mhurhangee/ep-ind-claims huggingface dataset:
A biosensor comprising: a substrate; a gate electrode provided on the substrate; an insulating layer provided on the gate electrode; an n-type channel provided on the insulating layer; a first electrode layer forming a source electrode and a drain electrode on the n-type channel, respectively; a second electrode layer provided so as to surround the first electrode layer; a third electrode layer located on the substrate and formed of the same material as the first electrode layer; a fourth electrode layer provided so as to surround the third electrode layer, formed of the same material as the second electrode layer and providing a reference electrode; and a cover member having an inner periphery surrounding the n-type channel, said n-type channel being exposed between the source electrode and the drain electrode of the first electrode layer, and some areas of the reference electrode together, and forming a fluid channel provided such that a fluid can enter into a space between the n-type channel and the inner periphery and a space between the reference electrode and the inner periphery, wherein the source electrode and the drain electrode, which are the first electrode layer, are located outside the fluid channel, wherein the third and fourth electrode layers (200, 210) are spaced apart from the first and second electrode layers (170, 180) along a direction in which a fluid flows in the fluid channel. a substrate; a gate electrode provided on the substrate; an insulating layer provided on the gate electrode; an n-type channel provided on the insulating layer; a first electrode layer forming a source electrode and a drain electrode on the n-type channel, respectively; a second electrode layer provided so as to surround the first electrode layer; a third electrode layer located on the substrate and formed of the same material as the first electrode layer; a fourth electrode layer provided so as to surround the third electrode layer, formed of the same material as the second electrode layer and providing a reference electrode; and a cover member having an inner periphery surrounding the n-type channel, said n-type channel being exposed between the source electrode and the drain electrode of the first electrode layer, and some areas of the reference electrode together, and forming a fluid channel provided such that a fluid can enter into a space between the n-type channel and the inner periphery and a space between the reference electrode and the inner periphery, wherein the source electrode and the drain electrode, which are the first electrode layer, are located outside the fluid channel, wherein the third and fourth electrode layers (200, 210) are spaced apart from the first and second electrode layers (170, 180) along a direction in which a fluid flows in the fluid channel.
A warp knitted helical textile having a substantially uniform thickness, characterised by comprising: circumferential warp fibers defining a textile width from a textile inner diameter to a textile outer diameter; non-interlaced radially aligned weft fibers constructed and arranged to maintain constant textile thickness, the warp fibers and weft fibers not crimped together; and non-reinforcing binding yarns securing the warp fibers to the weft fibers, thereby forming the helical textile. circumferential warp fibers defining a textile width from a textile inner diameter to a textile outer diameter; non-interlaced radially aligned weft fibers constructed and arranged to maintain constant textile thickness, the warp fibers and weft fibers not crimped together; and non-reinforcing binding yarns securing the warp fibers to the weft fibers, thereby forming the helical textile.
An agricultural working machine having at least one first lighting device for road travel, which carries out at least the function of a low beam and/or a high beam, and at least one second lighting device which carries out the function of a working light, wherein the lighting devices (18, 20) are provided with light sources (34, 38, 40) for the production of light and at least a portion of the light is directed onto an area surrounding the working machine, wherein the second lighting device can be deployed in a first operational mode for road travel and in a second operational mode as working lighting, characterized in that switching into the first operational mode and/or the second operational mode is carried out automatically via a control device as a function of a position of the working machine.
Method for producing a structural unit which is to be soldered to at least one component by diffusion soldering and is formed independently of the component, comprising the steps: i. providing a substrate of the structural unit; ii. applying a paste, which comprises at least metal particles and solder particles different to the metal particles, onto at least one subregion of the substrate by means of a printing technique; iii. infiltrating the paste with solder in the absence of the component, so that the paste infiltrated with the solder forms a solder carrier layer, characterized in that - the solder is applied as at least one inherently rigid shaped part; and/or - adaptation of the surface topography of the paste is carried out by means of a stamp on the substrate. i. providing a substrate of the structural unit; ii. applying a paste, which comprises at least metal particles and solder particles different to the metal particles, onto at least one subregion of the substrate by means of a printing technique; iii. infiltrating the paste with solder in the absence of the component, so that the paste infiltrated with the solder forms a solder carrier layer, - the solder is applied as at least one inherently rigid shaped part; and/or - adaptation of the surface topography of the paste is carried out by means of a stamp on the substrate.
A motion blur modeling method for image de-blurring, comprising: obtaining image data taken by a camera (104, 204) of a subject; obtaining, from a source curve, velocity vector data (110, 214) for the subject at the time the image was taken, wherein the source curve is a locus of a plurality of points in an image plane that contribute their light energy to a particular point within a single pixel of the image, wherein at least one of the plurality of points has a trajectory that passes over another one of the plurality of points in the single pixel, and wherein each one of the plurality of points spends a respective amount of residence time within the single pixel; defining a convolution kernel (110, 218) based upon the velocity vector data; and applying the convolution kernel to the image data (110, 222) to produce a de-blurred set of image data (112, 226). obtaining image data taken by a camera (104, 204) of a subject; obtaining, from a source curve, velocity vector data (110, 214) for the subject at the time the image was taken, wherein the source curve is a locus of a plurality of points in an image plane that contribute their light energy to a particular point within a single pixel of the image, wherein at least one of the plurality of points has a trajectory that passes over another one of the plurality of points in the single pixel, and wherein each one of the plurality of points spends a respective amount of residence time within the single pixel; defining a convolution kernel (110, 218) based upon the velocity vector data; and applying the convolution kernel to the image data (110, 222) to produce a de-blurred set of image data (112, 226).
An ink set comprising: an aqueous inkjet ink composition; and a primer composition, wherein the aqueous inkjet ink composition contains a pigment, an alkali-soluble resin, a resin emulsion, a surfactant, a water-soluble solvent, and water, the resin emulsion contains a polyurethane resin emulsion and/or a polyolefin resin emulsion, the surfactant contains an alkyl sulfonate and/or a polyoxyethylene alkyl ether sulfate, the aqueous inkjet ink composition has a content of the alkyl sulfonate and/or the polyoxyethylene alkyl ether sulfate of 0.05% by mass or more and 0.5% by mass or less, and the primer composition contains an aggregation accelerator that accelerates aggregation of the aqueous inkjet ink composition. an aqueous inkjet ink composition; and a primer composition, wherein the aqueous inkjet ink composition contains a pigment, an alkali-soluble resin, a resin emulsion, a surfactant, a water-soluble solvent, and water, the resin emulsion contains a polyurethane resin emulsion and/or a polyolefin resin emulsion, the surfactant contains an alkyl sulfonate and/or a polyoxyethylene alkyl ether sulfate, the aqueous inkjet ink composition has a content of the alkyl sulfonate and/or the polyoxyethylene alkyl ether sulfate of 0.05% by mass or more and 0.5% by mass or less, and the primer composition contains an aggregation accelerator that accelerates aggregation of the aqueous inkjet ink composition.
An electronic apparatus comprising: acquisition means for acquiring a first number of zooming speeds, wherein the first number of zooming speeds are setting values respectively associated with a corresponding first number of operation degrees on an operation member for accepting a zooming operation for instructing zoom processing by a user, the first number of zooming speeds each being able to take one of N values; and display control means for performing control to display a first number of display items, each display item representing a respective one of the first number of zooming speeds acquired by the acquisition means by its height, width or displayed numerical value, each of the first number of display items being able to represent one of n zooming speeds, where n is smaller than N, wherein the height, width or displayed numerical value of a display item corresponding to a zooming speed associated with a particular operation degree on the operation member is based on the number of operation degrees on the operation member assigned a zooming speed different from the zooming speed assigned to the one-side adjacent operation degree. acquisition means for acquiring a first number of zooming speeds, wherein the first number of zooming speeds are setting values respectively associated with a corresponding first number of operation degrees on an operation member for accepting a zooming operation for instructing zoom processing by a user, the first number of zooming speeds each being able to take one of N values; and display control means for performing control to display a first number of display items, each display item representing a respective one of the first number of zooming speeds acquired by the acquisition means by its height, width or displayed numerical value, each of the first number of display items being able to represent one of n zooming speeds, where n is smaller than N, wherein the height, width or displayed numerical value of a display item corresponding to a zooming speed associated with a particular operation degree on the operation member is based on the number of operation degrees on the operation member assigned a zooming speed different from the zooming speed assigned to the one-side adjacent operation degree.
An aerosol dispenser head comprising a chassis and a spray-through cap, the chassis comprising an annular ring capable of attachment to an associated aerosol container; a platform attached to the annular ring by struts allowing the platform to rise and fall relative to the annular ring; a flexible spray channel rising vertically from the centre of the platform and being attached at its lower end to a valve stem of an associated aerosol can and its outer end being capable of allowing egress of the contents of the associated aerosol container; and the spray-through cap comprising means for attachment to the chassis or the associated aerosol can; an actuator button, pressure upon which causes downward pressure on the platform of the chassis and consequential downward pressure upon the valve stem attached to the lower end of the associated spray channel; and an aperture positioned to surround the outer end of the spray channel; characterised in that the chassis further comprises means for holding the flexible spray channel at a pre-selected angle of bend.
A method for producing UHT cream, comprising the steps of: - storing non-sterilized cream in a receiving tank, - preheating a flow of non-sterilized cream in a preheating heat exchanger, - transferring the flow of preheated cream from said preheating heat exchanger to an infuser via a first thermal stop pipe, - sterilizing the flow of preheated cream in said infuser, - transferring the flow of sterilized cream from the outlet of said infuser to a vacuum degasser via a second thermal stop pipe, - degassing the flow of sterilized cream in said vacuum degasser, - homogenizing the flow of sterilized and degassed cream from said vacuum degasser in a homogenizer, and - cooling the flow of sterilized, degassed and homogenized cream, wherein: - said step of transferring the flow of preheated cream from said preheating heat exchanger to the infuser via said first thermal stop pipe has a maximum duration of 5 seconds, - said step of transferring the flow of sterilized cream from said infuser to the vacuum degasser via the second thermal stop pipe has a maximum duration of 5 seconds, and - said step of homogenizing the flow of sterilized and degassed cream in the homogenizer is carried out at a temperature below 70°C. - storing non-sterilized cream in a receiving tank, - preheating a flow of non-sterilized cream in a preheating heat exchanger, - transferring the flow of preheated cream from said preheating heat exchanger to an infuser via a first thermal stop pipe, - sterilizing the flow of preheated cream in said infuser, - transferring the flow of sterilized cream from the outlet of said infuser to a vacuum degasser via a second thermal stop pipe, - degassing the flow of sterilized cream in said vacuum degasser, - homogenizing the flow of sterilized and degassed cream from said vacuum degasser in a homogenizer, and - cooling the flow of sterilized, degassed and homogenized cream, wherein: - said step of transferring the flow of preheated cream from said preheating heat exchanger to the infuser via said first thermal stop pipe has a maximum duration of 5 seconds, - said step of transferring the flow of sterilized cream from said infuser to the vacuum degasser via the second thermal stop pipe has a maximum duration of 5 seconds, and - said step of homogenizing the flow of sterilized and degassed cream in the homogenizer is carried out at a temperature below 70°C. - said step of transferring the flow of preheated cream from said preheating heat exchanger to the infuser via said first thermal stop pipe has a maximum duration of 5 seconds, - said step of transferring the flow of sterilized cream from said infuser to the vacuum degasser via the second thermal stop pipe has a maximum duration of 5 seconds, and - said step of homogenizing the flow of sterilized and degassed cream in the homogenizer is carried out at a temperature below 70°C.
Traffic light assistance system for a vehicle having a display device for the driver of the vehicle and a control device, the latter being embodied for generating at least one display element in dependence on traffic light phase information and vehicle information and for presenting the display element relative to a vehicle symbol on the display device, wherein the control device is embodied to generate a corresponding display on the display device and wherein the vehicle symbol serves as a reference point within the display, characterized in that the display element takes the form of an arrow of variable length and is arranged in front of the vehicle symbol in the driving direction, and in that the length of the arrow is dependent on the magnitude and/or the direction of the acceleration or deceleration of the vehicle.
A conductive particle, comprising: a spherical Ni core containing 5 mass% or more and 15 mass% or less of P; and a first plating layer covering a surface of the Ni core, wherein the first plating layer comprises a pure Ni plating layer or a Ni plating layer containing 4.0 mass% or less of P. a spherical Ni core containing 5 mass% or more and 15 mass% or less of P; and a first plating layer covering a surface of the Ni core, wherein the first plating layer comprises a pure Ni plating layer or a Ni plating layer containing 4.0 mass% or less of P.
A liquid formulation of a VEGF antagonist, comprising 10 mM histidine, 50 mM NaCl, 5-20% sucrose, and 50-100 mg/ml of a fusion protein having a receptor component consisting of an immunoglobulin-like (Ig) domain 2 of a first VEGF receptor and Ig domain 3 of a second VEGF receptor, and a multimerizing component, at a pH of 6.0- 6.5, where the first VEGF receptor is Flt1 and the second VEGF receptor is Flk1 or Flt4, further comprising 0.1 % polysorbate 20 or 3% PEG 3350.
Device for fastening/stabilising a ridge batten, comprising fastening tabs (4, 4') which can be fastened to two fastening surfaces of a roof substructure (6, 6', 16) positioned at an angle to one another that is predetermined by the roof pitch and which are hingedly interconnected about an axis that extends in parallel with the extension direction of the ridge batten, characterised by a stabilising element which is carried by two supporting limbs (7, 7') hingedly fastened to the fastening tabs (4, 4') and is intended for supportingly engaging a carrying element carrying the ridge batten in a direction transverse to the extension direction of the ridge batten.
A modular display system (300, 500), comprising: a center modular display (102, 102-1, 102-2), wherein the center modular display is bezel free on a left side and a right side; and a first curved modular display and a second curved modular display, wherein the first curved modular display and the second curved modular display each comprise a single bezel free side and each comprise a display area that is less than, or equal to, a display area of the center modular display, wherein the single bezel free side of the first curved modular display is the right side, and wherein the first curved modular display is in communication with the left side of the center modular display, and wherein the single bezel free side of the second curved modular display is the left side, and wherein the second curved modular display is in communication with the right side of the center modular display, and wherein the center modular display and the first curved modular display and the second curved modular display are removably coupled to one another and appear as a single display to a computing device, wherein the second curved modular display is identical to the first curved modular display and is rotated 180 degrees around an axis perpendicular to the plane of the center modular display. a center modular display (102, 102-1, 102-2), wherein the center modular display is bezel free on a left side and a right side; and a first curved modular display and a second curved modular display, wherein the first curved modular display and the second curved modular display each comprise a single bezel free side and each comprise a display area that is less than, or equal to, a display area of the center modular display, wherein the single bezel free side of the first curved modular display is the right side, and wherein the first curved modular display is in communication with the left side of the center modular display, and wherein the single bezel free side of the second curved modular display is the left side, and wherein the second curved modular display is in communication with the right side of the center modular display, and wherein the center modular display and the first curved modular display and the second curved modular display are removably coupled to one another and appear as a single display to a computing device,
An electronic device (101, 801) comprising: a housing; a sensor configured to detect an inclination of the electronic device; a speaker configured to output a sound signal; an enclosure surrounding the speaker and including a pipe passage (325, 335), through which the sound signal moves in a direction to an opening formed in the housing; a heat emitting structure mounted on an inner surface or an outer surface of the enclosure; a sealing member attached to the pipe passage (325, 335); and a processor (820, 910) physically or electrically connected to the heat emitting structure and configured to control emission of heat; characterized in that, the processor is further configured to generate heat through the heat emitting structure when it is determined that the inclination of the electronic device is less than or equal to a specific value. a housing; a sensor configured to detect an inclination of the electronic device; a speaker configured to output a sound signal; an enclosure surrounding the speaker and including a pipe passage (325, 335), through which the sound signal moves in a direction to an opening formed in the housing; a heat emitting structure mounted on an inner surface or an outer surface of the enclosure; a sealing member attached to the pipe passage (325, 335); and a processor (820, 910) physically or electrically connected to the heat emitting structure and configured to control emission of heat; characterized in that, the processor is further configured to generate heat through the heat emitting structure when it is determined that the inclination of the electronic device is less than or equal to a specific value.
Woven fabric, particularly a warp faced fabric, such as a denim fabric, comprising: a front and a back, a plurality of picks extending in weft direction and a plurality of warp yarns (4, 5) extending in warp direction and bypassing picks at their front side to define over portions (43, 53) and bypassing picks at their back side to define under portions (41, 51), wherein said plurality of warp yarns (4, 5) comprise frontside warp yarns and backside warp yarns, said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns, wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between over portions between which said loose loop under portion extend, characterized in that at least one of the plurality of backside warp yarns is thinner than at least one of the plurality of frontside warp yarns. a front and a back, a plurality of picks extending in weft direction and a plurality of warp yarns (4, 5) extending in warp direction and bypassing picks at their front side to define over portions (43, 53) and bypassing picks at their back side to define under portions (41, 51), wherein said plurality of warp yarns (4, 5) comprise frontside warp yarns and backside warp yarns, said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns, wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between over portions between which said loose loop under portion extend, characterized in that at least one of the plurality of backside warp yarns is thinner than at least one of the plurality of frontside warp yarns.