mhurhangee/patent-ind-claim-en huggingface dataset:
A method for establishing and controlling operational parameters of a dispenser employing a first cartridge containing material to be dispensed, comprising: installing the first cartridge into the dispenser ; enabling a learn mode at the dispenser for setting a dispense cycle for the dispenser ; reading a tag on the first cartridge , to identify a parameter associated with the first cartridge , storing the identified parameter in the dispenser ; setting the dispense cycle as a function of the parameter associated with the first cartridge ; installing a second cartridge into the dispenser ; reading a tag on the second cartridge to identify at least one parameter associated with the second cartridge; enabling the dispenser to be operable with the second cartridge if the identified parameter of the second cartridge is acceptable based on the stored parameter associated with the first cartridge ; and inhibiting operation of the dispenser if the identified parameter of the second cartridge is rejected. installing the first cartridge into the dispenser ; enabling a learn mode at the dispenser for setting a dispense cycle for the dispenser ; reading a tag on the first cartridge , to identify a parameter associated with the first cartridge , storing the identified parameter in the dispenser ; setting the dispense cycle as a function of the parameter associated with the first cartridge ; installing a second cartridge into the dispenser ; reading a tag on the second cartridge to identify at least one parameter associated with the second cartridge; enabling the dispenser to be operable with the second cartridge if the identified parameter of the second cartridge is acceptable based on the stored parameter associated with the first cartridge ; and inhibiting operation of the dispenser if the identified parameter of the second cartridge is rejected.
An energy receiver configured to receive energy in a wireless manner from an energy transmitter, said energy receiver comprising: a resonance circuit including at least an inductor , a first capacitor , and a second capacitor ; and a Q-value circuit connected to the resonance circuit, the Q-value circuit being configured to obtain a first voltage (V1') taken at a first node of the resonance circuit and a second voltage (V2) taken at a second node of the resonance circuit to determine a Q-value of the resonance circuit, wherein, the second voltage (V2) is a voltage across the inductor ; the first and second capacitors are connected in series between the first and second nodes; and the second node is connected to the inductor ; and a switching section having a plurality of switches to selectively connect the resonance circuit to the Q-value circuit via either the first node or the second node during determination of the Q-value, wherein, the Q-value circuit includes a control section that is configured to control the switching section such that electric power is received by the energy receiver at a different time than when the first and second voltages are obtained,and the Q-value circuit is configured to detect a presence of a foreign metal object from the determined Q-value. a resonance circuit including at least an inductor , a first capacitor , and a second capacitor ; and a Q-value circuit connected to the resonance circuit, the Q-value circuit being configured to obtain a first voltage (V1') taken at a first node of the resonance circuit and a second voltage (V2) taken at a second node of the resonance circuit to determine a Q-value of the resonance circuit, wherein, the second voltage (V2) is a voltage across the inductor ; the first and second capacitors are connected in series between the first and second nodes; and the second node is connected to the inductor ; and the second voltage (V2) is a voltage across the inductor ; the first and second capacitors are connected in series between the first and second nodes; and the second node is connected to the inductor ; and a switching section having a plurality of switches to selectively connect the resonance circuit to the Q-value circuit via either the first node or the second node during determination of the Q-value, wherein, the Q-value circuit includes a control section that is configured to control the switching section such that electric power is received by the energy receiver at a different time than when the first and second voltages are obtained,and the Q-value circuit is configured to detect a presence of a foreign metal object from the determined Q-value. the Q-value circuit includes a control section that is configured to control the switching section such that electric power is received by the energy receiver at a different time than when the first and second voltages are obtained,and the Q-value circuit is configured to detect a presence of a foreign metal object from the determined Q-value.
An aircraft defining a longitudinal direction, a vertical direction, and a lateral direction, the aircraft comprising: a fuselage extending between a forward end and an aft end along the longitudinal direction; a boundary layer ingestion fan mounted to the fuselage at the aft end of the fuselage , the boundary layer ingestion fan defining a centerline and comprising a plurality of fan blades rotatable about the centerline; characterized in that the aircraft further comprises: an air injection assembly comprising: a plurality of injection ports defined on a surface of the fuselage at a location upstream of the boundary layer ingestion fan; and a fluid passageway , the fluid passageway extending through at least a portion of the fuselage and being in fluid communication with the plurality of injection ports for directing a supplemental airflow through the plurality of injection ports ; wherein the air injection assembly further comprises; a plurality of inlet ports defined on a bottom surface of the fuselage , and wherein the fluid passageway extends between the plurality of inlet ports and the plurality of injection ports . a fuselage extending between a forward end and an aft end along the longitudinal direction; a boundary layer ingestion fan mounted to the fuselage at the aft end of the fuselage , the boundary layer ingestion fan defining a centerline and comprising a plurality of fan blades rotatable about the centerline; characterized in that the aircraft further comprises: an air injection assembly comprising: a plurality of injection ports defined on a surface of the fuselage at a location upstream of the boundary layer ingestion fan; and a fluid passageway , the fluid passageway extending through at least a portion of the fuselage and being in fluid communication with the plurality of injection ports for directing a supplemental airflow through the plurality of injection ports ; wherein the air injection assembly further comprises; a plurality of inlet ports defined on a bottom surface of the fuselage , and wherein the fluid passageway extends between the plurality of inlet ports and the plurality of injection ports . a plurality of injection ports defined on a surface of the fuselage at a location upstream of the boundary layer ingestion fan; and a fluid passageway , the fluid passageway extending through at least a portion of the fuselage and being in fluid communication with the plurality of injection ports for directing a supplemental airflow through the plurality of injection ports ; wherein the air injection assembly further comprises; a plurality of inlet ports defined on a bottom surface of the fuselage , and wherein the fluid passageway extends between the plurality of inlet ports and the plurality of injection ports .
A method executed on a network node for providing a HTTP streaming service to a user equipment via broadcasting or multicasting, comprising the steps of: - determining (2:2) under which conditions runtime reception reporting is required from a specific user equipment receiving a determined HTTP streaming service; - determining (2:3) reporting parameters, including a threshold value, to be applicable at the user equipment for determining, at the user equipment, when to trigger the runtime reception reporting, wherein the runtime reception reporting is based on Loss of Objects metrics indicated in the reporting parameters, and the threshold value is set as a percentage of loss of objects over all objects of the HTTP streaming service received by the user equipment, such that transmission of a runtime reception report from the user equipment is triggered when the percentage of loss of objects exceeds the threshold value, and - providing (2:4) the determined reporting parameters to the user equipment. - determining (2:2) under which conditions runtime reception reporting is required from a specific user equipment receiving a determined HTTP streaming service; - determining (2:3) reporting parameters, including a threshold value, to be applicable at the user equipment for determining, at the user equipment, when to trigger the runtime reception reporting, wherein the runtime reception reporting is based on Loss of Objects metrics indicated in the reporting parameters, and the threshold value is set as a percentage of loss of objects over all objects of the HTTP streaming service received by the user equipment, such that transmission of a runtime reception report from the user equipment is triggered when the percentage of loss of objects exceeds the threshold value, and - providing (2:4) the determined reporting parameters to the user equipment.
Protective device for protecting electric sockets arranged in vehicles , particularly OBD diagnosis sockets , wherein the sockets have a housing body with electrical contacts , wherein at least one cover assembly and at least one safety element are specified, wherein the cover assembly can be fastened with the aid of the safety element in the housing body of the sockets on the vehicle side, such that the cover assembly prevents an access to the contacts of the socket , wherein the at least one safety element is at least one screw with a screw head , wherein in the cover assembly is formed at least one channel for receiving the at least one screw and wherein the screw can be screwed into the housing body of the socket and wherein the at least one screw has a mechanically encoded screw head , characterised in that between the cover assembly and the socket is arranged an additional connecting body which on the one hand engages into the cutouts and/or indentations of the socket and on the other hand is adapted to the cover assembly , wherein on the connecting body is formed at least one spreading body in the manner of a spreading dowel which is adapted to the at least one screw , wherein when fastening the cover assembly in the housing body of the socket by means of screwing in the screw the spreading body spreads within a cutout or indentation of the socket and forms a frictionally-fitting connection therewith. wherein at least one cover assembly and at least one safety element are specified, wherein the cover assembly can be fastened with the aid of the safety element in the housing body of the sockets on the vehicle side, such that the cover assembly prevents an access to the contacts of the socket , wherein the at least one safety element is at least one screw with a screw head , wherein in the cover assembly is formed at least one channel for receiving the at least one screw and wherein the screw can be screwed into the housing body of the socket and wherein the at least one screw has a mechanically encoded screw head , characterised in that between the cover assembly and the socket is arranged an additional connecting body which on the one hand engages into the cutouts and/or indentations of the socket and on the other hand is adapted to the cover assembly , wherein on the connecting body is formed at least one spreading body in the manner of a spreading dowel which is adapted to the at least one screw , wherein when fastening the cover assembly in the housing body of the socket by means of screwing in the screw the spreading body spreads within a cutout or indentation of the socket and forms a frictionally-fitting connection therewith.
An energy apparatus , the energy apparatus comprising one or more functional units , each functional unit comprising: - a first cell , comprising one or more first cell electrodes and one or more first cell openings for a first cell aqueous liquid and for a first cell gas ; - a second cell , comprising one or more second cell electrodes and one or more second cell openings for a second cell aqueous liquid and for a second cell gas ; - a separator , wherein the first cell and the second cell share the separator , wherein the separator is configured to block transport of one or more of O 2 and H 2 from one cell to another while having permeability for at least one or more of hydroxide ions (OH - ) monovalent sodium (Na + ), monovalent lithium (Li + ) and monovalent potassium (K + ); characterized in that the energy apparatus comprises one or more of (a) at least two or more first cell electrodes and (b) at least two or more second cell electrodes , wherein the energy apparatus further comprises an electrical element configured for applying one or more of (a) one or more potential differences between two or more first cell electrodes and (b) one or more potential differences between two or more second cell electrodes , wherein first cell electrodes of a first subset of the one or more first cell electrodes comprise iron based electrodes, and wherein the one or more second cell electrodes comprise nickel based electrodes. - a first cell , comprising one or more first cell electrodes and one or more first cell openings for a first cell aqueous liquid and for a first cell gas ; - a second cell , comprising one or more second cell electrodes and one or more second cell openings for a second cell aqueous liquid and for a second cell gas ; - a separator , wherein the first cell and the second cell share the separator , wherein the separator is configured to block transport of one or more of O 2 and H 2 from one cell to another while having permeability for at least one or more of hydroxide ions (OH - ) monovalent sodium (Na + ), monovalent lithium (Li + ) and monovalent potassium (K + );
A device for the plastic deformation of a workpiece produced from metal or a metal alloy by means of ECAP, comprising more than two channels , wherein an inlet channel and an outlet channel are provided, wherein these are connected to one another indirectly and are disposed approximately perpendicular to one another, wherein two respective channels are disposed with respect to each other such that these produce a forming bend, wherein a forming bend adjacent to the inlet channel has an angle of approximately 90°, characterized in that a forming bend disposed directly upstream of the outlet channel has an angle of approximately 105° to 135° and furthermore a heating device is provided.
A closed engine cooled by fan , of the type comprising: a shaft , which defines a longitudinal axis (A) of the engine; inside a closed volume delimited axially by first and second transverse partitions and radially by an axial wall constituting a carcass of the engine, a stator , secured to the axial wall, and a rotor , secured to the shaft; and, outside the closed volume , a network of channels , which circulate on or in the axial wall, and a fan , which is arranged on an outer side of the first transverse partition, which is mounted on the shaft and which circulates cooling air through the network of channels to cool the stator, the fan and the network of channels being a first fan and a first network of channels, said engine further comprises, outside the closed volume , a second network of channels , which circulate on or in the axial wall, and a second fan , which is arranged on an outer side of the second transverse partition, which is mounted on the shaft and which circulates cooling air in the second network of channels to cool the stator, characterized in that the first and second transverse partitions are respectively constituted by the first and second fans , in that the channels of the first and second networks of channels circulate through the stator , and in that the engine is symmetrical relative to a median plane (M) transverse to the axis (A) of the engine, so as to create two flows (F1, F2) of coolant that circulate longitudinally through the stator in opposite directions.
A magnet separator for removing a magnetic body from a liquid to be treated, the magnet separator comprising: a rotary drum in which a plurality of magnets are disposed; a main body that accommodates the rotary drum ; and a sprocket that is fixed to the rotary drum and transmits a driving force, wherein the sprocket is formed by a plurality of sprocket split bodies having sprocket teeth , the main body includes a window for removing or attaching a fixing member that fixes the sprocket split bodies to the rotary drum , and the window is provided at a position where the fixing member passes through the window when the sprocket is rotated. a rotary drum in which a plurality of magnets are disposed; a main body that accommodates the rotary drum ; and a sprocket that is fixed to the rotary drum and transmits a driving force, wherein the sprocket is formed by a plurality of sprocket split bodies having sprocket teeth , the main body includes a window for removing or attaching a fixing member that fixes the sprocket split bodies to the rotary drum , and the window is provided at a position where the fixing member passes through the window when the sprocket is rotated.
A method performed by a user equipment, the method comprising: causing (S4), responsive to information being provided that a network access application is to be disabled, the network access application in a secure element of the user equipment to be disabled by resetting a verification status of a personal identification number, wherein said information is responsive to an occurrence of an event and said event comprises an input of emergency call information (S1).
A decoding apparatus decoding a spectrum code for each frame in a predetermined time section to obtain a frequency spectrum sequence of a decoded sound signal, the decoding apparatus comprising: a decoding part decoding the spectrum code to obtain a frequency-domain spectrum sequence on an assumption that bits are not assigned to a part of a low side of the spectrum code, if inputted information indicating whether a hissing sound or not indicates being a hissing sound, and, otherwise, decoding the spectrum code to obtain the frequency-domain spectrum sequence on an assumption that bits are not assigned to a part of a high side of the spectrum code; and a fricative sound compatible bandwidth extending part performing bandwidth extension to a low side for the frequency-domain spectrum sequence obtained by the decoding part to obtain the frequency spectrum sequence of the decoded sound signal, if the inputted information indicating whether a hissing sound or not indicates being a hissing sound, and, otherwise, performing bandwidth extension to a high side for the frequency-domain spectrum sequence obtained by the decoding part to obtain the frequency spectrum sequence of the decoded sound signal. a decoding part decoding the spectrum code to obtain a frequency-domain spectrum sequence on an assumption that bits are not assigned to a part of a low side of the spectrum code, if inputted information indicating whether a hissing sound or not indicates being a hissing sound, and, otherwise, decoding the spectrum code to obtain the frequency-domain spectrum sequence on an assumption that bits are not assigned to a part of a high side of the spectrum code; and a fricative sound compatible bandwidth extending part performing bandwidth extension to a low side for the frequency-domain spectrum sequence obtained by the decoding part to obtain the frequency spectrum sequence of the decoded sound signal, if the inputted information indicating whether a hissing sound or not indicates being a hissing sound, and, otherwise, performing bandwidth extension to a high side for the frequency-domain spectrum sequence obtained by the decoding part to obtain the frequency spectrum sequence of the decoded sound signal.
A method of producing a welded ring wherein a band of a length corresponding to the circumference of the ring is bent to form a ring and welded at its ends , the welding being performed from both lateral edges of the ring or band from the outside inwards, characterised in that the butt of the band ends to be welded together has a V-shaped offset in the circumferential direction of the ring, the peak of the offset in the butt is formed midway between both lateral edges , and the welding does not follow the V-shaped line of the abutting band ends but is performed, starting from each lateral edge , in a straight line to the middle of the band such that the weld seam everywhere covers the V-shaped butt. the welding being performed from both lateral edges of the ring or band from the outside inwards, characterised in that the butt of the band ends to be welded together has a V-shaped offset in the circumferential direction of the ring, the peak of the offset in the butt is formed midway between both lateral edges , and the welding does not follow the V-shaped line of the abutting band ends but is performed, starting from each lateral edge , in a straight line to the middle of the band such that the weld seam everywhere covers the V-shaped butt.
A method of producing a circuit board element comprising the following steps: a) providing a conducting wire or a plate-like shaped part consisting of an electrically conductive material, b) contacting the conducting wire or the plate-like shaped part with an electrically conductive foil at at least one contact point, the contacting of the conducting wire or of the plate-like shaped part with the foil being executed by welding, c) applying a cover layer to the side of the foil contacting the conducting wire or the plate-like shaped part , characterized in that the surface of the conducting wire or of the plate-like shaped part is at least partially roughened prior to step c), and that the cover layer is brought into contact with the roughened surface of the conducting wire or of the plate-like shaped part in step c). a) providing a conducting wire or a plate-like shaped part consisting of an electrically conductive material, b) contacting the conducting wire or the plate-like shaped part with an electrically conductive foil at at least one contact point, the contacting of the conducting wire or of the plate-like shaped part with the foil being executed by welding, c) applying a cover layer to the side of the foil contacting the conducting wire or the plate-like shaped part ,