mhurhangee/ep-ind-claims huggingface dataset:
A negative pressure wound therapy (NPWT) dressing configured for application to a skin surface over an incision and configured for connection to a negative pressure source, which dressing comprises: a fluid-permeable wick element adapted for placement over the incision; a fluid transfer component placed on the wick element; said transfer component configured for connection to the negative pressure source and transferring fluid from the incision through the wick element and to the negative pressure source; said transfer component configured for transmitting negative pressure from the negative pressure source to the incision; a drape placed over the transfer component and adapted for releasable connection to a skin surface around the incision; and a drain slip comprising a fluid-impermeable material and having a proximal end adapted for placement in the incision and a distal end communicating with the negative pressure source. a fluid-permeable wick element adapted for placement over the incision; a fluid transfer component placed on the wick element; said transfer component configured for connection to the negative pressure source and transferring fluid from the incision through the wick element and to the negative pressure source; said transfer component configured for transmitting negative pressure from the negative pressure source to the incision; a drape placed over the transfer component and adapted for releasable connection to a skin surface around the incision; and a drain slip comprising a fluid-impermeable material and having a proximal end adapted for placement in the incision and a distal end communicating with the negative pressure source.
A system comprising: a stimulation generator configured to deliver electrical stimulation therapy to a patient; and processing circuitry configured to: determine, based on sensed electrically evoked compound action potential, eECAP, signals elicited by the electrical stimulation defined by respective different therapy parameter values, a threshold eECAP value at which an eECAP biomarker is detectable for the electrical stimulation; determine first therapy parameters of the different therapy parameters that define the electrical stimulation at a first intensity that elicited the eECAP biomarker at the threshold eECAP value; determine second therapy parameters for subsequent electrical stimulation that define a second intensity less than the first intensity; and control stimulation circuitry to deliver the subsequent electrical stimulation to the patient as an incontinence therapy. a stimulation generator configured to deliver electrical stimulation therapy to a patient; and processing circuitry configured to: determine, based on sensed electrically evoked compound action potential, eECAP, signals elicited by the electrical stimulation defined by respective different therapy parameter values, a threshold eECAP value at which an eECAP biomarker is detectable for the electrical stimulation; determine first therapy parameters of the different therapy parameters that define the electrical stimulation at a first intensity that elicited the eECAP biomarker at the threshold eECAP value; determine second therapy parameters for subsequent electrical stimulation that define a second intensity less than the first intensity; and control stimulation circuitry to deliver the subsequent electrical stimulation to the patient as an incontinence therapy. determine, based on sensed electrically evoked compound action potential, eECAP, signals elicited by the electrical stimulation defined by respective different therapy parameter values, a threshold eECAP value at which an eECAP biomarker is detectable for the electrical stimulation; determine first therapy parameters of the different therapy parameters that define the electrical stimulation at a first intensity that elicited the eECAP biomarker at the threshold eECAP value; determine second therapy parameters for subsequent electrical stimulation that define a second intensity less than the first intensity; and control stimulation circuitry to deliver the subsequent electrical stimulation to the patient as an incontinence therapy.
A system for content item execution during production of a virtual machine image comprising: one or more computing devices (10a,10b,10n); and one or more memories having stored thereon computer-executable instructions that, upon execution, cause the system to perform operations comprising: loading information associated with the content item onto a first virtual machine instance and a second virtual machine instance; initiating, on the second virtual machine instance, the production of the virtual machine image including the information associated with the content item; executing, on the first virtual machine instance, a first instance of the content item, wherein at least part of a time during which the first instance of the content item is executed occurs during the production of the virtual machine image; completing the production of the virtual machine image; replicating the virtual machine image to one or more other virtual machine instances; and executing one or more other instances of the content item on the one or more other virtual machine instances. one or more computing devices (10a,10b,10n); and one or more memories having stored thereon computer-executable instructions that, upon execution, cause the system to perform operations comprising: loading information associated with the content item onto a first virtual machine instance and a second virtual machine instance; initiating, on the second virtual machine instance, the production of the virtual machine image including the information associated with the content item; executing, on the first virtual machine instance, a first instance of the content item, wherein at least part of a time during which the first instance of the content item is executed occurs during the production of the virtual machine image; completing the production of the virtual machine image; replicating the virtual machine image to one or more other virtual machine instances; and executing one or more other instances of the content item on the one or more other virtual machine instances. loading information associated with the content item onto a first virtual machine instance and a second virtual machine instance; initiating, on the second virtual machine instance, the production of the virtual machine image including the information associated with the content item; executing, on the first virtual machine instance, a first instance of the content item, wherein at least part of a time during which the first instance of the content item is executed occurs during the production of the virtual machine image; completing the production of the virtual machine image; replicating the virtual machine image to one or more other virtual machine instances; and executing one or more other instances of the content item on the one or more other virtual machine instances.
A mobile terminal, comprising: a first touch pad provided at a front surface of the mobile terminal; a second touch pad provided at a rear surface of the mobile terminal; a first display unit including a transparent display; a second display unit including a non-transparent display disposed below the transparent display; and a controller configured to control each of the first and second display units; wherein, when the first display unit displays a first object and the second display unit displays a second object overlapping the first object, the controller is further configured to select the first object if a touch input is received to the front surface and to select the second object if a touch input is received to the rear surface; and wherein, if a touch input is received to the rear surface, the controller is further configured to: increase the transparency of the first display unit so as to highlight objects displayed on the second display unit, and display a pointer on the second display wherein the pointer is configured to move according to a touch or drag input. a first touch pad provided at a front surface of the mobile terminal; a second touch pad provided at a rear surface of the mobile terminal; a first display unit including a transparent display; a second display unit including a non-transparent display disposed below the transparent display; and a controller configured to control each of the first and second display units; wherein, when the first display unit displays a first object and the second display unit displays a second object overlapping the first object, the controller is further configured to select the first object if a touch input is received to the front surface and to select the second object if a touch input is received to the rear surface; and wherein, if a touch input is received to the rear surface, the controller is further configured to: increase the transparency of the first display unit so as to highlight objects displayed on the second display unit, and display a pointer on the second display wherein the pointer is configured to move according to a touch or drag input. increase the transparency of the first display unit so as to highlight objects displayed on the second display unit, and display a pointer on the second display wherein the pointer is configured to move according to a touch or drag input.
Negative-pressure tank having at least one partition, wherein the partition includes at least two walls (1.1, 1.2), and the negative-pressure tank includes at least two chambers, wherein the partition separates the chambers, and the two walls (1.1, 1.2) of the partition are connected to one another, at least one free space being present in the partition, wherein the partition is a partition which deforms under negative pressure, wherein the walls (1.1, 1.2) of the partition are connected at at least one point or line, characterized in that the free space has a pressure which corresponds to ambient pressure.
A method for producing an LGPS-based solid electrolyte, which comprises: mixing Li 3 PS 4 crystals having a peak at 420 ± 10 cm -1 in a Raman measurement using an excitation wavelength of 532.15 nm and Li 4 MS 4 crystals (M being selected from the group consisting of Ge, Si and Sn) while still having crystals present, thereby obtaining a precursor; and heat treating the precursor at 300 to 700°C. mixing Li 3 PS 4 crystals having a peak at 420 ± 10 cm -1 in a Raman measurement using an excitation wavelength of 532.15 nm and Li 4 MS 4 crystals (M being selected from the group consisting of Ge, Si and Sn) while still having crystals present, thereby obtaining a precursor; and heat treating the precursor at 300 to 700°C.
A dishwasher comprising: a tub forming a washing chamber in which a washing target is accommodated; a sump disposed below the tub and storing washing water therein; a plurality of spray nozzles (20, 22, 24) for spraying washing water stored in the sump to the washing chamber; a steam nozzle for supplying steam to the washing chamber; a washing pump housing coupled to the sump, and connected to the plurality of spray nozzles (20, 22, 24) or the steam nozzle; a heater for heating washing water existing in the washing pump housing; a washing motor for rotating an impeller that flows washing water existing in the washing pump housing or steam generated by the heater; a washing water outflow pipe forming an outflow path protruding outward from one side of a circumferential surface of the washing pump housing, and sending washing water or steam inside the washing pump housing to the plurality of spray nozzles (20, 22, 24); a steam discharge pipe that is provided with a discharge port characterized in that said discharge port is formed in one side of a circumferential surface of the washing water outflow pipe, protrudes from the circumferential surface of the washing water outflow pipe formed with the discharge port to the outside of the washing water outflow pipe, and sends the steam flowing in the outflow path to the steam nozzle; and wherein a first protrusion is disposed in an upper portion of the outflow path in downstream of the discharge port in a flow direction of the washing water flowing in the outflow path, and guides the flowing steam to the discharge port. a tub forming a washing chamber in which a washing target is accommodated; a sump disposed below the tub and storing washing water therein; a plurality of spray nozzles (20, 22, 24) for spraying washing water stored in the sump to the washing chamber; a steam nozzle for supplying steam to the washing chamber; a washing pump housing coupled to the sump, and connected to the plurality of spray nozzles (20, 22, 24) or the steam nozzle; a heater for heating washing water existing in the washing pump housing; a washing motor for rotating an impeller that flows washing water existing in the washing pump housing or steam generated by the heater; a washing water outflow pipe forming an outflow path protruding outward from one side of a circumferential surface of the washing pump housing, and sending washing water or steam inside the washing pump housing to the plurality of spray nozzles (20, 22, 24); a steam discharge pipe that is provided with a discharge port characterized in that said discharge port is formed in one side of a circumferential surface of the washing water outflow pipe, protrudes from the circumferential surface of the washing water outflow pipe formed with the discharge port to the outside of the washing water outflow pipe, and sends the steam flowing in the outflow path to the steam nozzle; and wherein a first protrusion is disposed in an upper portion of the outflow path in downstream of the discharge port in a flow direction of the washing water flowing in the outflow path, and guides the flowing steam to the discharge port.
Powder bed fusion additive manufacturing machine, this additive manufacturing machine comprising a working area able to receive a superposition of different layers of powder, a device for depositing a layer of powder onto the working area and a consolidation source used to selectively consolidate each layer of powder deposited onto the working area, the device for depositing a layer of powder comprising a powder reservoir able to be positioned above the working area, and a powder distribution opening being provided in the bottom part of the reservoir, the device for depositing a layer of powder comprising a vibrating device able to subject the reservoir to vibrations, and the powder distribution opening of the reservoir being equipped with a sieve, the additive manufacturing machine is characterized in that the reservoir is mounted on a weighing sensor, the vibrating device and the reservoir being mounted on a first support mounted with the ability to slide with respect to the weighing sensor in the direction of superposition of the layers of powder.
A motor power conversion device provided with an electronic thermal function for overload protection of a motor, comprising a total-loss time-integration counter which, when a motor operates under the condition that time integration of a total loss of the motor becomes a constant, outputs an integrated value simulating winding temperature of the motor, and when the integrated value reaches a predetermined threshold value, outputs a signal to stop the operation of the motor, wherein the total-loss time-integration counter is operated when a time integration value of the total loss of the motor including loss of a reverse converter of the motor power conversion device reaches a constant value, and wherein the total-loss time-integration counter obtains the total loss of the motor, the total loss including the loss of the reverse converter, by subtracting output power of the motor from input power at an intermediate potential between a forward converter and the reverse converter of the motor power conversion device.
A method, in an anchor base station, for establishing a second link between a user equipment and an assisting base station, where the user equipment is served by the anchor base station via a first link, the method comprising: identifying the assisting base station for establishing the second link with the user equipment; negotiating random access parameters with the assisting base station; and sending, to the user equipment, an RRC trigger to establish the second link between the user equipment and the assisting base station, wherein the RRC trigger comprises the negotiated random access parameters. identifying the assisting base station for establishing the second link with the user equipment; negotiating random access parameters with the assisting base station; and sending, to the user equipment, an RRC trigger to establish the second link between the user equipment and the assisting base station, wherein the RRC trigger comprises the negotiated random access parameters.
A compound for use in the treatment of depression and symptoms suggesting depression through inhibiting an organic cation transporter 3 represented by the following formula, a pharmaceutically acceptable salt thereof, or a pharmaceutically acceptable solvate thereof, wherein in formula, R 1, R 2, R 3, R 5 and R 6 may be the same or different, and each represent a hydrogen atom or a methyl group, and R 4 represents any of the groups represented by formulae to, in formula, X 2 represents any of the groups represented by the following formulae to, and to, in formula, X 3 represents any of groups represented by the following formulae and in formula, X 4 represents any of the groups represented by the following formulae to in formula, X 5 represents any of the groups represented by the following formulae,,, and in formula, X 6 represents any of the groups represented by the following formulae to, and in formula, X 7 represents any of groups represented by the following formulae and,
A micro-semiconductor chip transfer apparatus for wet-aligning a plurality of micro-semiconductor chips in a plurality of grooves of a transfer substrate, the micro-semiconductor chip transfer apparatus comprising: a wet chip supply module configured to supply the plurality of micro-semiconductor chips and a first liquid onto the transfer substrate in a flowable manner characterized by a chip alignment module comprising an absorber configured to move along a surface of the transfer substrate to align first micro-semiconductor chips, among the plurality of micro-semiconductor chips, respectively in the plurality of grooves and to absorb the first liquid; and a chip extraction module configured to extract, from the absorber, second micro-semiconductor chips, among the plurality of micro-semiconductor chips, which are attached to the absorber. a wet chip supply module configured to supply the plurality of micro-semiconductor chips and a first liquid onto the transfer substrate in a flowable manner characterized by a chip alignment module comprising an absorber configured to move along a surface of the transfer substrate to align first micro-semiconductor chips, among the plurality of micro-semiconductor chips, respectively in the plurality of grooves and to absorb the first liquid; and a chip extraction module configured to extract, from the absorber, second micro-semiconductor chips, among the plurality of micro-semiconductor chips, which are attached to the absorber.
A surfactant of formula: m -X- n wherein X is a linking group; each A is independently a fluorocarbon or a perfluoropolyether; each B is independently wherein a is an integer between 3 and 50, preferably wherein a is an integer between 3 and 24, preferably 4 and 20; and each R is independently C 1-6 alkyl, CH 2 CH 2 OC 1-6 alkyl or CH 2 CH(CH 3)OC 1-6 alkyl, preferably wherein each R is C 1-6 alkyl, preferably methyl; m is an integer between 1 and 10, preferably wherein m is 1, 2 or 3, preferably 1 or 2; and n is an integer between 1 and 10, preferably wherein n is an integer between 1 and 6. X is a linking group; each A is independently a fluorocarbon or a perfluoropolyether; each B is independently wherein a is an integer between 3 and 50, preferably wherein a is an integer between 3 and 24, preferably 4 and 20; and each R is independently C 1-6 alkyl, CH 2 CH 2 OC 1-6 alkyl or CH 2 CH(CH 3)OC 1-6 alkyl, preferably wherein each R is C 1-6 alkyl, preferably methyl; m is an integer between 1 and 10, preferably wherein m is 1, 2 or 3, preferably 1 or 2; and n is an integer between 1 and 10, preferably wherein n is an integer between 1 and 6.
A method for projecting an electron beam onto a wafer or a mask, said method comprising a step of correcting the scattering effects in said beam, said step comprising a sub-step of calculating a point spread function of the scattering of said beam, and being characterized in that said point spread function is a linear combination of functions chosen from a group comprising at least one Voigt function and a function approximating a Voigt function (320a, 330a, 340a, 350a).
A process for preparing Pigment Yellow 155 comprising steps of 1) synthesizing an azo pigment through a coupling reaction of a diazonium compound in an aqueous solution; 2) subjecting the azo pigment to a finishing treatment using isobutanol; and 3) bringing the synthesized azo pigment into contact with isobutanol at a temperature of 0 to 100°C higher than the boiling point of isobutanol for 10 minutes or longer. 1) synthesizing an azo pigment through a coupling reaction of a diazonium compound in an aqueous solution; 2) subjecting the azo pigment to a finishing treatment using isobutanol; and 3) bringing the synthesized azo pigment into contact with isobutanol at a temperature of 0 to 100°C higher than the boiling point of isobutanol for 10 minutes or longer.
An illuminating glazing unit for vehicles, comprising - a first transparent sheet of glass with a first main face, a second main face and an edge, - a second transparent sheet of glass with a first main face, a second main face and an edge, - a transparent lamination interlayer which is in adhesive contact with the second main face of the first sheet and the first main face of the second sheet of glass, - one or more modules containing light-emitting diodes (LED modules), each having a plurality of light-emitting diodes (LEDs) and associated electronic components fixed to a printed circuit board, the modules being positioned in such a way that the emitting faces of the LEDs are turned toward the edge of the first sheet of glass, - an encapsulation means in contact with the first main face of the first sheet, and - a light extraction element, preferably located on one of the main faces of the first sheet of glass, characterized in that it further comprises a heat sink element, which is in thermal conduction contact with the LED module, and is in contact with the encapsulation means and in contact with the atmosphere via a heat exchange surface. - a first transparent sheet of glass with a first main face, a second main face and an edge, - a second transparent sheet of glass with a first main face, a second main face and an edge, - a transparent lamination interlayer which is in adhesive contact with the second main face of the first sheet and the first main face of the second sheet of glass, - one or more modules containing light-emitting diodes (LED modules), each having a plurality of light-emitting diodes (LEDs) and associated electronic components fixed to a printed circuit board, the modules being positioned in such a way that the emitting faces of the LEDs are turned toward the edge of the first sheet of glass, - an encapsulation means in contact with the first main face of the first sheet, and - a light extraction element, preferably located on one of the main faces of the first sheet of glass,