mhurhangee/ep-ind-claims huggingface dataset:
A handle device for a walking stick, umbrella or parasol, for holding a utility item in the form of a beverage cup, for example a coffee cup, beverage bottle, smartphone, e-book or notepad, and comprising a storage device wherein at least one folding mechanism device with at least one carrier element is comprised; wherein the carrier element is provided with at least one, in particular two elastic fixing strips, such that the utility item, in particular the coffee cup, is receivable and is holdable in gripping manner by means of the fixing strip(s) in a folded-out state of the storage device; that the carrier element is completely foldable into the storage device by means of the folding mechanism device and hence completely receivable inside the storage device; wherein in a folded-in position a closed jacket surface of the handle device is formed from a jacket area of the storage device and from a jacket area of the carrier element, such that the carrier element is not discernible from the outside; wherein the handle device comprises a button mechanism; wherein the button mechanism is preferably designed as a spring-loaded pusher, such that the folding mechanism device may be folded out by pressing a button element of the button mechanism.
Sewage or stormwater system comprising a controller well, a first pipeline, and a flow controller arranged to control flow in the sewage or stormwater system, wherein the sewage or stormwater system further comprises at least a reservoir or a stormwater well, which via the first pipeline is connected to the controller well, in which the flow controller is housed and from which sewage or stormwater is suitable for being led on therefrom by means of a second pipe, wherein the flow controller comprises a slide and a float, which is directly connected to the slide and arranged to displace the slide in dependence on a water level in the controller well, characterized in that the flow controller comprises a pipe piece which is connected to the first pipeline and opens into the controller well, that the pipe piece comprises a substantially horizontal portion, in which from below a vertical groove is cut out across the pipe piece on either side thereof up to approximately half the diameter of the pipe piece, that the slide has a disc-shaped portion, which extends from below into the groove and is vertically displaceable relative thereto, and that the disc-shaped portion comprises an upper part with a shape which is complementary to an upper half of the inner cross-sectional area of the pipe piece, and a lower part which is so large that it can cover a lower half of the outer part of the pipe piece cross-sectional area. wherein the flow controller comprises a slide and a float, which is directly connected to the slide and arranged to displace the slide in dependence on a water level in the controller well, characterized in that the flow controller comprises a pipe piece which is connected to the first pipeline and opens into the controller well, that the pipe piece comprises a substantially horizontal portion, in which from below a vertical groove is cut out across the pipe piece on either side thereof up to approximately half the diameter of the pipe piece, that the slide has a disc-shaped portion, which extends from below into the groove and is vertically displaceable relative thereto, and that the disc-shaped portion comprises an upper part with a shape which is complementary to an upper half of the inner cross-sectional area of the pipe piece, and a lower part which is so large that it can cover a lower half of the outer part of the pipe piece cross-sectional area.
A method of controlling a Customer Premises Equipment, CPE, in a cellular communications network, the cellular communications network having an overlapping coverage area with a Wireless Local Access Network, WLAN, the method comprising the steps of: the CPE receiving data relating to the WLAN and cellular communications networks; the CPE analysing the received data; and the CPE configuring a downlink capacity of the cellular communications network based on the analysis of the received data, by changing the ratio of uplink capacity to downlink capacity of the cellular communications network. the CPE receiving data relating to the WLAN and cellular communications networks; the CPE analysing the received data; and the CPE configuring a downlink capacity of the cellular communications network based on the analysis of the received data, by changing the ratio of uplink capacity to downlink capacity of the cellular communications network.
Sheet for a stamped part for an automobile body lining, reinforcement or structure, also referred to as body-in-white, made from aluminium alloy in the AA6xxx series, with the composition (% by weight) of: Si: 0.85-1.20 Fe: < 0.30 Cu: 0.10-0.30 Mg: 0.70-0.90 Mn: < 0.30 Zn: 0.9-1.60 V: 0.02-0.30 Ti: 0.05-0.20 other elements < 0.05 each and < 0.15 in total, the remainder aluminium. Si: 0.85-1.20 Fe: < 0.30 Cu: 0.10-0.30 Mg: 0.70-0.90 Mn: < 0.30 Zn: 0.9-1.60 V: 0.02-0.30 Ti: 0.05-0.20 other elements < 0.05 each and < 0.15 in total, the remainder aluminium.
A video quality assessing apparatus, comprising: an alignment information generating part to receive an undeteriorated reference video signal and a deteriorated video signal produced from the reference video signal and generate alignment information indicative of a temporal deviation between a reference video frame from the reference video signal and a deteriorated video frame from the deteriorated video signal and indicative of a spatial deviation between the reference and deteriorated video frames; characterized by a spatial feature value calculating part to eliminate the spatial and temporal deviations according to the alignment information and calculate spatial feature values of the reference and deteriorated video frames according to spatial information indicative of video states of the reference and deteriorated video frames, said spatial feature values being indicative of edge energy and a minimum horizontal/vertical edge quantity; a temporal feature value calculating part to eliminate the spatial and temporal deviations according to the alignment information and calculate temporal feature values of the reference and deteriorated video frames according to temporal information indicative of frame-to-frame video changes of the reference and deteriorated video frames; and a subjective quality estimating part to estimate a subjective quality of the deteriorated video signal according to the spatial and temporal feature values. an alignment information generating part to receive an undeteriorated reference video signal and a deteriorated video signal produced from the reference video signal and generate alignment information indicative of a temporal deviation between a reference video frame from the reference video signal and a deteriorated video frame from the deteriorated video signal and indicative of a spatial deviation between the reference and deteriorated video frames; characterized by a spatial feature value calculating part to eliminate the spatial and temporal deviations according to the alignment information and calculate spatial feature values of the reference and deteriorated video frames according to spatial information indicative of video states of the reference and deteriorated video frames, said spatial feature values being indicative of edge energy and a minimum horizontal/vertical edge quantity; a temporal feature value calculating part to eliminate the spatial and temporal deviations according to the alignment information and calculate temporal feature values of the reference and deteriorated video frames according to temporal information indicative of frame-to-frame video changes of the reference and deteriorated video frames; and a subjective quality estimating part to estimate a subjective quality of the deteriorated video signal according to the spatial and temporal feature values.
Method for connecting at least two component parts (11, 12) by means of a punch-riveting apparatus, wherein the at least two component parts (11, 12) are arranged between a punch and a dolly, and wherein a rivet arranged between the punch and a component part, facing the punch, of the at least two component parts is pushed into the at least two component parts (11, 12) by means of the punch in that a force is applied to the punch, wherein at least one component (11, 12, 15, 18, 20) involved in the pushing in of the rivet is set in vibration by means of an ultrasound generator during the pushing in, characterized in that, while the rivet is being pushed in, a time gradient of the force is determined at least temporarily, wherein the time gradient of the force is used to identify a defect in at least one of the component parts (11, 12) and/or the rivet, wherein the identification of the defect is performed on the basis of a comparison of the time gradient of the force with at least one threshold value that is predefined depending on the at least two component parts (11, 12) and/or the rivet.
A method for the face-side chamfering of gear teeth (21.1, 21.2) of a workpiece in a CNC-controlled multiaxis machine, characterized by the following steps: - employing a tool in the multiaxis machine, wherein the tool has at least one cutting tooth having a first rake face (121.1) and a second rake face (121.2), - driving the tool in a first rotational direction, - executing first CNC-controlled relative movements while the tool rotates in the first rotational direction to chamfer a first face-side edge of a first tooth (21.1) of the gear teeth using the first rake face (121.1) of the tool, - executing second CNC-controlled relative movements while the tool rotates in the first rotational direction, to chamfer a second face-side edge of the first tooth (21.1) or another tooth (21.2) of the gear teeth using the second rake face (121.2) of the tool, wherein the CNC-controlled relative movements during the chamfering are continuous movements similar to power skiving, and an axis intersection angle (Σ) of the tool axis with the workpiece axis is predefined in absolute value in the range between 10° and 30°. - employing a tool in the multiaxis machine, wherein the tool has at least one cutting tooth having a first rake face (121.1) and a second rake face (121.2), - driving the tool in a first rotational direction, - executing first CNC-controlled relative movements while the tool rotates in the first rotational direction to chamfer a first face-side edge of a first tooth (21.1) of the gear teeth using the first rake face (121.1) of the tool, - executing second CNC-controlled relative movements while the tool rotates in the first rotational direction, to chamfer a second face-side edge of the first tooth (21.1) or another tooth (21.2) of the gear teeth using the second rake face (121.2) of the tool,
A speaker unit comprising: a magnet having poles and generating magnetic flux; a yoke part forming a path of the magnetic flux and comprising a first yoke extending from one of the poles, a second yoke extending from another one of the poles, and magnetic gaps (241, 251) disposed between the first yoke and the second yoke; a voice coil disposed between the magnetic gaps (241, 251) and moving when applied with an electric current; and a diaphragm generating sound pressure while vibrating according to the movement of the voice coil, wherein the first yoke comprises: a first magnetic plate a second magnetic plate; and a spacer plate; wherein the first magnetic plate is disposed between the spacer plate and the magnet; and the spacer plate is disposed between the first magnetic plate and the second magnetic plate; wherein the magnetic plates protrude toward the second yoke; and the magnetic plates (240, 250) have thicknesses different from each other such that the voice coil performs an asymmetric motion about a zero point for generating asymmetric sound waves. a magnet having poles and generating magnetic flux; a yoke part forming a path of the magnetic flux and comprising a first yoke extending from one of the poles, a second yoke extending from another one of the poles, and magnetic gaps (241, 251) disposed between the first yoke and the second yoke; a voice coil disposed between the magnetic gaps (241, 251) and moving when applied with an electric current; and a diaphragm generating sound pressure while vibrating according to the movement of the voice coil, wherein the first yoke comprises: a first magnetic plate a second magnetic plate; and a spacer plate; wherein the first magnetic plate is disposed between the spacer plate and the magnet; and the spacer plate is disposed between the first magnetic plate and the second magnetic plate; wherein the magnetic plates protrude toward the second yoke; and a first magnetic plate a second magnetic plate; and a spacer plate; wherein the first magnetic plate is disposed between the spacer plate and the magnet; and the spacer plate is disposed between the first magnetic plate and the second magnetic plate; wherein the magnetic plates protrude toward the second yoke; and the magnetic plates (240, 250) have thicknesses different from each other such that the voice coil performs an asymmetric motion about a zero point for generating asymmetric sound waves.
An array for molecule detection using arrayed imaging reflectometry on an arrayed imaging reflectometry sensor chip, using a competitive inhibition style immunoassay, wherein the arrayed imaging reflectometry chip has an antireflective surface, the array comprising: a probe comprising a target molecule, printed on a surface of the sensor chip wherein the target molecule is conjugated to a linker or bound to a carrier protein; and a blocking agent, the blocking agent providing a thickening layer on the surface of the AIR sensor chip and creating an inert surface that is not prone to proteins or other molecules non-specifically binding to the AIR sensor chip surface; the AIR sensor chip being configured such that when the AIR sensor chip is contacted with a sample solution comprising the target molecule and an antibody, that specifically binds to the target molecule, a portion of the antibody binds to the probe. a probe comprising a target molecule, printed on a surface of the sensor chip wherein the target molecule is conjugated to a linker or bound to a carrier protein; and a blocking agent, the blocking agent providing a thickening layer on the surface of the AIR sensor chip and creating an inert surface that is not prone to proteins or other molecules non-specifically binding to the AIR sensor chip surface; the AIR sensor chip being configured such that when the AIR sensor chip is contacted with a sample solution comprising the target molecule and an antibody, that specifically binds to the target molecule, a portion of the antibody binds to the probe.
A bin for collecting, storing and/or distributing goods, wherein the bin comprises, for increased fire safety, a vessel and fire-extinguishing means provided at or near the vessel as well as means provided at the fire-extinguishing means for detecting a fire in said bin and for activating the fire-extinguishing means, characterized in that said fire-extinguishing means comprise an impulse extinguisher.
A display apparatus, comprising a display device, an out-cell device and a flexible printed circuit board adapted to be connected to an external signal; wherein, the out-cell device is an auxiliary device for realizing a three-dimensional display effect, a touch control device or an electrochromic device; a binding area of the display device has first leads and second leads; a binding area of the out-cell device has third leads, the third leads being electrically connected to the second leads; the flexible printed circuit board has first pins and second pins, the first leads being electrically connected to the first pins, and the second leads being electrically connected to the second pins; and characterized in that the third leads are electrically connected to the second leads via a conductive glue, the conductive glue being further covered with a layer of protective glue. an external signal; wherein, the out-cell device is an auxiliary device for realizing a three-dimensional display effect, a touch control device or an electrochromic device; a binding area of the display device has first leads and second leads; a binding area of the out-cell device has third leads, the third leads being electrically connected to the second leads; the flexible printed circuit board has first pins and second pins, the first leads being electrically connected to the first pins, and the second leads being electrically connected to the second pins; and characterized in that the third leads are electrically connected to the second leads via a conductive glue, the conductive glue being further covered with a layer of protective glue.
A computer-implemented method of configuring a parallel processing unit, the method comprising, by a processor: receiving a plurality of related instructions; identifying data hazards in the plurality of related instructions, each data hazard comprising a primary instruction and one or more secondary instructions; determining whether each identified data hazard is a high latency data hazard or a low latency data hazard; allocating each primary instruction a counter of a plurality of counters for tracking the identified data hazard, wherein the counter allocated to a primary instruction is from a first subset of the plurality of counters when the identified data hazard is a low latency data hazard and the counter allocated to a primary instruction is from a second subset of the plurality of counters when the identified data hazard is a high latency data hazard; generating a computer executable instruction for each primary instruction that comprises information indicating that the computer executable instruction is a primary instruction and information identifying the counter allocated to the primary instruction; generating a computer executable instruction for each secondary instruction that comprises information indicating that the computer executable instruction is a secondary instruction and information identifying the counter allocated to the corresponding primary instruction; and loading the computer executable instructions into the parallel processing unit. receiving a plurality of related instructions; identifying data hazards in the plurality of related instructions, each data hazard comprising a primary instruction and one or more secondary instructions; determining whether each identified data hazard is a high latency data hazard or a low latency data hazard; allocating each primary instruction a counter of a plurality of counters for tracking the identified data hazard, wherein the counter allocated to a primary instruction is from a first subset of the plurality of counters when the identified data hazard is a low latency data hazard and the counter allocated to a primary instruction is from a second subset of the plurality of counters when the identified data hazard is a high latency data hazard; generating a computer executable instruction for each primary instruction that comprises information indicating that the computer executable instruction is a primary instruction and information identifying the counter allocated to the primary instruction; generating a computer executable instruction for each secondary instruction that comprises information indicating that the computer executable instruction is a secondary instruction and information identifying the counter allocated to the corresponding primary instruction; and loading the computer executable instructions into the parallel processing unit.
A foamable aqueous food product consisting of: • 0.001-0.8 wt.% of lentil albumin; • 0.01-5 wt.% of lentil starch; • 0-0.02 wt.%, preferably 0-0.01 wt.% of triglycerides; • 80-99 wt.% water; and • 2-19 wt.% of other ingredients; wherein the food product contains at least 30% by weight of dry matter of food ingredients selected from monosaccharides, disaccharides, oligosaccharides, non-lentil polysaccharides, non-lentil proteinaceous matter, minerals and combinations thereof. • 0.001-0.8 wt.% of lentil albumin; • 0.01-5 wt.% of lentil starch; • 0-0.02 wt.%, preferably 0-0.01 wt.% of triglycerides; • 80-99 wt.% water; and • 2-19 wt.% of other ingredients;
Process for the preparation of an oxysulfide and fluorinated derivative of formula Ea-SOOR, comprising the reaction, in the presence of an organic solvent: i) of at least one compound of formula Ea-COOR, where Ea represents the fluorine atom or a group having from 1 to 10 carbon atoms chosen from fluoroalkyls, perfluoroalkyls and fluoroalkenyls, and R represents hydrogen, a monovalent cation or an alkyl group, and ii) of a sulfur oxide, said process being such that the initial molar ratio (sulfur oxide/compound of formula) is less than 0.4 and the concentration of dissolved sulfur oxide in the reaction medium is kept constant throughout the duration of the reaction at a value of between 0.2 weight% and 3 weight% by a continuous addition of said sulfur oxide to the reaction medium. i) of at least one compound of formula Ea-COOR, where Ea represents the fluorine atom or a group having from 1 to 10 carbon atoms chosen from fluoroalkyls, perfluoroalkyls and fluoroalkenyls, and R represents hydrogen, a monovalent cation or an alkyl group, and ii) of a sulfur oxide,
A pressurization control system comprising: a first damper having a first operating range that includes a deadband; a second damper operatively coupled to the first damper, the second damper having a second operating range that corresponds to the deadband; a room controller configured to generate a control signal, wherein the control signal drives the first damper to a position corresponding to the deadband, and wherein the control signal drives the second damper to a position corresponding to the second operating range, and the control signal drives the second damper to direct the air flow towards a pressure set point. a first damper having a first operating range that includes a deadband; a second damper operatively coupled to the first damper, the second damper having a second operating range that corresponds to the deadband; a room controller configured to generate a control signal, wherein the control signal drives the first damper to a position corresponding to the deadband, and wherein the control signal drives the second damper to a position corresponding to the second operating range, and the control signal drives the second damper to direct the air flow towards a pressure set point.