mhurhangee/patent-ind-claim-en huggingface dataset:
Casting plunger system for a die casting machine, comprising - a stationary system part and - a system part which moves relative to the stationary system part in a respective casting cycle for the introduction of melt material into a casting mould, and has a casting plunger , a casting plunger rod and a rod drive unit , and is configured to decelerate at the end of a mould filling phase of the casting cycle under the effect of pressure on the melt material, characterized in that - the moved system part has a rigid mass which can be adjusted variably between different casting cycles, and/or - the moved system part consists of a moved main system part and an additional rigid mass unit (Z E ) which is arranged so as to be movable relative to the main system part and is configured to decelerate, at the end of the mould fill phase of the casting cycle, later by a predefinable delay time than the main system part. - a stationary system part and - a system part which moves relative to the stationary system part in a respective casting cycle for the introduction of melt material into a casting mould, and has a casting plunger , a casting plunger rod and a rod drive unit , and is configured to decelerate at the end of a mould filling phase of the casting cycle under the effect of pressure on the melt material, - the moved system part has a rigid mass which can be adjusted variably between different casting cycles, and/or - the moved system part consists of a moved main system part and an additional rigid mass unit (Z E ) which is arranged so as to be movable relative to the main system part and is configured to decelerate, at the end of the mould fill phase of the casting cycle, later by a predefinable delay time than the main system part.
A pharmaceutical composition for use in treating myelofibrosis associated with splenomegaly, iron overload, erythroblast-induced bone pathology, or bone marrow hypercellularity in a patient, the composition comprising a polypeptide comprising an amino acid sequence that is at least 90% identical to the sequence of amino acids 29-109 of SEQ ID NO: 1, wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1.
A method comprising: receiving , by a steering application executing on a vehicle control module : a steering control input to control a steered wheel of a vehicle ; based on the steering control input, determining , by the steering application : a traction threshold value associated with a traction control attribute related to a traction wheel of the vehicle ; receiving by a first diagnostic supervisor executing on the vehicle control module : a measured value (ω 3 ) of the traction control attribute, and the traction threshold value; when the measured value (ω 3 ) of the traction control attribute exceeds the traction threshold value, repeatedly calculating , by the first diagnostic supervisor , a respective difference between the traction threshold value and the measured value of the traction control attribute, to generate a set comprising a plurality of the respective differences; and based on the plurality of respective differences, determining, by the first diagnostic supervisor, a first operating condition of a traction system of the vehicle. receiving , by a steering application executing on a vehicle control module : a steering control input to control a steered wheel of a vehicle ; based on the steering control input, determining , by the steering application : a traction threshold value associated with a traction control attribute related to a traction wheel of the vehicle ; receiving by a first diagnostic supervisor executing on the vehicle control module : a measured value (ω 3 ) of the traction control attribute, and the traction threshold value; a measured value (ω 3 ) of the traction control attribute, and the traction threshold value; when the measured value (ω 3 ) of the traction control attribute exceeds the traction threshold value, repeatedly calculating , by the first diagnostic supervisor , a respective difference between the traction threshold value and the measured value of the traction control attribute, to generate a set comprising a plurality of the respective differences; and based on the plurality of respective differences, determining, by the first diagnostic supervisor, a first operating condition of a traction system of the vehicle.
An inverter control device comprising: an inverter configured to convert direct-current power inputted from a direct-current power supply into alternating-current power, and to supply the alternating-current power to a motor ; a command value calculation unit configured to calculate a command value of an alternating-current voltage outputted from the inverter , on the basis of a detection value of an alternating current; a phase compensation unit configured to compensate for any of a phase of the command value and a phase of the detection value, wherein the phase compensation unit compensates for phases of the d- and q-axis currents; an inverter control unit configured to control the inverter on the basis of any of the command value and the detection value compensated for by the phase compensation unit ; a motor rotational velocity detection unit configured to detect a rotational velocity of the motor ; a current detection unit configured to detect the detection value by detecting phase currents of the motor; and a first coordinate transformation unit configured to perform coordinate transformation of the phase currents into d- and q-axis currents; characterized in that the phase compensation unit calculates a phase lead amount by multiplying the rotational velocity by a phase compensation time determined on the basis of an inherent characteristic of the motor , and suppresses the reduction in phase margin in the low-frequency region attributed to the inherent characteristic of the motor by compensating for a phase in accordance with the phase lead amount. an inverter configured to convert direct-current power inputted from a direct-current power supply into alternating-current power, and to supply the alternating-current power to a motor ; a command value calculation unit configured to calculate a command value of an alternating-current voltage outputted from the inverter , on the basis of a detection value of an alternating current; a phase compensation unit configured to compensate for any of a phase of the command value and a phase of the detection value, wherein the phase compensation unit compensates for phases of the d- and q-axis currents; an inverter control unit configured to control the inverter on the basis of any of the command value and the detection value compensated for by the phase compensation unit ; a motor rotational velocity detection unit configured to detect a rotational velocity of the motor ; a current detection unit configured to detect the detection value by detecting phase currents of the motor; and a first coordinate transformation unit configured to perform coordinate transformation of the phase currents into d- and q-axis currents; characterized in that the phase compensation unit calculates a phase lead amount by multiplying the rotational velocity by a phase compensation time determined on the basis of an inherent characteristic of the motor , and suppresses the reduction in phase margin in the low-frequency region attributed to the inherent characteristic of the motor by compensating for a phase in accordance with the phase lead amount.
A method, executed by a computer, comprising: capturing images of a rotating marker with a camera of a viewing electronic device , the rotating marker presented on a video screen of a remote device; presenting a visual experience on a display of the viewing electronic device , the visual experience having an adjustable feature; detecting a parameter of the rotating marker from the images captured with the camera at the viewing electronic device the parameter characterizing the rotation of the rotating marker and corresponding to the adjustable feature; and updating the visual experience presented on the display responsive to the detected parameter. capturing images of a rotating marker with a camera of a viewing electronic device , the rotating marker presented on a video screen of a remote device; presenting a visual experience on a display of the viewing electronic device , the visual experience having an adjustable feature; detecting a parameter of the rotating marker from the images captured with the camera at the viewing electronic device the parameter characterizing the rotation of the rotating marker and corresponding to the adjustable feature; and updating the visual experience presented on the display responsive to the detected parameter.
A method for measuring the flow velocity (v) of a medium in an open channel with a radar measuring device , wherein the radar measuring device is arranged and oriented in such a way that a primary emission direction (H1) of the radar measuring device forms with a direction of a surface normal of the medium a first angle (α) between 20° and 80°, preferably between 30° and 60°, and with a flow direction (F) of the medium a second angle (β) between 0° and 80°, preferably between 0° and 60°, comprising the following steps: - Emitting a transmission signal with a plurality of frequency ramps (501-504), - Receiving a reception signal per frequency ramp (501-504) of the transmission signal , - Saving the reception signals, - Performing a first spectral analysis of the reception signals, - Performing a second spectral analysis of several reception signals or output signals of the first spectral analysis, - Determining a flow velocity (v) based on the phase change using the output signals of the second spectral analysis in a distance range (II), i.e. a range from a minimum distance up to a maximum distance resulting on account of a distance of the surface of the medium from the radar measuring device in the main emission direction (H1) and the first angle and second angle, wherein the flow velocity (v) is determined on account of an average phase change in the distance range (II), a level of the medium in the channel is determined, and the distance range (II) is adjusted based on the determined level. - Emitting a transmission signal with a plurality of frequency ramps (501-504), - Receiving a reception signal per frequency ramp (501-504) of the transmission signal , - Saving the reception signals, - Performing a first spectral analysis of the reception signals, - Performing a second spectral analysis of several reception signals or output signals of the first spectral analysis, - Determining a flow velocity (v) based on the phase change using the output signals of the second spectral analysis in a distance range (II), i.e. a range from a minimum distance up to a maximum distance resulting on account of a distance of the surface of the medium from the radar measuring device in the main emission direction (H1) and the first angle and second angle, wherein the flow velocity (v) is determined on account of an average phase change in the distance range (II), a level of the medium in the channel is determined, and the distance range (II) is adjusted based on the determined level.
A method comprising: at a first communications device : receiving a first stream of bytes comprising a first packet, the first packet comprising a plurality of bytes, the plurality of bytes comprising a first byte, the first byte being located in a start of packet position of the first packet; generating realignment information for the first packet based on an alignment restriction on communication of the first byte of the packet to a particular lane, the alignment restriction associated with a multi-lane data path that is associated with an interface; transmitting , over the data path, a second stream of bytes, the second stream of bytes comprising the first packet and the realignment information, the transmitting of the first byte of the first packet over the data path being in accordance with the alignment restriction that is associated with the interface, the realignment information identifying a difference between a time that the first byte of the first packet would have been transmitted by the first communications device without the alignment restriction associated with the interface and a time of transmission of the first byte of the first packet by the first communications device in accordance with the alignment restriction associated with the interface. receiving a first stream of bytes comprising a first packet, the first packet comprising a plurality of bytes, the plurality of bytes comprising a first byte, the first byte being located in a start of packet position of the first packet; generating realignment information for the first packet based on an alignment restriction on communication of the first byte of the packet to a particular lane, the alignment restriction associated with a multi-lane data path that is associated with an interface; transmitting , over the data path, a second stream of bytes, the second stream of bytes comprising the first packet and the realignment information, the transmitting of the first byte of the first packet over the data path being in accordance with the alignment restriction that is associated with the interface, the realignment information identifying a difference between a time that the first byte of the first packet would have been transmitted by the first communications device without the alignment restriction associated with the interface and a time of transmission of the first byte of the first packet by the first communications device in accordance with the alignment restriction associated with the interface.
A launching system for an unmanned aerial vehicle, comprising: (a) a launcher rail ; (b) a shuttle configured to travel along the launcher rail ; (c) a drive mechanism for moving the shuttle along the launcher rail , the drive mechanism comprising (i) a tape running along the launcher rail, (ii) an electric drive motor that drives movement of the tape, and (iii) a drive reel to which one end of the tape is secured and around which the tape is wound during launch; and (d) a rotary assembly system and a pawl , wherein the shuttle is detachably secured to the tape via the rotary assembly system and the pawl, wherein engagement of the pawl with respect to the rotary assembly maintains attachment of the shuttle to the tape , wherein release of the pawl from the rotary assembly system allows the shuttle to release from the tape . (a) a launcher rail ; (b) a shuttle configured to travel along the launcher rail ; (c) a drive mechanism for moving the shuttle along the launcher rail , the drive mechanism comprising (i) a tape running along the launcher rail, (ii) an electric drive motor that drives movement of the tape, and (iii) a drive reel to which one end of the tape is secured and around which the tape is wound during launch; and (d) a rotary assembly system and a pawl , wherein the shuttle is detachably secured to the tape via the rotary assembly system and the pawl, wherein engagement of the pawl with respect to the rotary assembly maintains attachment of the shuttle to the tape , wherein release of the pawl from the rotary assembly system allows the shuttle to release from the tape .
Clamping device for clamping a turbine blade blank in a processing machine with a basic clamping unit , on which a first and a second clamping jaw receiving means are mounted, wherein a first clamping jaw is mounted on the first clamping jaw receiving means and a second clamping jaw is mounted on the second clamping jaw receiving means , and wherein the turbine blade blank can be secured between the clamping jaws in a clamped manner, wherein the first clamping jaw receiving means comprises at least a first processing tool passage clearance and the second clamping jaw receiving means comprises at least a second processing tool passage clearance , so that a processing tool can be guided through the first processing tool passage clearance to process a first lower edge radius region of the turbine blade blank located between the clamping jaw receiving means , and can be guided through the second processing tool passage clearance to process a second lower edge radius region of the turbine blade blank located between the clamping jaw receiving means , characterized in that the first and second processing tool passage clearances are arranged offset relative to a transverse axis of the clamping jaw receiving means .
A rotation angle calculation apparatus for calculating, from a detected angle (θ) of a multipole resolver , a rotation angle of a motor (M1) included in a drive apparatus having said motor (M1) and an inverter for controlling said motor (M1), wherein a mechanical period taken by said motor (M1) to make one full rotation includes a number, which corresponds to the number of poles of said resolver , of resolver periods each taken by the detected angle of said resolver to complete one cycle, said rotation angle calculation apparatus comprising: a calculation unit for calculating an error (Errθ) of the detected angle of said resolver for each of said resolver periods; and a correction unit for calculating a corrected value (φ) of said detected angle detected by said resolver by correcting said detected angle using the error of the detected angle calculated for a previous resolver period, and characterized in that said correction unit is configured to perform, when said drive apparatus is in a transition state, a transition correction wherein said corrected value is calculated using at least a first error which is the error of the detected angle calculated for a previous resolver period less than one mechanical period earlier, i.e. using the error (Errθ) of one resolver period (Tr) ago, and, when said drive apparatus is not in the transition state, a normal correction using at least a second error which is the error of the detected angle calculated for a previous resolver period one mechanical period earlier, i.e. using the error (Errθ) of one mechanical period (Tm) ago, in such a manner that a first extent, which is an extent to which the first error is reflected on said corrected value, is larger when said drive apparatus is in a transition state than the first extent when said drive apparatus is not in the transition state. a calculation unit for calculating an error (Errθ) of the detected angle of said resolver for each of said resolver periods; and a correction unit for calculating a corrected value (φ) of said detected angle detected by said resolver by correcting said detected angle using the error of the detected angle calculated for a previous resolver period, and characterized in that said correction unit is configured to perform, when said drive apparatus is in a transition state, a transition correction wherein said corrected value is calculated using at least a first error which is the error of the detected angle calculated for a previous resolver period less than one mechanical period earlier, i.e. using the error (Errθ) of one resolver period (Tr) ago, and, when said drive apparatus is not in the transition state, a normal correction using at least a second error which is the error of the detected angle calculated for a previous resolver period one mechanical period earlier, i.e. using the error (Errθ) of one mechanical period (Tm) ago, in such a manner that a first extent, which is an extent to which the first error is reflected on said corrected value, is larger when said drive apparatus is in a transition state than the first extent when said drive apparatus is not in the transition state.
Laundry care appliance with an outer tub for accommodating washing liquid, wherein a pressure detection facility, which is embodied to detect the pressure of the washing liquid in the outer tub , is arranged in the outer tub , wherein a laundry drum for accommodating laundry is arranged in the outer tub , a drum drive for rotating the laundry drum , a washing liquid supply facility for supplying washing liquid into the outer tub , a pump for pumping washing liquid out of the outer tub and a controller for controlling the drum drive , the washing liquid supply facility and the pump , wherein the controller is embodied, during a first time period , to activate the washing liquid supply facility in order to supply washing liquid into the outer tub , and to activate the drum drive in order to rotate the laundry drum at a first rotational speed and to wet laundry in the laundry drum with the supplied washing liquid, characterised in that the controller is embodied, at the end of the first time period , to activate the pump in order to pump the washing liquid out of the outer tub and out of the laundry care appliance if the detected pressure of the washing liquid in the outer tub remains constant during a detection time period , and the controller is embodied, during a second time period following the first time period , to deactivate the pump and the washing liquid supply facility , and to activate the drum drive in order to rotate the laundry drum at a second rotational speed and to wet the laundry in the laundry drum with washing liquid accommodated in the laundry.
A display device comprising an active area (A/A) for displaying an image, the display device comprising: a first substrate ; a signal pad having a multi layer structure and being arranged on the first substrate ; a connection electrode formed at a side surface of the first substrate perpendicular to a surface of the active area (A/A) of the display device and connected with the multi-layer structured signal pad ; and a flexible circuit film connected with the connection electrode , wherein the multi-layer structured signal pad includes at least two lines stacked one on the other with at least one insulating film interposed therebetween, wherein the lines are respectively electrically connected with the connection electrode at the side surface of the first substrate , and wherein the at least two lines are electrically connected with each other via at least one contact hole (CNT1, CNT2) penetrating the insulating film . a first substrate ; a signal pad having a multi layer structure and being arranged on the first substrate ; a connection electrode formed at a side surface of the first substrate perpendicular to a surface of the active area (A/A) of the display device and connected with the multi-layer structured signal pad ; and a flexible circuit film connected with the connection electrode , wherein the multi-layer structured signal pad includes at least two lines stacked one on the other with at least one insulating film interposed therebetween, wherein the lines are respectively electrically connected with the connection electrode at the side surface of the first substrate , and wherein the at least two lines are electrically connected with each other via at least one contact hole (CNT1, CNT2) penetrating the insulating film .
A method performed by a user equipment , UE, the method comprising: transmitting an area update request message to a network entity ; receiving an area update reject message from the network entity ; and transmitting , in case that a T3246 timer is running, and the UE is in an area where the UE was previously registered with the network entity , a detach indication to the network entity , when the UE is in an ATTEMPTING TO UPDATE state in response to the area update reject message; wherein the detach indication is for detachment of a service to the UE and removal of UE context information. transmitting an area update request message to a network entity ; receiving an area update reject message from the network entity ; and transmitting , in case that a T3246 timer is running, and the UE is in an area where the UE was previously registered with the network entity , a detach indication to the network entity , when the UE is in an ATTEMPTING TO UPDATE state in response to the area update reject message; wherein the detach indication is for detachment of a service to the UE and removal of UE context information.