mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable medium comprising instructions that, when executed, cause processing circuitry to perform a method, the method comprising: determining an evoked compound action potential (ECAP) signal based on sensed signals from a patient; determining, based on the ECAP signal, one or more parameters for electrical stimulation therapy; and outputting for display a configure-thresholds screen of a graphical user interface (GUI), wherein the configure-thresholds screen comprises: an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal. determining an evoked compound action potential (ECAP) signal based on sensed signals from a patient; determining, based on the ECAP signal, one or more parameters for electrical stimulation therapy; and outputting for display a configure-thresholds screen of a graphical user interface (GUI), wherein the configure-thresholds screen comprises: an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal. an ECAP-signal graph displaying the ECAP signal over time; a stimulation-amplitude graph displaying the one or more determined parameters for the electrical stimulation therapy over time; a target-amplitude widget configured to receive first user input indicating a desired change in a target amplitude of at least one therapy program of the electrical stimulation therapy; and an ECAP thresholds widget configured to receive second user input indicating a desired change in an amplitude of an ECAP threshold for the ECAP signal.
An electrode comprising an active material containing layer that contains active material particles, polymer fibers having an average fiber diameter of 1 nm to 100 nm, and inorganic solid particles, wherein the inorganic solid particles include at least one material selected from the group consisting of Al 2 O 3 , TiO 2 , ZrO 2 , and a phosphate compound; the phosphate compound has a NASICON structure and is expressed as Li 1+y Al x M 2-x (PO 4 ) 3 , where M represents at least one element selected from the group consisting of Ti, Ge, Sr, Sn, Zr, and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1; and a content of the polymer fibers in the active material containing layer ranges from 0.2 wt% to 5 wt%, and a content of the inorganic solid particles in the active material containing layer ranges from 0.5 wt% to 10 wt%. active material particles, polymer fibers having an average fiber diameter of 1 nm to 100 nm, and inorganic solid particles, wherein the inorganic solid particles include at least one material selected from the group consisting of Al 2 O 3 , TiO 2 , ZrO 2 , and a phosphate compound; the phosphate compound has a NASICON structure and is expressed as Li 1+y Al x M 2-x (PO 4 ) 3 , where M represents at least one element selected from the group consisting of Ti, Ge, Sr, Sn, Zr, and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1; and a content of the polymer fibers in the active material containing layer ranges from 0.2 wt% to 5 wt%, and a content of the inorganic solid particles in the active material containing layer ranges from 0.5 wt% to 10 wt%.
A process for preparing a filler composition consisting of agarose in an amount between 2.6% and 5% by weight; hyaluronic acid or a pharmaceutically acceptable salt thereof, in an amount between 0.1 and 4% by weight; water and salt, the process comprising: a) preparing an aqueous solution of agarose; and an aqueous solution of hyaluronic acid or a pharmaceutically acceptable salt thereof at a temperature higher than 50°C; b) cooling each solution to a temperature near its gel point; c) mixing the solutions by homogenization to form a composition; and d) adding salt to the homogenized composition, mixing to form an iso-osmolar composition with respect to blood plasma. a) preparing an aqueous solution of agarose; and an aqueous solution of hyaluronic acid or a pharmaceutically acceptable salt thereof at a temperature higher than 50°C; b) cooling each solution to a temperature near its gel point; c) mixing the solutions by homogenization to form a composition; and d) adding salt to the homogenized composition, mixing to form an iso-osmolar composition with respect to blood plasma.
Heading and loading machine having - a chassis , - an adjustable boom arm , on which a work attachment is fixed in an exchangeable manner, - a loading table which is arranged on a front region of the chassis and designed to receive excavated rock, - a conveying means which extends centrally on the chassis from the loading table on the front region up to a rear region and is designed to convey the excavated rock to the rear region, - drive and supply units and - an operating platform , - wherein the operating platform and the drive and supply units are arranged in a central region and/or a first lateral region on the chassis , wherein above the chassis a second lateral region lying opposite the first lateral region is provided, and wherein the second lateral region is kept clear and directly above the chassis a free space is formed which extends longitudinally of the chassis from the front region up to the rear region, characterized in that - on the free space directly above the chassis a sliding means with at least one transport slide is provided which can be displaced longitudinally of the chassis from the front region to the rear region, - in that the transport slide is of plate-shaped design, wherein a passage for the transport of material and work attachments from the rear region to the front region is formed by the free space , and - in that on a distal end of the boom arm a quick-change unit is arranged, with which the work attachment is releasably connected to the boom arm . - a chassis , - an adjustable boom arm , on which a work attachment is fixed in an exchangeable manner, - a loading table which is arranged on a front region of the chassis and designed to receive excavated rock, - a conveying means which extends centrally on the chassis from the loading table on the front region up to a rear region and is designed to convey the excavated rock to the rear region, - drive and supply units and - an operating platform , - wherein the operating platform and the drive and supply units are arranged in a central region and/or a first lateral region on the chassis , wherein above the chassis a second lateral region lying opposite the first lateral region is provided, and wherein the second lateral region is kept clear and directly above the chassis a free space is formed which extends longitudinally of the chassis from the front region up to the rear region, - on the free space directly above the chassis a sliding means with at least one transport slide is provided which can be displaced longitudinally of the chassis from the front region to the rear region, - in that the transport slide is of plate-shaped design, wherein a passage for the transport of material and work attachments from the rear region to the front region is formed by the free space , and - in that on a distal end of the boom arm a quick-change unit is arranged, with which the work attachment is releasably connected to the boom arm .
A tunnel operation robot, comprising: a robot body , provided with protruding cantilever parts on both sides, wherein the cantilever parts on both sides are collinearly arranged; a walking module , arranged on the robot body and configured to drive the robot body to walk and steer on a tunnel wall surface; a fixed wing module , comprising a fixed fan , fixedly arranged on the robot body , and configured to provide a pressure for the walking module to be pressed against the tunnel wall surface; and a plurality of rotatable wing modules , respectively arranged on the cantilever parts on both sides of the robot body , and comprising a rotatable rotating fan and a wind direction adjustment driver , wherein each rotating fan has a rotation axis parallel to an extension direction of the cantilever parts and an air outlet direction perpendicular to the extension direction of the cantilever parts , and the wind direction adjustment driver is connected to the rotating fan , and configured to maintain the air outlet direction of the rotating fan downward to generate a thrust capable of balancing gravity; the rotatable wing modules are detachably connected to the cantilever parts , wherein a pressure detection device is provided between the robot body and the walking module , and the pressure detection device is configured to detect a pressure transmitted from the robot body to the walking module . a robot body , provided with protruding cantilever parts on both sides, wherein the cantilever parts on both sides are collinearly arranged; a walking module , arranged on the robot body and configured to drive the robot body to walk and steer on a tunnel wall surface; a fixed wing module , comprising a fixed fan , fixedly arranged on the robot body , and configured to provide a pressure for the walking module to be pressed against the tunnel wall surface; and a plurality of rotatable wing modules , respectively arranged on the cantilever parts on both sides of the robot body , and comprising a rotatable rotating fan and a wind direction adjustment driver , wherein each rotating fan has a rotation axis parallel to an extension direction of the cantilever parts and an air outlet direction perpendicular to the extension direction of the cantilever parts , and the wind direction adjustment driver is connected to the rotating fan , and configured to maintain the air outlet direction of the rotating fan downward to generate a thrust capable of balancing gravity; the rotatable wing modules are detachably connected to the cantilever parts , wherein a pressure detection device is provided between the robot body and the walking module , and the pressure detection device is configured to detect a pressure transmitted from the robot body to the walking module .
A Self-erecting crane comprising a mast supporting a jib , said jib being a foldable jib comprising jib elements articulated together, said self-erecting crane being configurable between a transport configuration (CT) in which the mast and the jib are joined together or side-by-side, and at least one work configuration (CW) in which the mast and the jib are deployed, said self-erecting crane comprising a motor-driven folding/unfolding system which is coupled to the mast and to the jib to act on said mast and on said jib in order to perform configuration change operations implementing kinematics of folding and unfolding the jib , and comprising a control/command system connected to the motor-driven folding/unfolding system to drive it and control the configuration change operations, said self-erecting crane being characterized in that it comprises one or several inclinometer(s) mounted on one or several jib element(s) for measuring actual inclinations of said jib element or of said several jib elements with respect to a reference axis, and in that the control/command system is configured to drive the motor-driven folding/unfolding system and control the configuration change operations according to the actual inclinations of said jib element or of said several jib elements during the kinematics of folding and unfolding the jib . said self-erecting crane being characterized in that it comprises one or several inclinometer(s) mounted on one or several jib element(s) for measuring actual inclinations of said jib element or of said several jib elements with respect to a reference axis, and in that the control/command system is configured to drive the motor-driven folding/unfolding system and control the configuration change operations according to the actual inclinations of said jib element or of said several jib elements during the kinematics of folding and unfolding the jib .
An edible composition for human consumption, comprising: a population of non-human cells, wherein the population of cells comprises a population of cultured cells and a population of non-cultured cells; and a plurality of polymeric fibers or scaffolds; wherein the polymeric fibers or scaffolds and the population of cells are arranged as alternating layers of fibers and cells. a population of non-human cells, wherein the population of cells comprises a population of cultured cells and a population of non-cultured cells; and a plurality of polymeric fibers or scaffolds; wherein the polymeric fibers or scaffolds and the population of cells are arranged as alternating layers of fibers and cells.
Multi-battery adapter for providing an electrical connection between at least two traction batteries on the one hand and a drive unit of an electric bicycle on the other hand, comprising at least two battery connectors , wherein the at least two battery connectors are electrically connectable to a traction battery , respectively, wherein a first battery connector is electrically connectable to a first traction battery and a second battery connector is electrically connectable to a second traction battery a control unit comprising an independent battery management module , the battery management module being connectable to the first traction battery and to the second traction battery via respectively one battery signal line of the multi-battery adapter , and a supply switch , wherein the supply switch can be controlled by the battery management module in such a way that an electrical supply connection can be established between the drive unit and the first traction battery and/or the second traction battery , characterized in that the multi-battery adapter has a drive unit connector which can be electrically connected to the drive unit , and the battery management module can be connected to the drive unit via a single drive unit signal line of the multi-battery adapter . a control unit comprising an independent battery management module , the battery management module being connectable to the first traction battery and to the second traction battery via respectively one battery signal line of the multi-battery adapter , and a supply switch , wherein the supply switch can be controlled by the battery management module in such a way that an electrical supply connection can be established between the drive unit and the first traction battery and/or the second traction battery , characterized in that the multi-battery adapter has a drive unit connector which can be electrically connected to the drive unit , and the battery management module can be connected to the drive unit via a single drive unit signal line of the multi-battery adapter .
A method for producing a nanofibrous non-woven material, the method comprising - producing gelatin nanofibers; - producing a nanofibrous material using the produced gelatin nanofibers; and - filling voids between gelatin nanofibers in the gelatin nanofibrous material by treating the nanofibrous material by physical crosslinking for forming covalent bonds in the nanofibrous material, wherein treating by the physical crosslinking comprises treating by a physical stimuli selected from a physical stimuli group comprising electron beam irradiation, plasma treatment, thermal treatment for forming covalent bonds between the gelatin nanofibers in the nanofibrous non-woven material, and to obtain the nanofibrous non-woven material. - producing gelatin nanofibers; - producing a nanofibrous material using the produced gelatin nanofibers; and - filling voids between gelatin nanofibers in the gelatin nanofibrous material by treating the nanofibrous material by physical crosslinking for forming covalent bonds in the nanofibrous material, wherein treating by the physical crosslinking comprises treating by a physical stimuli selected from a physical stimuli group comprising electron beam irradiation, plasma treatment, thermal treatment for forming covalent bonds between the gelatin nanofibers in the nanofibrous non-woven material, and to obtain the nanofibrous non-woven material.
A device for reducing the noise of two merged gas streams concentric gas streams which join in a common outlet, the first gas stream is guided through a pipe which is surrounded by a coaxial, annular channel for guiding the second gas stream , wherein one end of the pipe aligned towards the common outlet comprises crenellated recesses which are distributed on the periphery, characterized in that the recesses are distributed on the periphery in an irregular manner and comprise an uneven axial extension and an uneven peripheral-related extension.
Method for selecting localization algorithms in a vehicle , wherein the method comprises the following steps: - recognizing a driving state of the vehicle , and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, characterized in that - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination. wherein the method comprises the following steps: - recognizing a driving state of the vehicle , and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, - recognizing a driving state of the vehicle , and - selecting at least one localization algorithm from a predefined set of localization algorithms based on the driving state, wherein at least one localization algorithm for a satellite navigation system is selected, characterized in that - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination. - satellite data are monitored during a journey of the vehicle but are not evaluated by way of precision-point position determination, PPP, and - satellite data are monitored while the vehicle is stationary and information from these satellite data monitored while the vehicle is stationary is used for position determination by way of precision-point position determination.
Device for programming and/or operating a moving machine , in particular a robot, the device being configured to receive configuration data of the machine and configuration data of at least one safety sensor as well as a planned movement sequence of the machine having a plurality of movement sections , and, using the configuration data of the machine and the configuration data of the at least one safety sensor , to identify at least one unsafe movement section , the unsafe movement section violating at least one predetermined safety criterion, wherein the configuration data of the safety sensor comprise dimensions of a monitoring range of the safety sensor , wherein the configuration data of the machine comprise dimensions of a working range of the machine, and wherein the predetermined safety criterion is a movement of the machine within the monitoring range of the safety sensor , characterized in that the device is configured to transmit the planned movement sequence to a control unit of the machine even if the planned movement sequence has non-safe movement sections , the planned movement sequence being transmitted with information about the non-safe movement section , so that the machine is slowed down or stopped when the movement sequence is executed before the non-safe movement section is reached.
Hydraulic control arrangement, in particular for a press, in particular for a press brake, having a hydraulic control block , which has channels , hydraulic connections and attachment surfaces for valves and/or installation bores for valves , having a pressureless fluid container for hydraulic fluid, which is arranged with one of its container walls opposite a first side surface of the control block , having a hydraulic machine for conveying hydraulic fluid between at least the connections and/or between the fluid container and at least one of the connections , and having an electric motor , which is arranged for driving the hydraulic machine , wherein the hydraulic machine is arranged in an installation space in the control block , and an intake fluid path via which the hydraulic machine can suck in fluid from the fluid container during operation is guided through the first side surface of the control block and through said one container wall , wherein the intake fluid path has a first transverse bore in the hydraulic control block that opens out in the first side surface , and wherein the first transverse bore is arranged substantially transversely to an axis of the hydraulic machine , characterized in that the first transverse bore opens out in a second side surface of the control block , wherein the second side surface is arranged opposite the first side surface . having a hydraulic control block , which has channels , hydraulic connections and attachment surfaces for valves and/or installation bores for valves , having a pressureless fluid container for hydraulic fluid, which is arranged with one of its container walls opposite a first side surface of the control block , having a hydraulic machine for conveying hydraulic fluid between at least the connections and/or between the fluid container and at least one of the connections , and having an electric motor , which is arranged for driving the hydraulic machine , wherein the hydraulic machine is arranged in an installation space in the control block , and an intake fluid path via which the hydraulic machine can suck in fluid from the fluid container during operation is guided through the first side surface of the control block and through said one container wall , wherein the intake fluid path has a first transverse bore in the hydraulic control block that opens out in the first side surface , and wherein the first transverse bore is arranged substantially transversely to an axis of the hydraulic machine , characterized in that the first transverse bore opens out in a second side surface of the control block , wherein the second side surface is arranged opposite the first side surface .