mhurhangee/patent-ind-claim-en huggingface dataset:
- Wall-mounted sanitary equipment , comprising a support supporting: - water supply means; - a tap support means, configured to receive a tap carrying a rotatable dispensing head , said tap support means being configured to sealingly connect the tap to the water supply means; - a means of collecting wastewater; and - a platform having a bottom and a peripheral edge surrounding at least part of the bottom so that the platform is configured to form a basin under the dispensing head of the tap , the wastewater collection means comprising a funnel having an upper collection opening for collecting wastewater from the platform , the funnel further comprising a lower discharge end sealingly connected to a wastewater receiving means, the bottom of the platform being pivotally mounted between two positions, a first position said storage, wherein said platform is folded in a vertical position, and a second position, said use, wherein said platform is held horizontally by a stop means to serve as a basin that guides the water distributed by the tap to the wastewater collection means, the bottom of the platform extending, in the position of use, overhanging above the collection opening of the funnel , the peripheral edge of the bottom overhanging above the collection opening of the funnel having at least one opening to allow the wastewater from the platform to pass to the funnel , the wall-mounted sanitary equipment further comprising a filtering means disposed on a filter support and configured to filter the wastewater before passing to the means for receiving the wastewater, the funnel comprising at least one opening configured to allow passage of the water supplying means in a sealed manner therethrough, characterized in that the filter support means comprises at least one opening configured to allow passage of the water supply means therethrough. - water supply means; - a tap support means, configured to receive a tap carrying a rotatable dispensing head , said tap support means being configured to sealingly connect the tap to the water supply means; - a means of collecting wastewater; and - a platform having a bottom and a peripheral edge surrounding at least part of the bottom so that the platform is configured to form a basin under the dispensing head of the tap ,
Metallic body comprising a channel arrangement for controlling the temperature of the injection mold or casting mold formed by the metallic body, in which at least one channel, which is flown-through by a fluid, is arranged in a temperature-controlled section of the metallic body, wherein the channel comprises, between a fluid inlet region and a fluid outlet region, a multitude of branch channels of reduced cross-section, connected in parallel and generated therein during a generative SLS building process of the body, which branch channels extend behind a shaping surface to be temperature-controlled or to a cooling/heating surface of the body, wherein the branch channels open from an main inlet channel into a collecting outlet channel , and wherein the cross-sections of the main inlet channel and the collecting outlet channel are considerably larger than the cross-section of the branch channels , characterized in that multiple branch channels are, multiple times, cross-connected between their inlet/outlet mouth from the main inlet channel or into the collecting outlet channel , and multiple branch channels form a planar network of branch channels , which extends equidistantly to the shaping surface to be cooled or the cooling/heating surface, the flow resistance in the network of branch channels transversely to the main flow direction is smaller than in the main flow direction , and wherein, in a curved or convex shaping surface, the planar structure of the branch channels extends in a curved or convex manner in parallel to the correspondingly-curved or convex shaping surface of the body.
Process for preparing hydroxyethylethyleneamines, ethyleneamines, or mixtures thereof, and/or ethylene urea derivatives thereof comprising the step of reacting diethanolamine with an amine-functional compound comprising at least two -NH- units of which at least one is selected from the group of primary amine groups and cyclic secondary amine groups, the amine-functional compound comprising at least one - NH-CH2-CH2-NH- unit wherein one or more -NH-CH2-CH2-NH- units in the amine-functional compound may be present in the form of cyclic ethylene urea moieties, piperazine moieties, or linear ethylene urea moieties, in the presence of a carbon oxide delivering agent, wherein - the molar ratio of amine-functional compound to diethanolamine is at least 0.2:1, and - the molar ratio of carbon oxide delivering agent to -NH-CH2-CH2-NH- units in the amine-functional compound is at least 0.1:1,. wherein the amine-functional compound comprises ethylenediamine (EDA), ethylene urea (EU), or a mixture thereof, and the reaction product comprises tetraethylenepentamine (TEPA) of the formula H2N-(CH2-CH2-NH-)p-H wherein p is 4, wherein one or more -NH-CH2-CH2-NH- units may be present as cyclic ethylene urea units and/or piperazine units, wherein one or more ethyleneamines can be connected to each other via a linear ethylene urea structure, or the amine-functional compound comprises diethylenetriamine (DETA), the urea adduct thereof (UDETA), or a mixture thereof, and the reaction product comprises hexaethyleneheptamine (HEHA) of the formula H2N-(CH2-CH2-NH-)p-H wherein p is 6, wherein one or more -NH-CH2-CH2-NH- units may be present as a cyclic ethylene urea units and/or or piperazine units wherein one or more ethyleneamines can be connected to each other via a linear ethylene urea structure, or wherein the amine-functional compound comprises piperazine (PIP) and the reaction product comprises hydroxyethyleneaminoethylpiperazine (HEAEPIP) and/or piperazinoethylaminoethylpiperazine (PEAEP). - the molar ratio of amine-functional compound to diethanolamine is at least 0.2:1, and - the molar ratio of carbon oxide delivering agent to -NH-CH2-CH2-NH- units in the amine-functional compound is at least 0.1:1,.
A method of producing fish roe paste from which foreign substances are removed, the method comprising: image pickup processing of irradiating fish roe paste with visible light or an ultraviolet ray through at least two areas to be imaged that are formed across a full width of a flow passage for conveying the fish roe paste, and picking up an image of the fish roe paste passing by the at least two areas to be imaged; inspection processing of determining presence or absence of foreign substances that fluoresce by the visible light or the ultraviolet ray based on the image picked up in the image pickup processing; and removal processing of removing from the fish roe paste a portion determined to contain the foreign substances in the inspection processing, wherein the at least two areas to be imaged are arranged so as to sandwich the flow passage therebetween. image pickup processing of irradiating fish roe paste with visible light or an ultraviolet ray through at least two areas to be imaged that are formed across a full width of a flow passage for conveying the fish roe paste, and picking up an image of the fish roe paste passing by the at least two areas to be imaged; inspection processing of determining presence or absence of foreign substances that fluoresce by the visible light or the ultraviolet ray based on the image picked up in the image pickup processing; and removal processing of removing from the fish roe paste a portion determined to contain the foreign substances in the inspection processing, wherein the at least two areas to be imaged are arranged so as to sandwich the flow passage therebetween.
A computer-implemented method of determining sewing lines for sewing pattern pieces combined to form a garment, comprising: receiving placement information of at least a subset of pattern pieces , the placement information indicating at least matching relationships between at least the subset of the pattern pieces and placement points of an avatar onto which the garment is draped; generating a graph comprising nodes and segments , the nodes located on outlines of the pattern pieces , each of the segments indicating a directed connection between adjacent ones of the nodes ; and determining matching edges of at least the subset of the pattern pieces identified by the placement information as the sewing lines for at least the subset of the pattern pieces using the graph that comprises the nodes and the segments , an edge representing an area in one of the pattern pieces to be sewn with another one of the pattern pieces and including at least one of the segments , the method being characterized in that the matching edges included in a candidate edge set are matched based on a matching cost of edge pairs that match each other in response to areas sewn together in the pattern piece. receiving placement information of at least a subset of pattern pieces , the placement information indicating at least matching relationships between at least the subset of the pattern pieces and placement points of an avatar onto which the garment is draped; generating a graph comprising nodes and segments , the nodes located on outlines of the pattern pieces , each of the segments indicating a directed connection between adjacent ones of the nodes ; and determining matching edges of at least the subset of the pattern pieces identified by the placement information as the sewing lines for at least the subset of the pattern pieces using the graph that comprises the nodes and the segments , an edge representing an area in one of the pattern pieces to be sewn with another one of the pattern pieces and including at least one of the segments , the method being characterized in that the matching edges included in a candidate edge set are matched based on a matching cost of edge pairs that match each other in response to areas sewn together in the pattern piece.
A drawing and erasing apparatus comprising: a light source section that includes a plurality of laser elements different from each other in emission wavelength; a multiplexer that multiplexes a plurality of types of laser light beams outputted from the plurality of laser elements; a scanner section that performs scanning with multiplexed light outputted from the multiplexer on a reversible recording medium including a plurality of recording layers , the plurality of recording layers being reversible and different from each other in developed color hue; and characterized by a controller that controls a main scanning speed and a sub-scanning speed of the scanner section to cause the scanner section to perform overlapping scanning of a predetermined region on the reversible recording medium during erasure of information written on the reversible recording medium. a light source section that includes a plurality of laser elements different from each other in emission wavelength; a multiplexer that multiplexes a plurality of types of laser light beams outputted from the plurality of laser elements; a scanner section that performs scanning with multiplexed light outputted from the multiplexer on a reversible recording medium including a plurality of recording layers , the plurality of recording layers being reversible and different from each other in developed color hue; and characterized by a controller that controls a main scanning speed and a sub-scanning speed of the scanner section to cause the scanner section to perform overlapping scanning of a predetermined region on the reversible recording medium during erasure of information written on the reversible recording medium.
A method in a 3GPP system of transmitting hybrid automatic repeat/request, HARQ, data in continuous packet connectivity, CPC, mode, comprising: transmitting data to a network according to a discontinuous transmit, DTX, cycle in a CPC mode; exiting the CPC mode based at least in part on detecting available HARQ data scheduled for transmission according to a HARQ configuration that indicates one or more transmission opportunities for transmitting HARQ data independent of the DTX cycle; determining a next transmission opportunity of the one or more transmission opportunities configured for transmitting the available HARQ data, where the next transmission opportunity is not within a transmission time instance defined by the DTX cycle; and transmitting the available HARQ data during the next transmission opportunity outside of the CPC mode. transmitting data to a network according to a discontinuous transmit, DTX, cycle in a CPC mode; exiting the CPC mode based at least in part on detecting available HARQ data scheduled for transmission according to a HARQ configuration that indicates one or more transmission opportunities for transmitting HARQ data independent of the DTX cycle; determining a next transmission opportunity of the one or more transmission opportunities configured for transmitting the available HARQ data, where the next transmission opportunity is not within a transmission time instance defined by the DTX cycle; and transmitting the available HARQ data during the next transmission opportunity outside of the CPC mode.
Pressure operated shut off valve for a vehicle fluid distribution system comprising at least one valve housing , a valve chamber enclosed by the valve housing , at least a first fluid entry port , at least a first fluid exit port , at least a first fluid inlet duct opening into the valve chamber , at least a first fluid outlet duct opening into the valve chamber , at least a first valve body slidably arranged in the valve chamber , the valve body being held closed against a valve seat and being operable by the fluid pressure provided in the inlet duct and acting on the valve body thus lifting the valve body from the valve seat , wherein the valve body is a resilient diaphragm , and wherein a selector mechanism comprising a mechanical stop selectively blocking or unblocking the valve body upon actuation is provided, characterised in that the selector mechanism comprises a control cam serving as the mechanical stop, wherein the selector mechanism is rotably or slidably arranged in the valve housing or at the valve housing and thereby selectively blocking and unblocking the valve body depending on the position of the selector mechanism, and wherein the diaphragm has a cam follower on the side facing towards the inside of the valve chamber .
A lacrimal system for drug delivery, comprising: a) a reservoir balloon having an exit port ; b) a tube comprising at least one lumen fluidly coupled to said exit port ; c) an endcap comprising a port fluidly coupled to said tube ; characterized by d) a flow-limiting plug , the flow-limiting plug residing within the lumen of said tube , wherein said flow-limiting plug comprises at least one of a hydrogel, a wicking material, nano-spheres, microspheres, a filter membrane, a porous material, a porous membrane and a material with grooves. a) a reservoir balloon having an exit port ; b) a tube comprising at least one lumen fluidly coupled to said exit port ; c) an endcap comprising a port fluidly coupled to said tube ; characterized by d) a flow-limiting plug , the flow-limiting plug residing within the lumen of said tube , wherein said flow-limiting plug comprises at least one of a hydrogel, a wicking material, nano-spheres, microspheres, a filter membrane, a porous material, a porous membrane and a material with grooves.
A process for preparing an emulsion comprising steps of: (a) filtering a surfactant through a filter having a pore size between 5-50 μm, to provide purified surfactant; and (b) combining the purified surfactant with an oil component to provide the emulsion; wherein the surfactant is a non-ionic polymeric ether surfactant.
A lens barrel of a medical observation device comprising: an imaging optical system configured to capture an image of a subject; an image sensor configured to photoelectrically convert the image of the subject captured by the imaging optical system; and an element holding frame configured to hold a plurality of optical elements and to be capable of being rotated around a rotation shaft, wherein an axial direction of the rotation shaft is set to a direction orthogonal to an optical axis direction that is a direction of a line from the imaging optical system to the image sensor, and the element holding frame is rotated and thus at least one of the optical elements among the plurality of optical elements is positioned on an optical axis, wherein the imaging optical system is provided as a binocular optical system, and a light shielding wall is provided between two optical axes in the element holding frame, wherein a support housing in which the element holding frame is supported to be freely rotatable is provided, a stopper-receiving part is provided in the element holding frame, and a stopper part of the support housing is configured to hold the element holding frame at a rotation end in contact with the stopper-receiving part, wherein an urging spring configured to press the stopper-receiving part toward the stopper part is provided, wherein a manipulation lever configured to be manipulated to cause the element holding frame to rotate is provided, and an urging force of the urging spring is applied to the element holding frame via the manipulation lever. an imaging optical system configured to capture an image of a subject; an image sensor configured to photoelectrically convert the image of the subject captured by the imaging optical system; and an element holding frame configured to hold a plurality of optical elements and to be capable of being rotated around a rotation shaft, wherein an axial direction of the rotation shaft is set to a direction orthogonal to an optical axis direction that is a direction of a line from the imaging optical system to the image sensor, and the element holding frame is rotated and thus at least one of the optical elements among the plurality of optical elements is positioned on an optical axis, wherein the imaging optical system is provided as a binocular optical system, and a light shielding wall is provided between two optical axes in the element holding frame, wherein a support housing in which the element holding frame is supported to be freely rotatable is provided, a stopper-receiving part is provided in the element holding frame, and a stopper part of the support housing is configured to hold the element holding frame at a rotation end in contact with the stopper-receiving part, wherein an urging spring configured to press the stopper-receiving part toward the stopper part is provided, wherein a manipulation lever configured to be manipulated to cause the element holding frame to rotate is provided, and an urging force of the urging spring is applied to the element holding frame via the manipulation lever.
A spectral confocal measurement device , comprising: a light source portion , configured to emit a broad-spectrum light beam with a certain wavelength range in a first predetermined path; an optical sampling portion , configured to converge the broad-spectrum light beam emitted from the light source portion on different measurement surfaces of an object to be measured, and output a reflected light in a second predetermined path that is different from a reverse direction of the first predetermined path; and a measurement portion , configured to receive and process the reflected light from the optical sampling portion to obtain a measurement result; wherein the light source portion comprises a light source and a light source controller connected to the light source and the optical sampling portion comprises a light-incident hole , a dispersive objective lens group and a light-outgoing hole the light source is a line light source, under controls of the light source controller , the broad-spectrum light beam of the line light source is emitted through the light-incident hole and then into a first side of the dispersive objective lens group and reaches the measurement surface through the first predetermined path; and the second predetermined path follows: the reflected light reflected from the measurement surface is output from a second side of the dispersive objective lens group that is opposite to the first side, and enters the measurement portion through the light-outgoing hole , characterised in that the light-outgoing hole and the light-incident hole are the same hole. a light source portion , configured to emit a broad-spectrum light beam with a certain wavelength range in a first predetermined path; an optical sampling portion , configured to converge the broad-spectrum light beam emitted from the light source portion on different measurement surfaces of an object to be measured, and output a reflected light in a second predetermined path that is different from a reverse direction of the first predetermined path; and a measurement portion , configured to receive and process the reflected light from the optical sampling portion to obtain a measurement result; wherein the light source portion comprises a light source and a light source controller connected to the light source and the optical sampling portion comprises a light-incident hole , a dispersive objective lens group and a light-outgoing hole the light source is a line light source, under controls of the light source controller , the broad-spectrum light beam of the line light source is emitted through the light-incident hole and then into a first side of the dispersive objective lens group and reaches the measurement surface through the first predetermined path; and the second predetermined path follows: the reflected light reflected from the measurement surface is output from a second side of the dispersive objective lens group that is opposite to the first side, and enters the measurement portion through the light-outgoing hole , characterised in that the light-outgoing hole and the light-incident hole are the same hole.
A nonaqueous secondary cell comprising a positive electrode having a positive electrode current-collecting substrate, an electrically conductive protective layer formed on the surface of the positive electrode current-collecting substrate and a positive electrode active material layer capable of intercalating and deintercalating lithium formed on the surface of the conductive protective layer, a negative electrode having a negative electrode current-collecting substrate and, formed on top thereof, a negative electrode active material layer capable of intercalating and deintercalating lithium, a separator interposed between the positive and negative electrodes, and a nonaqueous electrolyte solution, wherein the nonaqueous electrolyte solution comprises a sulfonylimide electrolyte and a nonaqueous organic solvent, and the electrically conductive protective layer comprises an electrically conductive carbon material dispersed in a binder resin, wherein the conductive carbon material is at least one selected from the group consisting of fibrous conductive carbon materials and carbon blacks. wherein the nonaqueous electrolyte solution comprises a sulfonylimide electrolyte and a nonaqueous organic solvent, and the electrically conductive protective layer comprises an electrically conductive carbon material dispersed in a binder resin, wherein the conductive carbon material is at least one selected from the group consisting of fibrous conductive carbon materials and carbon blacks.