mhurhangee/ep-ind-claims huggingface dataset:
A control device with a sensor, which has a sensor unit for detecting objects and evaluation means in which an error-free evaluation of sensor signals of the sensor unit takes place in order to generate an output signal, the control device forming a positioning device which is designed for positioning a storage and retrieval unit, an electric overhead conveyor or a transverse transfer carriage, characterised in that the evaluation means have an evaluation unit for evaluating the sensor signals and a monitoring unit for monitoring the evaluation unit, the monitoring unit being formed by a second evaluation unit, in that the evaluation means have an evaluation unit for evaluating the sensor signals and a monitoring unit for monitoring the evaluation unit, the monitoring unit being formed by a second evaluation unit, the evaluation unit and the monitoring unit being formed by identically designed computer units which monitor one another cyclically and are connected by a bidirectional line and monitor one another with regard to whether they generate identical output signals, and generate a corresponding error message when an error occurs, in that two diversely designed data interfaces (13, 14) which are constructed from different components or have different interface parameters and pin assignments are provided, a first data interface receiving the output signal from the evaluation unit and outputting it to an external unit via a first data line, and wherein the second data interface receives the output signal from the monitoring unit and outputs it to the external unit via a second data line, and wherein, if an error occurs, the output signal is output to the external unit with the error message, whereby the external unit fulfils safety-relevant functions and ensures fail-safe processing of the output signals, and in that positions and/or speeds of objects are detected with the sensor unit, and in that the output signals are formed by position signals and/or speed signals.
An exhaust purification filter, adapted to be arranged in an exhaust passage in an internal combustion engine, for trapping particulate matter which is contained in exhaust gas, in which the exhaust purification filter is provided with alternately arranged exhaust gas inflow passages and exhaust gas outflow passages and porous partition walls which separate these exhaust gas inflow passages and exhaust gas outflow passages from each other, a fine zone is defined at an upstream side of the partition walls and a rough zone is defined at a downstream side of the partition walls, wherein a median micropore diameter of the partition walls in the rough zone is set larger than a median micropore diameter of the partition walls in the fine zone and is set so that ash which is contained in the exhaust gas can pass through the partition walls, and promoting members are provided for promoting the passage of exhaust gas which flows into the exhaust gas inflow passages through the partition walls of the fine zone and flow into the exhaust gas outflow passages, wherein, in said fine zone, coat layers with a median micropore diameter smaller than the median micropore diameter of the substrates of the partition walls cover the surfaces of the substrates and, in said rough zone, the surfaces of the substrates of the partition walls are not covered by said coat layers, and wherein said coat layers are provided so as to stick out from the surfaces of the substrates which face said exhaust gas inflow passages inward in the exhaust gas inflow passages and wherein said promoting members are comprised of said coat layers, characterized in that a median micropore diameter of substrates of the partition wall is 25 μm to 100 μm. wherein a median micropore diameter of the partition walls in the rough zone is set larger than a median micropore diameter of the partition walls in the fine zone and is set so that ash which is contained in the exhaust gas can pass through the partition walls, and promoting members are provided for promoting the passage of exhaust gas which flows into the exhaust gas inflow passages through the partition walls of the fine zone and flow into the exhaust gas outflow passages, wherein, in said fine zone, coat layers with a median micropore diameter smaller than the median micropore diameter of the substrates of the partition walls cover the surfaces of the substrates and, in said rough zone, the surfaces of the substrates of the partition walls are not covered by said coat layers, and wherein said coat layers are provided so as to stick out from the surfaces of the substrates which face said exhaust gas inflow passages inward in the exhaust gas inflow passages and wherein said promoting members are comprised of said coat layers, characterized in that a median micropore diameter of substrates of the partition wall is 25 μm to 100 μm.
A separation matrix comprising a plurality of multimodal ligands covalently coupled to a support, wherein said support is a membrane comprising nonwoven polymer fibers and wherein said ligands are capable of interacting with a target biomacromolecule, wherein said multimodal ligands comprise multimodal cation exchange ligands, and wherein said multimodal cation exchange ligands comprise copolymer chains comprising units derived from a) a first monomer of structure CH 2 =CH-L 4 -X 1, where L 4 is a covalent bond or an alkyl ether or hydroxyl substituted alkyl ether chain comprising 2-6 carbon atoms, and X 1 is a sulfonate or phosphonate group and b) a second non-charged vinyl amide monomer. wherein said ligands are capable of interacting with a target biomacromolecule, wherein said multimodal ligands comprise multimodal cation exchange ligands, and wherein said multimodal cation exchange ligands comprise copolymer chains comprising units derived from a) a first monomer of structure CH 2 =CH-L 4 -X 1, where L 4 is a covalent bond or an alkyl ether or hydroxyl substituted alkyl ether chain comprising 2-6 carbon atoms, and X 1 is a sulfonate or phosphonate group and b) a second non-charged vinyl amide monomer. a) a first monomer of structure CH 2 =CH-L 4 -X 1, where L 4 is a covalent bond or an alkyl ether or hydroxyl substituted alkyl ether chain comprising 2-6 carbon atoms, and X 1 is a sulfonate or phosphonate group and b) a second non-charged vinyl amide monomer.
A spiral tap comprising: a screw portion provided with a male screw; a primary flute in a helical shape formed to intersect with a screw thread of the male screw; and a secondary flute formed in a tip portion in the primary flute, wherein a cutting edge is formed on a ridgeline between a side wall surface toward a tap rotation direction out of a pair of side wall surfaces of the secondary flute and an outer circumferential surface of the screw portion and has a rake angle of -10 to 0 degrees, and wherein the secondary flute has a flute bottom slope of 5 to 15 degrees, characterized in that the secondary flute is formed at a helix angle smaller than a helix angle (α) of the primary flute, and the secondary flute has a positive or negative helix angle (β) of 0 to 3 degrees.
A protective tape comprising an adhesive layer, a thermoplastic resin layer and a backing material film layer in that order; wherein the adhesive layer comprises a thermosetting adhesive agent composition comprising a phenoxy resin, an epoxy resin, a curing agent and a curing accelerator, a modulus ratio of a shear storage modulus of the adhesive layer to a shear storage modulus of the thermoplastic resin layer at an application temperature at which the protective tape is applied of 60°C is 0.01 or less, and the shear storage modulus is the shear storage modulus G' at 60°C measured and calculated using a viscoelasticity measuring device at a measurement temperature range of 0°C to 120°C, a temperature increase of 5°C/min, a vibration frequency of 1 Hz and a deformation of 0.1%, wherein the shear storage modulus of the thermoplastic resin layer at 60° C is 1.0E+07 Pa or less. wherein the adhesive layer comprises a thermosetting adhesive agent composition comprising a phenoxy resin, an epoxy resin, a curing agent and a curing accelerator, a modulus ratio of a shear storage modulus of the adhesive layer to a shear storage modulus of the thermoplastic resin layer at an application temperature at which the protective tape is applied of 60°C is 0.01 or less, and the shear storage modulus is the shear storage modulus G' at 60°C measured and calculated using a viscoelasticity measuring device at a measurement temperature range of 0°C to 120°C, a temperature increase of 5°C/min, a vibration frequency of 1 Hz and a deformation of 0.1%, wherein the shear storage modulus of the thermoplastic resin layer at 60° C is 1.0E+07 Pa or less.
Method for producing video recordings using a mobile camera device, the method comprising the following steps: a) provision of video templates, each video template having a large number of specified scenes; b) user selection of a video template; c) display and optional editing of video and/or scene information; d) receipt of a user input to start the recording of the specified scene; e) recording of the currently specified scene; f) checking (106, 107) of the recorded scene and either - repetition of the recording of the last scene or - storage of the last scene and beginning of the recording of the next scene, until all the specified scenes are completed; g) optional insertion and/or editing of video data; h) optional editing of the scenes; and i) combination of the recorded scenes according to the selected video template to make a video, and storage of the video; characterized in that the mobile camera device determines position and optionally movement data and stores same with the scene and uses same for the steps of recording and/or editing the scenes, the editing and/or recording including the insertion of animated and/or static graphic elements, and the graphic elements being made available for selection on the basis of the position data and optionally the time of the recording of the recorded scene. a) provision of video templates, each video template having a large number of specified scenes; b) user selection of a video template; c) display and optional editing of video and/or scene information; d) receipt of a user input to start the recording of the specified scene; e) recording of the currently specified scene; f) checking (106, 107) of the recorded scene and either - repetition of the recording of the last scene or - storage of the last scene and beginning of the recording of the next scene, until all the specified scenes are completed; - repetition of the recording of the last scene or - storage of the last scene and beginning of the recording of the next scene, g) optional insertion and/or editing of video data; h) optional editing of the scenes; and i) combination of the recorded scenes according to the selected video template to make a video, and storage of the video;
A method of manufacturing an integrated circuit comprising at least one high-voltage MOS transistor, HV, and at least one capacitor, CAPA, the method comprising the successive steps of: a) forming, on a semiconductor layer, a first insulating layer at the location of the HV transistor; b) depositing a first polysilicon layer; c) forming a gate stack of the HV transistor and a first electrode of capacitor CAPA by etching the first polysilicon layer; d) successively forming a first silicon oxide layer, a silicon nitride layer and a second silicon oxide layer; e) depositing a second polysilicon layer; f) forming a second electrode of capacitor CAPA at least partly resting on the first electrode by etching the second polysilicon layer, and removing the exposed portions of the second oxide layer by leaving in place the silicon nitride layer and the first silicon oxide layer; g) forming, on the silicon nitride layer, first silicon oxide spacers laterally bordering the gate stack of the HV transistor, the first and second electrodes and a portion of the second oxide layer left in place under the second electrode; and h) forming, on the silicon nitride layer, second silicon nitride spacers laterally bordering the first spacers. a) forming, on a semiconductor layer, a first insulating layer at the location of the HV transistor; b) depositing a first polysilicon layer; c) forming a gate stack of the HV transistor and a first electrode of capacitor CAPA by etching the first polysilicon layer; d) successively forming a first silicon oxide layer, a silicon nitride layer and a second silicon oxide layer; e) depositing a second polysilicon layer; f) forming a second electrode of capacitor CAPA at least partly resting on the first electrode by etching the second polysilicon layer, and removing the exposed portions of the second oxide layer by leaving in place the silicon nitride layer and the first silicon oxide layer; g) forming, on the silicon nitride layer, first silicon oxide spacers laterally bordering the gate stack of the HV transistor, the first and second electrodes and a portion of the second oxide layer left in place under the second electrode; and h) forming, on the silicon nitride layer, second silicon nitride spacers laterally bordering the first spacers.
An ultrasonic flow meter for measuring a flow rate of a medium flowing through a conduit in a flow direction, said ultrasonic flow meter consisting of an ultrasonic transducer arrangement and meter electronics, the ultrasonic transducer arrangement consisting of: a first ultrasonic emitter and a second ultrasonic emitter mounted to said conduit, a first ultrasonic receiver mounted to said conduit and configured to receive a first ultrasonic signal emitted by said first ultrasonic emitter, wherein said first ultrasonic signal travels perpendicularly to said flow direction along a first transmission path length and forms a first angle (α) between said first transmission path and said flow direction, and a second ultrasonic receiver mounted to said conduit and configured to receive a second ultrasonic signal emitted by said second ultrasonic emitter, wherein said second ultrasonic signal travels downstream with respect to said flow direction along a second transmission path length and forms a second angle (β) between said second transmission path and said flow direction; said meter electronics being arranged to determine said flow rate based on a first time interval of said first ultrasonic signal traveling from said first ultrasonic emitter to said first ultrasonic receiver, and a second time interval of said second ultrasonic signal traveling from said second ultrasonic emitter to said second ultrasonic receiver, characterised in that said second angle β has a value of 0°. a first ultrasonic emitter and a second ultrasonic emitter mounted to said conduit, a first ultrasonic receiver mounted to said conduit and configured to receive a first ultrasonic signal emitted by said first ultrasonic emitter, wherein said first ultrasonic signal travels perpendicularly to said flow direction along a first transmission path length and forms a first angle (α) between said first transmission path and said flow direction, and a second ultrasonic receiver mounted to said conduit and configured to receive a second ultrasonic signal emitted by said second ultrasonic emitter, wherein said second ultrasonic signal travels downstream with respect to said flow direction along a second transmission path length and forms a second angle (β) between said second transmission path and said flow direction; said meter electronics being arranged to determine said flow rate based on a first time interval of said first ultrasonic signal traveling from said first ultrasonic emitter to said first ultrasonic receiver, and a second time interval of said second ultrasonic signal traveling from said second ultrasonic emitter to said second ultrasonic receiver, characterised in that said second angle β has a value of 0°.
A formulation comprising a 300mg dose of vedolizumab of 60mg/ml vedolizumab in 50mM histidine, 125mM arginine, 0.06% polysorbate 80, 10% sucrose at pH 6.3 reconstituted from a lyophilized formulation.
A rotor blade mold (150, 160, 200) for production of a rotor blade or part of a rotor blade, especially for a wind turbine, comprising - a mold insert (152, 162, 210), having ∘ a mold side that forms a cavity and is for shaping of a rotor blade or part of a rotor blade, and ∘ a structure side facing away from the mold side, - an insulation layer (250, 250') disposed on the structure side, and - a multitude of fill elements made of an insulation material, characterized in that - the insulation layer (250, 250') has an adhesive, especially a spray adhesive and/or a hotmelt adhesive, and - the mold insert (152, 162, 210) comprises or consists of a plastic, especially a fiber composite plastic. - a mold insert (152, 162, 210), having ∘ a mold side that forms a cavity and is for shaping of a rotor blade or part of a rotor blade, and ∘ a structure side facing away from the mold side, ∘ a mold side that forms a cavity and is for shaping of a rotor blade or part of a rotor blade, and ∘ a structure side facing away from the mold side, - an insulation layer (250, 250') disposed on the structure side, and - a multitude of fill elements made of an insulation material, characterized in that - the insulation layer (250, 250') has an adhesive, especially a spray adhesive and/or a hotmelt adhesive, and - the mold insert (152, 162, 210) comprises or consists of a plastic, especially a fiber composite plastic.
A method for internet protocol flow routing in a communication network including a first access network and a second access network, wherein a mobile terminal can connect to a first access network and a second access network at the same time, comprising: obtaining a set of network data; determining at least one policy used in determining the routing of internet protocol flows of the mobile terminal; determining routing for at least one internet protocol flow of the mobile terminal through at least one of said access networks based at least in part on the set of network data and the at least one policy, characterized in that determining at least one policy used in determining the routing of internet protocol flows of the mobile terminal is based at least in part on the set of network data. obtaining a set of network data; determining at least one policy used in determining the routing of internet protocol flows of the mobile terminal; determining routing for at least one internet protocol flow of the mobile terminal through at least one of said access networks based at least in part on the set of network data and the at least one policy, characterized in that determining at least one policy used in determining the routing of internet protocol flows of the mobile terminal is based at least in part on the set of network data.
Household appliance, having - a treatment chamber which can be closed by means of a pivotable door, - at least one camera arranged in the door for recording images from the treatment chamber when the door is opened, and - a door movement sensor for detecting values of at least one parameter of a door movement and wherein - the door movement sensor has at least one inertial sensor, the at least one camera and the at least one inertial sensor are integrated into a camera/sensor module, which is arranged in the door, - the camera/sensor module has a data communication device at least for emitting image data of the camera of the camera/sensor module, - the household appliance is designed to trigger at least one appliance function by detecting at least one trigger value, and - the camera/sensor module has an evaluation facility, which is designed to evaluate measuring signals of the at least one inertial sensor for determining the at least one parameter value, and to trigger at least one action by detecting at least one trigger value, characterised in that the evaluation facility is merged with the at least one inertial sensor in a shared, integrated sensor which, together with the data communication facility, is embodied on a communications printed circuit board. - a treatment chamber which can be closed by means of a pivotable door, - at least one camera arranged in the door for recording images from the treatment chamber when the door is opened, and - a door movement sensor for detecting values of at least one parameter of a door movement and - the door movement sensor has at least one inertial sensor, the at least one camera and the at least one inertial sensor are integrated into a camera/sensor module, which is arranged in the door, - the camera/sensor module has a data communication device at least for emitting image data of the camera of the camera/sensor module, - the household appliance is designed to trigger at least one appliance function by detecting at least one trigger value, and - the camera/sensor module has an evaluation facility, which is designed to evaluate measuring signals of the at least one inertial sensor for determining the at least one parameter value, and to trigger at least one action by detecting at least one trigger value, characterised in that the evaluation facility is merged with the at least one inertial sensor in a shared, integrated sensor which, together with the data communication facility, is embodied on a communications printed circuit board.
System of a reinforced structural element of a motor vehicle, the system comprising: a structural element which comprises a first sheet and a second sheet, wherein the sheets (4, 5) are connected to one another at a first joining point and at a second joining point, and wherein the sheets (4, 5) form an elongate cavity in the region between the first joining point and the second joining point, and wherein the second sheet has, in the region between the first joining point and the second joining point, a bulge with a first leg (5.1) arranged at the first joining point and with a second leg (5.2) arranged at the second joining point; a reinforcing element which comprises a first side wall, a second side wall and a connecting wall connecting the side walls (21, 22), and which is arranged in the cavity of the structural element; and adhesive which bonds the reinforcing element to the structural element; wherein the first side wall of the reinforcing element is arranged in the region of the first joining point and the second side wall of the reinforcing element is arranged in the region of the second leg (5.2) of the second sheet so that the larger portion of a force acting on the first joining point in the direction of the reinforcing element is transferred, by the reinforcing element, to the second leg (5.2) of the second sheet, characterized in that the adhesive is a non-expandable adhesive. a structural element which comprises a first sheet and a second sheet, wherein the sheets (4, 5) are connected to one another at a first joining point and at a second joining point, and wherein the sheets (4, 5) form an elongate cavity in the region between the first joining point and the second joining point, and wherein the second sheet has, in the region between the first joining point and the second joining point, a bulge with a first leg (5.1) arranged at the first joining point and with a second leg (5.2) arranged at the second joining point; a reinforcing element which comprises a first side wall, a second side wall and a connecting wall connecting the side walls (21, 22), and which is arranged in the cavity of the structural element; and adhesive which bonds the reinforcing element to the structural element; wherein the first side wall of the reinforcing element is arranged in the region of the first joining point and the second side wall of the reinforcing element is arranged in the region of the second leg (5.2) of the second sheet so that the larger portion of a force acting on the first joining point in the direction of the reinforcing element is transferred, by the reinforcing element, to the second leg (5.2) of the second sheet, characterized in that the adhesive is a non-expandable adhesive.