mhurhangee/patent-ind-claim-en huggingface dataset:
Beverage container comprising: - a cup with a wall which delimits a receiving space for liquid that is open on an upper side (O) of the cup , and - a lid , which is arranged removably on the top (O) of the cup in such a way that it closes a receiving space opening of the receiving space in a fluid-tight manner, where - a sensor unit is arranged in the lid for detecting an amount of liquid removed from the cup by a user, - the lid has a lighting element which is set up to glow in different colors depending on the amount of liquid removed by the user, and - the lid also has a wireless communication unit which is set up to establish a data connection with a mobile terminal of the user and to transmit the detected amount of liquid to the mobile terminal of the user for evaluation, wherein the lid has a lid flap and a folding mechanism on which the lid flap is pivotally mounted from a closed position to an open position and vice versa, characterized in that the folding mechanism and the wireless communication unit are designed to establish the data connection with the mobile terminal when the lid flap is pivoted from the closed position to the open position. - a cup with a wall which delimits a receiving space for liquid that is open on an upper side (O) of the cup , and - a lid , which is arranged removably on the top (O) of the cup in such a way that it closes a receiving space opening of the receiving space in a fluid-tight manner, where - a sensor unit is arranged in the lid for detecting an amount of liquid removed from the cup by a user, - the lid has a lighting element which is set up to glow in different colors depending on the amount of liquid removed by the user, and - the lid also has a wireless communication unit which is set up to establish a data connection with a mobile terminal of the user and to transmit the detected amount of liquid to the mobile terminal of the user for evaluation, wherein the lid has a lid flap and a folding mechanism on which the lid flap is pivotally mounted from a closed position to an open position and vice versa, characterized in that the folding mechanism and the wireless communication unit are designed to establish the data connection with the mobile terminal when the lid flap is pivoted from the closed position to the open position.
An object information acquiring apparatus for acquiring information on an absorber inside an object by receiving an acoustic wave that has arrived from inside the object through a layer having an acoustic impedance that is different from that of the object, and analyzing the acoustic wave, the object information acquiring apparatus comprising: an acoustic wave probe adapted to receive the acoustic wave and convert the acoustic wave into an electric signal; a whole image generation unit adapted to generate a whole image, which is an image indicating information inside the object, based on the electric signal after the conversion; a partial image generation unit adapted to extract a partial image, which is a part of the whole image and comprises an image of the absorber without reflection, from the whole image; characterized in that the apparatus further comprises a removal unit adapted to remove an image similar to the partial image from the whole image and, thus, reduce an artifact which is an image of the absorber caused by a reflection of the acoustic wave at the layer; and a display unit adapted to display the image after the removal unit removed the image similar to the partial image from the whole image. an acoustic wave probe adapted to receive the acoustic wave and convert the acoustic wave into an electric signal; a whole image generation unit adapted to generate a whole image, which is an image indicating information inside the object, based on the electric signal after the conversion; a partial image generation unit adapted to extract a partial image, which is a part of the whole image and comprises an image of the absorber without reflection, from the whole image; characterized in that the apparatus further comprises a removal unit adapted to remove an image similar to the partial image from the whole image and, thus, reduce an artifact which is an image of the absorber caused by a reflection of the acoustic wave at the layer; and a display unit adapted to display the image after the removal unit removed the image similar to the partial image from the whole image.
A method performed on a mobile base station that is configured to support Information Centric Networking, ICN, protocol, and Internet Protocol, IP, the method comprising: storing content for delivery over said ICN protocol in an ICN content cache on said mobile base station; receiving a non-access stratum, NAS, signaling message from a user equipment, UE , using either said ICN protocol or IP; and determining which of said ICN transport protocol or said IP transport protocol to use for NAS signaling messages, in response to the determination, forwarding said NAS signaling message to a Mobility Management Entity, MME, , wherein if the NAS message was received using ICN protocol, forwarding is done: using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and if the NAS message was received using IP protocol, forwarding is done using IP transport. storing content for delivery over said ICN protocol in an ICN content cache on said mobile base station; receiving a non-access stratum, NAS, signaling message from a user equipment, UE , using either said ICN protocol or IP; and determining which of said ICN transport protocol or said IP transport protocol to use for NAS signaling messages, in response to the determination, forwarding said NAS signaling message to a Mobility Management Entity, MME, , wherein if the NAS message was received using ICN protocol, forwarding is done: using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and if the NAS message was received using IP protocol, forwarding is done using IP transport.
An assembly comprising a wheel and a non-pneumatic tire , the non-pneumatic tire comprising a plurality of helical springs , each helical spring comprising a first end portion, a second end portion, and an arching middle portion, wherein each helical spring is interlaced with at least one other helical spring thereby forming a laced toroidal structure extending about an entire circumference of the non-pneumatic tire , and wherein the first end portions of a plurality of helical springs are directly secured to a first annular structure of the wheel and the second end portions of the plurality of helical springs are directly secured to a second annular structure of the wheel , the first end portion of each of the plurality of helical springs being oriented coaxially with the second end portion of each of the plurality of helical springs , characterized in that the plurality of helical springs are constructed of 304ELC stainless steel, 10 Low-C stainless steel, 2024-T4 aluminum, 6061-T6 aluminum, 2219-T87 aluminum, 5052-H38 aluminum, 5083-H38 aluminum, nickel-based Monel, TD Nickel, nickel-based Hastlelloy B, nickel-based Inconel X, nickel-based Inconel 718, nickel-based Rene 41, 5Al-2.5Sn-Ti ELI titanium, Ti45A [AMS 4902] titanium or multiphase Co-35Ni-20Mo-10Cr alloy MP35N.
A polycarbonate resin composition comprising: a polycarbonate resin having a melt flow rate (MFR) of 5 to 15 g/10 min according to ASTM D1238; pentaerythritol tetrastearate; a black dye; and a blue dye, wherein transmittance at 410 nm according to ASTM D1003 is 7 % or less, and wherein a change in yellowness index (ΔYI) expressed by the following General Equation 1 is 0.5 or less: Δ YI = YI 340 ° C − YI 285 ° C wherein YI is the yellowness index value measured as indicated in the description. wherein transmittance at 410 nm according to ASTM D1003 is 7 % or less, and wherein a change in yellowness index (ΔYI) expressed by the following General Equation 1 is 0.5 or less: Δ YI = YI 340 ° C − YI 285 ° C wherein YI is the yellowness index value measured as indicated in the description.
A method for manufacturing a textile padding product, comprising the following operational steps in the sequential order: a) cutting an input material made of silk to obtain pieces of fabric, wherein the input material is chosen from: - silk processing waste selected from finished fabrics, dyed or not dyed and printed fabrics, - used clothing, garments, underwear; b) garnetting pieces of fabric of step a) to obtain a silk fiber staple; c) optionally, blending the silk fiber staple with fibers other than silk and/or feathers in defined amounts; d) lubricating the silk fiber staple of the step b) or of the blend of step c); e) carding the lubricated staple material output from step d); f) textile sizing the carded textile material of step e) by providing overlapping staple tissues of crossed fibers; g) quilting or needling the overlapping and crossed staple tissues of step f) to obtain a padding material. a) cutting an input material made of silk to obtain pieces of fabric, wherein the input material is chosen from: - silk processing waste selected from finished fabrics, dyed or not dyed and printed fabrics, - used clothing, garments, underwear; - silk processing waste selected from finished fabrics, dyed or not dyed and printed fabrics, - used clothing, garments, underwear; b) garnetting pieces of fabric of step a) to obtain a silk fiber staple; c) optionally, blending the silk fiber staple with fibers other than silk and/or feathers in defined amounts; d) lubricating the silk fiber staple of the step b) or of the blend of step c); e) carding the lubricated staple material output from step d); f) textile sizing the carded textile material of step e) by providing overlapping staple tissues of crossed fibers; g) quilting or needling the overlapping and crossed staple tissues of step f) to obtain a padding material.
Sanitary fitting assembly comprising a sanitary fitting outlet and an outlet set for a sanitary fitting comprising a sanitary insert for fastening on a sanitary fitting outlet , wherein the insert is inserted in an outlet nozzle and the outlet nozzle is fastened on the sanitary fitting outlet , wherein the outlet nozzle is directly connected to the sanitary fitting outlet , wherein the insert is a jet regulator and/or flow regulator and wherein the insert is directly inserted in the outlet nozzle on an inflow side , characterized - in that a length of the insert in an inserting direction is dimensioned such that, in the position for use, a peripheral outer edge of the insert is visible from a viewing direction of at least 30° to the horizontal at an outlet-side termination of the outlet nozzle , wherein a viewing position is arranged higher than the outlet nozzle , and - in that there is an exchange insert , with which the insert can be replaced, wherein the exchange insert is of a different colour than the insert , at least in a region that is externally visible in the position for use. - in that a length of the insert in an inserting direction is dimensioned such that, in the position for use, a peripheral outer edge of the insert is visible from a viewing direction of at least 30° to the horizontal at an outlet-side termination of the outlet nozzle , wherein a viewing position is arranged higher than the outlet nozzle , and - in that there is an exchange insert , with which the insert can be replaced, wherein the exchange insert is of a different colour than the insert , at least in a region that is externally visible in the position for use.
A spring-loaded terminal connection comprising a busbar , a clamping spring that has a clamping arm , the clamping arm extending towards the busbar and has a spring clamping edge to clamp an electrical conductor , wherein the busbar has a busbar clamping edge to fix the electrical conductor to be clamped, wherein the busbar clamping edge is arranged across the width of the busbar transversely to the electrical conductor to be clamped, wherein the busbar clamping edge extends over only part of a conductor contact section of the busbar , so that the busbar clamping edge extends over only part of the width of the busbar , wherein the remaining part forms at least one busbar web, wherein the busbar clamping edge has a radius less than or equal to 0.2 mm, wherein the busbar has a recess , and wherein the recess is designed to receive the spring clamping edge and is located in front of the busbar clamping edge with respect to the conductor insertion direction (L), characterized in, that a depression is located in the area of the busbar clamping edge behind the busbar clamping edge with respect to the conductor insertion direction (L).
Coil insulator that is intended to be positioned around a tooth of a stator of an electric machine, this coil insulator having a body comprising walls forming a frame and also a front flange and a rear flange defining, with walls of the frame , a mounting channel for winding a coil , characterized in that the insulator comprises a hollow flexible tab that is borne by one of the flanges of the coil insulator, this tab delimiting a recess that is intended to accommodate a temperature sensor , the tab exerting an elastic force on the temperature sensor so as to keep it in contact with the coil.
A slurry for a positive electrode of a lithium-ion secondary battery, comprising a positive electrode active material (A), a conductive auxiliary agent (B), a resin binder (C), a thickening dispersant (D), and water (E), wherein the resin binder (C) is a copolymer of monomers which comprise an aromatic vinyl compound and at least one of an ethylenically unsaturated carboxylic acid ester and an ethylenically unsaturated carboxylic acid, and wherein the thickening dispersant (D) comprises a polyalkylene oxide having a phenyl group in the side chain.
A method performed by a target Internet of Things, IoT, hub in a plurality of geo-replicated IoT hubs to maintain telemetry data redundancy for IoT devices across the plurality of geo-replicated IoT hubs , in which the target geo-replicated IoT hub and each of the plurality of geo-replicated IoT hubs are comprised of servers to communicate with IoT devices , comprising: receiving telemetry data associated with an IoT device from a first geo-replicated IoT hub , in which the first geo-replicated IoT hub is connected to and communicates with the IoT device to receive the telemetry data; the method characterized in further comprising: receiving a request from the IoT device to establish a network connection for communicating telemetry data from the IoT device to the target geo-replicated IoT hub ; responsive to the received request, transmitting a proposal to each available geo-replicated IoT hub to receive ownership over the IoT device , ownership being that the IoT device transmits telemetry data to the target geo-replicated IoT hub and the target geo-replicated IoT hub transmits commands or data to the IoT device ; and taking ownership over the IoT device upon receiving confirmation from one or more of the available geo-replicated IoT hubs and a quorum being established among the plurality of geo-replicated IoT hubs for the target geo-replicated IoT hub to take ownership over the IoT device . receiving a request from the IoT device to establish a network connection for communicating telemetry data from the IoT device to the target geo-replicated IoT hub ; responsive to the received request, transmitting a proposal to each available geo-replicated IoT hub to receive ownership over the IoT device , ownership being that the IoT device transmits telemetry data to the target geo-replicated IoT hub and the target geo-replicated IoT hub transmits commands or data to the IoT device ; and taking ownership over the IoT device upon receiving confirmation from one or more of the available geo-replicated IoT hubs and a quorum being established among the plurality of geo-replicated IoT hubs for the target geo-replicated IoT hub to take ownership over the IoT device .
Photonic chip comprising a substrate and a light guiding layer , the light guiding layer being supported by the substrate and including a light guiding structure optically coupled with a surface coupling array , the photonic chip having a front face (F1) on the side of the surface coupling array, a rear face (F2) on the side of the substrate and including a collimation structure integrated at the level of the rear face (F2) to increase the mode size of a light beam incident on said structure from the surface coupling array and to collimate this beam, the surface coupling array being configured to receive/transfer light from/to the light guiding structure and form/receive a light towards/from the collimation structure integrated at the level of the rear face, characterised in that the collimation structure is a reflective structure suitable for reflecting said incident light beam towards the front face (F1) and to perform extraction from said front face (F1) of a collimated light beam.
A light-irradiating device for a printing device , comprising: a light-irradiating unit comprising a housing in which a light-emitting element is disposed, the housing comprising a light irradiation surface through which light from the light-emitting element can be transmitted, the light irradiation surface including a light-transmitting section through which light from the light-emitting element can be transmitted and non-light-transmitting sections having light-blocking properties and being arranged with the light-transmitting section located in between; and a gas supply unit comprising a flow channel connected to a part of the light irradiation surface of the housing ; wherein the flow channel is connected to the housing so as to extend from a side surface of the housing to the part of the light irradiation surface ; wherein the flow channel comprises a discharge port capable of discharging a gas, the discharge port located in a region overlapping with the light irradiation surface ; wherein the flow channel comprises a plurality of walls connected to each other, the plurality of walls comprising a first wall and a second wall , the first wall being located nearest the light-transmitting section and the second wall being located nearest a medium to be printed ; and wherein the discharge port is provided in the second wall . a light-irradiating unit comprising a housing in which a light-emitting element is disposed, the housing comprising a light irradiation surface through which light from the light-emitting element can be transmitted, the light irradiation surface including a light-transmitting section through which light from the light-emitting element can be transmitted and non-light-transmitting sections having light-blocking properties and being arranged with the light-transmitting section located in between; and a gas supply unit comprising a flow channel connected to a part of the light irradiation surface of the housing ; wherein the flow channel is connected to the housing so as to extend from a side surface of the housing to the part of the light irradiation surface ; wherein the flow channel comprises a discharge port capable of discharging a gas, the discharge port located in a region overlapping with the light irradiation surface ; wherein the flow channel comprises a plurality of walls connected to each other, the plurality of walls comprising a first wall and a second wall , the first wall being located nearest the light-transmitting section and the second wall being located nearest a medium to be printed ; and wherein the discharge port is provided in the second wall .
A computer-implemented method for temporal smoothness in localization results for an autonomous driving vehicle, ADV, the method comprising: creating , for each of a plurality of sequential light detection and ranging, LiDAR, frames in an online point cloud, a probability offset volume that represents an overall matching cost between a first set of keypoints from the online point cloud and a second set of keypoints from a pre-built point cloud map; compressing the probability offset volume into a plurality of probability vectors across a X dimension , a Y dimension , and a yaw dimension ; providing each probability vector of the probability offset volume to a plurality of recurrent neural networks, RNNs, ; and generating , by the plurality of RNNs , a trajectory of localization results across the plurality of sequential LiDAR frames. creating , for each of a plurality of sequential light detection and ranging, LiDAR, frames in an online point cloud, a probability offset volume that represents an overall matching cost between a first set of keypoints from the online point cloud and a second set of keypoints from a pre-built point cloud map; compressing the probability offset volume into a plurality of probability vectors across a X dimension , a Y dimension , and a yaw dimension ; providing each probability vector of the probability offset volume to a plurality of recurrent neural networks, RNNs, ; and generating , by the plurality of RNNs , a trajectory of localization results across the plurality of sequential LiDAR frames.
A holding frame for holding plug connector modules , wherein the plug connector modules are insertable into the holding frame and plug module holding means on the plug connector modules cooperate with holding frame holding means provided on opposite side parts of the holding frame , wherein the holding frame includes two frame halves articulatedly connected to each other at fastening ends of the holding frame , the holding frame being divided along a line parallel to the side parts of the holding frame , the articulated connection allowing a plug-in state and a holding state of the holding frame , the frame halves in the plug-in state being pivoted in relation to each other about a longitudinal axis in such a way that one or more plug connector modules can be inserted between the side parts , and the frame halves in the holding state being pivoted in such a way relative to the plug-in state that one or more inserted plug connector modules have a form-locking connection with the holding frame via the plug module holding means , characterised in that the holding frame in the plug-in state has a stop (A1, A2), located on the lower edge, in the plug-in direction, of the holding frame holding means , for stopping the one or more plug connector modules on insertion into the holding frame , wherein the stop (A1, A2) is so designed that when a plug connector module is stopped in the plug-in state, the holding frame holding means and the plug module holding means engage in each other in the holding state.
A monoclonal antibody or an antigen-binding antibody fragment that specifically binds to the peptide of SEQ ID NO: 1.
A salt substitute composition consisting of: (i) sodium chloride, (ii) potassium chloride, (iii) potassium magnesium citrate <K 4 Mg(C 6 H 5 O 7 ) 2 ; 1 > ana (iv) one or more auxiliary food ingredients, characterized by that the said ingredients are used in the following mass fractions: (i) sodium chloride, 64-65% w/w, (ii) potassium chloride, 24-25% w/w, (iii) potassium magnesium citrate , 8-12% w/w, and (iv) auxiliary food ingredients, 0-3% w/w. (i) sodium chloride, (ii) potassium chloride, (iii) potassium magnesium citrate <K 4 Mg(C 6 H 5 O 7 ) 2 ; 1 > ana (iv) one or more auxiliary food ingredients, (i) sodium chloride, 64-65% w/w, (ii) potassium chloride, 24-25% w/w, (iii) potassium magnesium citrate , 8-12% w/w, and (iv) auxiliary food ingredients, 0-3% w/w.