mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal which communicates with a base station, the method comprising: receiving a RRC Connection Setup Request message from the base station, the RRC Connection Setup Request message including first identification information indicating an initial cyclic prefix length of a cyclic prefix part to be inserted into a plurality of blocks which constitutes a subframe; determining the initial cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information, and setting the determined initial cyclic prefix length as a cyclic prefix length that is currently set in the terminal; receiving DCI, Downlink Control Information, in data parts of a desired number of blocks from the top of the subframe from the base station after receiving the RRC Connection Setup Request message, the DCI including second identification information identifying a difference between a cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks which constitutes the subframe and the cyclic prefix length that is currently set in the terminal; and determining the cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information and the second identification information, wherein each of the blocks includes the cyclic prefix part and a data part being inserted either before or after the cyclic prefix part. receiving a RRC Connection Setup Request message from the base station, the RRC Connection Setup Request message including first identification information indicating an initial cyclic prefix length of a cyclic prefix part to be inserted into a plurality of blocks which constitutes a subframe; determining the initial cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information, and setting the determined initial cyclic prefix length as a cyclic prefix length that is currently set in the terminal; receiving DCI, Downlink Control Information, in data parts of a desired number of blocks from the top of the subframe from the base station after receiving the RRC Connection Setup Request message, the DCI including second identification information identifying a difference between a cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks which constitutes the subframe and the cyclic prefix length that is currently set in the terminal; and determining the cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information and the second identification information, wherein each of the blocks includes the cyclic prefix part and a data part being inserted either before or after the cyclic prefix part.
A harvesting machine crop unloading spout assembly comprising an unloading tube elbow terminating at a first end in a first flange that is secured to the outlet of a harvesting machine crop tank, the first flange including one or more bearings permitting the unloading tube elbow to swivel about a swivel axis and the unloading tube elbow including a cranked portion terminating the unloading tube elbow at a second end in an opening, the spout assembly further including a fixed member that lies adjacent the unloading tube elbow; and the unloading tube elbow being connected to the fixed member by way of a pivot (17', 18) the axis of which coincides with the swivel axis, the spout assembly including a rotatable drive gear and a motor drivingly engaged therewith for causing rotation of the unloading tube elbow about the swivel axis, the axis of rotation of the drive gear also coinciding with the swivel axis, the pivot including a pivot shaft that is fixed to the unloading tube elbow and is journalled relative to the fixed member; and wherein the drive gear is a pinion that is fixed to the pivot shaft, characterized in that the fixed member is hollow and the pinion lies inside the fixed member.
A microfluidic device comprising: a) a rigid body having a first curved slot disposed therein; b) a rigid substrate having a top surface attached to the rigid body, and comprising a first inlet port and a first outlet port disposed in the top surface and positioned in alignment with a first end and a second end of the first curved slot; and c) a first elastic member disposed within the first curved slot and having a first surface and a second surface, wherein the second surface comprises a groove defining a first channel with the rigid substrate. a) a rigid body having a first curved slot disposed therein; b) a rigid substrate having a top surface attached to the rigid body, and comprising a first inlet port and a first outlet port disposed in the top surface and positioned in alignment with a first end and a second end of the first curved slot; and c) a first elastic member disposed within the first curved slot and having a first surface and a second surface, wherein the second surface comprises a groove defining a first channel with the rigid substrate.
A secondary battery comprising: an electrode assembly; a case for receiving the electrode assembly; and a cap plate for covering an opened opening of the case, wherein the case (140, 240) includes two pairs of side wall parts (141, 142, 143, 144), the side wall parts (141, 142, 143, 144) in each pair facing each other, and a bottom part perpendicular to the side wall parts (141, 142, 143, 144), and a safety vent is integrally formed with an edge part of one region selected from the side wall parts (141, 142, 143, 144) and the bottom part, characterized in that the safety vent comprises a trailing edge formed in a linear shape and a leading edge, wherein the trailing edge is positioned on the same line with an edge part (C, D) of the region where the safety vent is formed. an electrode assembly; a case for receiving the electrode assembly; and a cap plate for covering an opened opening of the case, wherein the case (140, 240) includes two pairs of side wall parts (141, 142, 143, 144), the side wall parts (141, 142, 143, 144) in each pair facing each other, and a bottom part perpendicular to the side wall parts (141, 142, 143, 144), and a safety vent is integrally formed with an edge part of one region selected from the side wall parts (141, 142, 143, 144) and the bottom part, characterized in that the safety vent comprises a trailing edge formed in a linear shape and a leading edge, wherein the trailing edge is positioned on the same line with an edge part (C, D) of the region where the safety vent is formed.
Process for the sustainable purification of water by application of a number of treatment steps which include (membrane)filtration, water softening and aeration, the process comprises the following steps: i) vacuum degassing water ii) incinerating the gasses obtained in step i) iii) further treating the degassed water obtained in step i) in one or more treatment steps, characterised in that the released incineration products in step ii), in particular CO 2 and water, energy, heat are at least in part usefully re-used in one or more of the said treatment steps, wherein the degassed water from step i) is subjected to an treatment step a) that is pre-filtration, whereafter the thereby pre-filtered water is subjected to an treatment step b), which is a water softening, whereby at least a part of the CO 2 formed in step ii) is supplied to treatment step b), the water softening applied in treatment step b) comprising an ion exchange process and a pellet water softening. i) vacuum degassing water ii) incinerating the gasses obtained in step i) iii) further treating the degassed water obtained in step i) in one or more treatment steps,
Method for indirectly transferring information from a first mobile transmitting component to a stationary server device via a second mobile transmitting component, wherein - one of the transmitting components (11, 12) is a motor vehicle and the other transmitting component (11, 12) is a portable terminal device, and in the method - the information is transferred from the first transmitting component to the second transmitting component via a first transfer interface, and - from the second transmitting component to the server device via a second transfer interface, and - the information is represented by data during the transfer, Wherein - for transferring the information, the data are dynamically generated by the first transmitting component, so that different data are generated when the information are transferred repeatedly and/or in order to transfer the information to another server device, and - the server device accepts the information contained in the data only if the data satisfy a predetermined validity criterion, characterised in that a current first position information regarding a location of the first transmitting component is integrated into the data by the first transmitting component, and the second transmitting component transfers a second position information regarding a location of the second transmitting component to the server device along with the data, and the server device accepts the information only if, in accordance with the validity criterion, the first position information and the second position information define a distance that is smaller than a predetermined maximum distance. - one of the transmitting components (11, 12) is a motor vehicle and the other transmitting component (11, 12) is a portable terminal device, and in the method - the information is transferred from the first transmitting component to the second transmitting component via a first transfer interface, and - from the second transmitting component to the server device via a second transfer interface, and - the information is represented by data during the transfer, Wherein - for transferring the information, the data are dynamically generated by the first transmitting component, so that different data are generated when the information are transferred repeatedly and/or in order to transfer the information to another server device, and - the server device accepts the information contained in the data only if the data satisfy a predetermined validity criterion, characterised in that a current first position information regarding a location of the first transmitting component is integrated into the data by the first transmitting component, and the second transmitting component transfers a second position information regarding a location of the second transmitting component to the server device along with the data, and the server device accepts the information only if, in accordance with the validity criterion, the first position information and the second position information define a distance that is smaller than a predetermined maximum distance.
Fuel cell stack, comprising: - a proton exchange membrane; - a first electrode and a second electrode fixed on either side of the proton exchange membrane; - a current collecting metal plate; and - a gas diffusion layer interposed between the current collecting plate and the second electrode, characterized in that it furthermore comprises: - a first layer fixed on the current collecting plate, the first layer comprising a polyurethane matrix containing conductive fillers; and - a second layer fixed to the gas diffusion layer, the second layer comprising a polyurethane matrix containing conductive fillers, the second layer making contact with the first layer. - a proton exchange membrane; - a first electrode and a second electrode fixed on either side of the proton exchange membrane; - a current collecting metal plate; and - a gas diffusion layer interposed between the current collecting plate and the second electrode, characterized in that it furthermore comprises: - a first layer fixed on the current collecting plate, the first layer comprising a polyurethane matrix containing conductive fillers; and - a second layer fixed to the gas diffusion layer, the second layer comprising a polyurethane matrix containing conductive fillers, the second layer making contact with the first layer.
A fluid machine comprising a closed housing, a crankshaft which is provided within the closed housing, and which is monolithic, provided with first and second eccentric sections (11a, 61) at respective ends and with a shaft section, the shaft section being interposed between the first and second eccentric sections (11a, 61), an electric motor configured to drive the crankshaft, and a motor rotor of the electric motor which is attached to the shaft section between the first and second eccentric sections (11a, 61), wherein the crankshaft is adapted for driving a first compression mechanism through the first eccentric section, and for driving a second compression mechanism through the second eccentric section, the first compression mechanism has a fixed scroll and an orbiting scroll, the orbiting scroll has an end plate a drive bush is rotably fitted into a boss provided so as to erect from an outer face of the end plate of the orbiting scroll through an intermediary of an orbiting bearing, characterised in that a sleeve is disposed between an outer peripheral face of the first eccentric section and an inner peripheral face of the drive bush, the sleeve being constructed so as to artificially enlarge a diameter of the first eccentric section and to function as an orbiting radius variable mechanism, the crankshaft having such a shape that a profile of an outer peripheral face drawn in a horizontal projection plane of the first eccentric section is positioned radially inside of a profile of an outer peripheral face drawn in a horizontal projection plane of the shaft section (lib), and a profile of an outer peripheral face drawn in a horizontal projection plane of the second eccentric section is positioned radially outside of the profile of the outer peripheral face drawn in the horizontal projection plane of the shaft section, and an angle formed between a plane comprising a center axial line of the first eccentric section and a center axial line of the shaft section and a plane comprising a center axial line of the second eccentric section and the center axial line of the shaft section is set so as to be comprised between -5 and +5 degrees, or the center axial line of the first eccentric section is disposed on the side opposite from the center axial line of the second eccentric section by an angle between 175 and 185 degrees around the center axial line of the shaft section, which is interposed between said center axial lines of the first and second eccentric sections.
A method for determining information on a transit of an object through a detection plane, the object emitting a magnetic field in response to an exciting electromagnetic field, comprising: exciting an oscillating circuit of the object at a first frequency to emit the magnetic field, wherein the first frequency corresponds to a resonance frequency of the oscillating circuit, and wherein the oscillating circuit of the object is coupled with first loop antennas of the object; monitoring a receive signal of at least one second loop antenna, the receive signal having a contribution caused by the emitted magnetic field, wherein the at least one second loop antenna is arranged perpendicular and symmetrical to the detection plane, and wherein the object is within a near field distance of the at least one second loop antenna; determining a first quadrature component of the receive signal; and characterised in determining the information on the transit of the object through the detection plane based on the first quadrature component and without taking into account an in-phase component of the receive signal. exciting an oscillating circuit of the object at a first frequency to emit the magnetic field, wherein the first frequency corresponds to a resonance frequency of the oscillating circuit, and wherein the oscillating circuit of the object is coupled with first loop antennas of the object; monitoring a receive signal of at least one second loop antenna, the receive signal having a contribution caused by the emitted magnetic field, wherein the at least one second loop antenna is arranged perpendicular and symmetrical to the detection plane, and wherein the object is within a near field distance of the at least one second loop antenna; determining a first quadrature component of the receive signal; and characterised in determining the information on the transit of the object through the detection plane based on the first quadrature component and without taking into account an in-phase component of the receive signal.
A process for selective production of a mercaptan or a sulfide comprising the steps of: a) contacting an alcohol, a sulfur compound reactant having a formula of H - S - R, and a catalyst blend comprising a hydrotreating catalyst and a dehydration catalyst, R comprising H or an alkyl group; and b) reacting the alcohol and the sulfur compound reactant to produce the mercaptan or the sulfide having less than 30 wt. % unreacted alcohol contained therein; and wherein the catalyst blend has a plurality of zones; wherein each zone contains a lower volumetric ratio of the dehydrating catalyst to the hydrotreating catalyst than the previous zone; wherein the dehydrating catalyst comprises gamma (y)-alumina; and wherein the hydrotreating catalyst comprises a Group IIIA-VIIIA transition metal oxide, a Group IIIA-VIIIA transition metal sulfide, or mixture thereof supported on activated carbon, alumina, zirconia, thoria, pumice, silica, or silica-alumina. a) contacting an alcohol, a sulfur compound reactant having a formula of H - S - R, and a catalyst blend comprising a hydrotreating catalyst and a dehydration catalyst, R comprising H or an alkyl group; and b) reacting the alcohol and the sulfur compound reactant to produce the mercaptan or the sulfide having less than 30 wt. % unreacted alcohol contained therein; and wherein the catalyst blend has a plurality of zones; wherein each zone contains a lower volumetric ratio of the dehydrating catalyst to the hydrotreating catalyst than the previous zone; wherein the dehydrating catalyst comprises gamma (y)-alumina; and wherein the hydrotreating catalyst comprises a Group IIIA-VIIIA transition metal oxide, a Group IIIA-VIIIA transition metal sulfide, or mixture thereof supported on activated carbon, alumina, zirconia, thoria, pumice, silica, or silica-alumina.
Cover for elongated shower drain system (100, 100a-100o) for covering a shower channel with a longitudinal orientation (21, 21a-21g), wherein the cover for elongated shower drain system (100, 100a-100o) comprise at least a first applyable covering plate element (1, 1a-1g), with an under side (44, 44a-44g) on a support plate of a bridge-like insert part of a covering plate element (1, 1a-1g) inserted into the shower channel, and wherein the first covering plate element (1, 1a-1g) has an upper surface (19, 19a-19h) and wherein the cover for elongated shower drain system (100, 100a-100o) comprises at least a second covering plate element (17, 17a-17o) having a plane lower surface (18, 18a-18p), and wherein the second covering plate element (17, 17a-17o) overlaps the first covering plate element (1, 1a-1g) with a bridging area (16, 16a-16p) in a cross direction (20, 20a-20o), which lays approximately perpendicular to the longitudinal direction (21, 21a-21g), and wherein with the bridging area (16, 16a-16p) in the assembled state of the shower channel, a variable distance or an interspace (Zr) between the shower channel and a wall tile respectively board can be bridged towards a connecting wall, characterized in that the first covering plate element (1, 1a-1g) in cross-section is C-shaped and the second covering plate element (17, 17a-17o) with the plane lower surfaces (18, 18a-18p) is applyable on the plane upper surfaces (19, 19a- 19h) of the first covering plate element (1, 1a-1g).
A method for controlling a change in resistance in an artificial joint of an orthosis, of an exoskeleton or prosthesis of a lower extremity, wherein the artificial joint has an upper part and a lower part which are fastened to one another pivotably about a pivot axis, wherein a resistance unit is fastened between the upper part and the lower part in order to provide a resistance to flexion or extension of the artificial joint, and the resistance unit is assigned an adjustment device by means of which the resistance is changed if a sensor signal of a control unit assigned to the adjustment device activates the adjustment device, characterized in that the resistance is changed in a manner dependent on the position (φ B) and/or length (L B) of the measured or calculated leg chord (Lc) and/or the derivatives thereof with respect to time, wherein the connecting line between a hip center of rotation (H R) and a foot point (F P) is used as leg chord (Lc).
Stimulation device for the clitoris, comprising: a housing, a cavity defining a volume inside the housing for a medium, a pressure field generating device having a drive unit, which generates a pressure field of media pressures in the cavity from temporally alternating negative and positive pressures that are modulated onto a normal pressure, a control device which controls the drive unit; wherein the housing has a longitudinal axis which extends from a front end of the housing up to a back end of the housing, and there is provision in the front end of the housing for an opening for placement over the clitoris, and wherein the cavity is arranged inside the housing and is connected to the opening in the housing, wherein the cavity has an orientation axis defined by the orientation of the flows of the medium of the pressure field when the positive pressure is generated in the front end of the housing; and the orientation axis forms an angle that is less than or equal to 50 degrees, preferably less than or equal to 35 degrees, with the longitudinal axis. a housing, a cavity defining a volume inside the housing for a medium, a pressure field generating device having a drive unit, which generates a pressure field of media pressures in the cavity from temporally alternating negative and positive pressures that are modulated onto a normal pressure, a control device which controls the drive unit; wherein the housing has a longitudinal axis which extends from a front end of the housing up to a back end of the housing, and there is provision in the front end of the housing for an opening for placement over the clitoris, and wherein the cavity is arranged inside the housing and is connected to the opening in the housing, wherein the cavity has an orientation axis defined by the orientation of the flows of the medium of the pressure field when the positive pressure is generated in the front end of the housing; and the orientation axis forms an angle that is less than or equal to 50 degrees, preferably less than or equal to 35 degrees, with the longitudinal axis.
A sensor kit for a wind energy system, comprising: a sensor (11, 12, 13, 14, 15) to be mounted on the wind energy system for capturing data, a data processing device for processing the captured data, and a network interface for connecting the data processing device to a data network, wherein the network interface is adapted to send data processed by the data processing device to an online-based storage and server service, wherein the sensor kit is adapted to be mounted on a wind energy system in a retrofittable manner, and wherein the network interface uses a cellular standard. a sensor (11, 12, 13, 14, 15) to be mounted on the wind energy system for capturing data, a data processing device for processing the captured data, and a network interface for connecting the data processing device to a data network, wherein the network interface is adapted to send data processed by the data processing device to an online-based storage and server service, wherein the sensor kit is adapted to be mounted on a wind energy system in a retrofittable manner, and wherein the network interface uses a cellular standard.