mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for a neuromodulation system (210, 520, 624), comprising: neuromodulation generator circuitry configured to use electrodes of an electrode arrangement to generate neuromodulation fields including: a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field (2102, 2104) to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller configured to initiate a default priming program, to receive testing program configuration instructions including therapeutic neuromodulation field-setting parameters for a testing program, and to determine a custom priming program to supersede the default priming program in response to the testing program configuration instructions, wherein the default priming program controls the neuromodulation generator circuitry to apply a default priming field to a region where the electrode arrangement is placed, the custom priming program controls the neuromodulation generator circuitry to generate a custom priming field with specific correspondence to the therapeutic neuromodulation field to be produced by the testing program, and the custom priming field is a subset of the default priming field. a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field (2102, 2104) to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller configured to initiate a default priming program, to receive testing program configuration instructions including therapeutic neuromodulation field-setting parameters for a testing program, and to determine a custom priming program to supersede the default priming program in response to the testing program configuration instructions, wherein the default priming program controls the neuromodulation generator circuitry to apply a default priming field to a region where the electrode arrangement is placed, the custom priming program controls the neuromodulation generator circuitry to generate a custom priming field with specific correspondence to the therapeutic neuromodulation field to be produced by the testing program, and the custom priming field is a subset of the default priming field.
Focusing device (100, 200, 300, 400) comprising: a lens, a lens plate (120, 220, 420, 520, 620), an image sensor, an image sensor plate (140, 240, 440, 540, 640), at least two rotatable structures (150, 550, 650), and at least two strips, wherein the lens is connected to the lens plate (120, 220, 420, 520, 620), the image sensor is connected to the image sensor plate (140, 240,440,540,640), characterized in that each strip is arranged to be wound onto one of the rotatable structures (150, 550, 650), respectively, the rotatable structures (150, 550, 650) and the strips are arranged between the lens plate (120, 220, 420, 520, 620) and the image sensor plate (140, 240, 440, 540, 640), the rotatable structures (150, 550, 650) and/or the strips are arranged in contact with the lens plate (120, 220, 420, 520, 620) and the image sensor plate (140, 240, 440, 540, 640), and in that a distance between the lens and the image sensor is adjusted by winding the strips onto or off the rotatable structures (150, 550, 650). a lens, a lens plate (120, 220, 420, 520, 620), an image sensor, an image sensor plate (140, 240, 440, 540, 640), at least two rotatable structures (150, 550, 650), and at least two strips, wherein the lens is connected to the lens plate (120, 220, 420, 520, 620), the image sensor is connected to the image sensor plate (140, 240,440,540,640), characterized in that each strip is arranged to be wound onto one of the rotatable structures (150, 550, 650), respectively, the rotatable structures (150, 550, 650) and the strips are arranged between the lens plate (120, 220, 420, 520, 620) and the image sensor plate (140, 240, 440, 540, 640), the rotatable structures (150, 550, 650) and/or the strips are arranged in contact with the lens plate (120, 220, 420, 520, 620) and the image sensor plate (140, 240, 440, 540, 640), and in that a distance between the lens and the image sensor is adjusted by winding the strips onto or off the rotatable structures (150, 550, 650).
A vehicle comprising: an AC electric machine configured to generate traction driving force; a DC bus configured to provide a DC voltage; an inverter coupled with the DC bus and configured to convert the DC voltage from the DC bus to an AC voltage to drive the AC electric machine, wherein the inverter comprises a plurality of transistors; and a controller configured to: control the inverter to maintain the vehicle to run in a fault-tolerant mode when an open circuit fault occurs in one of the transistors in the inverter during running of the vehicle. characterised in that the controller is further configured to remove a gate driver signal provided to all the transistors of the inverter if a measured vehicle speed is greater than a predetermined speed threshold; and maintain control of healthy transistors if the measured vehicle speed is less than the predetermined speed threshold. an AC electric machine configured to generate traction driving force; a DC bus configured to provide a DC voltage; an inverter coupled with the DC bus and configured to convert the DC voltage from the DC bus to an AC voltage to drive the AC electric machine, wherein the inverter comprises a plurality of transistors; and a controller configured to: control the inverter to maintain the vehicle to run in a fault-tolerant mode when an open circuit fault occurs in one of the transistors in the inverter during running of the vehicle. characterised in that the controller is further configured to remove a gate driver signal provided to all the transistors of the inverter if a measured vehicle speed is greater than a predetermined speed threshold; and maintain control of healthy transistors if the measured vehicle speed is less than the predetermined speed threshold. control the inverter to maintain the vehicle to run in a fault-tolerant mode when an open circuit fault occurs in one of the transistors in the inverter during running of the vehicle. characterised in that the controller is further configured to remove a gate driver signal provided to all the transistors of the inverter if a measured vehicle speed is greater than a predetermined speed threshold; and maintain control of healthy transistors if the measured vehicle speed is less than the predetermined speed threshold.
Method for detecting and recognising an abrupt change of at least one monitoring indicator of a device, the method implemented by a detection and recognition means, during which - the monitoring indicators of the device are distributed in at least one group of indicators, - an abrupt change threshold is determined for each group of indicators based on an indicator log, - a signal of at least one monitoring indicator of the device is calculated from the measurements of at least one sensor of the device after an operating phase of the device, - the signals of the indicators are added to the indicator log, - at least one possible abrupt change and a date of the possible abrupt change is retrieved for each group of indicators, - each possible abrupt change is compared with the abrupt change threshold of the group of indictors, the abrupt change being confirmed when an amplitude of the possible abrupt change is greater than the abrupt change threshold, - it is determined whether an abrupt event is declared according to a logic rule from at least one confirmed abrupt change of at least one group of indicators, - a date of the abrupt event, which is the most recent date of the confirmed abrupt changes that made it possible to determine the abrupt event, is assigned to the abrupt event, and - action is taken based on the date of the abrupt event. - the monitoring indicators of the device are distributed in at least one group of indicators, - an abrupt change threshold is determined for each group of indicators based on an indicator log, - a signal of at least one monitoring indicator of the device is calculated from the measurements of at least one sensor of the device after an operating phase of the device, - the signals of the indicators are added to the indicator log, - at least one possible abrupt change and a date of the possible abrupt change is retrieved for each group of indicators, - each possible abrupt change is compared with the abrupt change threshold of the group of indictors, the abrupt change being confirmed when an amplitude of the possible abrupt change is greater than the abrupt change threshold, - it is determined whether an abrupt event is declared according to a logic rule from at least one confirmed abrupt change of at least one group of indicators, - a date of the abrupt event, which is the most recent date of the confirmed abrupt changes that made it possible to determine the abrupt event, is assigned to the abrupt event, and - action is taken based on the date of the abrupt event.
An aqueous washing liquor suitable for use in an apparatus for cleaning soiled textile substrates, containing a plurality of water-insoluble solid polymer particles and a liquid detergent containing polyalkoxylated polyamines and a non-aqueous solvent.
A process for forming isobutylidene diurea, comprising: reacting isobutyraldehyde with an aqueous solution of urea in the presence of a phase transfer catalyst to form isobutylidene diurea.
An absorbent article comprising an exterior sheet formed of a plurality of nonwoven fabric layers, wherein the exterior sheet is located on an outer side of the absorbent article and has a first nonwoven fabric layer, a second nonwoven fabric layer and a third nonwoven fabric layer from the outer side of the absorbent article, the first nonwoven fabric layer and the second nonwoven fabric layer are joined to each other at first joining parts, the second nonwoven fabric layer and the third nonwoven fabric layer are joined to each other at second joining parts, a number of the first joining parts is smaller than that of the second joining parts, and an area (an average value) of the single first joining part is larger than that of the single second joining part.
A plunger sub-assembly 10 for an automatic injector 100, the plunger sub-assembly 10 comprising a plunger outer 104 including one or more engagement prongs 104A, B at a proximal end and a base 104B, a plunger inner 110 including one or more engagement slots 110A, B and a ledge 110D, and a retraction biasing member 106 retained in an initially energized state between the base 104B and the ledge 110D, whereby the one or more engagement prongs 104A,B and the one or more engagement slots 110A, B are capable of releasable engagement to retain the retraction biasing member 106 in the initially energized state between the plunger outer 104 and the plunger inner 110, release of engagement of the engagement prongs 104A, B and the engagement slots 110A, B allowing release of the retraction biasing member 106 from the initially energized state to facilitate retraction of the plunger inner 110 relative to the plunger outer 104 when the plunger inner 110 is engaged with a retractable needle 410.
A bogie for a rubber-tired light rail vehicle, the bogie comprising: a turning frame installed on a bogie frame; a return spring having a first end portion that is rotatably connected to the turning frame and a second end portion arranged to be fixed to a vehicle body, the return spring enabling relative rotation between the vehicle body and the bogie frame; characterized in that the return spring comprises: a piston unit; and first and second rod-end protrusions and that are connected to both end portions, respectively, of the piston unit and are respectively connected to the turning frame and arranged to be connected to the vehicle body; wherein the first and second rod-end protrusions and have threaded portions and, respectively, on first sides thereof, the threaded portions and resulting from threading respective outer circumferential surfaces, respectively, of the first and second rod-end protrusions and, and the first and second rod-end protrusions and have through-holes and, respectively, on second sides thereof, the through-holes and being made in an upward-downward direction through the first and second rod-end protrusions and, respectively. a turning frame installed on a bogie frame; a return spring having a first end portion that is rotatably connected to the turning frame and a second end portion arranged to be fixed to a vehicle body, the return spring enabling relative rotation between the vehicle body and the bogie frame; a piston unit; and first and second rod-end protrusions and that are connected to both end portions, respectively, of the piston unit and are respectively connected to the turning frame and arranged to be connected to the vehicle body; wherein the first and second rod-end protrusions and have threaded portions and, respectively, on first sides thereof, the threaded portions and resulting from threading respective outer circumferential surfaces, respectively, of the first and second rod-end protrusions and, and the first and second rod-end protrusions and have through-holes and, respectively, on second sides thereof, the through-holes and being made in an upward-downward direction through the first and second rod-end protrusions and, respectively.
A portable tool stand comprising: a body having a work surface and opposed ends; deployable legs pivotally mounted to said body; said legs moving between a stored position adjacent to said body and a support position wherein said legs are deployed to support said body; at least one arm mounted for sliding with respect to one end of said body, characterized in that said at least one arm slides along a linear path, said linear path being parallel to said work surface, said arm sliding with respect to said body between a transport position and a use position; said deployable legs and said at least one arm being operably connected such that sliding said at least one arm with respect to said body moves said legs between said stored position and said support position. a body having a work surface and opposed ends; deployable legs pivotally mounted to said body; said legs moving between a stored position adjacent to said body and a support position wherein said legs are deployed to support said body; at least one arm mounted for sliding with respect to one end of said body, characterized in that said at least one arm slides along a linear path, said linear path being parallel to said work surface, said arm sliding with respect to said body between a transport position and a use position; said deployable legs and said at least one arm being operably connected such that sliding said at least one arm with respect to said body moves said legs between said stored position and said support position.
Ultrasonic treatment apparatus comprising a handpiece unit and at least one removable treatment attachment, which comprises a head section (3.1), an adjoining elongate connecting section (3.2) and a coupling section (3.3), wherein the coupling section (3.3) is configured for establishing an electromechanical connection to the handpiece unit and the treatment attachment comprises an ultrasonic transducer in the region of the head section (3.1) for generating ultrasonic shockwaves, wherein the treatment attachment is formed as a removable tongue treatment attachment with a flat head section (3.1), wherein the flat head section (3.1) comprises a front side (3.11) forming the treatment surface and a rear side (3.12) lying opposite said front side, and wherein the tongue treatment attachment comprises a recess (3.4), which is open towards the rear side (3.12) of the flat head section (3.1), for receiving the ultrasonic transducer, wherein an elastic closing element (3.5) is provided for the hermetically tight closure of the recess (3.4) and the elastic closing element (3.5) forms an elastic closing cover, characterized in that the closing cover is made of a rubber-like plastic material.
A vacuum heat insulator including a core, and reducing heat transfer in a thickness direction of the core from one surface side of the core to an other surface side of the core, characterized in that: the core comprises: - a first fiber layer (5, 5a, 5b, 5c) including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer (7, 7a, 7b, 7c) including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers; and the plural long fibers are longer than the plural short fibers. the core comprises: - a first fiber layer (5, 5a, 5b, 5c) including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer (7, 7a, 7b, 7c) including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers; and - a first fiber layer (5, 5a, 5b, 5c) including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer (7, 7a, 7b, 7c) including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers; and the plural long fibers are longer than the plural short fibers.
A heating chamber for an aerosol generation device, the heating chamber comprising: a chamber side wall; a chamber base, wherein the chamber side wall, and chamber base together define an interior volume of the heating chamber; a heater in thermal contact with the chamber side wall; and an insulating member comprising an insulating side wall and an insulating base, the insulating member being arranged so that a part of the heating chamber including the chamber base is nested inside the insulating member; wherein the heater extends around the chamber side wall but does not extend around the chamber base, and the chamber base is spaced from the insulating base. a chamber side wall; a chamber base, wherein the chamber side wall, and chamber base together define an interior volume of the heating chamber; a heater in thermal contact with the chamber side wall; and an insulating member comprising an insulating side wall and an insulating base, the insulating member being arranged so that a part of the heating chamber including the chamber base is nested inside the insulating member; wherein the heater extends around the chamber side wall but does not extend around the chamber base, and the chamber base is spaced from the insulating base.
Applicator arrangement comprising a supply unit for supply of coating liquid/slurry, an applicator device and a metering device, characterized in that said supply unit comprises a distribution pipe which is supported by a support body by means of a bearing arrangement arranged to enable axial expansion and contraction of said distribution pipe and that at least one of said applicator device and/or metering device is directly or indirectly attached to said distribution pipe such that, upon operation of the coating machine, at least 50% of the forces from the applicator device and/or metering device are received by the body of the distribution pipe.
An absorption vacuum tube for use in a solar collector, the absorption vacuum tube being constituted by a double transparent vacuum tube, with vacuum between an inner tube and an external tube, with the inner tube covered with a layer of an absorber, the absorption vacuum tube having a heat pipe, a condenser of which is to be placed in a plugged stub pipe of a dry type heat exchanger of the solar collector, characterised by more than one heat pipe, and maximum ten heat pipes, preferably two to six.
A system for minimizing non-productive idle times within an automation process executed by an automation facility, characterized by: - a model memory which stores a probabilistic model of a distribution of object exchange times of objects used or consumed in the automation process, wherein the object exchange time of an object comprises - a fetching time required for fetching the object by an object handler from a source magazine position in an object storage magazine to a target position for use in the automation process and - a storing time for returning the object by the object handler from the target position to the same or a different source magazine position in the object storage magazine, - an optimizer adapted to calculate optimal assignments of objects to magazine positions of the object storage magazine depending on the probabilistic model and depending on a sequence of productive non-idle times of objects used or consumed in process steps of the automation process, and - a controller adapted to execute a control program to control process steps of the automation process using the optimal assignments of objects to magazine positions of the object storage magazine of the automation facility as calculated by the optimizer. - a model memory which stores a probabilistic model of a distribution of object exchange times of objects used or consumed in the automation process, wherein the object exchange time of an object comprises - a fetching time required for fetching the object by an object handler from a source magazine position in an object storage magazine to a target position for use in the automation process and - a storing time for returning the object by the object handler from the target position to the same or a different source magazine position in the object storage magazine, - a fetching time required for fetching the object by an object handler from a source magazine position in an object storage magazine to a target position for use in the automation process and - a storing time for returning the object by the object handler from the target position to the same or a different source magazine position in the object storage magazine, - an optimizer adapted to calculate optimal assignments of objects to magazine positions of the object storage magazine depending on the probabilistic model and depending on a sequence of productive non-idle times of objects used or consumed in process steps of the automation process, and - a controller adapted to execute a control program to control process steps of the automation process using the optimal assignments of objects to magazine positions of the object storage magazine of the automation facility as calculated by the optimizer.