mhurhangee/ep-ind-claims huggingface dataset:
A method of fibrillizing a binder component of an electrode film, comprising: providing a negatively charged fibrillizable binder component by contacting a fibrillizable binder component with an electron donor wherein the electron donor comprises a mixing container of a fibrillization apparatus, wherein the mixing container is made of a material having an affinity to donate electrons to the fibrillizable binder component, and wherein contacting the fibrillizable binder component with the electron donor comprises applying at least one of a linear force and a rotational force upon the mixing container to displace the mixing container relative to the fibrillizable binder component; and fibrillizing the negatively charged fibrillizable binder component by applying an electrostatic field upon the negatively charged fibrillizable binder component. providing a negatively charged fibrillizable binder component by contacting a fibrillizable binder component with an electron donor wherein the electron donor comprises a mixing container of a fibrillization apparatus, wherein the mixing container is made of a material having an affinity to donate electrons to the fibrillizable binder component, and wherein contacting the fibrillizable binder component with the electron donor comprises applying at least one of a linear force and a rotational force upon the mixing container to displace the mixing container relative to the fibrillizable binder component; and fibrillizing the negatively charged fibrillizable binder component by applying an electrostatic field upon the negatively charged fibrillizable binder component.
A wet/dry vacuum cleaner comprising: - A dust collection tank having at least one suction inlet; - a bypass suction unit having a separate fan for cooling air and a fan inside a fan housing generating the suction air stream located inside a housing arranged next to or inside the dust collection tank; - at least one filter arranged to filter air sucked into the dust collection tank through the at least one suction inlet; - at least one dust detection module, characterised in that only a part of the suction air stream is guided to the dust detection module and that the lowest part of the electronic components of the dust detection module is located in a larger distance (D 1) from ground than the distance (D 2) from ground to the upper suction air outlet on fan housing when the wet/dry vacuum cleaner is located in its intended working position. - A dust collection tank having at least one suction inlet; - a bypass suction unit having a separate fan for cooling air and a fan inside a fan housing generating the suction air stream located inside a housing arranged next to or inside the dust collection tank; - at least one filter arranged to filter air sucked into the dust collection tank through the at least one suction inlet; - at least one dust detection module, characterised in that only a part of the suction air stream is guided to the dust detection module and that the lowest part of the electronic components of the dust detection module is located in a larger distance (D 1) from ground than the distance (D 2) from ground to the upper suction air outlet on fan housing when the wet/dry vacuum cleaner is located in its intended working position.
A lens barrel comprising a lens holding member holding at least one lens, and a barrel body supporting the lens holding member in such a manner that an inclination of the lens holding member is adjustable with respect to an orthogonal-to-optical axis direction which is a direction orthogonal to an optical axis of the lens barrel, wherein one of the barrel body and the lens holding member comprises a plurality of positioning protrusions (322, 323, 322a, 323a, 324a) for positioning the lens holding member with respect to the barrel body in the orthogonal-to-optical axis direction, and the remaining one of the barrel body and the lens holding member comprises a plurality of protrusion receiving holes (275, 276, 275a to 275c) each receiving therein a respective one of the positioning protrusions, the protrusion receiving holes including at least one elongate-shaped receiving hole (275, 275a to 275c) formed to extend in given one direction so as to displaceably receive therein a corresponding one of the positioning protrusions, wherein: the barrel body comprises a supporting tube supporting the lens member, the supporting tube comprising at least two supporting sections (271 to 273) disposed in spaced-apart relation to each other to support the lens holding member; and the lens holding member comprises at least two support-target sections each supported by a respective one of the at least two supporting sections, the at least two support-target sections being supported such that, during operation of supporting the at least two support-target sections by respective ones of the at least two supporting sections, the lens holding member is rotatable about a rotational axis defined by a line connecting two of the at least two supporting sections, so as to adjust the inclination, and wherein the one direction which is a longitudinal direction of the elongate-shaped receiving hole (275, 275a to 275c) is approximately orthogonal to the rotational axis. the barrel body comprises a supporting tube supporting the lens member, the supporting tube comprising at least two supporting sections (271 to 273) disposed in spaced-apart relation to each other to support the lens holding member; and the lens holding member comprises at least two support-target sections each supported by a respective one of the at least two supporting sections, the at least two support-target sections being supported such that, during operation of supporting the at least two support-target sections by respective ones of the at least two supporting sections, the lens holding member is rotatable about a rotational axis defined by a line connecting two of the at least two supporting sections, so as to adjust the inclination, and wherein the one direction which is a longitudinal direction of the elongate-shaped receiving hole (275, 275a to 275c) is approximately orthogonal to the rotational axis.
A negative active material for a rechargeable lithium battery, comprising: Si active particles; and a three to seven-component metal matrix surrounding the active particles without chemically reacting with the Si active particles, wherein the metal matrix comprises Cu, Al, and an additive metal selected from the group consisting of Zn, Ga, In, Sn, Ag, and combinations thereof, and wherein the negative active material comprises 30 to 70 wt% of the Si active particles. Si active particles; and a three to seven-component metal matrix surrounding the active particles without chemically reacting with the Si active particles, wherein the metal matrix comprises Cu, Al, and an additive metal selected from the group consisting of Zn, Ga, In, Sn, Ag, and combinations thereof, and
A method for sending control channel information, comprising: when a base station schedules a first relay, selecting (101, 302), by the base station, a second relay according to an optimal precoding code book selected by the first relay, wherein an optimal precoding code book selected by the second relay is orthogonal to the optimal precoding code book selected by the first relay; encapsulating control channel information of the first relay and control channel information of the second relay into a high speed downlink shared control channel, HS-SCCH, and scrambling the HS-SCCH; and sending (103, 304) the scrambled HS-SCCH to the first relay and the second relay. when a base station schedules a first relay, selecting (101, 302), by the base station, a second relay according to an optimal precoding code book selected by the first relay, wherein an optimal precoding code book selected by the second relay is orthogonal to the optimal precoding code book selected by the first relay; encapsulating control channel information of the first relay and control channel information of the second relay into a high speed downlink shared control channel, HS-SCCH, and scrambling the HS-SCCH; and sending (103, 304) the scrambled HS-SCCH to the first relay and the second relay.
A method of transmitting channel state information for a hybrid beamforming from a user equipment in a wireless communication system, the method comprising: measuring a gain of a directional beam formed with reference to a first direction and a gain of an omni-directional beam formed equivalently in all directions respectively; and transmitting the CSI including a gain difference between the directional beam and the omni-directional beam to a base station, wherein a direction of a digital beamforming in the hybrid beamforming is determined in accordance with the gain difference between the directional beam and the omni-directional beam and wherein a direction of an analog beamforming in the hybrid beamforming is determined in accordance with the first direction. measuring a gain of a directional beam formed with reference to a first direction and a gain of an omni-directional beam formed equivalently in all directions respectively; and transmitting the CSI including a gain difference between the directional beam and the omni-directional beam to a base station, wherein a direction of a digital beamforming in the hybrid beamforming is determined in accordance with the gain difference between the directional beam and the omni-directional beam and wherein a direction of an analog beamforming in the hybrid beamforming is determined in accordance with the first direction.
A method for producing a silicon carbide single crystal substrate, comprising steps of: preparing a silicon carbide single crystal substrate having a mechanically polished main face; performing chemical mechanical polishing on the main face of the silicon carbide single crystal substrate using a polishing slurry containing abrasive grains dispersed therein to finish the main face as a mirror surface; (C'1) oxidizing at least a part of the main face finished as a mirror surface by a gas phase to form an oxide; and (C'2) removing a surface residual substance that is formed by the step on the main face, with the oxide, wherein the surface residual substance includes another oxide containing silicon, carbon and oxygen, wherein step (C'1) and step (C'2) are performed alternately in repetition a plurality of times, and wherein, among a plurality of sessions of step (C'2) performed in repetition, the final session of step (C'2) is performed using an aqueous solution containing hydrofluoric acid. preparing a silicon carbide single crystal substrate having a mechanically polished main face; performing chemical mechanical polishing on the main face of the silicon carbide single crystal substrate using a polishing slurry containing abrasive grains dispersed therein to finish the main face as a mirror surface; (C'1) oxidizing at least a part of the main face finished as a mirror surface by a gas phase to form an oxide; and (C'2) removing a surface residual substance that is formed by the step on the main face, with the oxide,
A method for wireless communication performed by a user equipment, UE, the method comprising: receiving, from a base station, a synchronization signal block of a set of quasi-collocated synchronization signal blocks, the synchronization signal block comprising an indication of a parameter indicating information associated with a plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; determining, based on the parameter, the plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; receiving, from the base station, a downlink grant for a system information based on monitoring one or more downlink control channel locations of the plurality of downlink control channel locations; receiving, from the base station, the system information based on the downlink grant; and establishing a connection with the base station based on the synchronization signal block and the received system information. receiving, from a base station, a synchronization signal block of a set of quasi-collocated synchronization signal blocks, the synchronization signal block comprising an indication of a parameter indicating information associated with a plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; determining, based on the parameter, the plurality of downlink control channel locations corresponding to the set of quasi-collocated synchronization signal blocks; receiving, from the base station, a downlink grant for a system information based on monitoring one or more downlink control channel locations of the plurality of downlink control channel locations; receiving, from the base station, the system information based on the downlink grant; and establishing a connection with the base station based on the synchronization signal block and the received system information.
Vehicle electromechanical steering, comprising a steering column, a toothed rack, a steering pinion coupling the steering column to the toothed rack, and an electric drive device having an electric motor and a worm wheel arranged on the steering pinion, wherein the toothed rack lies between the worm wheel of the electric drive device and the steering column, characterized in that the electric motor has an axis of rotation that runs parallel to the toothed rack.
A method of automatically performing maintenance checks on a work machine, comprising: providing a display monitor in a cab of the machine, an ignition switch for starting the machine, a plurality of sensing devices, and a controller for controlling the machine; detecting an activation of the ignition switch; detecting a current condition of the machine with each of the plurality of sensing devices in response to detecting an activation of the ignition switch; comparing the result of each detected condition to a corresponding threshold; displaying, in response to detecting an activation of the ignition switch, the result of each detected condition on the display monitor relative to the threshold; and providing an acknowledgement button on the display monitor in response to comparing the result of each detected condition, wherein triggering of the acknowledgement button confirms a review of the displayed result of each detected condition; restricting further activation of the ignition switch until the acknowledgement button is triggered; and wherein further activation of the ignition switch is required to start the machine after the acknowledgement button is triggered. providing a display monitor in a cab of the machine, an ignition switch for starting the machine, a plurality of sensing devices, and a controller for controlling the machine; detecting an activation of the ignition switch; detecting a current condition of the machine with each of the plurality of sensing devices in response to detecting an activation of the ignition switch; comparing the result of each detected condition to a corresponding threshold; displaying, in response to detecting an activation of the ignition switch, the result of each detected condition on the display monitor relative to the threshold; and providing an acknowledgement button on the display monitor in response to comparing the result of each detected condition, wherein triggering of the acknowledgement button confirms a review of the displayed result of each detected condition; restricting further activation of the ignition switch until the acknowledgement button is triggered; and wherein further activation of the ignition switch is required to start the machine after the acknowledgement button is triggered.
A thermal increase system (100, 210, 220, 300, 400, 500) including a containment structure (366, 466, 566) for containing a load (364, 464, 564), the thermal increase system comprising: a plurality of shelf support structures (122, 322, 422, 502, 620) disposed within a cavity (110, 260, 360, 460, 560) of the thermal increase system, wherein the plurality of shelf support structures is configured to support a repositionable electrode (172, 372, 472, 540, 604, 634) at a plurality of positions within the cavity; a first electrode (170, 340, 440, 540) disposed at a first surface of the containment structure; the repositionable electrode disposed within the containment structure so as to divide the cavity into separate volumes; and a radio frequency signal source (320, 420, 520) electrically connected to either only the first electrode or to both of the first electrode and the repositionable electrode, the radio frequency signal source being configured to provide radio frequency energy to either only the first electrode or to both of the first electrode and the repositionable electrode; wherein the repositionable electrode (172, 372, 472, 540, 604, 634) is at least partially metal; characterised in that the repositionable electrode comprises an upper surface having a first surface area that is at least as large as a second surface area of the first electrode (170, 340, 440, 540), and wherein the upper surface of the repositionable electrode opposes the lower surface of the first electrode. a plurality of shelf support structures (122, 322, 422, 502, 620) disposed within a cavity (110, 260, 360, 460, 560) of the thermal increase system, wherein the plurality of shelf support structures is configured to support a repositionable electrode (172, 372, 472, 540, 604, 634) at a plurality of positions within the cavity; a first electrode (170, 340, 440, 540) disposed at a first surface of the containment structure; the repositionable electrode disposed within the containment structure so as to divide the cavity into separate volumes; and a radio frequency signal source (320, 420, 520) electrically connected to either only the first electrode or to both of the first electrode and the repositionable electrode, the radio frequency signal source being configured to provide radio frequency energy to either only the first electrode or to both of the first electrode and the repositionable electrode; wherein the repositionable electrode (172, 372, 472, 540, 604, 634) is at least partially metal; characterised in that the repositionable electrode comprises an upper surface having a first surface area that is at least as large as a second surface area of the first electrode (170, 340, 440, 540), and wherein the upper surface of the repositionable electrode opposes the lower surface of the first electrode.
Method for the production of a three-dimensional model (6, 16, 26, 36) of at least a partial region of a jaw for producing a dental prosthesis, comprising the steps of: providing data of a three-dimensional scan of an oral cavity of a patient having at least one dental implant, the data being recorded previously; creating a three-dimensional model (6, 16, 26, 36) of at least the partial region of the jaw; producing the model (6, 16, 26, 36) of at least the partial region of the jaw using a CAD-supported stereolithographic process; and fully automatic shaping of at least one recess for receiving a laboratory analogue (1, 21, 31) into the jaw saddle of the model (6, 16, 26, 36), the data of the three-dimensional scan being used in shaping, and the depth, the position and the orientation of the at least one recess being shaped to the extent that the crestal end of the laboratory analogue (1, 21, 31) inserted into the recess coincides with the crestal end of a dental implant in the patient's jaw. providing data of a three-dimensional scan of an oral cavity of a patient having at least one dental implant, the data being recorded previously; creating a three-dimensional model (6, 16, 26, 36) of at least the partial region of the jaw; producing the model (6, 16, 26, 36) of at least the partial region of the jaw using a CAD-supported stereolithographic process; and fully automatic shaping of at least one recess for receiving a laboratory analogue (1, 21, 31) into the jaw saddle of the model (6, 16, 26, 36), the data of the three-dimensional scan being used in shaping, and the depth, the position and the orientation of the at least one recess being shaped to the extent that the crestal end of the laboratory analogue (1, 21, 31) inserted into the recess coincides with the crestal end of a dental implant in the patient's jaw.
Stirring member for using in a system for preparing a food product, the product being prepared by the stirring member moving inside a container, the stirring member comprising a main stirring member and one or a plurality of rotating stirring bodies rotatable within a certain angular travel with respect to the main member, characterized in that the stirring member is configured in such a way that it can adopt, depending on its direction of rotation inside the container, a spoon configuration where the one or plurality of rotating stirring bodies are not deployed, this spoon configuration can be used for consuming the prepared food product, or a whisk configuration where the stirring member is deployed, the main stirring member and the one or a plurality of rotating stirring bodies being rotated with respect to each other.
An optical system comprising: a photonic integrated circuit which is integrated on a platform; and an element having a first surface, the first surface being attached to the platform, wherein the element has a groove in the first surface, the groove being filled with a medium having a refractive index which is different from that of the element, and the groove having a planar surface with a normal that forms an angle with respect to a predetermined light direction, allowing changing a direction of light which is incident on the element along the predetermined light direction, wherein the groove extends along a direction of the first surface which is perpendicular to the predetermined light direction, wherein the element and the medium filling the groove are transparent for a wavelength range of the light which is incident on the platform, wherein the medium that fills the groove is adhesive, wherein the first surface of the element is attached to the platform by said medium, and wherein the element is arranged for coupling light into the photonic integrated circuit. a photonic integrated circuit which is integrated on a platform; and an element having a first surface, the first surface being attached to the platform, wherein the element has a groove in the first surface, the groove being filled with a medium having a refractive index which is different from that of the element, and the groove having a planar surface with a normal that forms an angle with respect to a predetermined light direction, allowing changing a direction of light which is incident on the element along the predetermined light direction, wherein the groove extends along a direction of the first surface which is perpendicular to the predetermined light direction, wherein the element and the medium filling the groove are transparent for a wavelength range of the light which is incident on the platform, wherein the medium that fills the groove is adhesive, wherein the first surface of the element is attached to the platform by said medium, and wherein the element is arranged for coupling light into the photonic integrated circuit.