mhurhangee/patent-ind-claim-en huggingface dataset:
Method for roping an elevator, which elevator comprises an elevator car , equipped with car pulleys and arranged to run up and down in an elevator shaft , a counterweight , equipped with pulleys and connected to the elevator car with at least a hoisting rope from above, a machinery traction sheave at the upper part of the elevator shaft , a car side rope terminal and a counterweight side rope terminal , and in which method a reel for each hoisting rope is placed on the roof of the elevator car , and the method comprises at least the following steps: a) the elevator car being at the lower part of the elevator shaft the first end of each hoisting rope is taken from each reel and routed with the help of the installation means from the first side of the elevator car under the car pulleys and raised from the second side of the elevator car to its temporary fastening point at the upper part of the elevator car where the first end of each hoisting rope is temporarily fastened, characterized in that , b) the elevator car and the counterweight are hoisted to the top of the elevator shaft with the help of the auxiliary hoist equipped with an auxiliary hoisting rope after which the first end of each hoisting rope is routed around the machinery traction sheave and thereafter around the counterweight pulleys and thereafter fastened to the counterweight side rope terminal , c) the counterweight is lowered with the help of the auxiliary hoist to the bottom part of the shaft so that the counterweight pulls each hoisting rope from each reel through the whole roping system, d) the second end of each hoisting rope is fastened to the car side rope terminal . a) the elevator car being at the lower part of the elevator shaft the first end of each hoisting rope is taken from each reel and routed with the help of the installation means from the first side of the elevator car under the car pulleys and raised from the second side of the elevator car to its temporary fastening point at the upper part of the elevator car where the first end of each hoisting rope is temporarily fastened, characterized in that , b) the elevator car and the counterweight are hoisted to the top of the elevator shaft with the help of the auxiliary hoist equipped with an auxiliary hoisting rope after which the first end of each hoisting rope is routed around the machinery traction sheave and thereafter around the counterweight pulleys and thereafter fastened to the counterweight side rope terminal , c) the counterweight is lowered with the help of the auxiliary hoist to the bottom part of the shaft so that the counterweight pulls each hoisting rope from each reel through the whole roping system, d) the second end of each hoisting rope is fastened to the car side rope terminal .
A method of making propylene and alkylate, the method comprising: providing a stream comprising n -butenes, wherein the providing of the stream comprising n -butenes comprises contacting a first stream comprising ethylene with a dimerization catalyst to form the stream comprising n -butenes, wherein the stream comprising n -butenes further comprises unconsumed ethylene; contacting the stream comprising n -butenes with a second stream comprising ethylene in the presence of a disproportionation catalyst to form a stream comprising propylene and C 4+ olefins; removing propylene from the stream comprising propylene and C 4+ olefins to form a stream comprising C 4+ olefins; and contacting the stream comprising C 4+ olefins with a stream comprising isobutane in the presence of an alkylation catalyst to form alkylate. providing a stream comprising n -butenes, wherein the providing of the stream comprising n -butenes comprises contacting a first stream comprising ethylene with a dimerization catalyst to form the stream comprising n -butenes, wherein the stream comprising n -butenes further comprises unconsumed ethylene; contacting the stream comprising n -butenes with a second stream comprising ethylene in the presence of a disproportionation catalyst to form a stream comprising propylene and C 4+ olefins; removing propylene from the stream comprising propylene and C 4+ olefins to form a stream comprising C 4+ olefins; and contacting the stream comprising C 4+ olefins with a stream comprising isobutane in the presence of an alkylation catalyst to form alkylate.
A terminal apparatus that communicates with one or multiple base station apparatuses , the terminal apparatus comprising: a receiver configured to receive a Radio Resource Control, RRC, connection reconfiguration message including a Data Radio Bearer, DRB, configuration from a base station apparatus of the one or multiple base station apparatuses ; and the terminal apparatus is characterised by a processing unit configured to notify a higher layer of information indicating that a DRB having a DRB identity is established and an EPS bearer identity of the DRB established, based on the fact that the DRB identity included in the DRB configuration is not configured in the terminal apparatus , and an Evolved Universal Terrestrial Radio Access, E-UTRA, Packet Data Convergence Protocol, PDCP, entity configuration is included in the DRB configuration. a receiver configured to receive a Radio Resource Control, RRC, connection reconfiguration message including a Data Radio Bearer, DRB, configuration from a base station apparatus of the one or multiple base station apparatuses ; and the terminal apparatus is characterised by a processing unit configured to notify a higher layer of information indicating that a DRB having a DRB identity is established and an EPS bearer identity of the DRB established, based on the fact that the DRB identity included in the DRB configuration is not configured in the terminal apparatus , and an Evolved Universal Terrestrial Radio Access, E-UTRA, Packet Data Convergence Protocol, PDCP, entity configuration is included in the DRB configuration.
A media filtration device with a prefabricated preparation container which has an inflow for a solvent and an outflow for a solution , wherein a preparation chamber with a medium to be dissolved is arranged between the inflow and the outflow , wherein the preparation container has a filter , and wherein at least one fixed mixing arm connected to the inflow protrudes into the medium to be dissolved with at least one mixing nozzle arranged on its free end for generating a solvent jet into the medium to be dissolved in the preparation chamber , wherein the preparation container has a base part and a cover part , between which the preparation chamber is arranged, characterized in that the filter is formed as a sterile filter, in that the filter has a circumferential outer edge on its filtrate side facing the outflow , with which it rests on a circumferential rest edge of the base part and to which it is firmly connected, in that a sterilized filtrate space is formed between the filtrate side of the filter and the outflow arranged in the base part and in that the mixing nozzle is arranged in the preparation chamber so that it generates a directed solvent jet which moves the medium to be dissolved in a circular flow over the filter . in that the filter is formed as a sterile filter, in that the filter has a circumferential outer edge on its filtrate side facing the outflow , with which it rests on a circumferential rest edge of the base part and to which it is firmly connected, in that a sterilized filtrate space is formed between the filtrate side of the filter and the outflow arranged in the base part and in that the mixing nozzle is arranged in the preparation chamber so that it generates a directed solvent jet which moves the medium to be dissolved in a circular flow over the filter .
A waveguide arrangement for thermally separating a generator , which is configured for generating high-frequency measurement signals in the microwave range, from an antenna system , wherein the antenna system is specified for a higher temperature than the generator , and wherein the antenna system is connected to the generator by means of a waveguide tube for the transmission of the high-frequency measurement signals, the waveguide arrangement comprising: a sheath , whose inner wall corresponds at least in sections to a shape of the outer wall of the waveguide tube and which accommodates the waveguide tube at least in sections, wherein the sheath has a similar coefficient of thermal expansion as the waveguide tube , wherein the inner side of the sheath has an expansion , in particular a conical expansion , in the region of one end of the sheath , which is designed for pressing in and fixing the waveguide tube during assembly of the waveguide arrangement . wherein the antenna system is specified for a higher temperature than the generator , and wherein the antenna system is connected to the generator by means of a waveguide tube for the transmission of the high-frequency measurement signals, the waveguide arrangement comprising: a sheath , whose inner wall corresponds at least in sections to a shape of the outer wall of the waveguide tube and which accommodates the waveguide tube at least in sections, wherein the sheath has a similar coefficient of thermal expansion as the waveguide tube , wherein the inner side of the sheath has an expansion , in particular a conical expansion , in the region of one end of the sheath , which is designed for pressing in and fixing the waveguide tube during assembly of the waveguide arrangement . a sheath , whose inner wall corresponds at least in sections to a shape of the outer wall of the waveguide tube and which accommodates the waveguide tube at least in sections, wherein the sheath has a similar coefficient of thermal expansion as the waveguide tube , wherein the inner side of the sheath has an expansion , in particular a conical expansion , in the region of one end of the sheath , which is designed for pressing in and fixing the waveguide tube during assembly of the waveguide arrangement .
Primer, for providing adherence between the conversion layer of a luminescence conversion LED, emitting, among others, blue light waves, and an embedding compound, colourless or coloured, and clear transparent or turbid, provided thereon, and for diffracting the blue light waves penetrating through the conversion layer, in such a way that at least a part of the diffracted blue light waves are reflected at the transition from the primer to the embedding compound, and pass through the primer back into the conversion layer, wherein the primer comprises a nano-scale metal oxide for the diffraction of the blue light waves penetrating through the layer, and is itself composed of a first component containing the metal oxide and a second component containing an isocyanate-functional constituent part, preferably isocyanate.
A lighting system with selectable emission characteristics comprising: a controller ; and a plurality of light sources operatively coupled to the controller; wherein each of the plurality of light sources is individually operable to emit a combined light; wherein the controller is configured to control emission characteristics of the plurality of light sources to alter the combined light such that the combined light has a color temperature greater than about 3000 Kelvin, a Color Rendering Index of greater than about 65, and a photosynthetic efficiency of greater than about 1 micromole Yield Photon Flux per Watt; and wherein the plurality of light sources has light-emitting diodes in a ratio of about 6 hyper-red LEDs to 1 amber LEDs to 5 blue-white LEDs. a controller ; and a plurality of light sources operatively coupled to the controller; wherein each of the plurality of light sources is individually operable to emit a combined light; wherein the controller is configured to control emission characteristics of the plurality of light sources to alter the combined light such that the combined light has a color temperature greater than about 3000 Kelvin, a Color Rendering Index of greater than about 65, and a photosynthetic efficiency of greater than about 1 micromole Yield Photon Flux per Watt; and wherein the plurality of light sources has light-emitting diodes in a ratio of about 6 hyper-red LEDs to 1 amber LEDs to 5 blue-white LEDs.
Method for manufacturing an assembled camshaft , in particular for valve-controlled internal combustion engines, in the case of which method at least one cam plate with a base circle region and a cam region is machined on the running face by means of a running-face machining apparatus, the at least one cam plate having a cam-plate recess , by means of which the cam plate is shrink-fitted onto a corresponding shaft which is configured with a defined dimensional overlap, the at least one cam plate being clamped by means of a clamping apparatus , temporally before the shrink-fitting onto the shaft , in such a way that a clamping force acts on that recess wall region of the cam plate which defines the cam-plate recess , which clamping force corresponds to a predefined extent to the clamping and/or deformation state of the recess wall region after the shrink-fitting operation of the cam plate onto the corresponding shaft , and in that the running-face machining of the at least one cam plate takes place in the state, in which it is clamped by means of the clamping apparatus , characterized in that the clamping apparatus has a clamping tube , onto which the at least one cam plate is pushed with its cam-plate recess , the clamping tube being widened at least in the region which is assigned to the cam-plate recess , in such a way that, in the case of widening of the said region, which widening is brought about by way of corresponding force loading and is directed outwards in the direction of the cam plate , the defined clamping force is exerted onto that recess wall region of the cam plate which delimits the cam-plate recess , in that the clamping tube is configured so as to be closed on one side, and is connected on its other end side to a pressure medium source which generates a high pressure, with the result that the clamping tube is loaded with a defined high hydraulic pressure (P) in order to widen it, and in that , in order to produce the desired deformations, the clamping tube is configured with a differing wall thickness in the circumferential direction, in such a way that the clamping tube is of non-round configuration on the inner circumference and of cylindrical configuration on the outer circumference.
A medical system including an MR scanner and a reconstruction processor , said medical system being configured for imaging a vessel wall of a target vessel in a patient, said medical system comprising: a controller including: a scout unit configured to perform a single scout scan of the patient for localizing the target vessel of the patient using the MR scanner ; the scout scan being three-dimensional and isotropic; a scout reconstruction unit configured to reconstruct an MR data set of the scout scan into foot-to-head (FH), left-to-right (LR) and posterior-to-anterior (PA) projections, wherein the scout reconstruction unit is further configured to reconstruct the MR data set of the scout scan into a 3D image and to project the 3D image to respective two-dimensional images in the FH, LR and PA directions, respectively, said 2D images corresponding to said projections, respectively; an imaging-volume unit configured to determine a 3D imaging volume encompassing the target vessel from the projections; and a diagnostic unit configured to perform a diagnostic scan of the 3D imaging volume using the MR scanner . a scout unit configured to perform a single scout scan of the patient for localizing the target vessel of the patient using the MR scanner ; the scout scan being three-dimensional and isotropic; a scout reconstruction unit configured to reconstruct an MR data set of the scout scan into foot-to-head (FH), left-to-right (LR) and posterior-to-anterior (PA) projections, wherein the scout reconstruction unit is further configured to reconstruct the MR data set of the scout scan into a 3D image and to project the 3D image to respective two-dimensional images in the FH, LR and PA directions, respectively, said 2D images corresponding to said projections, respectively; an imaging-volume unit configured to determine a 3D imaging volume encompassing the target vessel from the projections; and a diagnostic unit configured to perform a diagnostic scan of the 3D imaging volume using the MR scanner .
A milk module for generating milk foam or milk beverages, for installing into a housing of a coffee machine , with a milk container , a conveyor pump and a device for heating milk or for generating the milk foam or other milk beverages, wherein the milk module is designed as an independent unit, which is installable into the housing of the coffee machine independent from a coffee module for generating coffee, and which is comprising a cooling chamber , connected to a cooling assembly for receiving the milk container , the conveyor pump , a device for generating the steam, the device for heating milk or for generating the milk foam, characterised in that the milk module comprises moreover a connection means, which is formed by a socket attachment and by which the heated milk or the generated milk foam can be conveyed through at least one discharge line to the coffee outlet in the coffee machine.
A multi-directional operation switch structure, comprising: a casing ; a slider at least a portion of which penetrates through the casing and is exposed to an outside to be coupled to a knob ; and a holder configured to protect an internal component including at least another portion of the slider , wherein the holder is configured to guide a movement of the slider on a plane based on a virtual central axis formed in the vertical direction, wherein the holder comprises a lower movement limitation part for restricting a movement in a downward direction of the slider ; and an upper movement limitation part for restricting a movement in an upward direction of the slider , wherein the lower movement limitation part and the upper movement limitation part are arranged to be staggered in a top view, wherein the lower movement limitation part is provided in a center of the holder , while the upper movement limitation part is provided around the lower movement limitation part at an outside thereof, charcterized in that the upper movement limitation part is configured as two in a symmetrical structure with the lower movement limitation part as the center, and in that the two upper movement limitation parts are formed with an opening that opens in a first rotational direction on the plane. a casing ; a slider at least a portion of which penetrates through the casing and is exposed to an outside to be coupled to a knob ; and a holder configured to protect an internal component including at least another portion of the slider , wherein the holder is configured to guide a movement of the slider on a plane based on a virtual central axis formed in the vertical direction, wherein the holder comprises a lower movement limitation part for restricting a movement in a downward direction of the slider ; and an upper movement limitation part for restricting a movement in an upward direction of the slider , wherein the lower movement limitation part and the upper movement limitation part are arranged to be staggered in a top view, wherein the lower movement limitation part is provided in a center of the holder , while the upper movement limitation part is provided around the lower movement limitation part at an outside thereof, charcterized in that the upper movement limitation part is configured as two in a symmetrical structure with the lower movement limitation part as the center, and in that the two upper movement limitation parts are formed with an opening that opens in a first rotational direction on the plane.
Computer-implemented method for measuring progress in the construction of a building (B), wherein a) a digital building model (BM) of the building (B) is read in, b) a spatial arrangement of a building element surface (F1,...,F4) in the building (B) is determined on the basis of the building model (BM) for a respective building element (BE1,...,BE4), c) the building (B) is scanned by means of a 3D scanner (S3D), wherein a multiplicity of spatial scanning points (P, P') are generated, d) at least some of the scanning points (P, P') are assigned to spatially corresponding building element surfaces (F1,...,F4), characterized in that e) a building element surface-specific depth map (DM2) is generated for a respective building element surface (F1,...,F4) on the basis of the scanning points (P, P') specifically assigned to this building element surface, and f) the generated depth maps (DM2) are compared with previously generated depth maps (DM1) in order to determine construction progress. a) a digital building model (BM) of the building (B) is read in, b) a spatial arrangement of a building element surface (F1,...,F4) in the building (B) is determined on the basis of the building model (BM) for a respective building element (BE1,...,BE4), c) the building (B) is scanned by means of a 3D scanner (S3D), wherein a multiplicity of spatial scanning points (P, P') are generated, d) at least some of the scanning points (P, P') are assigned to spatially corresponding building element surfaces (F1,...,F4), characterized in that e) a building element surface-specific depth map (DM2) is generated for a respective building element surface (F1,...,F4) on the basis of the scanning points (P, P') specifically assigned to this building element surface, and f) the generated depth maps (DM2) are compared with previously generated depth maps (DM1) in order to determine construction progress.
A polarimetric radar, comprising a transmission assembly that emits circularly polarized waves via transmission antennas, and a receiver assembly that receives the reflected circularly polarized waves using an antenna assembly, wherein the receiver assembly comprises individual antenna elements and real individual receiver antennas, wherein as the receiver assembly a plurality of two-channel receivers is provided, which simultaneously receive clockwise- and anticlockwise-rotating circularly polarized signal components which are provided for digital beam shaping downstream of the antenna assembly, characterized in that the transmission assembly comprises a plurality of transmitters in a horizontal direction and a vertical direction, the phase centre spacings of which are chosen dependent upon the phase centre spacing of the individual antenna elements of the receiver such that periodically recurring main lobes are suppressed by means of half-line transmission location changeover, wherein two transmitters of the plurality of transmitters are arranged at a spacing which is (n-0.5) times the spacing dz of the phase centre of the real individual receiver antennas, where n is a natural number. wherein as the receiver assembly a plurality of two-channel receivers is provided, which simultaneously receive clockwise- and anticlockwise-rotating circularly polarized signal components which are provided for digital beam shaping downstream of the antenna assembly, characterized in that the transmission assembly comprises a plurality of transmitters in a horizontal direction and a vertical direction, the phase centre spacings of which are chosen dependent upon the phase centre spacing of the individual antenna elements of the receiver such that periodically recurring main lobes are suppressed by means of half-line transmission location changeover, wherein two transmitters of the plurality of transmitters are arranged at a spacing which is (n-0.5) times the spacing dz of the phase centre of the real individual receiver antennas, where n is a natural number.