mhurhangee/ep-ind-claims huggingface dataset:
Induction cooking device (100, 200, 300) for heating a cooking vessel (150, 250, 350), the induction cooking device (100, 200, 300) comprising: a cooking surface (101, 201, 301) comprising a cooking hob (102, 202, 302), an induction coil (103, 203, 303), a driving circuit (104, 204, 304) electrically coupled to the induction coil (103, 203, 303) and configured to drive the induction coil (103, 203, 303) and determine a power level (106, 206, 306) of the electrical power that is transferred to the induction coil (103, 203, 303) while driving the induction coil (103, 203, 303), and a coil mount that is arranged under the cooking hob (102, 202, 302), wherein the induction coil (103, 203, 303) is arranged on the coil mount and wherein the coil mount is configured to dynamically adapt the position of the induction coil (103, 203, 303) in a plane parallel to the cooking surface (101, 201, 301) based on the determined power level (106, 206, 306). a cooking surface (101, 201, 301) comprising a cooking hob (102, 202, 302), an induction coil (103, 203, 303), a driving circuit (104, 204, 304) electrically coupled to the induction coil (103, 203, 303) and configured to drive the induction coil (103, 203, 303) and determine a power level (106, 206, 306) of the electrical power that is transferred to the induction coil (103, 203, 303) while driving the induction coil (103, 203, 303), and a coil mount that is arranged under the cooking hob (102, 202, 302), wherein the induction coil (103, 203, 303) is arranged on the coil mount and wherein the coil mount is configured to dynamically adapt the position of the induction coil (103, 203, 303) in a plane parallel to the cooking surface (101, 201, 301) based on the determined power level (106, 206, 306).
A grounding device for an electric machine having a rotating component and a stationary component, said grounding device comprising: a core; and a plurality of conductive fibers coupled to said core and extending therefrom such that at least a portion of said plurality of conductive fibers contacts the rotating component and such that at least a portion of said plurality of conductive fibers contacts the stationary component, said plurality of conductive fibers configured to electrically couple the rotating component with the stationary component such that an electrostatic charge on the rotating component is directed through said plurality of conductive fibers to the stationary component, characterised in that said core includes a first end and a second end and is curved to form a loop or an arc.
Device (101, 201) for the production of electrical current, having an electric rotary generator (102, 202) which has a generator shaft (103, 203), having a rotational device (104, 204) for driving the generator shaft (103, 204), which rotational device (104, 204) has at least one drive element (106, 206), wherein the rotational device (104, 204) is operatively connected to the generator shaft (103, 203), having a compressed air feed which can be connected to a compressed air accumulator (3, 4), wherein the rotational device (104, 205) is also operatively connected to the compressed air feed, and wherein a drive torque can be applied to the at least one drive element (106, 206) of the rotational device (104, 204) by means of compressed air which can be extracted from the compressed air accumulator (3, 4), wherein the rotational device (104, 204) has a drive shaft (105, 205), which drive shaft (105, 205) is operatively connected both to the generator shaft (103, 203) of the rotary generator (102, 202) and to the drive element (106, 206), characterized in that the rotational device (104, 204) has an imbalance mass (108, 208), and in that the rotational device (104, 204) is embodied in such a way that the drive shaft (105, 205) can carry out an oscillating movement caused by the imbalance mass (108, 208), without losing the operative connection to the generator shaft (103, 203) and to the drive element (106, 206).
A vehicle interior system comprising: a first seat assembly (16, 18) disposed within a vehicle cabin; a first sensor disposed within the vehicle cabin and configured to obtain first signals indicative of a positioning of an obstacle within a predetermined coordinate system; a second sensor disposed within the vehicle cabin and configured to obtain second signals indicative of a positioning of the first seat assembly (16, 18) within the predetermined coordinate system; and a controller configured to receive the first signals from the first sensor and to map a portion of the obstacle based on the first signals and relative to a portion of the first seat assembly (16, 18) within the predetermined coordinate system, wherein the first seat assembly (16, 18) is provided with the second sensor and wherein the second sensor is a length adjust motor configured to provide second signals to the controller indicative of the portion of the first seat assembly (16, 18) to determine the positioning of the portion of the first seat assembly (16, 18) within the predetermined coordinate system based on the signals, and wherein the first sensor is a RADAR sensor. a first seat assembly (16, 18) disposed within a vehicle cabin; a first sensor disposed within the vehicle cabin and configured to obtain first signals indicative of a positioning of an obstacle within a predetermined coordinate system; a second sensor disposed within the vehicle cabin and configured to obtain second signals indicative of a positioning of the first seat assembly (16, 18) within the predetermined coordinate system; and a controller configured to receive the first signals from the first sensor and to map a portion of the obstacle based on the first signals and relative to a portion of the first seat assembly (16, 18) within the predetermined coordinate system, wherein the first seat assembly (16, 18) is provided with the second sensor and wherein the second sensor is a length adjust motor configured to provide second signals to the controller indicative of the portion of the first seat assembly (16, 18) to determine the positioning of the portion of the first seat assembly (16, 18) within the predetermined coordinate system based on the signals, and wherein the first sensor is a RADAR sensor.
A lubricating engine oil composition for a direct injected, boosted, spark ignited internal combustion engine comprising: (i) from 250 to 1500 ppm of metal from at least one zirconium-containing compound, based on the total weight of the lubricating oil composition, or (ii) from 100 to 3000 ppm of metal from at least one zirconium-containing compound, based on the total weight of the lubricating oil composition, wherein the lubricating oil composition further comprises a detergent selected from calcium detergent, magnesium detergent, sodium detergent, lithium detergent, and potassium detergent. (i) from 250 to 1500 ppm of metal from at least one zirconium-containing compound, based on the total weight of the lubricating oil composition, or (ii) from 100 to 3000 ppm of metal from at least one zirconium-containing compound, based on the total weight of the lubricating oil composition, wherein the lubricating oil composition further comprises a detergent selected from calcium detergent, magnesium detergent, sodium detergent, lithium detergent, and potassium detergent.
Method for the improved use of a capacitance in an intermediate circuit, comprising the steps: - detecting a change in an electric voltage across the capacitance in the intermediate circuit, and - in dependence on the change of the electric voltage, feeding electrical energy into the capacitance for compensating for the change, characterized by: - storing energy from the intermediate circuit in an energy buffer, for supplying a compensation unit which feeds in the electrical energy. - detecting a change in an electric voltage across the capacitance in the intermediate circuit, and - in dependence on the change of the electric voltage, feeding electrical energy into the capacitance for compensating for the change, - storing energy from the intermediate circuit in an energy buffer, for supplying a compensation unit which feeds in the electrical energy.
A method comprising: automatically discovering, by a user device using a native cast discovery functionality of the user device, and based on a multicast protocol, a cast device for establishing a communication between the user device and the cast device, wherein a casting system is coupled to the cast device through a third network, the user device is coupled to a rendering system through a home network, and the rendering system is coupled to the casting system through a second network, wherein the second network is a satellite network and wherein the user device sends a multicast discovery packet on the home network, the rendering system receives the discovery packet and forwards the discovery packet to the casting system via the second network, the casting system then forwards the discovery packet to the cast device over the third network, the cast device in return provides its connections details to the casting system, the casting system receives the connection details of the cast device, the casting system thereafter forwards its connections specifications along with the connections details of the cast device to the rendering system and the rendering system finally forwards the connections specifications to the user device to discover the casting system and the cast device, receiving, by a rendering router of the rendering system, the cast request over the home network from the user device, wherein the cast request is for casting data from the cast device, which is communicatively coupled to a first network and the third network, onto a display device communicatively coupled to the home network; transmitting the cast request over the second network to the casting system; receiving, at the rendering system, the requested casting data from the casting system, wherein the requested casting data is provided to the casting system by the cast device and the requested casting data is obtained by the cast device over the first network. receiving, by a rendering router of the rendering system, the cast request over the home network from the user device, wherein the cast request is for casting data from the cast device, which is communicatively coupled to a first network and the third network, onto a display device communicatively coupled to the home network; transmitting the cast request over the second network to the casting system; receiving, at the rendering system, the requested casting data from the casting system, wherein the requested casting data is provided to the casting system by the cast device and the requested casting data is obtained by the cast device over the first network.
A copolymer produced by polymerizing three kinds or more monomers, containing a conjugated diene unit, a non-conjugated olefin unit and an aromatic vinyl unit, wherein: the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 3 mol% or more of the whole multicomponent copolymer, and the content of the non-conjugated olefin unit is more than 44 mol% and less than 97 mol% of the whole multicomponent copolymer. the main chain is formed of an acyclic structure alone, the content of the aromatic vinyl unit is 3 mol% or more of the whole multicomponent copolymer, and the content of the non-conjugated olefin unit is more than 44 mol% and less than 97 mol% of the whole multicomponent copolymer.
An apparatus for providing information related to a broadcast program, comprising: a display to display a plurality of scenes of the broadcast program; an object detector to, for each of the plurality of scenes, detect at least one object from said scene; a keyword generator to, for each detected object, generate a keyword including an object name which corresponds to the object and a category to which the object name belongs; a section setting unit to set a scene section containing a group of scenes from the plurality of scenes which each include a first object from the plurality of objects, using the generated keyword for the first object; a related information searching unit to request searching of related information associated with the first object using the keyword including the object name and the category to which the object name belongs, associated with the first object and receive the searched related information; and a related information provider to synchronize the received related information with the scene section and provide the related information synchronized with the scene section for display. a display to display a plurality of scenes of the broadcast program; an object detector to, for each of the plurality of scenes, detect at least one object from said scene; a keyword generator to, for each detected object, generate a keyword including an object name which corresponds to the object and a category to which the object name belongs; a section setting unit to set a scene section containing a group of scenes from the plurality of scenes which each include a first object from the plurality of objects, using the generated keyword for the first object; a related information searching unit to request searching of related information associated with the first object using the keyword including the object name and the category to which the object name belongs, associated with the first object and receive the searched related information; and a related information provider to synchronize the received related information with the scene section and provide the related information synchronized with the scene section for display.
An isolated antibody that binds to Ly6E of SEQ ID NO:1, wherein the antibody comprises (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:10, (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:11, (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:12, (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:7; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO:8; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:9.
An apparatus for assessing a condition of a patient (101, 201) comprising: a patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995), the interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995) for communicating a pressure treatment generated by a respiratory treatment apparatus (102, 202, 302, 856, 966) to the respiratory system of the patient (101, 201) and comprising a cushion for providing a pressure seal for respiratory pressure treatment; and a sensing module (421A-D) comprising a physiological sensor embedded within a surface of the cushion of the patient interface, the sensing module (421A-D) adapted for removable coupling with the patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995), the sensing module (421A-D) including a collector to accumulate exhaled breath that is exhaled to the patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995). a patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995), the interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995) for communicating a pressure treatment generated by a respiratory treatment apparatus (102, 202, 302, 856, 966) to the respiratory system of the patient (101, 201) and comprising a cushion for providing a pressure seal for respiratory pressure treatment; and a sensing module (421A-D) comprising a physiological sensor embedded within a surface of the cushion of the patient interface, the sensing module (421A-D) adapted for removable coupling with the patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995), the sensing module (421A-D) including a collector to accumulate exhaled breath that is exhaled to the patient interface (106, 206, 306, 351, 613, 617, 852, 872, 969, 995).
A method for providing a lyophilized formulation of anti-CD 20 antibody Veltuzumab, comprising the steps of: I) providing a solution comprising the anti-CD 20 antibody Veltuzumab, II) freezing the antibody solution, III) subjecting the antibody solution to at least one drying step at a shelf temperature of -10 °C to 30 °C, in order to obtain the lyophilized formulation, wherein the lyophilized formulation has a residual moisture content in the range of 1 % to 10 %, optionally in the range of 1 % to 5 %, wherein the solution provided in step comprises a) at least 40 mg/g anti-CD 20 antibody Veltuzumab, b) 5 - 15 mM histidine, c) 100 - 150 mM sucrose, d) 0.05 - 0.5 mg/g polysorbate 20; and wherein the solution provided in step has a pH value of 5.5 ± 0.3. I) providing a solution comprising the anti-CD 20 antibody Veltuzumab, II) freezing the antibody solution, III) subjecting the antibody solution to at least one drying step at a shelf temperature of -10 °C to 30 °C, in order to obtain the lyophilized formulation, a) at least 40 mg/g anti-CD 20 antibody Veltuzumab, b) 5 - 15 mM histidine, c) 100 - 150 mM sucrose, d) 0.05 - 0.5 mg/g polysorbate 20; and
An absorbable polymer blend, comprising: a first absorbable polymer, the first polymer comprising at least 50 weight percent of a lactide-rich polymer comprising 100 mole percent to 70 mole percent polymerized lactide and 0 mole percent to 30 mole percent polymerized glycolide; and, a second polymer comprising a poly( p -dioxanone-co-glycolide) copolymer, wherein the mole percent of polymerized p -dioxanone is from 90 mole percent to 95 mole percent, the mole percent of polymerized glycolide is from 5 mole percent to 10 mole percent, and wherein the copolymer is made utilizing a mono-functional polymerization initiator and a di-functional polymerization initiator at a mole ratio of mono-functional initiator to di-functional initiator of from 40/60 to 60/40, wherein the maximum weight percent of poly( p -dioxanone-co-glycolide) copolymer in the blend is 50 weight percent and the minimum weight percent of poly( p -dioxanone-co-glycolide) copolymer in the blend is sufficient such that the polymer blend effectively provides dimensional stability to a manufactured article. a first absorbable polymer, the first polymer comprising at least 50 weight percent of a lactide-rich polymer comprising 100 mole percent to 70 mole percent polymerized lactide and 0 mole percent to 30 mole percent polymerized glycolide; and, a second polymer comprising a poly( p -dioxanone-co-glycolide) copolymer, wherein the mole percent of polymerized p -dioxanone is from 90 mole percent to 95 mole percent, the mole percent of polymerized glycolide is from 5 mole percent to 10 mole percent, and wherein the copolymer is made utilizing a mono-functional polymerization initiator and a di-functional polymerization initiator at a mole ratio of mono-functional initiator to di-functional initiator of from 40/60 to 60/40, wherein the maximum weight percent of poly( p -dioxanone-co-glycolide) copolymer in the blend is 50 weight percent and the minimum weight percent of poly( p -dioxanone-co-glycolide) copolymer in the blend is sufficient such that the polymer blend effectively provides dimensional stability to a manufactured article.
A method performed by a receiving radio network node for Explicit Congestion Notification, ECN, marking of user traffic in a wireless communication network, wherein said method comprises the steps of: receiving control information from a sending radio network node; wherein said control information is indicating traffic congestion on a data radio bearer, based on a congestion metric; and marking next ECN-capable user packet of said user traffic on said data radio bearer with ECN marking, based on said control information; wherein said user packet is an Internet Protocol, IP, packet; and wherein said control information is received in a Radio Link Control, RLC, Control Protocol Data Unit, PDU, or a Medium Access Control, MAC, control message. receiving control information from a sending radio network node; wherein said control information is indicating traffic congestion on a data radio bearer, based on a congestion metric; and marking next ECN-capable user packet of said user traffic on said data radio bearer with ECN marking, based on said control information; wherein said user packet is an Internet Protocol, IP, packet; and wherein said control information is received in a Radio Link Control, RLC, Control Protocol Data Unit, PDU, or a Medium Access Control, MAC, control message.
A method of upgrading a pyrolysis oil stream and a hydrocarbon stream in a fluid catalytic cracking unit including a reaction zone, the method comprising the steps of: providing the pyrolysis oil stream through a pyrolysis oil feed line and the hydrocarbon stream through a hydrocarbon feed line separate from the pyrolysis oil feed line, wherein the pyrolysis oil feed line includes a pyrolysis oil inlet and a pyrolysis oil outlet into a reaction zone and wherein pyrolysis oil deposits form in the pyrolysis oil feed line adjacent the pyrolysis oil outlet; and the pyrolysis oil deposits form at any location between the pyrolysis oil inlet into the pyrolysis oil feed line and the pyrolysis oil outlet of the pyrolysis oil feed line into the reaction zone; introducing the pyrolysis oil stream from the pyrolysis oil feed line and the hydrocarbon stream from the hydrocarbon feed line into the reaction zone; catalytically cracking the pyrolysis oil stream and the hydrocarbon stream in the presence of a particulate cracking catalyst in the reaction zone; and during catalytic cracking, removing pyrolysis oil deposits in the pyrolysis oil feed line adjacent the pyrolysis oil outlet with a cleaning head disposed in the pyrolysis oil feed line. providing the pyrolysis oil stream through a pyrolysis oil feed line and the hydrocarbon stream through a hydrocarbon feed line separate from the pyrolysis oil feed line, wherein the pyrolysis oil feed line includes a pyrolysis oil inlet and a pyrolysis oil outlet into a reaction zone and wherein pyrolysis oil deposits form in the pyrolysis oil feed line adjacent the pyrolysis oil outlet; and the pyrolysis oil deposits form at any location between the pyrolysis oil inlet into the pyrolysis oil feed line and the pyrolysis oil outlet of the pyrolysis oil feed line into the reaction zone; introducing the pyrolysis oil stream from the pyrolysis oil feed line and the hydrocarbon stream from the hydrocarbon feed line into the reaction zone; catalytically cracking the pyrolysis oil stream and the hydrocarbon stream in the presence of a particulate cracking catalyst in the reaction zone; and during catalytic cracking, removing pyrolysis oil deposits in the pyrolysis oil feed line adjacent the pyrolysis oil outlet with a cleaning head disposed in the pyrolysis oil feed line.