mhurhangee/ep-ind-claims huggingface dataset:
Method of cleaning or sanitizing or antimicrobial treatment of an equipment in need of treatment using a solution of electrolytically generated chlorine oxyanions in an automated recirculating or single-pass cleaning system comprising: (a) in situ producing an electrolysis solution from an electrolyzed solution concentrate and dilution water; (b) measuring the pH of a portion of the electrolysis solution in a sensing cell with a pH probe connected in fluid communication with said portion of the electrolysis solution; (c) controlling the pH of said portion of the electrolysis solution to pH 5.5 to 7.5 with a pH modifier in said sensing cell; (d) measuring the chlorine oxyanion concentration of said portion of the electrolysis solution from 10 ppm to 1000 ppm by using a chlorine sensor in said sensing cell; (e) adjusting the chlorine oxyanion concentration in the electrolysis solution obtained in step (a) by a feedback loop mechanism adjusting the amount of electrolyzed solution concentrate and/or dilution water; (f) putting into contact the electrolysis solution obtained in step (e) with the equipment in need of treatment by supplying the solution through a means of fluid communication. (a) in situ producing an electrolysis solution from an electrolyzed solution concentrate and dilution water; (b) measuring the pH of a portion of the electrolysis solution in a sensing cell with a pH probe connected in fluid communication with said portion of the electrolysis solution; (c) controlling the pH of said portion of the electrolysis solution to pH 5.5 to 7.5 with a pH modifier in said sensing cell; (d) measuring the chlorine oxyanion concentration of said portion of the electrolysis solution from 10 ppm to 1000 ppm by using a chlorine sensor in said sensing cell; (e) adjusting the chlorine oxyanion concentration in the electrolysis solution obtained in step (a) by a feedback loop mechanism adjusting the amount of electrolyzed solution concentrate and/or dilution water; (f) putting into contact the electrolysis solution obtained in step (e) with the equipment in need of treatment by supplying the solution through a means of fluid communication.
A medical system for endovascular device placement comprising: a placement unit including a signal acquisition module and an electrode for acquiring ivECG signal data; a multiscale complexity analysis module including software programmed for processing the ivECG signal data acquired by the signal acquisition module using multiscale complexity analysis and determining at least one PxI value; a device configured to provide an audio and/or visual indication of PxI and/or the proximity of the endovascular device to a part of a patient's body; an audio and/or visual notification module programmed to signal the device to provide the user with an audio and/or visual indication of PxI and/or the proximity of the endovascular device to the part of the patient's body, wherein PxI is a density of a tail distribution function. a placement unit including a signal acquisition module and an electrode for acquiring ivECG signal data; a multiscale complexity analysis module including software programmed for processing the ivECG signal data acquired by the signal acquisition module using multiscale complexity analysis and determining at least one PxI value; a device configured to provide an audio and/or visual indication of PxI and/or the proximity of the endovascular device to a part of a patient's body; an audio and/or visual notification module programmed to signal the device to provide the user with an audio and/or visual indication of PxI and/or the proximity of the endovascular device to the part of the patient's body, wherein PxI is a density of a tail distribution function.
A linear drive having a spindle nut, rotatably mounted in a bearing plate, and a spindle, wherein the spindle is screwed into the spindle nut, wherein the spindle is guided through the spindle nut and projects from both sides of the bearing plate, wherein a first bellows at least partially surrounds a first region of the spindle and a second bellows at least partially surrounds a second region of the spindle, characterised in that the bearing plate has a through cutout for air pressure balancing between the air space surrounded by the first bellows and the air space surrounded by the second bellows.
Use of a multifilament yarn spinning process comprising individually washing each filament of a multifilament yarn and individually neutralizing each filament of the multifilament yarn, for preventing yarn breakage during the spinning process, the spinning process comprising spinning of a polymer through a spinneret to obtain the multifilament yarn, washing the yarn and neutralizing the yarn, wherein a jet washer is used for washing and neutralizing the yarn, and optionally drying the yarn and winding the yarn onto a bobbin.
Fitting for a vehicle seat, in particular for a motor vehicle seat, a) comprising a first fitting part and a second fitting part, which are rotatable relative to each other and which are in geared connection with each other by means of a toothed ring and a gear wheel meshing with the toothed ring, and b) comprising an eccentric (27, 27) which is driven by a driver, revolves in the circumferential direction and is intended for driving a relative rolling movement of the gear wheel and the toothed ring, wherein the driver is mounted with play in a collar of the second fitting part and the eccentric (27, 27) is mounted on the collar of the second fitting part, and wherein the free end of the collar has a flange, the end side of which forms an axial supporting surface for the driver, characterized in that c) the flange has a groove in the supporting surface, wherein after the drawing of the collar, the flange is formed by deforming the free end of the collar with a radial displacement of the material, wherein the groove is formed within the supporting surface in order to improve the radial displacement of the material. a) comprising a first fitting part and a second fitting part, which are rotatable relative to each other and which are in geared connection with each other by means of a toothed ring and a gear wheel meshing with the toothed ring, and b) comprising an eccentric (27, 27) which is driven by a driver, revolves in the circumferential direction and is intended for driving a relative rolling movement of the gear wheel and the toothed ring, wherein the driver is mounted with play in a collar of the second fitting part and the eccentric (27, 27) is mounted on the collar of the second fitting part, and wherein the free end of the collar has a flange, the end side of which forms an axial supporting surface for the driver, characterized in that c) the flange has a groove in the supporting surface, wherein after the drawing of the collar, the flange is formed by deforming the free end of the collar with a radial displacement of the material, wherein the groove is formed within the supporting surface in order to improve the radial displacement of the material.
A method of wireless communication performed by a user equipment, UE, comprising: identifying multiple resource element, RE, segments associated with a scheduled communication that includes a source bit sequence, wherein the multiple RE segments each include one or more Res in one or more scheduled physical resource blocks, PRBs, associated with the scheduled communication; and communicating with a device based at least in part on respective energies on the one or more REs included in the multiple RE segments associated with the scheduled communication, wherein the multiple RE segments are each associated with a sub-sequence associated with the source bit sequence segmented into multiple sub-sequences, and wherein communicating with the device includes transmitting or detecting the sub-sequence associated with an RE segment, among the multiple RE segments, using a neural network that modulates the sub-sequence associated with the RE segment to the one or more REs in the RE segment. identifying multiple resource element, RE, segments associated with a scheduled communication that includes a source bit sequence, wherein the multiple RE segments each include one or more Res in one or more scheduled physical resource blocks, PRBs, associated with the scheduled communication; and communicating with a device based at least in part on respective energies on the one or more REs included in the multiple RE segments associated with the scheduled communication, wherein the multiple RE segments are each associated with a sub-sequence associated with the source bit sequence segmented into multiple sub-sequences, and wherein communicating with the device includes transmitting or detecting the sub-sequence associated with an RE segment, among the multiple RE segments, using a neural network that modulates the sub-sequence associated with the RE segment to the one or more REs in the RE segment.
A hoisting machine, comprising: an axial flux motor comprising a rotor having rope grooves and arranged in rotor compartment between a body part and a protection plate, and a stator arranged against the rotor in such a manner that the rotor is separated by the stator by an air gap; characterized in that the hoisting machine further comprising a first cover plate and a second cover plate, arranged at opposide sides of the hoisting machine, and both being equipped with a damper; wherein: the tightness between the first cover plate and the second cover plate is adjustable.
A filling assembly, comprising: - a container (14, 214, 314) for storing a first fluid composition, said container comprising an opening; - a pipette removably inserted in the container through the opening, said pipette having a first dispensing end and a second open end configured to be assembled to a pressure supply device; and - a plug removably assembled to the dispensing end of the pipette, said assembled pipette and plug defining an inner compartment for temporarily storing a second fluid composition isolated from the first fluid composition, the filling assembly being characterized in that said filling assembly comprises a holding element configured to hold the pipette inside the container in a predetermined position while maintaining at least one aperture within the opening, said aperture allowing for fluid communication between the outside and the inside of the container, so that the container and the pipette may be filled simultaneously with the first and second fluid compositions respectively, before assembling the second open end of the pipette with the pressure supply device. - a container (14, 214, 314) for storing a first fluid composition, said container comprising an opening; - a pipette removably inserted in the container through the opening, said pipette having a first dispensing end and a second open end configured to be assembled to a pressure supply device; and - a plug removably assembled to the dispensing end of the pipette, said assembled pipette and plug defining an inner compartment for temporarily storing a second fluid composition isolated from the first fluid composition,
An intake noise reduction device disposed on a downstream side of a throttle valve in an intake pipe and including a flow-guiding net that guides an air flow, wherein the flow-guiding net includes a mesh that is configured to be fine in a vicinity of a center of a flow passage in the intake pipe and to become coarser with distance from the vicinity of the center, and the mesh of the flow-guiding net is formed of a plurality of radial portions extending radially outward from the vicinity of the center of the flow passage in the intake pipe and a plurality of concentric portions provided concentrically from the vicinity of the center, characterized by an annular gasket portion that seals a gap between an end face of one pipe and an end face of another pipe, the two pipes configuring the intake pipe, wherein the flow-guiding net is provided on an inner side of the gasket portion with respect to the gasket portion. the flow-guiding net includes a mesh that is configured to be fine in a vicinity of a center of a flow passage in the intake pipe and to become coarser with distance from the vicinity of the center, and the mesh of the flow-guiding net is formed of a plurality of radial portions extending radially outward from the vicinity of the center of the flow passage in the intake pipe and a plurality of concentric portions provided concentrically from the vicinity of the center, characterized by an annular gasket portion that seals a gap between an end face of one pipe and an end face of another pipe, the two pipes configuring the intake pipe, wherein the flow-guiding net is provided on an inner side of the gasket portion with respect to the gasket portion.
Feed device for successive processing of hollow bodies at processing stations which are arranged in a ring-shaped manner, having: a first circumferential guide (13, 23, 33, 43) for first processing stations and a second circumferential guide (14, 24, 34, 44) for second processing stations, one of the guides (14, 24, 34, 44) being arranged inside the other guide (13, 23, 33, 43), and a moving unit (17, 27, 37a, 37b, 47) for moving a hollow body into the first guide (13, 23, 33, 43) and/or the second guide (14, 24, 34, 44), characterised in that the first guide (23, 33) is provided separately from the second guide (24, 34), the moving unit (17, 27, 37a, 37b) being configured for moving, respectively, a hollow body from the first guide (13, 23, 33) into the second guide (14, 24, 34) and from the second guide (14, 24, 34) into the first guide (13, 23, 33) or in that the first guide and the second guide are configured for a movement in opposite directions, the moving unit being configured for, in particular, parallel feeding of a first hollow body into the first guide and a second hollow body into the second guide, and for, in particular, parallel removal of the first hollow body from the first guide and the second hollow body from the second guide. a first circumferential guide (13, 23, 33, 43) for first processing stations and a second circumferential guide (14, 24, 34, 44) for second processing stations, one of the guides (14, 24, 34, 44) being arranged inside the other guide (13, 23, 33, 43), and a moving unit (17, 27, 37a, 37b, 47) for moving a hollow body into the first guide (13, 23, 33, 43) and/or the second guide (14, 24, 34, 44), characterised in that the first guide (23, 33) is provided separately from the second guide (24, 34), the moving unit (17, 27, 37a, 37b) being configured for moving, respectively, a hollow body from the first guide (13, 23, 33) into the second guide (14, 24, 34) and from the second guide (14, 24, 34) into the first guide (13, 23, 33) or in that the first guide and the second guide are configured for a movement in opposite directions, the moving unit being configured for, in particular, parallel feeding of a first hollow body into the first guide and a second hollow body into the second guide, and for, in particular, parallel removal of the first hollow body from the first guide and the second hollow body from the second guide.
A polyolefin grafted polydiene polymer comprising: a polydiene having a polydiene polymer backbone; a polyolefin having an anhydride polymeric modifier; and at least one sulfur containing functionalizing agent which grafts the polyolefin onto at least one non-terminal position on the polydiene polymer backbone. a polydiene having a polydiene polymer backbone; a polyolefin having an anhydride polymeric modifier; and at least one sulfur containing functionalizing agent which grafts the polyolefin onto at least one non-terminal position on the polydiene polymer backbone.
A transmitter arranged in a tire attached to a wheel and configured to transmit data to a receiver, the transmitter comprising: a sensor (22, 23, 24); an obtaining section configured to obtain a detection result of the sensor (22, 23, 24); a generating section configured to generate the data including the detection result of the sensor (22, 23, 24); a transmitting section configured to transmit the data generated by the generating section; characterized in that the transmitter further comprises an organic power generation element that is a power source of the transmitter, wherein the organic power generation element is configured to generate power through a chemical reaction with organic matter contained in a fuel solution accommodated in the tire. a sensor (22, 23, 24); an obtaining section configured to obtain a detection result of the sensor (22, 23, 24); a generating section configured to generate the data including the detection result of the sensor (22, 23, 24); a transmitting section configured to transmit the data generated by the generating section; the transmitter further comprises an organic power generation element that is a power source of the transmitter, wherein the organic power generation element is configured to generate power through a chemical reaction with organic matter contained in a fuel solution accommodated in the tire.
A surgical prosthesis for repairing a defect of an abdominal wall or a pelvic cavity wall, comprising: a three-dimensional mesh comprising at least two types of yarn interlooped or intertwined to define at least two layers, wherein one of the at least two layers is substantially non-biodegradable and porous to allow for tissue ingrowth and another of the at least two layers is substantially biodegradable; and an adhesion barrier in the form of a film, foam or gel, wherein the adhesion barrier is interconnected with the substantially biodegradable layer, wherein the substantially non-biodegradable layer defines a first outer surface of the prosthesis and the adhesion barrier defines a second outer surface of the prosthesis; and wherein the substantially biodegradable layer is positioned between the substantially non-biodegradable layer and the adhesion barrier. a three-dimensional mesh comprising at least two types of yarn interlooped or intertwined to define at least two layers, wherein one of the at least two layers is substantially non-biodegradable and porous to allow for tissue ingrowth and another of the at least two layers is substantially biodegradable; and an adhesion barrier in the form of a film, foam or gel, wherein the adhesion barrier is interconnected with the substantially biodegradable layer, wherein the substantially non-biodegradable layer defines a first outer surface of the prosthesis and the adhesion barrier defines a second outer surface of the prosthesis; and wherein the substantially biodegradable layer is positioned between the substantially non-biodegradable layer and the adhesion barrier.
A sensing system comprising: a sensitive optical fiber, having first and second termini, having a core, being configured as to be placeable in an environment which contains substances that chemiluminesce, phosphoresce, fluoresce, scatter or absorb light, and having at least one region in direct contact with the environment and acting as a sensitive region of the fiber, in which said sensitive optical fiber is optically affected by the environment, and wherein said sensitive region is sensitive without comprising any chemical indicator; at least one probing light source, configured to provide side illumination of the optical fiber, producing a probing light which interacts with a measurand medium in the environment of said sensitive region for generating therefrom a modified probing light as substantially aided by said measurand medium interacting with the environment and; which is substantially coupled into said core as an optical signal, wherein the sensing system further comprises; a detector optically coupled with said first terminus of said sensitive optical fiber for reception of the optical signal upon exiting said first terminus, for measuring an intensity of the optical signal over a given range of wavelengths and for correlating the intensity with an electric signal, and; a signal processor in data communication with said detector; whereby the electric signal is correlated to a quantity of the measurand being measured. a sensitive optical fiber, having first and second termini, having a core, being configured as to be placeable in an environment which contains substances that chemiluminesce, phosphoresce, fluoresce, scatter or absorb light, and having at least one region in direct contact with the environment and acting as a sensitive region of the fiber, in which said sensitive optical fiber is optically affected by the environment, and wherein said sensitive region is sensitive without comprising any chemical indicator; at least one probing light source, configured to provide side illumination of the optical fiber, producing a probing light which interacts with a measurand medium in the environment of said sensitive region for generating therefrom a modified probing light as substantially aided by said measurand medium interacting with the environment and; which is substantially coupled into said core as an optical signal, wherein the sensing system further comprises; a detector optically coupled with said first terminus of said sensitive optical fiber for reception of the optical signal upon exiting said first terminus, for measuring an intensity of the optical signal over a given range of wavelengths and for correlating the intensity with an electric signal, and; a signal processor in data communication with said detector; whereby the electric signal is correlated to a quantity of the measurand being measured.
An adjustable sharpener comprising a frame having an open sharpening slot, a pair of abrasive elements being mounted in said slot to form a generally V- shaped sharpening angle in said slot, at least one of said abrasive elements being mounted for pivotal movement, a rotatable rod being mounted on said frame, characterized in that a connecting rack assembly is mounted for axial movement on said frame and is connected between said rod and said at least one of said abrasive elements whereby rotation of said rod effects axial movement of said rack assembly to cause pivotal movement of said at least one of said abrasive elements with respect to the other of said abrasive elements to adjust said sharpening angle formed by said pair of abrasive elements. a frame having an open sharpening slot, a pair of abrasive elements being mounted in said slot to form a generally V- shaped sharpening angle in said slot, at least one of said abrasive elements being mounted for pivotal movement, a rotatable rod being mounted on said frame, characterized in that a connecting rack assembly is mounted for axial movement on said frame and is connected between said rod and said at least one of said abrasive elements whereby rotation of said rod effects axial movement of said rack assembly to cause pivotal movement of said at least one of said abrasive elements with respect to the other of said abrasive elements to adjust said sharpening angle formed by said pair of abrasive elements.
Moulded part formed from a material bond between a carrier, a moulded skin and an originally liquid foam which has been introduced into a cavity of the moulded part between the carrier and the moulded skin and foamed and also solidified by a chemical reaction, wherein along the outer edge of the moulded part a channel seal consisting of a plurality of channels arranged next to one another is present between the carrier and the moulded skin, wherein the individual channels of the channel seal run out in an arc in the direction of the cavity of the moulded part that is filled with the foam and end immediately in the cavity that is filled with foam, characterized in that each channel of the channel seal has an inlet opening which points counter to the direction of the foam which expands as a result of the foaming.