mhurhangee/patent-ind-claim-en huggingface dataset:
Construction vehicle having a base vehicle and having a body, in particular a bed body with a tipping unit, wherein the base vehicle has a driver's unit, in particular with a driver's cab , and a steering unit for steering the base vehicle, in particular an articulated steering system with a joint , kingpin steering system, skid steering system, rear-wheel steering system, front-wheel steering system or all-wheel steering system, wherein in particular the joint is arranged between two vehicle units of the base vehicle that are pivotable relative to one another, wherein the base vehicle has a vehicle-side coupling unit for coupling and/or decoupling of an interchangeable body , which has one or more vehicle-side coupling elements , and wherein provision is made of an interchangeable body which comprises one or more body-side coupling elements for coupling of the interchangeable body to the base vehicle , wherein provision is made of at least one first pivot (D1), around which the interchangeable body is rotatable at a first radius (R1) during the coupling and/or decoupling, wherein provision is made of a lifting device with a lifting drive for lifting the interchangeable body , wherein the base vehicle has a drive unit, which is designed as an unlocking/locking and/or tensioning unit , and at least one first vehicle-side coupling element of the coupling unit , the position of which is able to be changed by the drive unit , wherein the, in particular linear, drive unit designed as an unlocking/locking and/or tensioning unit is also designed as the lifting drive of the lifting device, characterized in that a rear vehicle-side coupling element has a guide surface extending downwards from the rear forwards, and a front vehicle-side coupling element has an unlocking/locking and/or tensioning surface extending downwards from the front rearwards, and/or in that , in a state of the interchangeable body in which it is braced and/or locked to the base vehicle , a rear body-side coupling element engages below the downwardly extending guide surface of the rear vehicle-side coupling element and a front body-side coupling element engages below the downwardly extending unlocking/locking and/or tensioning surface of the front vehicle-side coupling element .
A system comprising: an implantable medical device (IMD) configured to be programmed with magnetic resonance imaging (MRI) settings for use during an MRI scan, wherein the IMD stores identity data that uniquely identifies the IMD or a patient having the IMD; an external storage media configured to receive MRI settings associated with the IMD and configured to store the MRI settings associated with the IMD ; and a programmer configured to retrieve identity data from the IMD , retrieve MRI settings associated with the IMD from the external storage media and program the IMD using the MRI settings , characterized in that the MRI settings include one or more of numerical values for particular parameter settings, an indication of which chambers are paced, an MRI pacing mode, an MRI pace amplitude, an MRI pace rate, an MRI settings timer and a validity timeframe. an implantable medical device (IMD) configured to be programmed with magnetic resonance imaging (MRI) settings for use during an MRI scan, wherein the IMD stores identity data that uniquely identifies the IMD or a patient having the IMD; an external storage media configured to receive MRI settings associated with the IMD and configured to store the MRI settings associated with the IMD ; and a programmer configured to retrieve identity data from the IMD , retrieve MRI settings associated with the IMD from the external storage media and program the IMD using the MRI settings , characterized in that the MRI settings include one or more of numerical values for particular parameter settings, an indication of which chambers are paced, an MRI pacing mode, an MRI pace amplitude, an MRI pace rate, an MRI settings timer and a validity timeframe.
A method performed by at least one of a first node and a second node that are configured for wirelessly communicating with each other, the method comprising: calculating , according to a first calculation, first precoder quality estimates for respective precoders in a first set of precoders; selecting a smaller, second set of precoders from the first set of precoders, at least in part as a function of the first precoder quality estimates; calculating , according to a second calculation, second precoder quality estimates for respective precoders in the second set of precoders, wherein the second precoder quality estimates are refined as compared to corresponding ones of the first precoder quality estimates, and wherein the second calculation is more complex than the first calculation; and selecting one or more of the precoders from the second set of precoders as a preferred precoder or precoders, for use in precoding a transmission between the first and second nodes , the method characterised in that the first set of precoders includes one or more precoders for each of two or more transmission ranks, wherein selecting the second set of precoders from the first set of precoders further comprises selecting at least one precoder from each of at least two of the two or more transmission ranks, such that the precoders in the second set of precoders cover at least two transmission ranks. calculating , according to a first calculation, first precoder quality estimates for respective precoders in a first set of precoders; selecting a smaller, second set of precoders from the first set of precoders, at least in part as a function of the first precoder quality estimates; calculating , according to a second calculation, second precoder quality estimates for respective precoders in the second set of precoders, wherein the second precoder quality estimates are refined as compared to corresponding ones of the first precoder quality estimates, and wherein the second calculation is more complex than the first calculation; and selecting one or more of the precoders from the second set of precoders as a preferred precoder or precoders, for use in precoding a transmission between the first and second nodes ,
Method for surface treatment of a rock and/or concrete surface of a workpiece with a processing machine , characterised by the following steps: a) Processing of the workpiece with a brush set of the processing machine comprising at least two identically designed surface processing elements , by means of which material is removed by mechanical surface removal of the rock and/or concrete surface of the workpiece to be processed; b) wherein the workpiece is moved at a feed speed (V1) along the throughput direction (D1); c) wherein each surface processing element is individually rotated about an axis of rotation (R1) at least during a direct mechanical contact with the rock and/or concrete surface to be processed, wherein the axis of rotation (R1) is arranged parallel to the surface of the workpiece , and thereby undergoes a rotation (R10) in order to generate an abrasive contact with the rock and/or concrete surface to be processed by this rotation (R10), wherein the surface processing element is rotated about an individually set direction of rotation (R20) ; and d) wherein each surface processing element is driven by its own oscillation drive in the direction of an individually set drive direction (A1), wherein the oscillation drive periodically moves the surface processing element along the individually set drive direction (A1) and relative to the workpiece , wherein the individually set drive direction (A1) can be set differently from the throughput direction (D1) of the workpiece through the processing machine and from the individually set direction of rotation (R20) of the surface processing element . a) Processing of the workpiece with a brush set of the processing machine comprising at least two identically designed surface processing elements , by means of which material is removed by mechanical surface removal of the rock and/or concrete surface of the workpiece to be processed; b) wherein the workpiece is moved at a feed speed (V1) along the throughput direction (D1); c) wherein each surface processing element is individually rotated about an axis of rotation (R1) at least during a direct mechanical contact with the rock and/or concrete surface to be processed, wherein the axis of rotation (R1) is arranged parallel to the surface of the workpiece , and thereby undergoes a rotation (R10) in order to generate an abrasive contact with the rock and/or concrete surface to be processed by this rotation (R10), wherein the surface processing element is rotated about an individually set direction of rotation (R20) ; and d) wherein each surface processing element is driven by its own oscillation drive in the direction of an individually set drive direction (A1), wherein the oscillation drive periodically moves the surface processing element along the individually set drive direction (A1) and relative to the workpiece , wherein the individually set drive direction (A1) can be set differently from the throughput direction (D1) of the workpiece through the processing machine and from the individually set direction of rotation (R20) of the surface processing element .
Automatic Train Protection system (hereafter "ATP system") for controlling a guided vehicle approaching a track element , said ATP system comprising: - a control unit configured for controlling the guided vehicle speed according to a first speed profile (FSP), wherein the first speed profile (FSP) is configured for defining a maximum authorized speed for the guided vehicle in function of its position compared to the position (B) of the track element , the maximum authorized speed for positions of the guided vehicle falling within a predefined security distance (DS) from the position (B) of the track element being zero; wherein - the ATP is configured for triggering an emergency brake if a speed of the guided vehicle at a position x is higher than the maximum authorized speed defined by the first speed profile (FSP) for said position x unless a second speed profile (SSP) exists for said position x, wherein the control unit is configured for automatically determining the second speed profile (SSP) for the guided vehicle , wherein the second speed profile (SSP) defines a speed limit for the guided vehicle in function of its position compared to the position (B) of the track element , wherein the second speed profile (SSP) prevails over the first speed profile (FSP) for triggering the emergency brake if such a speed limit is defined in the second speed profile (SSP) for said position x. - a control unit configured for controlling the guided vehicle speed according to a first speed profile (FSP), wherein the first speed profile (FSP) is configured for defining a maximum authorized speed for the guided vehicle in function of its position compared to the position (B) of the track element , the maximum authorized speed for positions of the guided vehicle falling within a predefined security distance (DS) from the position (B) of the track element being zero; wherein - the ATP is configured for triggering an emergency brake if a speed of the guided vehicle at a position x is higher than the maximum authorized speed defined by the first speed profile (FSP) for said position x unless a second speed profile (SSP) exists for said position x, wherein the control unit is configured for automatically determining the second speed profile (SSP) for the guided vehicle , wherein the second speed profile (SSP) defines a speed limit for the guided vehicle in function of its position compared to the position (B) of the track element , wherein the second speed profile (SSP) prevails over the first speed profile (FSP) for triggering the emergency brake if such a speed limit is defined in the second speed profile (SSP) for said position x.
An ultrasonic diagnosis system, comprising: a former configured to form a tomographic image based on information obtained from a scan plane created by a probe; a searcher configured to identify a current model cross section corresponding to the scan plane by comparing the tomographic image to a group of provisional model cross sections set with respect to a tissue model reflecting a three-dimensional structure of a target tissue; and a generator configured to generate, based on the current model cross section, probe operation support information for causing the scan plane to approach an observation cross section in the target tissue, characterized in that a target model cross section corresponding to the observation cross section is determined in the tissue model, and the generator generates the probe operation support information based on a spatial relationship between the current model cross section and the target model cross section in the tissue model. a former configured to form a tomographic image based on information obtained from a scan plane created by a probe; a searcher configured to identify a current model cross section corresponding to the scan plane by comparing the tomographic image to a group of provisional model cross sections set with respect to a tissue model reflecting a three-dimensional structure of a target tissue; and a generator configured to generate, based on the current model cross section, probe operation support information for causing the scan plane to approach an observation cross section in the target tissue, characterized in that a target model cross section corresponding to the observation cross section is determined in the tissue model, and the generator generates the probe operation support information based on a spatial relationship between the current model cross section and the target model cross section in the tissue model.
A cellular telephone , comprising: a processor ; a transceiver coupled to the processor ; a user interface that includes a first display coupled to the processor ; a memory coupled to the processor ; a plurality of applications that are configured to run on the processor , wherein each of the plurality of applications is configured to generate information that may be displayed on the first display while the cellular telephone is in standby mode; and a control application that is configured to automatically adjust what of the information generated by the plurality of applications is displayed on the first display while the cellular telephone is in standby mode based on at least one temporal parameter, wherein the control application is further configured to use at least one location parameter to automatically adjust what of the information generated by the plurality of applications is displayed on the first display ), wherein the control application applies one or more pre-defined criteria to the temporal parameter and the location parameter to automatically adjust what of the information generated by the plurality of applications is displayed based on a determination that at least one of the pre-defined criteria has been satisfied; and wherein the control application is further configured to use presence information to automatically adjust what of the information generated by the plurality of applications is displayed on the first display , the presence information indicating a presence of a device associated with a second user near the cellular telephone . a processor ; a transceiver coupled to the processor ; a user interface that includes a first display coupled to the processor ; a memory coupled to the processor ; a plurality of applications that are configured to run on the processor , wherein each of the plurality of applications is configured to generate information that may be displayed on the first display while the cellular telephone is in standby mode; and a control application that is configured to automatically adjust what of the information generated by the plurality of applications is displayed on the first display while the cellular telephone is in standby mode based on at least one temporal parameter, wherein the control application is further configured to use at least one location parameter to automatically adjust what of the information generated by the plurality of applications is displayed on the first display ), wherein the control application applies one or more pre-defined criteria to the temporal parameter and the location parameter to automatically adjust what of the information generated by the plurality of applications is displayed based on a determination that at least one of the pre-defined criteria has been satisfied; and wherein the control application is further configured to use presence information to automatically adjust what of the information generated by the plurality of applications is displayed on the first display , the presence information indicating a presence of a device associated with a second user near the cellular telephone .
A method of determining the health of a plasma system by monitoring an ignition process for igniting a plasma within a plasma confining volume , comprising: generating an ignition signal with an ignition circuit; applying the ignition signal between a biased region and a grounded region in the vicinity of the plasma confining volume ; sensing a parameter related to the ignition circuit; comparing the sensed parameter values to historical values; and determining at least one corrective action for the plasma system based on the comparison of the sensed parameter values and historical values, wherein the at least one corrective action comprises providing a purge gas through the plasma confining volume to reduce an amount of contaminant in the plasma confining volume before a retry of ignition. generating an ignition signal with an ignition circuit; applying the ignition signal between a biased region and a grounded region in the vicinity of the plasma confining volume ; sensing a parameter related to the ignition circuit; comparing the sensed parameter values to historical values; and determining at least one corrective action for the plasma system based on the comparison of the sensed parameter values and historical values, wherein the at least one corrective action comprises providing a purge gas through the plasma confining volume to reduce an amount of contaminant in the plasma confining volume before a retry of ignition.
Exoskeleton comprising: a plurality of exoskeleton elements ; a compressor; a compressed air storage container; a first pneumatic actuator ; a second pneumatic actuator; a compressed air intermediate storage tank network having at least two compressed air intermediate storage tanks ; and a controller ; wherein the compressor is connected to the compressed air storage container and is configured to fill the compressed air storage container with compressed air; the controller is configured to monitor the pressure in the pneumatic actuators and the compressed air intermediate storage tanks ; and, when a first support force provided by the first pneumatic actuator is to be reduced, to determine whether the first pneumatic actuator is to be vented to the environment or to the compressed air intermediate storage tank network ; and, when a second support force provided by the second pneumatic actuator is to be increased, to determine whether compressed air is to be supplied to the second pneumatic actuator from the compressed air storage container and/or from the compressed air intermediate storage tank network . a plurality of exoskeleton elements ; a compressor; a compressed air storage container; a first pneumatic actuator ; a second pneumatic actuator; a compressed air intermediate storage tank network having at least two compressed air intermediate storage tanks ; and a controller ; wherein the compressor is connected to the compressed air storage container and is configured to fill the compressed air storage container with compressed air; the controller is configured to monitor the pressure in the pneumatic actuators and the compressed air intermediate storage tanks ; and, when a first support force provided by the first pneumatic actuator is to be reduced, to determine whether the first pneumatic actuator is to be vented to the environment or to the compressed air intermediate storage tank network ; and, when a second support force provided by the second pneumatic actuator is to be increased, to determine whether compressed air is to be supplied to the second pneumatic actuator from the compressed air storage container and/or from the compressed air intermediate storage tank network . when a first support force provided by the first pneumatic actuator is to be reduced, to determine whether the first pneumatic actuator is to be vented to the environment or to the compressed air intermediate storage tank network ; and, when a second support force provided by the second pneumatic actuator is to be increased, to determine whether compressed air is to be supplied to the second pneumatic actuator from the compressed air storage container and/or from the compressed air intermediate storage tank network .
An array substrate comprising: a glass substrate having two opposite surfaces; a flexible substrate comprising a first portion and a second portion , the glass substrate being arranged on a lower surface of the first portion of the flexible substrate , the second portion being a portion of the flexible substrate other than the first portion and being located at periphery of the first portion , the second portion surrounding the first portion , and the second portion of the flexible substrate being provided with a peripheral circuit thereon; and a display array formed on the first portion of the flexible substrate , wherein the second portion of the flexible substrate is bendable with respect to the glass substrate , so that the second portion is bent to wrap an end of the glass substrate , such that a part of the second portion is in contact with the surface of the glass substrate which is away from the first portion . a glass substrate having two opposite surfaces; a flexible substrate comprising a first portion and a second portion , the glass substrate being arranged on a lower surface of the first portion of the flexible substrate , the second portion being a portion of the flexible substrate other than the first portion and being located at periphery of the first portion , the second portion surrounding the first portion , and the second portion of the flexible substrate being provided with a peripheral circuit thereon; and a display array formed on the first portion of the flexible substrate , wherein the second portion of the flexible substrate is bendable with respect to the glass substrate , so that the second portion is bent to wrap an end of the glass substrate , such that a part of the second portion is in contact with the surface of the glass substrate which is away from the first portion .