mhurhangee/ep-ind-claims huggingface dataset:
An air separation device for a water circulation channel, characterized in that it comprises a water conducting element that extends over the entire width of the water circulation channel and whose lateral edges facing the walls of the water circulation channel are connected with the walls of the water circulation channel in a gas-tight manner, and an air separation tub, the water conducting element consisting of two level areas (4.1, 4.2) that are arranged parallel to the surface of the water in the circulation channel and that are connected with one another by a transition region (4.3) in the form of a plate whose profile is bent in an S-shape, the lower edge of the first level area (4.1) - considered first from the perspective of the flow - being located above the surface of the water or water level of the main flow and the upper edge of the second level area (4.2) being located below a water level that is lowered by up to 30 cm from the water level of the main flow, the first level area (4.1) and the transition region (4.3) forming, together with the walls of the water circulation channel, a closed channel that directs the main flow of the water circulation channel downward and causes a reduction in cross-sectional area, and the second level area (4.2) forming the bottom that is perforated, at least in a section, by openings, and the transition region (4.3) forming the front wall of the air separation tub, the size of the openings and their arrangement being selected in such a way that during operation of the water circulation channel water with a high proportion of air is sucked from the water circulation channel in an upstream front part (9.1) of the perforated section [and directed] upward into the air separation tub, and water from which air has been removed in the air separation tub is sucked back down into the main water flow of the water circulation channel in a following downstream rear part (9.2) of the perforated section, the length, in the direction of flow, of the perforated section of the bottom (4.2) of the air separation tub being selected large enough that the volumetric flow rate of the water sucked into the air separation tub at the front part (9.1) of section is equal to the volumetric flow rate of the water flowing from the air separation tub at the rear part (9.2) [of section], and that a water level results in the air separation tub that prevents air being sucked in through the perforated section of the tub; or the air separation tub has a water inlet which can direct enough additional water into the air separation tub to increase the water level so that the aspiration of air through the perforated section is largely prevented at flow velocities of 2.0 to 2.5 m/s.
Method for controlling an air-conditioning device used to generate supply air conditioned by cooling and heating devices for the interior of a vehicle, the control being designed as interference variable control, characterized in that the control is based on a predetermined characteristic map, in which a thermal output requirement to be supplied by the air-conditioning device is determined on the basis of external thermal conditions of the vehicle, a target temperature assigned to the interior and the occupancy of the vehicle by persons.
An optical device for use in an augmented reality or virtual reality device, comprising: a waveguide; a plurality of input diffractive optical elements (6, 8, 10, 12) configured to couple light into the waveguide; an output element configured to receive light from the plurality of input diffractive optical elements in the direction of a first axis, wherein the output element includes two diffractive optical elements overlaid on one another in or on the waveguide, wherein each of the two diffractive optical elements is configured to receive light from the input diffractive optical element and couple it towards the other diffractive optical element which then acts as an output diffractive optical element providing outcoupled orders towards a viewer; characterized in that the plurality of input diffractive optical elements are provided at at least two respective positions along the first axis which are different to one another so that first and second separation distances (d 1, d 2) are provided in the direction of the first axis between the output element and respective input diffractive optical elements. a waveguide; a plurality of input diffractive optical elements (6, 8, 10, 12) configured to couple light into the waveguide; an output element configured to receive light from the plurality of input diffractive optical elements in the direction of a first axis, wherein the output element includes two diffractive optical elements overlaid on one another in or on the waveguide, wherein each of the two diffractive optical elements is configured to receive light from the input diffractive optical element and couple it towards the other diffractive optical element which then acts as an output diffractive optical element providing outcoupled orders towards a viewer; characterized in that the plurality of input diffractive optical elements are provided at at least two respective positions along the first axis which are different to one another so that first and second separation distances (d 1, d 2) are provided in the direction of the first axis between the output element and respective input diffractive optical elements.
Method for compensating abnormal tensile loads (S St) in a strip of an acceleration-guided coiler drive, consisting of a driving motor (10, 12), a drive shaft (12, 14) and a coiler (4, 6), characterised in that an actual motor acceleration (M BM) of this motor (10, 12) is determined from a determined actual motor speed (n M) of the driving motor (10, 12) which is compared with a desired motor acceleration M Bu *, which is calculated from a prespecified motor-related desired acceleration M Bu *, wherein a corrective value (M Kor) is determined from a difference acceleration which is superimposed onto a generated desired motor torque M M * such that the difference acceleration becomes zero.
A cutting tool holding mechanism comprising a base, a handle and at least one locking assembly, wherein the base comprises: a receiving groove depressively disposed in the base; at least one limiting groove depressively disposed in the base and communicated with the receiving groove; the handle, which is abutted against the base, comprising: a sleeved portion, which is disposed inside the receiving groove, comprising at least one butting portion, wherein the butting portion is located at an intersection of the receiving groove and the limiting groove when the sleeved portion is disposed inside the receiving groove; and the at least one locking assembly comprising: a locking screw, comprising: a head portion; and a screwing portion for protruding into the limiting groove; a locking member, which is received inside the limiting groove, comprising: a screwed hole for securing the screwing portion; characterized in that the base comprises at least one limiting hole disposed at the base and communicated with the limiting groove; the locking member further comprises: a guiding groove disposed at one side of the locking member, the guiding groove being aligned with the limiting hole when the locking member being disposed inside the limiting groove, an extending direction of the guiding groove being parallel to a central axis of the limiting groove; and the base further comprises: a guiding bolt disposed in the limiting hole, the guiding bolt abutted against the guiding groove to inhibit the locking member from rotating, the locking member being for moving along the central axis to push against the butting portion. a receiving groove depressively disposed in the base; at least one limiting groove depressively disposed in the base and communicated with the receiving groove; a locking screw, comprising: a head portion; and a screwing portion for protruding into the limiting groove; a head portion; and a screwing portion for protruding into the limiting groove; a locking member, which is received inside the limiting groove, comprising: a screwed hole for securing the screwing portion; characterized in that the base comprises at least one limiting hole disposed at the base and communicated with the limiting groove; the locking member further comprises: a guiding groove disposed at one side of the locking member, the guiding groove being aligned with the limiting hole when the locking member being disposed inside the limiting groove, an extending direction of the guiding groove being parallel to a central axis of the limiting groove; and the base further comprises: a guiding bolt disposed in the limiting hole, the guiding bolt abutted against the guiding groove to inhibit the locking member from rotating, the locking member being for moving along the central axis to push against the butting portion.
A computer-implemented method for constructing a visual map of a target area, comprising: determining pose information of each panoramic image frame from a panoramic image sequence of the target area, and determining a perspective image sequence from each panoramic image frame, wherein the panoramic image frame refers to an image acquired by a panoramic camera, and image information of the target area can be acquired omnidirectionally at an observation angle of 360°; determining a feature track corresponding to the panoramic image sequence based on perspective image sequences corresponding to adjacent panoramic image frames; and constructing the visual map of the target area based on the feature track and the pose information of each panoramic image frame. determining pose information of each panoramic image frame from a panoramic image sequence of the target area, and determining a perspective image sequence from each panoramic image frame, wherein the panoramic image frame refers to an image acquired by a panoramic camera, and image information of the target area can be acquired omnidirectionally at an observation angle of 360°; determining a feature track corresponding to the panoramic image sequence based on perspective image sequences corresponding to adjacent panoramic image frames; and constructing the visual map of the target area based on the feature track and the pose information of each panoramic image frame.
A multiple input multiple output imaging array for incident angle resolved images with respect to a device under test, the multiple input multiple output imaging array comprising: a redundant array of transmit (11a, 12a, 13a, 14a) and receive (11b, 12b, 13b, 14b) antennas, and a controller, wherein the controller is configured to implement a selection scheme, wherein the selection scheme selects the respective transmit and receive antenna pairs used to create a millimeter wave image, wherein the redundant array is redundant with respect to at least one dimension, and characterized in that the selection scheme for pairing the transmit and receive antenna pairs is based on selection of desired incident angles at points of specular reflection in front of a respective physical aperture and a resulting virtual array is densely sampled for reconstruction of the millimeter wave image. a redundant array of transmit (11a, 12a, 13a, 14a) and receive (11b, 12b, 13b, 14b) antennas, and a controller, wherein the controller is configured to implement a selection scheme, wherein the selection scheme selects the respective transmit and receive antenna pairs used to create a millimeter wave image, wherein the redundant array is redundant with respect to at least one dimension, and wherein the controller is configured to implement a selection scheme, wherein the selection scheme selects the respective transmit and receive antenna pairs used to create a millimeter wave image, wherein the redundant array is redundant with respect to at least one dimension, and characterized in that the selection scheme for pairing the transmit and receive antenna pairs is based on selection of desired incident angles at points of specular reflection in front of a respective physical aperture and a resulting virtual array is densely sampled for reconstruction of the millimeter wave image.
Projection screen having a surface which consists at least partially of at least one synthetic material and on which at least one connecting device is arranged, wherein the connecting device is used to connect the projection screen to a frame system, formed of profile elements, of a device for reproducing projected images, wherein the connecting device includes a metallic latching part having a base on which at least one side wall is arranged, said latching part being formed to receive, in a latching manner, a counter-piece arranged on the frame system, characterised in that a connecting element consisting of a weldable polymer is arranged on the base and on the at least one side wall of the latching part and is formed with a flat, brim-shaped edge which is part of the at least approximately plate-shaped connecting element, wherein the connecting element is arranged between the latching part and the surface and the edge protrudes laterally beyond the latching part, and wherein the connecting device is welded to the synthetic material of the surface, further in that the base comprises at least one opening and the connecting element protrudes through the opening of the base and protrudes beyond this in the direction of the at least one side wall, wherein a part of the connecting element protruding beyond the base in the direction of the side wall has a larger diameter than the opening in the base, and in that the side wall comprises a protrusion and the connecting element covers the side wall at least as far as the region of the protrusion.
An antenna device, comprising at least: a plurality of rod-like cores arranged in series; a coil formed by winding a conductive wire; and a capacitor electrically connected to the coil, wherein a first rod-like core, which is selected from the plurality of rod-like cores, and a second rod-like core, which is selected from the plurality of rod-like cores and is arranged on any one end portion side of the first rod-like core, are arranged apart from each other, and wherein at least one end surface, which is selected from an end surface of the first rod-like core on a side on which the second rod-like core is arranged and an end surface of the second rod-like core on a side on which the first rod-like core is arranged, is located on an inner peripheral side of the coil, characterized in that length of the coil in an axial direction is shorter than a length of the first rod-like core in an axial direction and a length of the second rod-like core in an axial direction. a plurality of rod-like cores arranged in series; a coil formed by winding a conductive wire; and a capacitor electrically connected to the coil, wherein a first rod-like core, which is selected from the plurality of rod-like cores, and a second rod-like core, which is selected from the plurality of rod-like cores and is arranged on any one end portion side of the first rod-like core, are arranged apart from each other, and wherein at least one end surface, which is selected from an end surface of the first rod-like core on a side on which the second rod-like core is arranged and an end surface of the second rod-like core on a side on which the first rod-like core is arranged, is located on an inner peripheral side of the coil, characterized in that length of the coil in an axial direction is shorter than a length of the first rod-like core in an axial direction and a length of the second rod-like core in an axial direction.
A method of zeroing displacement data, wherein the data is derived from a rotor having an array of features that rotate at a rotational speed, the features monitored by an array of stationary timing probes; the method comprising steps for each feature to: a) measure actual time of arrival of the feature at each probe for at least two revolutions of the rotor; b) subtract a predicted time of arrival of the feature at each probe to give a difference; c) multiply the difference by the rotational speed to calculate the displacement (d j) at each probe for each measured revolution; d) define each displacement (d j) as a sum of a common term (P common) and a unique term (P j_unique), wherein the common term (P common) is common to all the calculated displacements and the unique term (P j_unique) is dependent on the probe; e) solve the set of displacements (d j) for the common term (P common) and the unique terms (P j_unique); f) calculate a probe offset (P j_offset) from each unique term (P j_unique); and g) determine the zeroed displacements (d j) by subtracting at least part of the common term (P common) and probe offset (P j_offset) from the calculated displacements (d j) for each probe. a) measure actual time of arrival of the feature at each probe for at least two revolutions of the rotor; b) subtract a predicted time of arrival of the feature at each probe to give a difference; c) multiply the difference by the rotational speed to calculate the displacement (d j) at each probe for each measured revolution; d) define each displacement (d j) as a sum of a common term (P common) and a unique term (P j_unique), wherein the common term (P common) is common to all the calculated displacements and the unique term (P j_unique) is dependent on the probe; e) solve the set of displacements (d j) for the common term (P common) and the unique terms (P j_unique); f) calculate a probe offset (P j_offset) from each unique term (P j_unique); and g) determine the zeroed displacements (d j) by subtracting at least part of the common term (P common) and probe offset (P j_offset) from the calculated displacements (d j) for each probe.
An information indication method, comprising: receiving, by a terminal device, indication information from a network device, wherein the indication information indicates a location of a first subcarrier and bandwidth information, wherein the bandwidth information indicates a resource block, RB, quantity corresponding to a bandwidth of a first system; and determining, by the terminal device, a first resource based on the indication information, wherein the first resource is to-be-reserved in a second system for receiving a reference signal in a first system; wherein the first subcarrier is a subcarrier of the second system corresponding to a center subcarrier of the first system. receiving, by a terminal device, indication information from a network device, wherein the indication information indicates a location of a first subcarrier and bandwidth information, wherein the bandwidth information indicates a resource block, RB, quantity corresponding to a bandwidth of a first system; and determining, by the terminal device, a first resource based on the indication information, wherein the first resource is to-be-reserved in a second system for receiving a reference signal in a first system; wherein the first subcarrier is a subcarrier of the second system corresponding to a center subcarrier of the first system.
A bipolar flow field plate for being positioned between a pair of membrane assemblies of fuel cell assemblies, the bipolar flow field plate comprising: a front surface comprising at least one serpentine first flow channel extending between an air inlet header and an air outlet header for reactant air, wherein each of the at least one first flow channel comprises a plurality of first bypass grooves for bypassing one or more sections of the at least one first flow channel; a rear surface comprising at least one serpentine second flow channel extending between a hydrogen inlet header and a hydrogen outlet header for hydrogen, wherein each of the at least one second flow channel comprises a plurality of second bypass grooves for bypassing one or more sections of the at least one second flow channel; and a plurality of coolant fins (404, 405, 406, 407) for coolant air formed on the front surface and the rear surface between the air inlet header, the air outlet header, the hydrogen inlet header, and the hydrogen outlet header. a front surface comprising at least one serpentine first flow channel extending between an air inlet header and an air outlet header for reactant air, wherein each of the at least one first flow channel comprises a plurality of first bypass grooves for bypassing one or more sections of the at least one first flow channel; a rear surface comprising at least one serpentine second flow channel extending between a hydrogen inlet header and a hydrogen outlet header for hydrogen, wherein each of the at least one second flow channel comprises a plurality of second bypass grooves for bypassing one or more sections of the at least one second flow channel; and a plurality of coolant fins (404, 405, 406, 407) for coolant air formed on the front surface and the rear surface between the air inlet header, the air outlet header, the hydrogen inlet header, and the hydrogen outlet header.
A DNA-directed RNA interference (ddRNAi) agent for inhibiting expression of one or more target sequences in one or more Hepatitis B virus genes, the ddRNAi agent comprising, in a 5' to 3' direction: a first effector sequence of at least 17 nucleotides in length; a second effector sequence of at least 17 nucleotides in length; a second effector complement sequence; and a first effector complement sequence; wherein each effector sequence is at least 85% complementary to the predicted transcript of a target sequence, and wherein at least one of the effector sequences comprises any 10 or more contiguous nucleotides of the sequence set forth in SEQ ID NO: 9. a first effector sequence of at least 17 nucleotides in length; a second effector sequence of at least 17 nucleotides in length; a second effector complement sequence; and a first effector complement sequence;
A polypeptide (a), (b), or (c) below: (a) a polypeptide consisting of the amino acid sequence as shown in SEQ ID NO: 32; (b) a polypeptide consisting of an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 32 by substitution, deletion, insertion, and/or addition of one amino acid or up to 30 amino acids and having an activity of improving the secretion productivity of a target protein in a host; or (c) a polypeptide consisting of an amino acid sequence having 85% or higher sequence identity with the amino acid sequence as shown in SEQ ID NO: 32, and having an activity of improving the secretion productivity of a target protein in a host. (a) a polypeptide consisting of the amino acid sequence as shown in SEQ ID NO: 32; (b) a polypeptide consisting of an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 32 by substitution, deletion, insertion, and/or addition of one amino acid or up to 30 amino acids and having an activity of improving the secretion productivity of a target protein in a host; or (c) a polypeptide consisting of an amino acid sequence having 85% or higher sequence identity with the amino acid sequence as shown in SEQ ID NO: 32, and having an activity of improving the secretion productivity of a target protein in a host.
Cleaning tool for an aerosol-generating device, the cleaning tool comprises a cleaning head and a handle, wherein at least a part of the cleaning head is rotatably mounted in the handle, characterized in that the cleaning tool further comprises at least one suspension element arranged between the cleaning head and the handle, wherein the suspension element is arranged to engage the cleaning head with the handle to prevent relative rotation between the cleaning head and the handle, if a torque below a predetermined threshold is applied between the cleaning head and the handle, and wherein the suspension element is configured to disengage the cleaning head from the handle, if a torque above a predetermined threshold is applied between the cleaning head and the handle.