mhurhangee/patent-ind-claim-en huggingface dataset:
A neuromodulation system for inducing locomotor activity in a mammal, the neuromodulation system comprising: a processor ; a signal generator communicatively coupled to the processor; at least one transcutaneous electrode and a second electrode electrically coupled to the signal generator; and at least one electromyography electrode communicatively coupled to the processor ; and a memory device storing instructions which when executed by the processor , adapted to cause the processor , in cooperation with the signal generator and the at least one transcutaneous electrode and the second electrode , to deliver a signal to a portion of a spinal cord and/or the brainstem related to neurological tissue of the mammal, said signal having parameter values including a 1 - 100 Hz bipolar stimulus, at 0 - 300 mA, having a pulse duration between 0.3 and 1 ms, and filled with overlapping high frequency pulses at 5 - 10 kHz; wherein the at least one electromyography electrode is adapted to measure a response related to delivery of the signal to the mammal, and wherein the processor is configured to synchronize the parameter values of the signal with the response measured by the at least one electromyography electrode and store to the memory the synchronization for selection of new parameter values to deliver a subsequent signal. a processor ; a signal generator communicatively coupled to the processor; at least one transcutaneous electrode and a second electrode electrically coupled to the signal generator; and at least one electromyography electrode communicatively coupled to the processor ; and a memory device storing instructions which when executed by the processor , adapted to cause the processor , in cooperation with the signal generator and the at least one transcutaneous electrode and the second electrode , to deliver a signal to a portion of a spinal cord and/or the brainstem related to neurological tissue of the mammal, said signal having parameter values including a 1 - 100 Hz bipolar stimulus, at 0 - 300 mA, having a pulse duration between 0.3 and 1 ms, and filled with overlapping high frequency pulses at 5 - 10 kHz; wherein the at least one electromyography electrode is adapted to measure a response related to delivery of the signal to the mammal, and wherein the processor is configured to synchronize the parameter values of the signal with the response measured by the at least one electromyography electrode and store to the memory the synchronization for selection of new parameter values to deliver a subsequent signal.
A method implemented in an encoder for encoding a video including a plurality of pictures, the method comprising: partitioning , by a processor of the encoder, a picture of the plurality of pictures into a plurality of first level tiles, wherein the plurality of first level tiles are defined by a set of tile columns and a set of tile rows; partitioning , by the processor, a subset of the first level tiles into one or more tile rows and one or more tile columns to obtain a plurality of second level tiles; assigning, by the processor, the first level tiles and the second level tiles into one or more tile groups, wherein all second level tiles created from a single first level tile are assigned to a same tile group and such that tiles in an assigned tile group are constrained to cover a rectangular region of the picture; encoding , by the processor, the first level tiles and the second level tiles into a bitstream; encoding , by the processor, a flag, for each of the first level tiles, into the bitstream, the flag indicating whether the first level tile is partitioned into second level tiles, wherein the flag is included in a picture parameter set associated with the picture. partitioning , by a processor of the encoder, a picture of the plurality of pictures into a plurality of first level tiles, wherein the plurality of first level tiles are defined by a set of tile columns and a set of tile rows; partitioning , by the processor, a subset of the first level tiles into one or more tile rows and one or more tile columns to obtain a plurality of second level tiles; assigning, by the processor, the first level tiles and the second level tiles into one or more tile groups, wherein all second level tiles created from a single first level tile are assigned to a same tile group and such that tiles in an assigned tile group are constrained to cover a rectangular region of the picture; encoding , by the processor, the first level tiles and the second level tiles into a bitstream; encoding , by the processor, a flag, for each of the first level tiles, into the bitstream, the flag indicating whether the first level tile is partitioned into second level tiles, wherein the flag is included in a picture parameter set associated with the picture.
A polylactic acid resin composition for three-dimensional printing, comprising: (a) a hard segment comprising a polylactic acid repeat unit represented by Formula 1; and (b) a soft segment comprising a polyurethane polyol repeat unit in which polyether-based polyol repeat units represented by Formula 2 are linearly linked via urethane bonds, wherein the composition has a melting temperature of 170°C or less, a glass transition temperature of 55°C or less, a number-average molecular weight of 50,000 or more, and a viscosity of 1,000 Pa·s or less when measured at a temperature of 200°C and at a shear rate of 100 s -1 : wherein n in Formula 1 is an integer ranging from 700 to 5,000; and, in Formula 2, A is a linear or branched alkylene group having 2 to 5 carbon atoms, and m is an integer ranging from 10 to 100; and wherein the glass transition temperature and the melting temperature are measured as defined in the description. (a) a hard segment comprising a polylactic acid repeat unit represented by Formula 1; and (b) a soft segment comprising a polyurethane polyol repeat unit in which polyether-based polyol repeat units represented by Formula 2 are linearly linked via urethane bonds, wherein the composition has a melting temperature of 170°C or less, a glass transition temperature of 55°C or less, a number-average molecular weight of 50,000 or more, and a viscosity of 1,000 Pa·s or less when measured at a temperature of 200°C and at a shear rate of 100 s -1 : wherein n in Formula 1 is an integer ranging from 700 to 5,000; and, in Formula 2, A is a linear or branched alkylene group having 2 to 5 carbon atoms, and m is an integer ranging from 10 to 100; and wherein the glass transition temperature and the melting temperature are measured as defined in the description.
A method for awaking an optical network unit, ONU, in a passive optical network PON, wherein the method comprises: receiving, by an optical line terminal, OLT, a preset packet feature of needing to awake the ONU, wherein the preset packet feature is from the ONU; receiving (S501), by the OLT, a service packet corresponding to an ONU in an energy-saving mode, wherein the service packet corresponding to an ONU comprises the service packet of the ONU and the service packet is sent to the ONU from a network-side device, wherein the service packet carries at least one packet feature, and the at least one packet feature indicates a service type of the service packet, wherein each service type is expressed by setting one or a combination of packet features in a packet header of the service packet; detecting (S502), by the OLT, the packet feature of the service packet; and when the at least one packet feature of the service packet is the preset packet feature of needing to awake the ONU, awaking (S503), by the OLT, the ONU in the energy-saving mode, wherein the awaking, by the OLT, the ONU in the energy-saving mode specifically comprises: instructing, by the OLT by using a forced wakeup indication FWI, the ONU to be awoken from the energy-saving mode. receiving, by an optical line terminal, OLT, a preset packet feature of needing to awake the ONU, wherein the preset packet feature is from the ONU; receiving (S501), by the OLT, a service packet corresponding to an ONU in an energy-saving mode, wherein the service packet corresponding to an ONU comprises the service packet of the ONU and the service packet is sent to the ONU from a network-side device, wherein the service packet carries at least one packet feature, and the at least one packet feature indicates a service type of the service packet, wherein each service type is expressed by setting one or a combination of packet features in a packet header of the service packet; detecting (S502), by the OLT, the packet feature of the service packet; and when the at least one packet feature of the service packet is the preset packet feature of needing to awake the ONU, awaking (S503), by the OLT, the ONU in the energy-saving mode, wherein the awaking, by the OLT, the ONU in the energy-saving mode specifically comprises: instructing, by the OLT by using a forced wakeup indication FWI, the ONU to be awoken from the energy-saving mode.
An arrangement to control the movement speed of a percussive element which is arranged to move in a housing of a drilling machine, where the percussive element comprises a brake surface , wherein the housing comprises a damping chamber configured to contain a fluid provided to dampen the movement speed of the percussive element in the housing and a conduit configured to lead fluid from the damping chamber , characterized in that the arrangement is configured to control the movement speed of the percussive element by adapting a pressure by which the fluid in the damping chamber affects the brake surface of the percussive element by leading fluid from the damping chamber only when a predetermined reference point of the percussive element is located ahead of a predetermined first position along an axial elongation (E) of the damping chamber .
A vanadium compound represented by following General Formula . (In the formula, R 1 represents a linear or branched alkyl group having 1 to 7 carbon atoms; n represents a number from 2 to 4.)
Connector assembly comprising a pin-side with at least two pin-side housings in each of which at least one pin-side connector is arranged, wherein said pin-side housing having a front section extending along a front axis (M1) and a rear section extending along a rear axis (M2); a plug-side with at least two plug-side housings in which at least one plug-side connector is arranged, wherein said plug-side housing having a front section extending along a front axis (M3) and a rear section extending along a rear axis (M4), and wherein the front section of the pin-side is adapted to be connected with the front section of the plug-side in direction of said front axis (M1, M3), and a shielding arrangement comprising at least an outer shielding element to provide an electromagnetic shielding, wherein said housings comprise an outer surface on which latching elements are arranged, and wherein said at least one outer shielding element comprise latching elements which are adapted to be received by said latching elements of said housings in order to establish a mechanical connection between the at least one outer shielding element and the respective housing, characterized in that between two neighbouring pin-side housings and/or two neighbouring plug-side housings an intermediate shielding element is arranged, wherein said intermediate shielding element comprises latching elements which are adapted to be received by latching elements of said neighbouring housings in order to establish a mechanical connection between two neighbouring housings via said intermediate shielding element . 1 a pin-side with at least two pin-side housings in each of which at least one pin-side connector is arranged, wherein said pin-side housing having a front section extending along a front axis (M1) and a rear section extending along a rear axis (M2); a plug-side with at least two plug-side housings in which at least one plug-side connector is arranged, wherein said plug-side housing having a front section extending along a front axis (M3) and a rear section extending along a rear axis (M4), and wherein the front section of the pin-side is adapted to be connected with the front section of the plug-side in direction of said front axis (M1, M3), and a shielding arrangement comprising at least an outer shielding element to provide an electromagnetic shielding, wherein said housings comprise an outer surface on which latching elements are arranged, and wherein said at least one outer shielding element comprise latching elements which are adapted to be received by said latching elements of said housings in order to establish a mechanical connection between the at least one outer shielding element and the respective housing, characterized in that between two neighbouring pin-side housings and/or two neighbouring plug-side housings an intermediate shielding element is arranged, wherein said intermediate shielding element comprises latching elements which are adapted to be received by latching elements of said neighbouring housings in order to establish a mechanical connection between two neighbouring housings via said intermediate shielding element .
An additive manufacturing method for delivering a flowable material from a nozzle (51; 71) of a programmable computer numeric control machine , the nozzle (51; 71) being configured to translate along a first axis (X), a second axis (Y) perpendicular to the first axis, and a third axis (Z) orthogonal to the first and second axes, the method comprising: actuating an extruder to form a flowable material ; delivering the flowable material to a pump (74; 66); sensing a pressure of the flowable material ; and characterised in that the method comprises: adjusting a speed of the extruder and a speed of the pump (74; 66) based on the sensed pressure and an increase or decrease in a rate of translation of the nozzle (51; 71) along one or more of the first, second, and third axes. actuating an extruder to form a flowable material ; delivering the flowable material to a pump (74; 66); sensing a pressure of the flowable material ; and characterised in that the method comprises: adjusting a speed of the extruder and a speed of the pump (74; 66) based on the sensed pressure and an increase or decrease in a rate of translation of the nozzle (51; 71) along one or more of the first, second, and third axes.
An integrated circuit to access a memory associated with a fluid ejection device, the integrated circuit comprising: a plurality of memory cells (104 0-n ,204 0-n ); an address decoder to select memory cells (104 0-n ,204 0-n ) in response to an address; activation logic to activate selected memory cells (104 0-n ,204 0-n ) based on a data signal and a fire signal; and configuration logic to enable or disable access to the plurality of memory cells (104 0-n ,204 0-n ). a plurality of memory cells (104 0-n ,204 0-n ); an address decoder to select memory cells (104 0-n ,204 0-n ) in response to an address; activation logic to activate selected memory cells (104 0-n ,204 0-n ) based on a data signal and a fire signal; and configuration logic to enable or disable access to the plurality of memory cells (104 0-n ,204 0-n ).
An actuator comprising a stationary frame and a swingable part that are coupled by means of: - a pivot allowing the swing of said swingable part , - two shape memory alloy wires engaged to two connecting elements present on the swingable part and radially separated from the pivot , said connecting elements being respectively on a left and right portion of the swingable part , such that the activation of one of said shape memory alloy wires causes the swing of the swingable part in either the clockwise or counterclockwise direction, the actuator further comprising a movable element that is slidable towards the outside of the actuator, characterized in that said movable element is slidable towards the outside of the actuator under the action of a biasing spring upon disengagement of a locking element located on the swingable part and engaged in a recess of said movable element , the disengagement being caused by said swing of the swingable part . - a pivot allowing the swing of said swingable part , - two shape memory alloy wires engaged to two connecting elements present on the swingable part and radially separated from the pivot , said connecting elements being respectively on a left and right portion of the swingable part , such that the activation of one of said shape memory alloy wires causes the swing of the swingable part in either the clockwise or counterclockwise direction, the actuator further comprising a movable element that is slidable towards the outside of the actuator, characterized in that said movable element is slidable towards the outside of the actuator under the action of a biasing spring upon disengagement of a locking element located on the swingable part and engaged in a recess of said movable element , the disengagement being caused by said swing of the swingable part . the actuator further comprising a movable element that is slidable towards the outside of the actuator, characterized in that said movable element is slidable towards the outside of the actuator under the action of a biasing spring upon disengagement of a locking element located on the swingable part and engaged in a recess of said movable element , the disengagement being caused by said swing of the swingable part .
An electronic device comprising: a housing comprising a first plate , a second plate facing toward a direction opposite the first plate , and a side surface member surrounding a space between the first plate and the second plate , the side surface member being integrally formed with or attached to the second plate ; a touch screen display exposed through a portion of the first plate ; a printed circuit board, PCB, disposed in parallel between the first plate and the second plate ; a wireless communication circuit mounted in the PCB ; a first conductive pattern formed in a first portion of the PCB ; a second conductive pattern formed in a second portion of the PCB ; and a conductive path formed on the PCB and electrically connecting the first conductive pattern and the second conductive pattern ; a structure formed of a dielectric material and disposed between the second plate and the PCB ; a third conductive pattern disposed on the structure ; and a fourth conductive pattern disposed on the structure ; and wherein the third conductive pattern at least partly overlaps the first conductive pattern , and the fourth conductive pattern at least partly overlaps the second conductive pattern , and wherein the wireless communication circuit is electrically connected to the first conductive pattern and the second conductive pattern and is configured to provide a first signal having a first frequency and a second signal having a second frequency higher than the first frequency to both the first conductive pattern and the second conductive pattern . a housing comprising a first plate , a second plate facing toward a direction opposite the first plate , and a side surface member surrounding a space between the first plate and the second plate , the side surface member being integrally formed with or attached to the second plate ; a touch screen display exposed through a portion of the first plate ; a printed circuit board, PCB, disposed in parallel between the first plate and the second plate ; a wireless communication circuit mounted in the PCB ; a first conductive pattern formed in a first portion of the PCB ; a second conductive pattern formed in a second portion of the PCB ; and a conductive path formed on the PCB and electrically connecting the first conductive pattern and the second conductive pattern ; a structure formed of a dielectric material and disposed between the second plate and the PCB ; a third conductive pattern disposed on the structure ; and a fourth conductive pattern disposed on the structure ; and wherein the third conductive pattern at least partly overlaps the first conductive pattern , and the fourth conductive pattern at least partly overlaps the second conductive pattern , and wherein the wireless communication circuit is electrically connected to the first conductive pattern and the second conductive pattern and is configured to provide a first signal having a first frequency and a second signal having a second frequency higher than the first frequency to both the first conductive pattern and the second conductive pattern .
Trailer coupling comprising a mounting unit mounted securely on the vehicle, a bearing unit held on the mounting unit and connected to a first end area of a carrier structure of a ball neck , and a coupling element , designed, in particular, as a coupling ball, arranged at a second end area of the carrier structure of the ball neck and at least one functional unit associated with the ball neck and arranged, in particular, on it, wherein the carrier structure is provided with a casing at least in sections, wherein the at least one functional unit is held on the casing , characterized in that the functional unit comprises a detection unit for the operating state, and that this casing extends along the carrier structure over at least half of a section of the carrier structure located between the end areas .
Method for dressing a multi-thread grinding worm for the grinding of toothings or similar profiles, wherein the grinding worm comprises a plurality of worm threads , each of which are dressed by means of a dressing tool with at least one dressing stroke (H1, H2, H3) in order to provide a desired profile to the grinding worm , characterised in that the method comprises the steps: a) dressing a first worm thread with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein at least one process parameter (P1) is measured and detected during the dressing process; b) dressing of a further worm thread , which is different from the first worm thread , with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein the process parameter (P1) is measured and detected during the dressing operation; c) after dressing all worm threads of the grinding worm : combining the measured and recorded data of the at least one process parameter (P1); d) comparing the combined data of the at least one process parameter (P1) with data stored in a machine controller and checking whether the combined data is within a predetermined admissible range; e) outputting a signal if the combined data is not within the predefined admissible range. a) dressing a first worm thread with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein at least one process parameter (P1) is measured and detected during the dressing process; b) dressing of a further worm thread , which is different from the first worm thread , with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein the process parameter (P1) is measured and detected during the dressing operation; c) after dressing all worm threads of the grinding worm : combining the measured and recorded data of the at least one process parameter (P1); d) comparing the combined data of the at least one process parameter (P1) with data stored in a machine controller and checking whether the combined data is within a predetermined admissible range; e) outputting a signal if the combined data is not within the predefined admissible range.