mhurhangee/patent-ind-claim-en huggingface dataset:
A system for treating patient pain, comprising: a signal delivery device having a plurality of electrodes configured to be implanted within a patient's epidural space, proximate to one or more target neural populations in the patient's spinal cord; and a pulse generator having a controller programmed with instructions for: generating and delivering first pulses to the signal delivery device to create an anesthetic, non-paresthetic effect in the patient, the first pulses having a frequency in a frequency range of from 1.5 kHz to 50 kHz, and generating and delivering second pulses to the signal delivery device to create a paresthetic effect in the patient, the second pulses having a frequency in a frequency range of from 2 Hz to 1.2 kHz, wherein the first pulses have a first pulse width and the second pulses have a second pulse width greater than the first pulse width. a signal delivery device having a plurality of electrodes configured to be implanted within a patient's epidural space, proximate to one or more target neural populations in the patient's spinal cord; and a pulse generator having a controller programmed with instructions for: generating and delivering first pulses to the signal delivery device to create an anesthetic, non-paresthetic effect in the patient, the first pulses having a frequency in a frequency range of from 1.5 kHz to 50 kHz, and generating and delivering second pulses to the signal delivery device to create a paresthetic effect in the patient, the second pulses having a frequency in a frequency range of from 2 Hz to 1.2 kHz, generating and delivering first pulses to the signal delivery device to create an anesthetic, non-paresthetic effect in the patient, the first pulses having a frequency in a frequency range of from 1.5 kHz to 50 kHz, and generating and delivering second pulses to the signal delivery device to create a paresthetic effect in the patient, the second pulses having a frequency in a frequency range of from 2 Hz to 1.2 kHz, wherein the first pulses have a first pulse width and the second pulses have a second pulse width greater than the first pulse width.
A side vehicle-body structure of a vehicle, comprising: a rear suspension suspending a rear wheel; a side panel constituting a side face of the vehicle at a higher level than a rear-suspension attachment portion to attach the rear suspension to the vehicle; a seatbelt retractor attached to a cabin-inside face of the side panel ; a frame member forming a closed-cross section extending vertically in corporation with the side panel ; and a reinforcing member attached to the side panel , wherein said reinforcing member comprises a retractor attachment portion (Na, Ba) to attach said seatbelt retractor , a gusset portion to partition the closed-cross section of said frame member vertically, and a vibration-damping joint portion joined to said side panel via a vibration-damping material, and said reinforcing member is formed integrally by a member which is configured to be continuous over a range of said retractor attachment portion (Na, Ba), said gusset portion and said vibration-damping joint portion , characterized in that said gusset portion is provided with a plurality of flanges which are joined to walls of a C pillar of said frame member forming the closed cross-section . a rear suspension suspending a rear wheel; a side panel constituting a side face of the vehicle at a higher level than a rear-suspension attachment portion to attach the rear suspension to the vehicle; a seatbelt retractor attached to a cabin-inside face of the side panel ; a frame member forming a closed-cross section extending vertically in corporation with the side panel ; and a reinforcing member attached to the side panel , wherein said reinforcing member comprises a retractor attachment portion (Na, Ba) to attach said seatbelt retractor , a gusset portion to partition the closed-cross section of said frame member vertically, and a vibration-damping joint portion joined to said side panel via a vibration-damping material, and said reinforcing member is formed integrally by a member which is configured to be continuous over a range of said retractor attachment portion (Na, Ba), said gusset portion and said vibration-damping joint portion , characterized in that said gusset portion is provided with a plurality of flanges which are joined to walls of a C pillar of said frame member forming the closed cross-section .
A cutting apparatus comprising: a case body provided with an opening , the case body internally including a machining space , wherein the case body includes a side partition that defines a side of the machining space ; a cover attached to the case body , the cover being configured to change between an open state where the cover uncovers the opening and a closed state where the cover covers the opening ; a retainer disposed in the machining space , the retainer being configured to retain a workpiece ; a gripper disposed in the machining space , the gripper being configured to grip a machining tool to cut the workpiece ; and a liquid discharger to discharge a coolant into the machining space , the cutting apparatus being characterized in that the cover includes a cover body , and a gasket provided on a surface of the cover that faces the machining space , the gasket includes a guide extending toward or into the machining space from the cover body , a seal to seal the opening of the case body , and a side wall extending along the side partition from an end of the guide , wherein with the cover in the closed state, an extremity of the guide is located below a lower end of the opening , and during a transition from the closed state to the open state, the extremity of the guide is located within the machining space or overlaps with the opening when viewed in a front-rear direction of the machining space . a case body provided with an opening , the case body internally including a machining space , wherein the case body includes a side partition that defines a side of the machining space ; a cover attached to the case body , the cover being configured to change between an open state where the cover uncovers the opening and a closed state where the cover covers the opening ; a retainer disposed in the machining space , the retainer being configured to retain a workpiece ; a gripper disposed in the machining space , the gripper being configured to grip a machining tool to cut the workpiece ; and a liquid discharger to discharge a coolant into the machining space , the cutting apparatus being characterized in that the cover includes a cover body , and a gasket provided on a surface of the cover that faces the machining space , a cover body , and a gasket provided on a surface of the cover that faces the machining space , the gasket includes a guide extending toward or into the machining space from the cover body , a seal to seal the opening of the case body , and a side wall extending along the side partition from an end of the guide , wherein a guide extending toward or into the machining space from the cover body , a seal to seal the opening of the case body , and a side wall extending along the side partition from an end of the guide , wherein with the cover in the closed state, an extremity of the guide is located below a lower end of the opening , and during a transition from the closed state to the open state, the extremity of the guide is located within the machining space or overlaps with the opening when viewed in a front-rear direction of the machining space .
A method for forwarding a packet, wherein the method comprises: receiving a first packet in an Internet Protocol version 6 segment routing, SRv6, network, wherein a first packet header of the first packet comprises a segment list, the segment list comprises a plurality of compressed segment identifiers, the segment list comprises a first element whose length is 128 bits, the first element comprises at least two adjacent compressed segment identifiers in the plurality of compressed segment identifiers, and the first packet comprises a first pointer and a second pointer; determining a first compressed segment identifier based on a value of the first pointer and a value of the second pointer, wherein the value of the second pointer indicates a location of the first element in the segment list, and the value of the first pointer indicates a location of the first compressed segment identifier in the first element, the first compressed segment identifier is one of the at least two adjacent compressed segment identifiers; copying at least one compressed segment identifier in the plurality of compressed segment identifiers starting from the first compressed segment identifier to a second packet header of the first packet, to generate a second packet; and sending the second packet. receiving a first packet in an Internet Protocol version 6 segment routing, SRv6, network, wherein a first packet header of the first packet comprises a segment list, the segment list comprises a plurality of compressed segment identifiers, the segment list comprises a first element whose length is 128 bits, the first element comprises at least two adjacent compressed segment identifiers in the plurality of compressed segment identifiers, and the first packet comprises a first pointer and a second pointer; determining a first compressed segment identifier based on a value of the first pointer and a value of the second pointer, wherein the value of the second pointer indicates a location of the first element in the segment list, and the value of the first pointer indicates a location of the first compressed segment identifier in the first element, the first compressed segment identifier is one of the at least two adjacent compressed segment identifiers; copying at least one compressed segment identifier in the plurality of compressed segment identifiers starting from the first compressed segment identifier to a second packet header of the first packet, to generate a second packet; and sending the second packet.
A system for drilling a bore in a bone and measuring a depth of the bore during surgery, said system comprising: a drill comprising a drill chuck for holding a drill bit ; a drill bit mounted in the drill chuck ; at least one sensor arranged to produce signals for determining the depth of the bore; first communication means arranged to communicate said signals to electronic processing means ; electronic processing means arranged to receive said signals from said first communication means and to determine a depth of a bore from said signals; second communication means arranged to communicate said determined depth to output means ; output means for outputting information about the determined depth of the bore received from said second communication means; wherein said drill bit is part of a rotatable drill bit unit , which may or may not comprise said drill chuck, and said at least one sensor is mounted in said drill bit unit , characterized in that one of said first and second communication means are mounted in said drill bit unit, wherein said at least one sensor comprises a contactless distance sensor mounted in the drill bit unit arranged to produce a signal representing a distance between a reference point on the drill bit unit and the bone surface during drilling. a drill comprising a drill chuck for holding a drill bit ; a drill bit mounted in the drill chuck ; at least one sensor arranged to produce signals for determining the depth of the bore; first communication means arranged to communicate said signals to electronic processing means ; electronic processing means arranged to receive said signals from said first communication means and to determine a depth of a bore from said signals; second communication means arranged to communicate said determined depth to output means ; output means for outputting information about the determined depth of the bore received from said second communication means; wherein said drill bit is part of a rotatable drill bit unit , which may or may not comprise said drill chuck, and said at least one sensor is mounted in said drill bit unit , characterized in that one of said first and second communication means are mounted in said drill bit unit, wherein said at least one sensor comprises a contactless distance sensor mounted in the drill bit unit arranged to produce a signal representing a distance between a reference point on the drill bit unit and the bone surface during drilling.
A method for performing shuttle shifting in a vehicle having a transmission with a plurality of forward gears and a plurality of corresponding reverse gears, the method comprising receiving a command to perform a shuttle shift operation when a forward gear has been engaged, and in response to receiving the command selecting a higher or lower reverse gear than the reverse gear corresponding to the engaged forward gear based on stored predetermined information; or receiving a command to perform a shuttle shift operation when a reverse gear has been engaged and in response to receiving the command selecting a higher or lower forward gear than the forward gear corresponding to the engaged reverse gear based on stored predetermined information; characterised in that when selecting said higher or lower forward or reverse gear results in a non-existing gear or a neutral gear then a temporarily value is used different than the stored predetermined information, wherein said stored predetermined information determines whether the selected gear is higher or lower than the corresponding reverse gear or corresponding forward gear and said temporarily value is defined to select a gear closest to the gear selection when using said stored predetermined information.
A toothbrush cap comprising a first half-shell , a second half-shell and a hinge for the pivotable connection of the half shells between a closed state and an open state of the toothbrush cap , wherein, in the closed state of the toothbrush cap , the first half-shell and the second half-shell form an essentially closed receiving space for receiving at least part of a toothbrush , preferably a toothbrush head , the first half-shell and/or the second half-shell having a cutout for passing through a toothbrush neck into the receiving space in the closed state of the toothbrush cap , characterized in that , in the open state of the toothbrush cap , the first half-shell and the second half-shell form a receptacle in the area of the hinge for attaching a toothbrush handle to the toothbrush cap , with the receptacle enclosing the toothbrush handle in the open state and being arranged between the two half shells in order to provide the toothbrush with a secure footing.
A combination tag comprising a passive radio frequency identification tag, i.e. RFID tag , and an acousto-magnetic, tag, i.e. AM tag , the combination tag further comprising an enclosure housing the RFID tag and the AM tag , said combination tag being characterized by further comprising: a spacer housed in the enclosure and disposed between the RFID tag and the AM tag ; wherein the spacer is a layer of dry paper, non-carbon plastic or plate glass, having a thickness ranging from 3 mm to 10 mm, wherein the AM tag comprises a bias magnetic layer and at least one strip of amorphous alloy , and the strip of amorphous allow is spaced apart from the RFID tag , wherein the enclosure comprises a top housing and a bottom housing , and a write-on surface pad is disposed on a top surface of the top hosing, wherein the enclosure is made of ABS plastic or silicone rubber.
A Hall sensor, comprising: a Hall element disposed on a semiconductor substrate; a heat source element disposed around the Hall element, the heat source element formed as an internal component of a drive circuit, wherein a center of the heat source is a point or a region having the highest temperature in the heat source corresponding to a peak of isotherms; two pairs of terminals formed as N-type highly-doped regions disposed on the Hall element, and serving both as control current input terminals and Hall voltage output terminals; a first Hall element control current (JS1) flowing between one pair of the terminals and a second Hall element control current (JS2) flowing between another pair of the terminals and crossing each other as vectors; the Hall element is formed in a shape that is line-symmetrical to a straight line extending along a vector sum (VC1) of the first Hall element control current and the second Hall element control current; wherein the center of the heat source element is on a straight line extending along a vector sum of the first Hall element control current and the second Hall element control current. a Hall element disposed on a semiconductor substrate; a heat source element disposed around the Hall element, the heat source element formed as an internal component of a drive circuit, wherein a center of the heat source is a point or a region having the highest temperature in the heat source corresponding to a peak of isotherms; two pairs of terminals formed as N-type highly-doped regions disposed on the Hall element, and serving both as control current input terminals and Hall voltage output terminals; a first Hall element control current (JS1) flowing between one pair of the terminals and a second Hall element control current (JS2) flowing between another pair of the terminals and crossing each other as vectors; the Hall element is formed in a shape that is line-symmetrical to a straight line extending along a vector sum (VC1) of the first Hall element control current and the second Hall element control current; wherein the center of the heat source element is on a straight line extending along a vector sum of the first Hall element control current and the second Hall element control current.
A compound having the structure of Formula (I), or a pharmaceutically acceptable salt or solvate thereof: wherein: R 1 is substituted or unsubstituted C 1 -C 8 alkyl, substituted or unsubstituted C 1 -C 8 alkenyl, substituted or unsubstituted C 1 -C 8 alkynyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, or substituted or unsubstituted -C 1 -C 4 alkylaryl; R 5 is substituted or unsubstituted aryl or substituted or unsubstituted heteroaryl; ------ is a single or double bond; R 2 , R 3 , R 4 , and R 5 are independently hydrogen, deuterium, or -OH; R 7 is hydrogen, substituted or unsubstituted C 1 -C 8 alkyl, or -C(O)NR 8 R 9 ; and R 8 and R 9 are independently hydrogen, substituted or unsubstituted C 1 -C 8 alkyl, or substituted or unsubstituted aryl; wherein "alkyl" group refers to a group selected from saturated alkyl and unsaturated alkyl, wherein the alkyl group, whether saturated or unsaturated, is a branched, straight chain, or cyclic group. R 1 is substituted or unsubstituted C 1 -C 8 alkyl, substituted or unsubstituted C 1 -C 8 alkenyl, substituted or unsubstituted C 1 -C 8 alkynyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, or substituted or unsubstituted -C 1 -C 4 alkylaryl; R 5 is substituted or unsubstituted aryl or substituted or unsubstituted heteroaryl; ------ is a single or double bond; R 2 , R 3 , R 4 , and R 5 are independently hydrogen, deuterium, or -OH; R 7 is hydrogen, substituted or unsubstituted C 1 -C 8 alkyl, or -C(O)NR 8 R 9 ; and R 8 and R 9 are independently hydrogen, substituted or unsubstituted C 1 -C 8 alkyl, or substituted or unsubstituted aryl; wherein "alkyl" group refers to a group selected from saturated alkyl and unsaturated alkyl, wherein the alkyl group, whether saturated or unsaturated, is a branched, straight chain, or cyclic group.
A drug-releasing implant, the implant is used to implant into a surgical site, said implant is provided with a drug cavity for storing drug, said drug cavity is filled with liquid drug; said implant is further provided with micro pipeline , the micro pipeline passes through the drug cavity and a surface of the implant , the drug in the drug cavity is released to the surgical site through the micro pipeline , characterised in that the drug cavity is set to a vacuum state and the implant is immersed in a drug bath, the drug penetrates into the drug cavity through the micro pipeline under the action of negative pressure.
A computer-implemented method for determining rock and fluid-type parameters of a subsurface region from measured seismic reflection data corresponding to a plurality of offsets, said method comprising: a. pre-processing the measured reflection data into a plurality of partial stacks; b. specifying a wavelet for each of the stacks; c. constructing (13; 15) a linearized set of reflectivity equations that relate seismic reflectivity to changes in elastic parameters of said subsurface region; characterized in that the measured seismic reflection data correspond to a plurality of offsets at a single trace location and in that said method further comprises: d. constructing (14; 16) a linearized set of rock physics equations that relate changes in the elastic parameters to the rock and fluid-type parameters; e. combining the linearized reflectivity equations with the linearized rock physics equations; f. forming matrix equations by convolving the specified wavelets with the combined set of equations and equating to the measured data; and g. inverting the matrix equations to solve by numerical methods for said rock and fluid-type parameters, said solution being for all offsets simultaneously at the single trace location. a. pre-processing the measured reflection data into a plurality of partial stacks; b. specifying a wavelet for each of the stacks; c. constructing (13; 15) a linearized set of reflectivity equations that relate seismic reflectivity to changes in elastic parameters of said subsurface region; d. constructing (14; 16) a linearized set of rock physics equations that relate changes in the elastic parameters to the rock and fluid-type parameters; e. combining the linearized reflectivity equations with the linearized rock physics equations; f. forming matrix equations by convolving the specified wavelets with the combined set of equations and equating to the measured data; and g. inverting the matrix equations to solve by numerical methods for said rock and fluid-type parameters, said solution being for all offsets simultaneously at the single trace location.