mhurhangee/patent-ind-claim-en huggingface dataset:
An urea tank and fuel tank assembly, comprising: a shell, wherein the shell comprises an upper shell , a middle shell and a lower shell , the upper shell , the middle shell and the lower shell are welded separately to form a cavity comprising a fuel cavity; characterized in that the height of the middle shell accounts for more than 1/3 of the total height of the shell; the middle shell is internally connected with a middle grid rib structure , the middle grid rib structure partitions the middle part of the cavity defined by the middle shell into several middle grid cavities , the middle grid cavities do not communicate in the radial direction, and the bottom end of a first middle grid cavity group comprised in the middle grid cavities is provided with fuel passing ports to communicate with each other to form the fuel cavity. a shell, wherein the shell comprises an upper shell , a middle shell and a lower shell , the upper shell , the middle shell and the lower shell are welded separately to form a cavity comprising a fuel cavity; characterized in that the height of the middle shell accounts for more than 1/3 of the total height of the shell; the middle shell is internally connected with a middle grid rib structure , the middle grid rib structure partitions the middle part of the cavity defined by the middle shell into several middle grid cavities , the middle grid cavities do not communicate in the radial direction, and the bottom end of a first middle grid cavity group comprised in the middle grid cavities is provided with fuel passing ports to communicate with each other to form the fuel cavity.
A connector insert , in particular for insertion into connectors to transmit data in automobiles by means of a two-conductor or multi-conductor system, having a housing which has at least one reception chamber for plug contacts able to be attached to wires of a cable , and an inlet for the plug contacts into the at least one reception chamber , and having a stabiliser which is composed of dimensionally stable material and which has a fastening location for attachment to the housing and which, in its state mounted on the housing , extends away from the inlet and has, spaced apart from the inlet , a fastening location for attachment to the cable , characterized in that the housing has a securing groove which extends through the at least one reception chamber and which runs transverse to a longitudinal direction of the cable , and in that the stabilizer completely surrounds the reception chamber in a circumferential direction running around the longitudinal direction of the cable .
A recombinant clostridial neurotoxin comprising a protein segment consisting of at least 50 amino acid residues, wherein said protein segment consists of the amino acid sequence (Xaa) x- [(P,A,S) y -(Xaa)-] z (P,A,S) y -(Xaa) x , wherein Xaa is an amino acid residue independently selected from any naturally occurring amino acid residue, provided that at least one Xaa in [(P,A,S) y -(Xaa)-] z is different from an alanine, serine or proline residue; (P,A,S) represents an amino acid residue independently selected from an alanine (A), a serine (S) and a proline (P) residue; x is a number independently selected from 0 and 1; y is a number independently selected from 3 and 4; and z is 9 or more.
A liquid curing agent composition comprising at least about 50% by weight of a polyamine and 0.2% to 10% by weight of dicyandiamide, wherein the polyamine comprises at least one member selected from the group consisting of aliphatic polyamines, cycloaliphatic polyamines, heterocyclic polyamines, polyetheramine, wherein the polyamine comprises a mixture of at least one major polyamine and at least one minor polyamine,wherein the major polyamine is at least 70% by weight of the total polyamine, and comprises at least one member selected from the group consisting of triethylenetetramine (TETA), 4,4'-di(aminocyclohexyl)methane, norbornane diamines, 1, 3-bis(aminomethyl)cyclohexane, 1-cyclohexylamino-3-aminopropane, piperazine, 4,4'-trimethylenedipiperidine, and 1,4-bis(3-aminopropyl)piperazine, and the minor polyamine is less than 30% by weight of the total polyamine, and comprises at least one member selected from the group consisting of diethylenetriamine (DETA), 1,2-diaminocyclohexane, bis(3-aminopropyl) diethylene glycol ether, bis(3-aminopropyl) ethylene glycol ether, tri(1-amino-1-methylethyl) trimethylolpropane ether, and triethylene glycol diamine. wherein the polyamine comprises a mixture of at least one major polyamine and at least one minor polyamine,wherein the major polyamine is at least 70% by weight of the total polyamine, and comprises at least one member selected from the group consisting of triethylenetetramine (TETA), 4,4'-di(aminocyclohexyl)methane, norbornane diamines, 1, 3-bis(aminomethyl)cyclohexane, 1-cyclohexylamino-3-aminopropane, piperazine, 4,4'-trimethylenedipiperidine, and 1,4-bis(3-aminopropyl)piperazine, and the minor polyamine is less than 30% by weight of the total polyamine, and comprises at least one member selected from the group consisting of diethylenetriamine (DETA), 1,2-diaminocyclohexane, bis(3-aminopropyl) diethylene glycol ether, bis(3-aminopropyl) ethylene glycol ether, tri(1-amino-1-methylethyl) trimethylolpropane ether, and triethylene glycol diamine.
A soil tillage implement which is mechanically moved in a travelling direction over a ground surface of an agricultural field to be tilled and is provided with tools for loosening or cutting the ground surface wherein the tools are arranged transversely to the travelling direction of the soil tillage implement next to one another and in one or multiple rows one behind the other on a frame by way of holding stems , wherein the holding stems are each arranged so as to be vertically pivotable on the frame via at least one transverse axis , wherein between holding stem and frame an overload device is arranged, which consists of at least one energy store and a depth stop , wherein the depth stop defines the working position of the tool and the energy store , when the tool strikes an obstacle in the ground, makes possible a pivot movement of the holding stem out of a working position into an upper overload protection position and, having passed the obstacle, makes possible a return of the holding stem into the working position, wherein the energy store is preloaded in the working position with a basic energy or basic force, characterised in that the depth stop is likewise assigned an energy store , which, when the holding stem strikes the depth stop , generates or allows a movement of the holding stem out of the working position into a lower overload protection position and following the strike, generates or allows a return of the holding stem into working position.
Box for accommodating a roller shutter or a sunshade, having an upper composite profile with a metallic inner profile and a metallic outer profile , which are connected to one another via at least one insulating profile , and a lower composite profile , which is connected to the upper composite profile on an outer side via a connecting profile , wherein at least one insulating element is provided inside the box , which is arranged at least partially on an inner side of the insulating profile , characterized in that a sealing profile is arranged between the metallic inner profile of the upper composite profile and the metallic lower inner profile of the lower composite profile , and the inner insulating element and/or an outer insulating element is arranged on the sealing profile .
A monitoring device for monitoring a status of fruits, the monitoring device comprising: a flexible strip configured to be introduced into a cluster of fruits allowing the flexible strip being embedded in the cluster, the flexible strip comprising a plurality of spatially separated sensing nodes , wherein each of the plurality of sensing nodes comprises a sensing node light source configured to emit light and a sensing node light detector configured to detect light, a read out circuitry configured to read out data pertaining to the detected light detected at each of the plurality of sensing nodes , a body comprising a wireless communication module configured to transmit the data pertaining to the detected light, wherein the flexible strip is attached to the body . a flexible strip configured to be introduced into a cluster of fruits allowing the flexible strip being embedded in the cluster, the flexible strip comprising a plurality of spatially separated sensing nodes , wherein each of the plurality of sensing nodes comprises a sensing node light source configured to emit light and a sensing node light detector configured to detect light, a read out circuitry configured to read out data pertaining to the detected light detected at each of the plurality of sensing nodes , a body comprising a wireless communication module configured to transmit the data pertaining to the detected light, wherein the flexible strip is attached to the body .
A connector for use in equestrian equipment, such as bridles, reins, saddles and the like, comprising: an outer loop, formed by an outer loop-forming strap , and an inner loop, formed by an inner loop-forming strap , which is arranged inside the outer loop, wherein the inner loop is more resilient than the outer loop, such that a connecting member received in the inner loop is resiliently moveable and limited by the outer loop, a buckle , by means of which a distal portion of the outer loop forming strap is openably connectable with a proximal portion of the outer loop forming strap, to form said outer loop, wherein the inner loop forming strap comprises a resilient portion which is formed of an elastically resilient material and a non-elastic portion which is formed of an essentially non-resilient material, and wherein the resilient and non-resilient portions are juxtaposed in the longitudinal direction of the inner loop forming strap, characterized in that the part of the inner loop forming strap contacting the connecting member is formed by the non-resilient portion. an outer loop, formed by an outer loop-forming strap , and an inner loop, formed by an inner loop-forming strap , which is arranged inside the outer loop, wherein the inner loop is more resilient than the outer loop, such that a connecting member received in the inner loop is resiliently moveable and limited by the outer loop, a buckle , by means of which a distal portion of the outer loop forming strap is openably connectable with a proximal portion of the outer loop forming strap, to form said outer loop, wherein the inner loop forming strap comprises a resilient portion which is formed of an elastically resilient material and a non-elastic portion which is formed of an essentially non-resilient material, and wherein the resilient and non-resilient portions are juxtaposed in the longitudinal direction of the inner loop forming strap, characterized in that the part of the inner loop forming strap contacting the connecting member is formed by the non-resilient portion.
An oil-in-water emulsion comprising (a) an oil phase; (b) an aqueous phase; and (c) an emulsifier, wherein the emulsion further comprises 15.0 to 30.0 wt.-% ethanol, further comprising 1.0 to 10.0 wt.-% of cetearyl ethylhexanoate as a skin care component. (a) an oil phase; (b) an aqueous phase; and (c) an emulsifier,
A method of altering chemical properties of an in-process resin when in use in a 3D printing apparatus , the method comprising: monitoring the in-process resin using an imaging spectrometer ; comparing the in-process resin and a model using one or more spectrums from the imaging spectrometer ; diluting the in-process resin with a diluting resin; and generating a life cycle of the in-process resin based at least on an operating range of the at least one peak ratio. monitoring the in-process resin using an imaging spectrometer ; comparing the in-process resin and a model using one or more spectrums from the imaging spectrometer ; diluting the in-process resin with a diluting resin; and generating a life cycle of the in-process resin based at least on an operating range of the at least one peak ratio.
Component of high electron mobility type, wherein: - electrode connection tracks are parallel to one another; - on the tracks, at least one pair of current collector regions extend, in the direction (X) of the tracks , on either side of a separation between the regions all the way to two opposite edges of the regions; and - the separation is oblique with respect to the tracks and the two opposite edges are orthogonal to the tracks. - electrode connection tracks are parallel to one another; - on the tracks, at least one pair of current collector regions extend, in the direction (X) of the tracks , on either side of a separation between the regions all the way to two opposite edges of the regions; and - the separation is oblique with respect to the tracks and the two opposite edges are orthogonal to the tracks.
A transportation infrastructure arrangement comprising: at least one elevator ; at least one elevator connected device ; and a building data communications network , wherein the building data communications network is a shared data communication network, wherein the at least one elevator connected device is configured to communicate with said at least one elevator using the building data communication network , characterized in that the communication between the at least one elevator and the at least one elevator connected device is configured to use a dedicated channel provided by security group tagging in the building data communication network . at least one elevator ; at least one elevator connected device ; and a building data communications network , wherein the building data communications network is a shared data communication network, wherein the at least one elevator connected device is configured to communicate with said at least one elevator using the building data communication network ,
A method of manufacturing a three-dimensional article comprising forming the three-dimensional article in a layer-by-layer manner including supplying inks to a printhead assembly including a build material ink and a support material ink , the support material ink is a phase change ink including a phosphor component; printing a layer of the three dimensional article using the printhead assembly ; and repeating supplying and printing until the three-dimensional article is fully formed including a support structure formed by the support material ink ; processing the three-dimensional article to remove the support material ink ; illuminating the three-dimensional article with electromagnetic radiation; inspecting the three-dimensional article for photoluminescence that is responsive to the illumination; and verifying whether the support material ink has been sufficiently removed by the processing based upon the inspection. supplying inks to a printhead assembly including a build material ink and a support material ink , the support material ink is a phase change ink including a phosphor component; printing a layer of the three dimensional article using the printhead assembly ; and repeating supplying and printing until the three-dimensional article is fully formed including a support structure formed by the support material ink ; processing the three-dimensional article to remove the support material ink ; illuminating the three-dimensional article with electromagnetic radiation; inspecting the three-dimensional article for photoluminescence that is responsive to the illumination; and verifying whether the support material ink has been sufficiently removed by the processing based upon the inspection.
A service recovery method for a wireless communication network, comprising: sending , by a user equipment, UE, a radio resource control, RRC, re-establishment request to a target base station; receiving , by the UE, an RRC re-establishment failure message from the target base station which does not obtain context information of the UE; sending, by the UE, an RRC message to the target base station, the RRC message including a cause value indicating that an RRC establishment procedure is a link recovery procedure triggered by a non-access stratum, NAS ; and establishing , by the UE, an RRC with the target base station triggered by the NAS by performing the RRC establishment procedure after receiving the RRC re-establishment failure message sending , by a user equipment, UE, a radio resource control, RRC, re-establishment request to a target base station; receiving , by the UE, an RRC re-establishment failure message from the target base station which does not obtain context information of the UE; sending, by the UE, an RRC message to the target base station, the RRC message including a cause value indicating that an RRC establishment procedure is a link recovery procedure triggered by a non-access stratum, NAS ; and establishing , by the UE, an RRC with the target base station triggered by the NAS by performing the RRC establishment procedure after receiving the RRC re-establishment failure message
Method for manufacturing floor panels for composing a floating floor covering, wherein these floor panels comprise at least a substrate and a top layer provided on said substrate , wherein said substrate is a synthetic material board and wherein said top layer substantially consists of a vinyl compound and comprises a thermoplastic, translucent or transparent layer , wherein said floor panels at two or more opposite edges (5-6) comprise coupling parts with which two of such floor panels can be coupled at the respective edges, such that they are locked together in a horizontal direction (H1) perpendicular to the respective edge and in the plane of the floor panels , as well as in a vertical direction (V1) perpendicular to the plane of the floor panels , characterized in that said method comprises forming larger boards showing the composition of said floor panel , the method at least comprising the following steps: - the step (S1) of adhering said top layer , including said thermoplastic layer , to the substrate ; - the step (S3) of heating at least said thermoplastic layer and then feeding said thermoplastic layer into a press device in warm condition while said thermoplastic layer already forms part of the connected whole of substrate and top layer , wherein said press device includes a mechanical press element ; and - the step (S2) of structuring said thermoplastic layer at least by means of a mechanical press element ; wherein said larger boards are divided into panels showing approximately the final dimensions of such floor panel , and wherein coupling parts are formed at the edges thereof - the step (S1) of adhering said top layer , including said thermoplastic layer , to the substrate ; - the step (S3) of heating at least said thermoplastic layer and then feeding said thermoplastic layer into a press device in warm condition while said thermoplastic layer already forms part of the connected whole of substrate and top layer , wherein said press device includes a mechanical press element ; and - the step (S2) of structuring said thermoplastic layer at least by means of a mechanical press element ;
A method of calculating a single, fused sensor glucose value based on respective sensor glucose values of a plurality of redundant working electrodes (WE1,WE2) of a glucose sensor, comprising: performing respective electrochemical impedance spectroscopy (EIS) procedures for each of the plurality of redundant working electrodes to obtain values of membrane resistance (Rmem) for each said working electrode; calculating a respective Rmem fusion weight for each said working electrode based on the respective Rmem value for each of the plurality of working electrodes; measuring a noise value for each of the plurality of working electrodes; calculating a respective noise fusion weight for each said working electrode based on the respective noise value for each of the plurality of working electrodes; measuring a calibration factor (CF) value for each of the plurality of working electrodes; calculating a respective CF fusion weight for each said working electrode based on the respective CF value for each of the plurality of working electrodes; for each of the plurality of electrodes, calculating an overall fusion weight based on said electrode's Rmem fusion weight, noise fusion weight, and CF fusion weight; and calculating said single, fused sensor glucose value based on the respective overall fusion weight and sensor glucose value of each of the plurality of redundant working electrodes. performing respective electrochemical impedance spectroscopy (EIS) procedures for each of the plurality of redundant working electrodes to obtain values of membrane resistance (Rmem) for each said working electrode; calculating a respective Rmem fusion weight for each said working electrode based on the respective Rmem value for each of the plurality of working electrodes; measuring a noise value for each of the plurality of working electrodes; calculating a respective noise fusion weight for each said working electrode based on the respective noise value for each of the plurality of working electrodes; measuring a calibration factor (CF) value for each of the plurality of working electrodes; calculating a respective CF fusion weight for each said working electrode based on the respective CF value for each of the plurality of working electrodes; for each of the plurality of electrodes, calculating an overall fusion weight based on said electrode's Rmem fusion weight, noise fusion weight, and CF fusion weight; and calculating said single, fused sensor glucose value based on the respective overall fusion weight and sensor glucose value of each of the plurality of redundant working electrodes.