mhurhangee/ep-ind-claims huggingface dataset:
A dialysate-extracting apparatus (A, B) comprising: a dialysate-extracting device (1, 13, 21) having an introduction port (1a, 13a, 21a) and a discharge port (1b, 13b, 21b) each of which is connected to a flow route for liquid and allows the liquid to flow therethrough, and a collecting port (1c, 13c, 21c) from which the liquid flowing in the flow route is collectable; characterized in that the dialysate-extracting apparatus (A, B) further comprises: an opening-and-closing device (6, 14) that is movable between a closing position where the opening-and-closing device (6, 14) covers the collecting port (1c, 13c, 21c) of the dialysate-extracting device (1, 13, 21) and an opening position where the opening-and-closing device (6, 14) opens the collecting port (1c, 13c, 21c), and an ultraviolet-applying device (7, 16) attached to the opening-and-closing device (6, 14) and that is capable of applying ultraviolet rays to the collecting port (1c, 13c, 21c) when the opening-and-closing device (6, 14) is at the closing position. a dialysate-extracting device (1, 13, 21) having an introduction port (1a, 13a, 21a) and a discharge port (1b, 13b, 21b) each of which is connected to a flow route for liquid and allows the liquid to flow therethrough, and a collecting port (1c, 13c, 21c) from which the liquid flowing in the flow route is collectable; characterized in that the dialysate-extracting apparatus (A, B) further comprises: an opening-and-closing device (6, 14) that is movable between a closing position where the opening-and-closing device (6, 14) covers the collecting port (1c, 13c, 21c) of the dialysate-extracting device (1, 13, 21) and an opening position where the opening-and-closing device (6, 14) opens the collecting port (1c, 13c, 21c), and an ultraviolet-applying device (7, 16) attached to the opening-and-closing device (6, 14) and that is capable of applying ultraviolet rays to the collecting port (1c, 13c, 21c) when the opening-and-closing device (6, 14) is at the closing position. an opening-and-closing device (6, 14) that is movable between a closing position where the opening-and-closing device (6, 14) covers the collecting port (1c, 13c, 21c) of the dialysate-extracting device (1, 13, 21) and an opening position where the opening-and-closing device (6, 14) opens the collecting port (1c, 13c, 21c), and an ultraviolet-applying device (7, 16) attached to the opening-and-closing device (6, 14) and that is capable of applying ultraviolet rays to the collecting port (1c, 13c, 21c) when the opening-and-closing device (6, 14) is at the closing position.
A fuel cell stack comprising: cell units stacked on one another and each including a membrane electrode assembly and two separators (40, 41) defining gas passages on both sides of the membrane electrode assembly; a cooling fluid passage for flowing a cooling fluid provided between the separators (40, 41) of each adjacent two of the cell units; and a displacement absorber provided in the cooling fluid passage, characterized in that the displacement absorber comprises elastic protrusions provided in an array and configured to elastically absorb a displacement of the cell units in a stack direction, and flow-spread preventing protrusions provided in an array and configured to prevent the cooling fluid from flowing out of an active area. cell units stacked on one another and each including a membrane electrode assembly and two separators (40, 41) defining gas passages on both sides of the membrane electrode assembly; a cooling fluid passage for flowing a cooling fluid provided between the separators (40, 41) of each adjacent two of the cell units; and a displacement absorber provided in the cooling fluid passage, characterized in that the displacement absorber comprises elastic protrusions provided in an array and configured to elastically absorb a displacement of the cell units in a stack direction, and flow-spread preventing protrusions provided in an array and configured to prevent the cooling fluid from flowing out of an active area.
A method for operating a drinking water installation comprising - a warm water line with at least one branch line and - a control device with - a temperature sensor for determining the water temperature in the warm water line, - an energy converter for converting thermal energy or kinetic energy into electrical energy, - a controllable valve and - a communication device, the method comprising - measuring the water temperature by means of the temperature sensor and - wirelessly transmitting it by means of the communication device to an electronic data processing device, - transmitting a control signal to the communication device of the control device, - controlling the controllable valve depending on the transmitted control signal, the electrical energy required for the temperature sensor and the communication device being generated by the energy converter, characterised in that the communication device comprises a LoRa interface and the control device an electrical energy store. - a warm water line with at least one branch line and - a control device with - a temperature sensor for determining the water temperature in the warm water line, - an energy converter for converting thermal energy or kinetic energy into electrical energy, - a controllable valve and - a communication device, - a temperature sensor for determining the water temperature in the warm water line, - an energy converter for converting thermal energy or kinetic energy into electrical energy, - a controllable valve and - a communication device, the method comprising - measuring the water temperature by means of the temperature sensor and - wirelessly transmitting it by means of the communication device to an electronic data processing device, - transmitting a control signal to the communication device of the control device, - controlling the controllable valve depending on the transmitted control signal, - measuring the water temperature by means of the temperature sensor and - wirelessly transmitting it by means of the communication device to an electronic data processing device, - transmitting a control signal to the communication device of the control device, - controlling the controllable valve depending on the transmitted control signal, the electrical energy required for the temperature sensor and the communication device being generated by the energy converter, characterised in that the communication device comprises a LoRa interface and the control device an electrical energy store.
Method for arranging a slope in a self-levelling cast floor, the method comprising the steps of: - providing a mould with a shaped surface corresponding to the slope; - pouring the self-levelling cast floor on a base surface; - arranging the mould with the shaped surface at a distance from the base surface before or after pouring of the cast floor; and - removing the mould after curing of the cast floor wherein the mould is provided with a coupling piece for coupling to a draining opening, such as a siphon, arranged on the base surface. - providing a mould with a shaped surface corresponding to the slope; - pouring the self-levelling cast floor on a base surface; - arranging the mould with the shaped surface at a distance from the base surface before or after pouring of the cast floor; and - removing the mould after curing of the cast floor
Line connector (1, 1 b) having two separate flow paths for connecting a pipe-in-pipe line to a first line, in particular for a functional medium, and to a second line, in particular for a temperature-control medium, comprising an inner connecting element for connecting an inner pipe of the pipe-in-pipe line, an outer connecting element for connecting an outer pipe of the pipe-in-pipe line, a first attachment element for attaching the first line to the flow path of the inner pipe and a second attachment element for attaching the second line to the flow path of the outer pipe, wherein the outer connecting element is formed in one piece on a separate pipe-adapter part (7, 7b) and the second attachment element is formed in one piece on a separate connecting sleeve (9, 9b), characterized in that the inner connecting element and the first attachment element are formed in one piece on a separate attachment part (5, 5b), wherein the connecting sleeve (9, 9b), in the fitted state, connects the attachment part (5, 5b) and the pipe-adapter part (7, 7b) to one another, and wherein the connecting sleeve (9, 9b), in the non-fitted state, is designed such that it can be displaced over the outer pipe on both sides and, by way of its end which is directed towards the attachment part (5, 5b), can be displaced over the pipe-adapter part (7, 7b), and onto the attachment part (5, 5b), on one side.
An absorbent article comprising: an aqueous-liquid absorbing part that contains crosslinked polymer particles comprising, as essential constitutional units, a water-soluble vinyl monomer and/or a vinyl monomer that turns into a water-soluble vinyl monomer through hydrolysis, and a crosslinking agent; and a nonwoven fabric comprising, as an essential constituent, porous fibers, wherein the porous fibers are formed of an acrylonitrile-based polymer. an aqueous-liquid absorbing part that contains crosslinked polymer particles comprising, as essential constitutional units, a water-soluble vinyl monomer and/or a vinyl monomer that turns into a water-soluble vinyl monomer through hydrolysis, and a crosslinking agent; and a nonwoven fabric comprising, as an essential constituent, porous fibers, wherein the porous fibers are formed of an acrylonitrile-based polymer.
An instrument module with a coupling element assembly comprising at least one coupling element for a detachable coupling of a counter element of a counter element assembly for actuating an end effector of a surgical instrument, wherein the coupling element assembly and the counter element assembly can be coupled to each other in at least two different orientations, characterized by an angle sensor for detecting an angular position of the coupled counter element assembly, in particular in a non-contact manner.
A battery protection process apparatus to perform a process to protect a secondary battery against anomaly occurrence, the apparatus comprising: discharge current cutoff means for selectively cutting off a discharge current in the secondary battery; charge current cutoff means for selectively cutting off a charge current in the secondary battery; protection process means for controlling operations of the discharge current cutoff means and the charge current cutoff means at least in accordance with an inter-electrode voltage between positive and negative electrodes of the secondary battery; and startup-enabling voltage detection means for generating a detection signal when a power supply voltage supplied to the protection process means reaches a lowest voltage to start the protection process means, wherein the protection process means performs an initialization process in accordance with detection of a detection signal from the startup-enabling voltage detection means. discharge current cutoff means for selectively cutting off a discharge current in the secondary battery; charge current cutoff means for selectively cutting off a charge current in the secondary battery; protection process means for controlling operations of the discharge current cutoff means and the charge current cutoff means at least in accordance with an inter-electrode voltage between positive and negative electrodes of the secondary battery; and startup-enabling voltage detection means for generating a detection signal when a power supply voltage supplied to the protection process means reaches a lowest voltage to start the protection process means, wherein the protection process means performs an initialization process in accordance with detection of a detection signal from the startup-enabling voltage detection means.
A method comprising: detecting a finger pattern associated with a physical interaction of a user with a touch screen of an electronic device; acquiring sensory input associated with the user other than a characteristic of the physical interaction of the user with the touch screen, the acquired sensory input comprising sensory data indicating whether the user of the electronic device is recognized and whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen; determining whether the physical interaction is associated with an intent to use the touch screen for key-based input entry based at least in part on the sensory input, wherein determining whether the physical interaction is associated with the intent to use the touch screen for key-based input entry comprises processing the sensory input to: identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and controlling a user interface for the electronic device based at least in part on the detected finger pattern and the determined intent. detecting a finger pattern associated with a physical interaction of a user with a touch screen of an electronic device; acquiring sensory input associated with the user other than a characteristic of the physical interaction of the user with the touch screen, the acquired sensory input comprising sensory data indicating whether the user of the electronic device is recognized and whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen; determining whether the physical interaction is associated with an intent to use the touch screen for key-based input entry based at least in part on the sensory input, wherein determining whether the physical interaction is associated with the intent to use the touch screen for key-based input entry comprises processing the sensory input to: identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and identify the user; determine whether the position and orientation of the electronic device is consistent with the user interacting with the touch screen at least by filtering the sensory input based on contact time of the physical interaction; time; and determine whether the user is authenticated based on the identification of the user; and controlling a user interface for the electronic device based at least in part on the detected finger pattern and the determined intent.
Autonomous implement, particularly an autonomous lawnmower, having at least one computation unit that is provided for the purpose of traveling along an area that is to be treated, wherein the computation unit is, in an initial step, provided for the purpose of initiating travel along an outer border of the area that is to be treated and storing, at least to some extent, a sequence of at least punctual border signatures therefrom, characterized in that the computation unit is provided for the purpose of initiating relocation at least to some extent automatically following a loss of information for the current position, in particular as a result of an unknown change of position and/or a locating error, wherein the computation unit is, in a step of relocation, provided for the purpose of initiating travel at least to some extent along the at least one sensing element (20, 22) that bounds the area that is to be treated and comparing a sequence of at least punctual border signatures that arises therefrom with a stored sequence.
Method for the biologically and ecologically compatible conversion of CO 2 into carbon and oxygen, in that a mechanism for generating energy or energy carriers and/or a chemical production mechanism is/are integrated in a greenhouse for biomass in such a way that the biomass generated in the greenhouse by the energy or energy carrier generating mechanism and/or the chemical production mechanism and the CO 2 quantity generated in the mechanism and/or the resulting heat quantity remain in an at least partially closed materials and CO 2 cycle in the greenhouse, characterized in that a static tower-like central element, via which an automatic, thermally driven air circulation takes place inside the greenhouse, is arranged inside the greenhouse, which is built for height.
Method for the production of zirconium titanates, wherein zirconium compounds are reacted with titanium dioxide particles having a BET surface area of more than 200 m 2 /g, wherein either a) the titanium dioxide particles are dry milled with zirconium oxide and/or zirconium hydroxide and subsequently calcined or partially calcined, or b) the titanium dioxide particles are suspended in a zirconium-containing solution or together with a water-soluble zirconium salt in water, the suspension is then neutralized, dried and then calcined. a) the titanium dioxide particles are dry milled with zirconium oxide and/or zirconium hydroxide and subsequently calcined or partially calcined, or b) the titanium dioxide particles are suspended in a zirconium-containing solution or together with a water-soluble zirconium salt in water, the suspension is then neutralized, dried and then calcined.
An electrode assembly (A; 80) comprising a first electrode (10; 11), a second electrode (10; 11), and a separator interposed therebetween, wherein the first electrode (10; 11), the second electrode (10; 11) and the separator are wound around a winding axis, wherein the first electrode (10; 11) includes a first active material portion coated with an active material and a first uncoated portion (43; 146a) free of an active material layer, the first uncoated portion (43; 146a) being at an edge of the first electrode (10; 11) along a winding direction of the electrode assembly (A; 80), wherein the first uncoated portion (43; 146a) is configured to provide an electrical connection to the first electrode (10; 11), wherein the first uncoated portion (43; 146a) includes a first portion including an innermost winding turn, a second portion including an outermost winding turn and a third portion interposed between the first portion and the second portion, wherein a height the second portion is smaller than a height of the third portion, the heights being determined in a winding axis direction parallel to the winding axis. wherein the first electrode (10; 11), the second electrode (10; 11) and the separator are wound around a winding axis, wherein the first electrode (10; 11) includes a first active material portion coated with an active material and a first uncoated portion (43; 146a) free of an active material layer, the first uncoated portion (43; 146a) being at an edge of the first electrode (10; 11) along a winding direction of the electrode assembly (A; 80), wherein the first uncoated portion (43; 146a) is configured to provide an electrical connection to the first electrode (10; 11), wherein the first uncoated portion (43; 146a) includes a first portion including an innermost winding turn, a second portion including an outermost winding turn and a third portion interposed between the first portion and the second portion, wherein a height the second portion is smaller than a height of the third portion, the heights being determined in a winding axis direction parallel to the winding axis.
Method for displaying a road course in front of a vehicle, wherein a current speed of the vehicle is determined, wherein points of a vehicle environment in front of the vehicle are determined, and wherein an optical flow of these points is determined taking into account the current vehicle speed, characterized in that symbols (20, 21, 22) for representing the optical flow for representing the road course are displayed in a head-up display, in that a viewing direction of the driver is determined, and in that the symbols (20, 21, 22) are displayed in the head-up display in such a manner that a displayed symbol covers or touches a point on which the symbol is based from the point of view of the driver.
Use of a mat member as a holding and sealing member in an exhaust gas treatment apparatus, wherein the mat member comprises: a base member including inorganic fibers and having first and second main surfaces (210, 260); and a sheet member (310,360) disposed on at least one of the first and the second main surfaces (210, 260), wherein the sheet member (310, 360) includes openings and a framework part, which is a part other than the openings of the sheet member (310, 360), said framework part includes at least a first line part and a second line part, wherein the first line part includes plural straight lines extended substantially in a first direction and arranged at a substantially regular interval; and the second line part includes plural straight lines extended substantially in a second direction and arranged at a substantially regular interval, wherein the sheet member (310, 360) includes any one of polyethylene, polypropylene, and polyethylene terephthalate. a base member including inorganic fibers and having first and second main surfaces (210, 260); and a sheet member (310,360) disposed on at least one of the first and the second main surfaces (210, 260), wherein the sheet member (310, 360) includes openings and a framework part, which is a part other than the openings of the sheet member (310, 360), said framework part includes at least a first line part and a second line part, wherein the first line part includes plural straight lines extended substantially in a first direction and arranged at a substantially regular interval; and the second line part includes plural straight lines extended substantially in a second direction and arranged at a substantially regular interval, wherein the sheet member (310, 360) includes any one of polyethylene, polypropylene, and polyethylene terephthalate.