conducting tube additionally serves as a cathode providing current via the inner electrically conducting plates from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source. - two outer electrically non-conducting plates; - two inner electrically conducting plates in direct contact with the two outer non-conducting plates; the two inner electrically conducting plates being separated for forming a central gap used to provide flow of fresh electrolyte to the surface to be machined; wherein the inner electrically conducting plates serve as a cathode providing current from an electrical current source to the surface to be machined, which is used as anode and also connected to the electrical current source; - a plurality of bridge bodies connecting the two inner electrically conducting plates;
A method for determining a beneficial effect of a platoon comprising a leading vehicle and at least one following vehicle following the leading vehicle, the method comprising: - determining, by means of an electronic processing unit (18, 22), at least one second pressure acting on the following vehicle; the method being characterised by further comprising: - determining, by means of the electronic processing unit (18, 22), at least one first pressure acting on the leading vehicle; - determining, by means of the electronic processing unit (18, 22), a difference between the first and second pressures; and - determining, by means of the electronic processing unit (18, 22), at least one benefit value on the basis of the difference, the benefit value characterizing the beneficial effect of the platoon on at least one of the vehicles (12, 14). - determining, by means of an electronic processing unit (18, 22), at least one second pressure acting on the following vehicle; the method being - determining, by means of the electronic processing unit (18, 22), at least one first pressure acting on the leading vehicle; - determining, by means of the electronic processing unit (18, 22), a difference between the first and second pressures; and - determining, by means of the electronic processing unit (18, 22), at least one benefit value on the basis of the difference, the benefit value characterizing the beneficial effect of the platoon on at least one of the vehicles (12, 14).
A method for the production of oxazolidinone compounds, said method comprising combining and mixing at a temperature in the range 130-200 °C at least following compounds to form a reactive mixture: - an isocyanate composition comprising at least one isocyanate compound; - an epoxide composition comprising at least one epoxide compound; - an oxazolidinone catalyst composition comprising at least an oxazolidinone catalyst compound selected from multi metal cyanide compounds corresponding to the formula Zn 3 [Co 6] 2.fZnCl 2.eL.hH 2 O wherein • L= tBuOH or 1,2-dimethoxyethane • e is the coordination number of the ligand or 0, • f is a fraction or integer greater than or equal to 0, and • h is a fraction or integer greater than or equal to 0. - an isocyanate composition comprising at least one isocyanate compound; - an epoxide composition comprising at least one epoxide compound; - an oxazolidinone catalyst composition comprising at least an oxazolidinone catalyst compound selected from multi metal cyanide compounds corresponding to the formula Zn 3 [Co 6] 2.fZnCl 2.eL.hH 2 O wherein • L= tBuOH or 1,2-dimethoxyethane • e is the coordination number of the ligand or 0, • f is a fraction or integer greater than or equal to 0, and • h is a fraction or integer greater than or equal to 0. • L= tBuOH or 1,2-dimethoxyethane • e is the coordination number of the ligand or 0, • f is a fraction or integer greater than or equal to 0, and • h is a fraction or integer greater than or equal to 0.
A network device access method, comprising: receiving, by a terminal, minimization of drive tests, MDT, configuration information; performing, by the terminal, MDT measurement based on the MDT configuration information when the terminal is in a radio resource control, RRC, idle state or in an inactive state, to obtain a measurement result, wherein the measurement result comprises area information of the terminal; and sending, by the terminal, the measurement result to an operation assistance information, OAI, network element when the terminal is in an RRC connected state; receiving, by the terminal, parameter configuration information from the OAI network element, wherein the parameter configuration information was determined by the OAI network element based on the area information of the terminal, and wherein the parameter configuration information is used to indicate a time-frequency resource required by the terminal to transmit data and a cell that can be used by the terminal to transmit the data; and accessing, by the terminal, a network device based on the parameter configuration information. receiving, by a terminal, minimization of drive tests, MDT, configuration information; performing, by the terminal, MDT measurement based on the MDT configuration information when the terminal is in a radio resource control, RRC, idle state or in an inactive state, to obtain a measurement result, wherein the measurement result comprises area information of the terminal; and sending, by the terminal, the measurement result to an operation assistance information, OAI, network element when the terminal is in an RRC connected state; receiving, by the terminal, parameter configuration information from the OAI network element, wherein the parameter configuration information was determined by the OAI network element based on the area information of the terminal, and wherein the parameter configuration information is used to indicate a time-frequency resource required by the terminal to transmit data and a cell that can be used by the terminal to transmit the data; and accessing, by the terminal, a network device based on the parameter configuration information.