mhurhangee/ep-ind-claims huggingface dataset:
A method for a remote unit, the method comprising: receiving a plurality of synchronization signal blocks on a first wideband carrier, wherein each synchronization signal block of the plurality of synchronization signal blocks comprises at least one synchronization signal and a physical broadcast channel; detecting at least one synchronization signal block of the plurality of synchronization signal blocks; determining at least one synchronization signal frequency associated with the at least one detected synchronization signal block; selecting a first synchronization signal block of the at least one detected synchronization signal block and a first synchronization signal frequency of the at least one synchronization signal frequency, wherein the first synchronization signal block is associated with the first synchronization signal frequency; decoding a first physical broadcast channel of the first synchronization signal block; and determining to select a second synchronization signal block and a second synchronization signal frequency, wherein the second synchronization signal block is associated with the second synchronization block, the determining based on a physical downlink control channel configuration for remaining minimum system information indicated in the first physical broadcast channel. receiving a plurality of synchronization signal blocks on a first wideband carrier, wherein each synchronization signal block of the plurality of synchronization signal blocks comprises at least one synchronization signal and a physical broadcast channel; detecting at least one synchronization signal block of the plurality of synchronization signal blocks; determining at least one synchronization signal frequency associated with the at least one detected synchronization signal block; selecting a first synchronization signal block of the at least one detected synchronization signal block and a first synchronization signal frequency of the at least one synchronization signal frequency, wherein the first synchronization signal block is associated with the first synchronization signal frequency; decoding a first physical broadcast channel of the first synchronization signal block; and determining to select a second synchronization signal block and a second synchronization signal frequency, wherein the second synchronization signal block is associated with the second synchronization block, the determining based on a physical downlink control channel configuration for remaining minimum system information indicated in the first physical broadcast channel.
A method for the control of a driving speed (v F) of an agricultural machine, in particular, of an agricultural towing machine or self-propelled work machine, which is equipped at a driving position with at least an accelerator pedal and a brake pedal for foot actuation as well as with at least one hand lever, wherein the pedals (32, 34) and the hand lever each serve to influence the driving speed (v F) by corresponding drive commands from the machine operator, characterised in that the in each case most recently carried out actuation of one of the foot pedals (32, 34) or of the hand lever by the machine operator with a change request of the driving speed (v F) defines the in each case active actuation mode for hand control or foot control, and suppresses a connection of the travel speed control to the respective other actuation mode for at least as long as a changed request is carried out by the machine operator by corresponding actuation by means of stepping on and/or releasing one of the foot pedals (32, 34) or by means of pressing the hand lever, and wherein an actuation of one of the foot pedals (32, 34) or of the hand lever with a simultaneously carried out defined position change is interpreted as change request, which determines whether the foot pedals (32, 34) or the hand lever form the respectively active actuation element.
An implantable prosthesis for creating a venous valve of autologous tissue, the prosthesis comprising: a valve creation device that in a preset closed configuration forces opposing portions of a vein wall together to create a valve of autologous vein tissue to substantially prevent retrograde blood flow through the valve, wherein the valve creation device assumes a temporary open configuration in response to antegrade blood flow through the vein, characterized in that the valve creation device is a wire-like structure having a first leg, a second leg, and a segment extending between the first leg and the second leg and wherein the first and second legs (318, 322) have contact portions (319, 323) that are biased toward each other to operably force opposing portions of the vein wall together in situ to create the valve.
An adhesive two-component formulation comprising (i) a first component comprising one or more aliphatic polycarbonate polyols, wherein the percentage of carbonate linkages is 95% or greater, and wherein the one or more aliphatic polycarbonate polyols have a structure selected from the group consisting of: and wherein t is an integer from 1 to 12 inclusive; R t is independently at each occurrence -H, or -CH 3; and n is at each occurrence independently an integer from 2 to 50; and (ii) a second component comprising one or more isocyanates; wherein the adhesive formulation is capable of curing to form an adhesive composition. (i) a first component comprising one or more aliphatic polycarbonate polyols, wherein the percentage of carbonate linkages is 95% or greater, and wherein the one or more aliphatic polycarbonate polyols have a structure selected from the group consisting of: and wherein t is an integer from 1 to 12 inclusive; R t is independently at each occurrence -H, or -CH 3; and n is at each occurrence independently an integer from 2 to 50; and t is an integer from 1 to 12 inclusive; R t is independently at each occurrence -H, or -CH 3; and n is at each occurrence independently an integer from 2 to 50; and (ii) a second component comprising one or more isocyanates; wherein the adhesive formulation is capable of curing to form an adhesive composition.
A method for controlling a vehicle transmission device, the device comprising a drive motor, a mechanical transmission connected to the drive motor via a clutch and a hydraulic transmission having a pump and n hydraulic motors (26A, 26B), n being greater than or equal to 1, the pump being able to be driven by the drive motor to supply the hydraulic motors with fluid, characterized in that a declutched situation of the drive motor is detected, an output speed (Ne) of the drive motor in the declutched state is calculated, and the displacement (Cp) of the pump is determined so that the pump, being driven by the drive motor having the determined output speed, delivers to the n hydraulic motors (26A, 26B) a fluid flow rate such that at least one of the operating parameters of the hydraulic motors among the output speed (Nr) and the output torque of said motors is one target parameter.
A compound of the formula, wherein A represents a heteroaryl-group, wherein the two attachment-points of said heteroaryl-group are in a 1,3-arrangement; R 1 represents phenyl which is unsubstituted, mono- or di-substituted, wherein the substituents are independently selected from the group consisting of halogen, methyl, methoxy, trifluoromethyl, trifluoromethoxy and dimethylamino; and R 2 represents hydrogen, methyl, ethyl or cyclopropyl; or a salt of such a compound.
Battery system, comprising: a plurality of battery cells connected in series; a plurality of balancing circuits, each balancing circuit being connected in parallel to one of the plurality of battery cells and comprising a bleed resistor connected in series with a balancing switch; a control unit comprising a balancing controller, the balancing controller being configured to output an individual control signal for each of the balancing switches, characterized in that each balancing switch is configured to be set non-conductive in response to a control signal received by the balancing controller and to be set conductive in the absence of the control signal, and the balancing controller and the balancing switches are configured for providing balancing between the battery cells and each balancing switch is configured to provide an auto-discharge functionality at the end of life of the battery system, wherein at the end of life of battery system, the power produced by the battery cells is not sufficient to operate the control unit. a plurality of battery cells connected in series; a plurality of balancing circuits, each balancing circuit being connected in parallel to one of the plurality of battery cells and comprising a bleed resistor connected in series with a balancing switch; a control unit comprising a balancing controller, the balancing controller being configured to output an individual control signal for each of the balancing switches, characterized in that each balancing switch is configured to be set non-conductive in response to a control signal received by the balancing controller and to be set conductive in the absence of the control signal, and the balancing controller and the balancing switches are configured for providing balancing between the battery cells and each balancing switch is configured to provide an auto-discharge functionality at the end of life of the battery system, wherein at the end of life of battery system, the power produced by the battery cells is not sufficient to operate the control unit.
An atherectomy system, comprising: a catheter body (112, 210) extending from a proximal catheter portion to a distal catheter portion, the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion; an atherectomy assembly coupled with the distal catheter portion, wherein the atherectomy assembly includes: a rotatable cutter, and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion; a shaft sleeve extending through the aspiration lumen and surrounding the drive shaft, wherein the drive shaft is rotatable relative to the shaft sleeve, and wherein the shaft sleeve isolates the drive shaft from the aspiration lumen; a jet body positioned within the aspiration lumen near the catheter distal portion, wherein the jet body includes at least one jet orifice directed proximally through the aspiration lumen; and an inflow orifice extending through the catheter body (112, 210) and in communication with the aspiration lumen, wherein the inflow orifice is adjacent to and downstream from the jet body. a catheter body (112, 210) extending from a proximal catheter portion to a distal catheter portion, the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion; an atherectomy assembly coupled with the distal catheter portion, wherein the atherectomy assembly includes: a rotatable cutter, and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion; a rotatable cutter, and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion; a shaft sleeve extending through the aspiration lumen and surrounding the drive shaft, wherein the drive shaft is rotatable relative to the shaft sleeve, and wherein the shaft sleeve isolates the drive shaft from the aspiration lumen; a jet body positioned within the aspiration lumen near the catheter distal portion, wherein the jet body includes at least one jet orifice directed proximally through the aspiration lumen; and an inflow orifice extending through the catheter body (112, 210) and in communication with the aspiration lumen, wherein the inflow orifice is adjacent to and downstream from the jet body.
An adaptive airway treatment system 200 for treating an upper airway disorder in a horse, the system comprising: one or more treatment sensors 207 configured to sense at least one therapy parameter related to an activity level of the horse, at least one of the treatment sensors including an accelerometer configured to detect the activity level of the horse; a pacemaker processor 201 configured to generate an electrical treatment signal as a function of the at least one therapy parameter, the treatment signal to be applied to upper airway tissue of the horse for treating the upper airway disorder; and one or more stimulation electrodes 206 configured to interface with the upper airway tissue for delivering the treatment signal to the upper airway tissue. one or more treatment sensors 207 configured to sense at least one therapy parameter related to an activity level of the horse, at least one of the treatment sensors including an accelerometer configured to detect the activity level of the horse; a pacemaker processor 201 configured to generate an electrical treatment signal as a function of the at least one therapy parameter, the treatment signal to be applied to upper airway tissue of the horse for treating the upper airway disorder; and one or more stimulation electrodes 206 configured to interface with the upper airway tissue for delivering the treatment signal to the upper airway tissue.
A tool (200, 300) for dislodging an anchor sleeve from around a body of an implanted elongate medical device, the tool comprising: a handle member (210, 310) including a body portion and a support portion, the support portion including an elongate arm extending distally from the body portion, and a collar terminating a distal end of the arm, the collar being sized to receive the body of the medical device therein and to engage a distal end of the anchor sleeve; and an elongate base member (220, 320) held in sliding engagement with the body portion of the handle member, the base member including a distal segment and a proximal end, the distal segment being terminated by a sleeve dislodging element (221, 38), the sleeve dislodging element being directed toward the collar of the support portion of the handle member; wherein the handle member slides along the base member between a first position and a second position, the first position being located in proximity to the distal segment of the base member, and the second position being located in proximity to the proximal end of the base member; the collar of the support portion of the handle member is spaced distally from the sleeve dislodging element of the base member by a distance greater than or equal to a length of the anchor sleeve, when the handle is in the first position; and the collar of the support portion is adjacent to the sleeve dislodging element of the base member, when the handle member is in the second position. a handle member (210, 310) including a body portion and a support portion, the support portion including an elongate arm extending distally from the body portion, and a collar terminating a distal end of the arm, the collar being sized to receive the body of the medical device therein and to engage a distal end of the anchor sleeve; and an elongate base member (220, 320) held in sliding engagement with the body portion of the handle member, the base member including a distal segment and a proximal end, the distal segment being terminated by a sleeve dislodging element (221, 38), the sleeve dislodging element being directed toward the collar of the support portion of the handle member; wherein the handle member slides along the base member between a first position and a second position, the first position being located in proximity to the distal segment of the base member, and the second position being located in proximity to the proximal end of the base member; the collar of the support portion of the handle member is spaced distally from the sleeve dislodging element of the base member by a distance greater than or equal to a length of the anchor sleeve, when the handle is in the first position; and the collar of the support portion is adjacent to the sleeve dislodging element of the base member, when the handle member is in the second position.
A receptacle contact for receipt of a mating contact therein, the receptacle contact having a contact portion comprising: a first resilient contact arm having a fixed end and a distal end with at least one first contact area for contacting a mating contact positioned on the first resilient contact arm proximate the distal end; a support arm stamped and formed from an area of a wall of the receptacle contact, the support arm cooperates with the first resilient contact arm to support the first resilient contact arm; and an overstress member provided on the wall of the receptacle contact, characterized in that the overstress member is formed to extend into the area of the wall from which the support arm was formed; wherein the overstress member cooperates with the support arm to prevent the support arm from being moved beyond the overstress member and beyond the area of the wall from which the support arm was formed, thereby ensuring that the first resilient contact arm and the support arm will provide sufficient normal force to maintain a mechanical and electrical engagement with the mating contact. a first resilient contact arm having a fixed end and a distal end with at least one first contact area for contacting a mating contact positioned on the first resilient contact arm proximate the distal end; a support arm stamped and formed from an area of a wall of the receptacle contact, the support arm cooperates with the first resilient contact arm to support the first resilient contact arm; and an overstress member provided on the wall of the receptacle contact, characterized in that the overstress member is formed to extend into the area of the wall from which the support arm was formed; wherein the overstress member cooperates with the support arm to prevent the support arm from being moved beyond the overstress member and beyond the area of the wall from which the support arm was formed, thereby ensuring that the first resilient contact arm and the support arm will provide sufficient normal force to maintain a mechanical and electrical engagement with the mating contact.
An automated slap hammer for removing stuck implants, the automated slap hammer comprising: a) a shaft rod configured to be connected to stuck implants rod at a first end of the shaft rod; b) a face gear; c) a spring member positioned about the face gear; d) a striking assembly assembled to a second end of the shaft rod with the spring member, the striking assembly comprising an impactor part A, an impactor part B and a striking weight, the impactor part A being positioned between the striking weight and the impactor part B, the striking assembly and the impactor part A being configured for impacting the shaft rod at a distal end attached to the stuck implants rod; e) a motor and a gear assembly, the gear assembly being attached to one end of the motor and to other end of the impactor part B, the impactor part B being configured to be rotated by the motor and gear assembly so that the striking assembly apply a proximally directed force to a distally directed force on stuck implants; and f) a groove mechanism comprising grooves A on the impactor part A and grooves B on the impactor part B, the groove mechanism being configured so that by rotating the impactor part B and displacing the grooves B over groves A the striking assembly slides along the face gear. a) a shaft rod configured to be connected to stuck implants rod at a first end of the shaft rod; b) a face gear; c) a spring member positioned about the face gear; d) a striking assembly assembled to a second end of the shaft rod with the spring member, the striking assembly comprising an impactor part A, an impactor part B and a striking weight, the impactor part A being positioned between the striking weight and the impactor part B, the striking assembly and the impactor part A being configured for impacting the shaft rod at a distal end attached to the stuck implants rod; e) a motor and a gear assembly, the gear assembly being attached to one end of the motor and to other end of the impactor part B, the impactor part B being configured to be rotated by the motor and gear assembly so that the striking assembly apply a proximally directed force to a distally directed force on stuck implants; and f) a groove mechanism comprising grooves A on the impactor part A and grooves B on the impactor part B, the groove mechanism being configured so that by rotating the impactor part B and displacing the grooves B over groves A the striking assembly slides along the face gear.
A device for distinguishing between traversable and non-traversable objects, comprising: an object-detection sensor unit configured to monitor a space around the object-detection sensor unit and to generate data about the space, a map generation unit configured to use the data generated by the object-detection sensor unit in order to generate an occupancy grid map and a free space grid map for the space around the object-detection sensor unit, wherein each of the occupancy grid map and the free space grid map comprises an array of cells, each cell of the occupancy grid map contains an occupied space probability value representing the probability for the respective cell being occupied and each cell of the free space grid map contains a free space probability value representing the probability for the respective cell being free, and a classifier unit configured to classify at least one of the cells as containing a traversable or non-traversable object by calculating a difference of two free space probability values derived from the free space probability values of at least two of the cells adjacent to the at least one cell and by using the difference as well as the occupied space probability value of the at least one cell in order to classify the at least one cell. an object-detection sensor unit configured to monitor a space around the object-detection sensor unit and to generate data about the space, a map generation unit configured to use the data generated by the object-detection sensor unit in order to generate an occupancy grid map and a free space grid map for the space around the object-detection sensor unit, wherein each of the occupancy grid map and the free space grid map comprises an array of cells, each cell of the occupancy grid map contains an occupied space probability value representing the probability for the respective cell being occupied and each cell of the free space grid map contains a free space probability value representing the probability for the respective cell being free, and a classifier unit configured to classify at least one of the cells as containing a traversable or non-traversable object by calculating a difference of two free space probability values derived from the free space probability values of at least two of the cells adjacent to the at least one cell and by using the difference as well as the occupied space probability value of the at least one cell in order to classify the at least one cell.