mhurhangee/ep-ind-claims huggingface dataset:
A spray dispenser operably connectable to a container for dispensing fluid from the container, the spray dispenser comprising: (i) a pump, (ii) a shroud disposed about at least a portion of the pump, the shroud having a shroud bottom edge defining an open end; (iii) a nozzle in fluid communication with the pump, the nozzle adjacent to an opening in the shroud and extending outwardly therefrom; and (iv) a unitary sprayer cover having: - a first portion spaced apart from the open end of the shroud to define a shroud top of the shroud, and - a second portion having a proximal end connected to the first portion and a distal end disposed away from the first portion; the second portion extending from the first portion to define a nozzle housing at least partially surrounding the nozzle further comprising: a spout having a longitudinal axis, a spout outer surface and a spout inner surface, the spout is rotatably mounted to the nozzle housing through engagement of the spout inner surface with an outer surface of the nozzle housing to define a bearing surface between the spout and the nozzle housing. (i) a pump, (ii) a shroud disposed about at least a portion of the pump, the shroud having a shroud bottom edge defining an open end; (iii) a nozzle in fluid communication with the pump, the nozzle adjacent to an opening in the shroud and extending outwardly therefrom; and (iv) a unitary sprayer cover having: - a first portion spaced apart from the open end of the shroud to define a shroud top of the shroud, and - a second portion having a proximal end connected to the first portion and a distal end disposed away from the first portion; the second portion extending from the first portion to define a nozzle housing at least partially surrounding the nozzle - a first portion spaced apart from the open end of the shroud to define a shroud top of the shroud, and - a second portion having a proximal end connected to the first portion and a distal end disposed away from the first portion; the second portion extending from the first portion to define a nozzle housing at least partially surrounding the nozzle
Control device for a production module for processing or handling a product in a production system comprising a multiplicity of production modules (PM, PM1,..., PM3), with a) a settings management module for detecting constraints that must be complied with by operating settings of the production module, and for the respective generation of a constraint data record (CR1, CR2,...) which specifies a detected constraint and identifies the operating setting restricted thereby, wherein the settings management module is configured to dynamically detect a product, to generate a change notification in response to such detection, to transmit the change notification to a synchronizing module and/or to an adjacent production module (PM1, PM2), and to initiate a capture of constraints imposed by interaction of the production module with the product in response to the detection, b) a data memory for storing a local constraints table with a multiplicity of constraint data records (CR1, CR2,...), c) the synchronizing module for iterative reading in of first constraint data records of a corresponding constraints table of a first adjacent production module, for iterative building of the local constraints table based on the read-in first constraint data records, by synchronizing them with constraint data records (CR1, CR2,...) stored in the local constraints table, and for iterative forwarding of second constraint data records of the local constraints table to a second adjacent production module, and d) a control module for setting an operating setting according to a constraint data record of the local constraints table which identifies said operating setting. a) a settings management module for detecting constraints that must be complied with by operating settings of the production module, and for the respective generation of a constraint data record (CR1, CR2,...) which specifies a detected constraint and identifies the operating setting restricted thereby, wherein the settings management module is configured to dynamically detect a product, to generate a change notification in response to such detection, to transmit the change notification to a synchronizing module and/or to an adjacent production module (PM1, PM2), and to initiate a capture of constraints imposed by interaction of the production module with the product in response to the detection, b) a data memory for storing a local constraints table with a multiplicity of constraint data records (CR1, CR2,...), c) the synchronizing module for iterative reading in of first constraint data records of a corresponding constraints table of a first adjacent production module, for iterative building of the local constraints table based on the read-in first constraint data records, by synchronizing them with constraint data records (CR1, CR2,...) stored in the local constraints table, and for iterative forwarding of second constraint data records of the local constraints table to a second adjacent production module, and d) a control module for setting an operating setting according to a constraint data record of the local constraints table which identifies said operating setting.
A method for wireless communication performed by a user equipment, UE, comprising: receiving radio resource control, RRC, signaling including a configuration that indicates a transmission configuration indicator, TCI, state switching pattern and a TCI state switching period, the TCI state switching period indicating a number of a plurality of transmission time intervals, TTIs, and the TCI state switching pattern indicating a TCI state for each of the plurality of TTIs; performing TCI state switching according to the TCI state switching pattern and the TCI state switching period; and receiving a downlink transmission during at least one of the plurality of TTIs of the TCI state switching pattern. receiving radio resource control, RRC, signaling including a configuration that indicates a transmission configuration indicator, TCI, state switching pattern and a TCI state switching period, the TCI state switching period indicating a number of a plurality of transmission time intervals, TTIs, and the TCI state switching pattern indicating a TCI state for each of the plurality of TTIs; performing TCI state switching according to the TCI state switching pattern and the TCI state switching period; and receiving a downlink transmission during at least one of the plurality of TTIs of the TCI state switching pattern.
A flap device for an internal combustion engine, comprising: a flow housing in which a flow channel is formed; an actuating shaft; a flap body arranged on the actuating shaft in the flow channel; a housing bore arranged in the flow housing, the actuating shaft protruding outwards through said bore; a lever fixed on the actuating shaft; a bearing bush arranged in the housing bore, the actuating shaft being mounted therein; and a sealing disk comprising a surface which is configured to be at least partially spherically shaped, characterized in that the at least partially spherically shaped surface rests under tension against a rear wall of the lever. a flow housing in which a flow channel is formed; an actuating shaft; a flap body arranged on the actuating shaft in the flow channel; a housing bore arranged in the flow housing, the actuating shaft protruding outwards through said bore; a lever fixed on the actuating shaft; a bearing bush arranged in the housing bore, the actuating shaft being mounted therein; and a sealing disk comprising a surface which is configured to be at least partially spherically shaped, characterized in that the at least partially spherically shaped surface rests under tension against a rear wall of the lever.
A cutting tool comprising at least a first cutting edge and at least a first identification marker arranged at the first cutting edge wherein the at least first identification marker is a machine readable code associated with a first cutting edge information data (1ceID), wherein the cutting tool further comprises a second cutting edge and a second identification marker arranged at the second cutting edge, wherein the second identification marker is a machine readable code associated with a second cutting edge information data (2ceID) characterized in that the first cutting edge information data (1ceID) and the second cutting edge information data (2ceID) are unique identities.
A lock, in particular a hoop lock, having a lock housing (15, 21), in which a lock cylinder of the lock is arranged, including a cylinder housing, a cylinder core rotatably mounted in the cylinder housing and an entrainer device associated in a drive effective manner with the cylinder core, and having at least one bolt coupled to the cylinder core via the entrainer device, so that by means of a rotation of the cylinder core the at least one bolt can be moved from a locked position into a release position, wherein the lock housing (15, 21) has a receiving space in an axial extension of the lock cylinder, wherein the lock cylinder or a part thereof can be displaced from an operating position into the receiving space on the application of a predefined force in the axial direction of the lock cylinder to adopt a sabotage position in which the coupling of the at least one bolt to the cylinder core is taken out of operation, characterized in that, in the sabotage position of the lock cylinder or of the part thereof, an abutment portion of the lock housing (15, 21) blocks the at least one bolt from a movement out of the locked position into the release position.
A light-emitting diode system (600, 1000, 1200) comprising: an alternating current voltage source; a rectifier coupled to the alternating current voltage source to generate a rectified voltage signal; a dimmer coupled to the rectifier for receiving the rectified voltage signal and generating an input voltage signal; one or more LED stages, each of the LED stages comprising a LED segment and a current regulator; characterised by a line regulation circuit coupled to the dimmer to receive the input voltage signal and to provide a current control signal to the one or more current regulators, the line regulation circuit comprising: a scaling circuit for scaling a signal; an averaging circuit for generating a time-average of a signal; a subtraction circuit for subtracting a signal from another signal; and a multiplication circuit for multiplying a signal by another signal. an alternating current voltage source; a rectifier coupled to the alternating current voltage source to generate a rectified voltage signal; a dimmer coupled to the rectifier for receiving the rectified voltage signal and generating an input voltage signal; one or more LED stages, each of the LED stages comprising a LED segment and a current regulator; characterised by a line regulation circuit coupled to the dimmer to receive the input voltage signal and to provide a current control signal to the one or more current regulators, the line regulation circuit comprising: a scaling circuit for scaling a signal; an averaging circuit for generating a time-average of a signal; a subtraction circuit for subtracting a signal from another signal; and a multiplication circuit for multiplying a signal by another signal. a scaling circuit for scaling a signal; an averaging circuit for generating a time-average of a signal; a subtraction circuit for subtracting a signal from another signal; and a multiplication circuit for multiplying a signal by another signal.
A vane arm assembly for a gas turbine engine comprising: a vane arm having a first end, a second end opposite the first end, and an aperture proximate the second end, the aperture being defined by an aperture wall; a vane stem extending through the aperture of the vane arm; and a mechanical fastener retaining a position of the vane arm in a longitudinal direction of the vane stem, characterized by an impedance clip partially enclosing a portion of the second end of the vane arm to provide redundant position retention of the vane arm in the longitudinal direction of the vane stem. a vane arm having a first end, a second end opposite the first end, and an aperture proximate the second end, the aperture being defined by an aperture wall; a vane stem extending through the aperture of the vane arm; and a mechanical fastener retaining a position of the vane arm in a longitudinal direction of the vane stem, characterized by an impedance clip partially enclosing a portion of the second end of the vane arm to provide redundant position retention of the vane arm in the longitudinal direction of the vane stem.
" A motor vehicle comprising a passenger compartment inside a car body, a plurality of wheels outside the passenger compartment, and an airbag unit comprising at least one airbag enclosing at least one chamber and at least one inflater for inflating at least one chamber, wherein said at least one airbag is located between a wheel and said car body or between the motor block and the passenger compartment wherein said airbag is made of a hose extending from a first end to a second end, said hose comprising a one-pieced woven hose element, wherein the tube is bent or folded, such that two parallel sections (24a, 24b) of the airbag are formed, with each section (24a, 24b) enclosing a chamber, and a separate gas-feeding path is provided for each chamber, wherein an inflater or a tube being connected to an inflater extends through each face side opening of the hose ".
A recombinant protein comprising a listeriolysin O protein, wherein said LLO protein comprises a mutation within the cholesterol-binding domain located at residues 483-493 of said LLO protein as set forth in SEQ ID NO: 37, wherein said mutation consists of a substitution of the amino acid residues at positions 484-492 as set forth in SEQ ID NO: 37 with a non-LLO peptide of 8-50 amino acid residues comprising an immunogenic portion of an antigenic peptide, wherein said antigenic peptide is a Human Papilloma Virus E7 antigen, an HPV E6 antigen, a NY-ESO-1 antigen, a B-cell receptor, a Prostate Specific Antigen, Prostate Stem Cell Antigen (PSCA), a Stratum Corneum Chymotryptic Enzyme (SCCE) antigen, Wilms tumor antigen 1 (WT-1), human telomerase reverse transcriptase (hTERT), Proteinase 3, Tyrosinase Related Protein 2, High Molecular Weight Melanoma Associated Antigen (HMW-MAA), synovial sarcoma X -2, carcinoembryonic antigen, MAGE-A, interleukin-13 Receptor alpha (IL13-R alpha), Carbonic anhydrase IX (CAIX), survivin, GP100 or Testisin; and wherein said recombinant protein exhibits a greater than 100-fold reduction in hemolytic activity relative to wild-type LLO of SEQ ID NO: 37.
Pre-charging circuit for a plurality of sections of a DC voltage network, which sections can be connected together and separated from each other individually or in groups via a respective switch element, - wherein the pre-charging circuit has diode groups, a switch device, an energy transmission path and a controller, - wherein the diode groups are embodied as bridge rectifiers or as a bridge branch of a bridge rectifier, - wherein each of the sections of the DC voltage network is coupled to the energy transmission path via at least one respective diode group, - wherein the energy transmission path is consistently the same for the diode groups, and - wherein the controller transmits a control signal to the switch device in order to pre-charge sections that are separated from the other sections via their respective switch element, such that the switch device switches the energy transmission path so as to be conductive for all of the sections of the DC voltage network that are coupled to the energy transmission path, and - wherein in each case only one of two potentials (P1, P2) of the section attached to the respective diode group is coupled to the energy transmission path via the diode groups and the switch device is arranged in the energy transmission path or - wherein in each case both potentials (P1, P2) of the section connected to the respective diode group are coupled to the energy transmission path via the diode groups, the energy transmission path is electrically isolated from the diode groups and the switch device has a number of partial switch devices, each of which is assigned to a diode group. - wherein the pre-charging circuit has diode groups, a switch device, an energy transmission path and a controller, - wherein the diode groups are embodied as bridge rectifiers or as a bridge branch of a bridge rectifier, - wherein each of the sections of the DC voltage network is coupled to the energy transmission path via at least one respective diode group, - wherein the energy transmission path is consistently the same for the diode groups, and - wherein the controller transmits a control signal to the switch device in order to pre-charge sections that are separated from the other sections via their respective switch element, such that the switch device switches the energy transmission path so as to be conductive for all of the sections of the DC voltage network that are coupled to the energy transmission path, and - wherein in each case only one of two potentials (P1, P2) of the section attached to the respective diode group is coupled to the energy transmission path via the diode groups and the switch device is arranged in the energy transmission path or - wherein in each case both potentials (P1, P2) of the section connected to the respective diode group are coupled to the energy transmission path via the diode groups, the energy transmission path is electrically isolated from the diode groups and the switch device has a number of partial switch devices, each of which is assigned to a diode group.
A method of preparing an encapsulated phospholipid oil-in-water emulsion comprising: preparing an oil-in-water pre-emulsion consisting essentially of a phospholipid-containing oil and water, and mixing the oil-in-water pre-emulsion with an encapsulant material; wherein the phospholipid-containing oil comprises omega-3 fatty acids; and wherein the amount of phospholipid-containing oil present in the encapsulated phospholipid oil-in-water emulsion is at least 10% by weight. wherein the phospholipid-containing oil comprises omega-3 fatty acids; and wherein the amount of phospholipid-containing oil present in the encapsulated phospholipid oil-in-water emulsion is at least 10% by weight.
A method for antemortem detection and quantification of retained gadolinium deposited in the tissue of a living mammalian subject comprising: imaging said living mammalian subject using spectral computed tomography to obtain an image; detecting and quantifying a level of retained gadolinium deposited in the tissue of said living mammalian subject based on an energy-dependent attenuation profile of the retained gadolinium deposited in the tissue of said living mammalian subject; wherein said level of gadolinium deposited in said living mammalian subject is in the range 0.1-200 μg per gram of tissue. imaging said living mammalian subject using spectral computed tomography to obtain an image; detecting and quantifying a level of retained gadolinium deposited in the tissue of said living mammalian subject based on an energy-dependent attenuation profile of the retained gadolinium deposited in the tissue of said living mammalian subject; wherein said level of gadolinium deposited in said living mammalian subject is in the range 0.1-200 μg per gram of tissue.
Method for picking articles (3, 4) from storage containers in order containers by a picking person in accordance with predefined picking orders with a picking device, which comprises a first and at least another provision device (12, 13) for storage containers to be delivered and to be dispatched and a buffer device for the order container with buffer locations arranged between the provision devices (12, 13) for the order containers, wherein the route between the provision devices (12, 13) distanced from one another defines a picking route (19, 20) for the picking person, characterized by - the removal of an amount of articles from a storage container according to the order at the first provision device, - an order-specific division of the removed amount of articles into at least one of the order containers arranged along the picking route leading to the other provision device, - acknowledgement of the picking order by the picking person at or in the proximity of the other provision device, - the removal of an amount of articles from a storage container according to the order at the other provision device, - the order-specific division of the removed amount of articles into at least one of the order containers arranged along the picking route leading to the first provision device starting at the other provision device in the direction of the first provision device, - the acknowledgement of the picking order by the picking person at the or in the proximity of the first provision device. - the removal of an amount of articles from a storage container according to the order at the first provision device, - an order-specific division of the removed amount of articles into at least one of the order containers arranged along the picking route leading to the other provision device, - acknowledgement of the picking order by the picking person at or in the proximity of the other provision device, - the removal of an amount of articles from a storage container according to the order at the other provision device, - the order-specific division of the removed amount of articles into at least one of the order containers arranged along the picking route leading to the first provision device starting at the other provision device in the direction of the first provision device, - the acknowledgement of the picking order by the picking person at the or in the proximity of the first provision device.
A method for monitoring and controlling a gas turbine, comprising: obtaining operating conditions of the gas turbine in real-time; predicting frequencies and amplitudes of combustion dynamics in a combustor using the real time operating conditions of the gas turbine and gas turbine modelling tools; receiving a signal from a sensor that is indicative of combustion dynamics in the combustor; detecting a flashback if a frequency of the received signal does not correspond to the predicted frequencies during a normal operating condition; and controlling the gas turbine if the flashback is detected. obtaining operating conditions of the gas turbine in real-time; predicting frequencies and amplitudes of combustion dynamics in a combustor using the real time operating conditions of the gas turbine and gas turbine modelling tools; receiving a signal from a sensor that is indicative of combustion dynamics in the combustor; detecting a flashback if a frequency of the received signal does not correspond to the predicted frequencies during a normal operating condition; and controlling the gas turbine if the flashback is detected.