mhurhangee/patent-ind-claim-en huggingface dataset:
A method of communicating automated power conversion device data in a communications system, the method comprising storing, in an automated power conversion device, operational information on the usage of the automated power conversion device, and information on user-adjustable parameter settings of the automated power conversion device; receiving, in a local terminal device, the operational information and the information on the user-adjustable parameter settings from the automated power conversion device; forwarding the operational information and the information on the user-adjustable parameter settings from the local terminal device to a remote network node via a communications network; receiving the operational information and the information on the user-adjustable parameter settings in the remote network node from the local terminal device; analysing the received operational information and the information on the user-adjustable parameter settings in the remote network node; based on the analysing, generating in the remote network node a recommendation on an optimal set of user-adjustable parameters regarding the automated power conversion device; transmitting, from the remote network node to the local terminal device, the generated recommendation on the optimal set of the user-adjustable parameters via the communications network; and receiving the recommendation in the local terminal device from the remote network node; wherein the method comprises obtaining, in the local terminal device from a sensor of the local terminal device, sensory information on physical conditions of the automated power conversion device recorded by the sensor in the proximity of the local terminal device; forwarding the sensory information from the local terminal device to the remote network node via the communications network; receiving the sensory information in the remote network node from the local terminal device; utilizing, in the remote network node, the received sensory information as additional information for the generating of the recommendation on the optimal set of the user-adjustable parameters regarding the automated power conversion device.
A combination of an energy storing suspension component with a bushing (32;1000), in which: the energy storing suspension component comprises an axle seat portion , an end configured to include an eye , and a limb having a length extending between the axle seat portion and the end , wherein the limb comprises a first taper wherein the limb decreases in width as the limb extends toward the end , a second taper wherein the limb decreases in thickness as the limb extends toward the end, and wherein along the limb there is at least a portion of the length where the first taper and second taper are both present together, and a third taper that is further from the axle seat portion than the first taper and wherein the limb increases in width as the limb extends toward the end , and the bushing (32;1000) has a low axial rate, is configured to be received by the eye of the energy storing suspension component and comprises a pre-compressed assembly of a central body , at least one rate ring portion , and first and second elastomeric members , at least one said rate ring portion having two or more pieces and being disposed between the first and second elastomeric members , with the first elastomeric member disposed between the central body and the rate ring portion and the second elastomeric member disposed outside the rate ring portion. the energy storing suspension component comprises an axle seat portion , an end configured to include an eye , and a limb having a length extending between the axle seat portion and the end , wherein the limb comprises a first taper wherein the limb decreases in width as the limb extends toward the end , a second taper wherein the limb decreases in thickness as the limb extends toward the end, and wherein along the limb there is at least a portion of the length where the first taper and second taper are both present together, and a third taper that is further from the axle seat portion than the first taper and wherein the limb increases in width as the limb extends toward the end , and the bushing (32;1000) has a low axial rate, is configured to be received by the eye of the energy storing suspension component and comprises a pre-compressed assembly of a central body , at least one rate ring portion , and first and second elastomeric members , at least one said rate ring portion having two or more pieces and being disposed between the first and second elastomeric members , with the first elastomeric member disposed between the central body and the rate ring portion and the second elastomeric member disposed outside the rate ring portion.
A method for controlling an internal combustion engine arrangement connected to an exhaust gas aftertreatment system , the internal combustion engine arrangement comprising an internal combustion engine comprising a plurality of combustion cylinders ; an intake system arranged in upstream fluid communication with the internal combustion engine and configured to feed intake air into the plurality of combustion cylinders ; an exhaust system arranged in downstream fluid communication with the internal combustion engine and configured to convey exhaust gas away from the internal combustion engine to the exhaust gas aftertreatment system; an exhaust gas recirculation system comprising an exhaust gas recirculation conduit connected between the intake system and the exhaust system , wherein the internal combustion engine arrangement further comprises a gas feeding arrangement and a gas heating device , each arranged in fluid communication with the exhaust gas recirculation conduit , the method being characterized by : - determining (S1) a requested start of the internal combustion engine; and prior to starting the internal combustion engine: - controlling (S2) start up of the gas heating device for initiating heating of gas fed there through; and - controlling (S3) the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system. - determining (S1) a requested start of the internal combustion engine; and prior to starting the internal combustion engine: - controlling (S2) start up of the gas heating device for initiating heating of gas fed there through; and - controlling (S3) the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system. - controlling (S2) start up of the gas heating device for initiating heating of gas fed there through; and - controlling (S3) the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system.
An allulose epimerase variant consisting of the amino acid sequence represented by SEQ ID NO: 5.
Antenna for a contactless chip card that makes it possible to communicate with a chip card reader by means of a carrier signal at a frequency F 0 , which is modulated by a data signal at a frequency f, said antenna being characterized in that it includes at least three LC circuits connected in parallel so as to simultaneously have, for a given communication rate between the chip card and the reader, at least three resonant peaks, namely a first peak close to the carrier frequency F 0 , and at least 2 n lateral peaks close to the data transmission frequencies F 0 + n.f and F 0 - n.f, where n represents the number of harmonics of the signal to be transmitted.
A multiphase voltage regulator, comprising: a plurality of phases , each phase configured to output a phase current (i ph1 -i phn ) to a load through an inductor (L1-L3) in response to a control signal (PWM1-PWMN) input to the phase ; and a controller operable to: generate the control signals (PWM1-PWMN) input to the phases ; set a switching frequency of the control signals (PWM1-PWMN) to a first value; characterized in that the controller is further configured to change the switching frequency from the first value to a second value different than the first value if a load current (i L ) changes repetitively at a frequency that is within a predetermined range of the first value of the switching frequency. a plurality of phases , each phase configured to output a phase current (i ph1 -i phn ) to a load through an inductor (L1-L3) in response to a control signal (PWM1-PWMN) input to the phase ; and a controller operable to: generate the control signals (PWM1-PWMN) input to the phases ; set a switching frequency of the control signals (PWM1-PWMN) to a first value; characterized in that the controller is further configured to change the switching frequency from the first value to a second value different than the first value if a load current (i L ) changes repetitively at a frequency that is within a predetermined range of the first value of the switching frequency. generate the control signals (PWM1-PWMN) input to the phases ; set a switching frequency of the control signals (PWM1-PWMN) to a first value; characterized in that the controller is further configured to change the switching frequency from the first value to a second value different than the first value if a load current (i L ) changes repetitively at a frequency that is within a predetermined range of the first value of the switching frequency.
An operating device for a mobile machine, wherein the operating device comprises a pivotable handle and a detection mechanism coupled to the pivotable handle, the detection mechanism comprising a component that is rotated about a rotation axis upon pivoting the handle, wherein the operating device further comprises a rotary sensor , wherein the rotary sensor is a rotation angle sensor configured to detect an angle of rotation of the component , wherein the rotary sensor comprises: - a magnet arrangement configured to generate a magnetic field, wherein the magnet arrangement comprises at least four distinct and spatially separate permanent magnets (21-24), wherein the at least four permanent magnets (21-24) are arranged circumferentially about the rotation axis extending in an axial direction, wherein each permanent magnet (21-24) has a direction of magnetization that is substantially parallel to the axial direction, and wherein at an axial end face of the magnet arrangement north and south poles of the permanent magnets (21-24) alternate in circumferential direction so that in circumferential direction neighboring permanent magnets have an opposite direction of magnetization; and - at least one magnetic field sensor configured and arranged to detect a rotation of the magnetic field generated by the magnet arrangement upon rotation of the magnet arrangement , wherein the magnet arrangement of the rotary sensor is non-rotatably mounted to the component of the operating device to detect a rotation of the component about the rotation axis. - a magnet arrangement configured to generate a magnetic field, wherein the magnet arrangement comprises at least four distinct and spatially separate permanent magnets (21-24), wherein the at least four permanent magnets (21-24) are arranged circumferentially about the rotation axis extending in an axial direction, wherein each permanent magnet (21-24) has a direction of magnetization that is substantially parallel to the axial direction, and wherein at an axial end face of the magnet arrangement north and south poles of the permanent magnets (21-24) alternate in circumferential direction so that in circumferential direction neighboring permanent magnets have an opposite direction of magnetization; and - at least one magnetic field sensor configured and arranged to detect a rotation of the magnetic field generated by the magnet arrangement upon rotation of the magnet arrangement ,
A communication method, comprising: sending (S502), by a first network device, a first message to a second network device to request a context of a terminal device from the second network device; and receiving (S504), by the first network device, a second message from the second network device, wherein the second message comprises first mobility history information and second mobility history information, the first mobility history information is recorded by the terminal device, the second mobility history information is recorded by a network device, and the second message is a response message of the first message, characterized in that before the sending (S502), by a first network device, a first message to a second network device, the method further comprises: receiving (S501), by the first network device, a radio resource control, RRC, re-establishment request message from the terminal device; and after the receiving (S504), by the first network device, a second message from the second network device, the method further comprises: storing, by the first network device, the first mobility history information and the second mobility history information. sending (S502), by a first network device, a first message to a second network device to request a context of a terminal device from the second network device; and receiving (S504), by the first network device, a second message from the second network device, wherein the second message comprises first mobility history information and second mobility history information, the first mobility history information is recorded by the terminal device, the second mobility history information is recorded by a network device, and the second message is a response message of the first message, characterized in that before the sending (S502), by a first network device, a first message to a second network device, the method further comprises: receiving (S501), by the first network device, a radio resource control, RRC, re-establishment request message from the terminal device; and after the receiving (S504), by the first network device, a second message from the second network device, the method further comprises: storing, by the first network device, the first mobility history information and the second mobility history information. receiving (S501), by the first network device, a radio resource control, RRC, re-establishment request message from the terminal device; and after the receiving (S504), by the first network device, a second message from the second network device, the method further comprises: storing, by the first network device, the first mobility history information and the second mobility history information.
A scanning multi-beam sensor, in particular a scanning light grid , for detecting objects (28a-c) in a monitored zone by means of a plurality of monitoring beams (30a-c) that has at least a light source for generating transmitted light , a light guide structure for splitting the transmitted light over a plurality of light transmitters for transmitting transmitted light beams (26a-c), a plurality of light receivers for receiving the transmitted light reflected from the objects as a monitored beam (30a-c) in each case, and a control and evaluation unit that detects the objects (28a-c) using respective received signals of the light receivers , wherein the light guide structure has a light guide input for coupling the transmitted light, a plurality of light guide outputs for decoupling the transmitted light , and a plurality of light guide branches for guiding the transmitted light from the light guide input to the light guide outputs , wherein optical path lengths from the light guide input to each of the light guide outputs are identical, characterized in that the light transmitters (22, 24a-c) and/or the light receivers are spaced apart from one another by at least one millimeter.
A film comprising a polyethylene composition comprising monomers of ethylene and butene, the film having a haze < 8.8 %, as determined by ASTM D-1003, the polyethylene composition having a long chain branching index of: 0.5 < g'avg < 0.9 as described in paragraph of the description; a melt flow rate (MFR) of > (49.011 x MI (-0.4304) ) as determined by ASTM D-1238-F, where MI is Melt Index as determined by ASTM-D-1238-E; and a Mw/Mn of ≤ 4.6.
A display device comprising: a housing ; at least one roller configured to be positioned within the housing ; a display portion comprising a display panel and a module cover ; and a telescopic bar , one end of which is fixed to the interior of the housing and the other end is fixed to a bottom end of the display portion , whereby the display panel and the module cover are either in a first state where the display panel and the module cover are kept wound around the at least one roller or in a second state where the display panel and the module cover are kept unwound from the at least one roller , in contact with each other, and exposed out of the housing , the telescopic bar moves simultaneously with the display portion , characterised in that the module cover bends in a winding direction (R2), the module cover includes a plurality of aprons , wherein one of the plurality of aprons is connected to an adjacent apron by a link , and each of the plurality of aprons includes a depressed part which is positioned at one end of the apron and a protuberance which is positioned at the other end of the apron, wherein, in the second state, the protuberance of the apron is inserted into the depressed part of the adjacent apron . a housing ; at least one roller configured to be positioned within the housing ; a display portion comprising a display panel and a module cover ; and a telescopic bar , one end of which is fixed to the interior of the housing and the other end is fixed to a bottom end of the display portion , whereby the display panel and the module cover are either in a first state where the display panel and the module cover are kept wound around the at least one roller or in a second state where the display panel and the module cover are kept unwound from the at least one roller , in contact with each other, and exposed out of the housing , the telescopic bar moves simultaneously with the display portion , characterised in that the module cover bends in a winding direction (R2), the module cover includes a plurality of aprons , wherein one of the plurality of aprons is connected to an adjacent apron by a link , and each of the plurality of aprons includes a depressed part which is positioned at one end of the apron and a protuberance which is positioned at the other end of the apron, wherein, in the second state, the protuberance of the apron is inserted into the depressed part of the adjacent apron .
Apparatus for ascertaining a heating temperature of a heating element for an electrically heatable catalytic converter , comprising: - the heating element and the catalytic converter , which are arranged within a catalytic converter housing , and - a first temperature sensor and a second temperature sensor , characterized in that the two temperature sensors are arranged upstream in front of the heating element with respect to an exhaust gas flow direction (R) within the catalytic converter housing , wherein the first temperature sensor is arranged closer to the heating element than the second temperature sensor with respect to the exhaust gas flow direction (R) within the catalytic converter housing . - the heating element and the catalytic converter , which are arranged within a catalytic converter housing , and - a first temperature sensor and a second temperature sensor , characterized in that the two temperature sensors are arranged upstream in front of the heating element with respect to an exhaust gas flow direction (R) within the catalytic converter housing , wherein the first temperature sensor is arranged closer to the heating element than the second temperature sensor with respect to the exhaust gas flow direction (R) within the catalytic converter housing .
A method for automatic bootstrapping of a device (3 1 ,..., 3 N ), the method being performed by a provisioning node connected to a subscription manager , the method comprising: - receiving a provisioning profile request from the device (3 1 ,..., 3 N ), the provisioning profile request comprising an identifier of the device (3 1 , 3 N ), - authenticating the device (3 1 ,..., 3 N ), - obtaining , based on the identifier of the device (3 1 ,..., 3 N ), a provisioning profile for the device (3 1 ,..., 3 N ), wherein the obtaining the provisioning profile for the device (3 1 , 3 N ) comprises matching the identifier of the device (3 1 ,..., 3 N ) to the provisioning profile and retrieving the provisioning profile from a data storage , and - sending the provisioning profile to the device (3 1 ,..., 3 N ). - receiving a provisioning profile request from the device (3 1 ,..., 3 N ), the provisioning profile request comprising an identifier of the device (3 1 , 3 N ), - authenticating the device (3 1 ,..., 3 N ), - obtaining , based on the identifier of the device (3 1 ,..., 3 N ), a provisioning profile for the device (3 1 ,..., 3 N ), wherein the obtaining the provisioning profile for the device (3 1 , 3 N ) comprises matching the identifier of the device (3 1 ,..., 3 N ) to the provisioning profile and retrieving the provisioning profile from a data storage , and - sending the provisioning profile to the device (3 1 ,..., 3 N ).