mhurhangee/patent-ind-claim-en huggingface dataset:
Storage container of thermoplastic synthetic material in a motor vehicle for receiving an aqueous urea solution, comprising a container body which encloses a storage volume for the urea solution, a filling pipe for filling the storage volume as well as a filling and venting path to the atmosphere, wherein the filling pipe has a filling head at a remote end, the filling head forms a mouth hole nozzle , the mouth hole nozzle has a mouth hole for receiving a tapping valve and an external thread for receiving a complementary sleeve thread of a filling bottle for refueling by the gas displacement procedure or for receiving a closure cap, and wherein means for physical adsorption or for chemical adsorption or for physical and chemical adsorption of ammonia are provided in the in the filling and venting pipe or at the end of the in the filling and venting pipe, characterized in that a venting opening is provided in an upper bottom of the container body as the filling and venting path to which venting opening a filter is directly connected as means for the physical and/or chemical adsorption of ammonia.
Process for preparing a body having an osseointegrative topography formed on its surface, the process comprising the steps of a) providing a primary body made of a titanium-zirconium alloy containing 13 to 17 wt-% of zirconium, b) sandblasting the primary body, and c) etching the sandblasted primary body with an etching solution comprising hydrochloric acid, sulfuric acid and water at a temperature of above 80°C to obtain the body, said etching being performed for a duration from 350 seconds to 540 seconds. a) providing a primary body made of a titanium-zirconium alloy containing 13 to 17 wt-% of zirconium, b) sandblasting the primary body, and c) etching the sandblasted primary body with an etching solution comprising hydrochloric acid, sulfuric acid and water at a temperature of above 80°C to obtain the body, said etching being performed for a duration from 350 seconds to 540 seconds.
A pneumatic tire comprising: a tread portion ; and a sponge member extending in a tire circumferential direction and attached to a tire inner peripheral surface of the tread portion over an entire circumference thereof, wherein the sponge member includes: a base portion attached to the tire inner peripheral surface of the tread portion ; a plurality of protrusions protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions being formed at intervals in the tire circumferential direction; and a plurality of recesses formed between the plurality of protrusions , and rounded portions are formed in bottom corners of the recesses , characterized in that a curvature radius (R1) of the rounded portions is larger than 25% of a width (L2) of the recesses in the tire circumferential direction, the recess has a bottom portion provided with a pair of rounded portions adjacent to each other in the tire circumferential direction and a base inner peripheral surface positioned on an inner side of the base in the tire radial direction, the base inner peripheral surface extending parallel to the tire inner peripheral surface and connecting the pair of rounded portions to each other in the tire circumferential direction, and the sponge member has a thickness (T1) in the tire radial direction at the base inner peripheral surface. wherein the sponge member includes: a base portion attached to the tire inner peripheral surface of the tread portion ; a plurality of protrusions protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions being formed at intervals in the tire circumferential direction; and a plurality of recesses formed between the plurality of protrusions , and a base portion attached to the tire inner peripheral surface of the tread portion ; a plurality of protrusions protruding inward in a tire radial direction from the base portion and extending in a tire width direction, the protrusions being formed at intervals in the tire circumferential direction; and a plurality of recesses formed between the plurality of protrusions , and rounded portions are formed in bottom corners of the recesses , characterized in that a curvature radius (R1) of the rounded portions is larger than 25% of a width (L2) of the recesses in the tire circumferential direction, the recess has a bottom portion provided with a pair of rounded portions adjacent to each other in the tire circumferential direction and a base inner peripheral surface positioned on an inner side of the base in the tire radial direction, the base inner peripheral surface extending parallel to the tire inner peripheral surface and connecting the pair of rounded portions to each other in the tire circumferential direction, and the sponge member has a thickness (T1) in the tire radial direction at the base inner peripheral surface.
A method for performing measurement, the method being performed by a user equipment, UE, and comprising: receiving information on a measurement gap, MG, , wherein the MG is used for performing the measurement, wherein the measurement is performed during a measurement gap length, MGL, wherein a start point of the measurement is determined based on a measurement gap repetition period, MGRP; adjusting the start point of the measurement based on an offset, wherein the MGL and the MGRP are configured based on one or more values among L, S, D and R, where L denotes a greatest value among synchronization signal, SS, burst set periodicities, where S denotes a smallest value among the SS burst set periodicities, where D denotes a default value of the SS burst set periodicity, and where R denotes a radio frequency, RF, switching time of the UE, and wherein the MGL is configured by the equation of: MGL=D + 2 ∗ R receiving information on a measurement gap, MG, , wherein the MG is used for performing the measurement, wherein the measurement is performed during a measurement gap length, MGL, wherein a start point of the measurement is determined based on a measurement gap repetition period, MGRP; adjusting the start point of the measurement based on an offset, wherein the MGL and the MGRP are configured based on one or more values among L, S, D and R, where L denotes a greatest value among synchronization signal, SS, burst set periodicities, where S denotes a smallest value among the SS burst set periodicities, where D denotes a default value of the SS burst set periodicity, and where R denotes a radio frequency, RF, switching time of the UE, and wherein the MGL is configured by the equation of: MGL=D + 2 ∗ R
A brush bar comprising a plurality of radially extending bristles and a sealing material disposed between the bristles , the sealing material extending over the entire circumferential and axial extent of the regions of the brush bar between the bristles , characterised in that the radial extent of the bristles is greater than the radial extent of the sealing material .
A method for providing data protection in an integrated circuit , the method comprising: detecting a change to software or firmware associated with the integrated circuit ; determining whether a user is authentic in response to detecting the change to the software or the firmware; and generating a false cipher-based message authentication code, CMAC, value that is not based on a Hardware Unique Key, HUK, associated with the integrated circuit in response to the user not being authentic; determining that the change to the software or firmware was unauthorized based in least in part on the false CMAC value not matching an expected CMAC value; and corrupting an anti-replay counter, ARC, value, maintained in a one-time programmable memory of the integrated circuit and used by the integrated circuit to protect contents of a non-volatile memory , responsive to determining that the change to the software or the firmware was unauthorized. detecting a change to software or firmware associated with the integrated circuit ; determining whether a user is authentic in response to detecting the change to the software or the firmware; and generating a false cipher-based message authentication code, CMAC, value that is not based on a Hardware Unique Key, HUK, associated with the integrated circuit in response to the user not being authentic; determining that the change to the software or firmware was unauthorized based in least in part on the false CMAC value not matching an expected CMAC value; and corrupting an anti-replay counter, ARC, value, maintained in a one-time programmable memory of the integrated circuit and used by the integrated circuit to protect contents of a non-volatile memory , responsive to determining that the change to the software or the firmware was unauthorized.
A processing system for obtaining a carbohydrate-containing liquid and a carbohydrate-depleted biomass solids from a rubber bearing plant comprising: an extraction system comprising a plurality of continuous stirred tank extraction stages arranged in fluid communication with each other in series such that effluent from one continuous stirred tank extraction stage flows to a next continuous stirred extraction stage in the series of the plurality of continuous stirred tank extraction stages, at least one of the continuous stirred tank extraction stages in each extraction system having an inlet adapted and configured to receive a liquid solvent comprising one of water, an aqueous solution, an organic polar solvent liquid, or a non-polar organic liquid solvent at a temperature of at least about 50° C, wherein the at least one continuous stirred extraction stage of the extraction system is adapted and configured for receiving biomass, wherein the biomass is from a rubber bearing plant of the genus Taraxacum or another non-Hevea plant, and wherein the extraction system is adapted and configured to mix the biomass with the liquid solvent in a manner such that the extraction system generates the carbohydrate-containing liquid and the carbohydrate-depleted biomass solids; and a solid-liquid separator arranged in fluid communication with a last in series of the continuous stirred tank extraction stages, wherein the separator is adapted and configured for separating the carbohydrate-depleted biomass solids from the carbohydrate-containing liquid. an extraction system comprising a plurality of continuous stirred tank extraction stages arranged in fluid communication with each other in series such that effluent from one continuous stirred tank extraction stage flows to a next continuous stirred extraction stage in the series of the plurality of continuous stirred tank extraction stages, at least one of the continuous stirred tank extraction stages in each extraction system having an inlet adapted and configured to receive a liquid solvent comprising one of water, an aqueous solution, an organic polar solvent liquid, or a non-polar organic liquid solvent at a temperature of at least about 50° C, wherein the at least one continuous stirred extraction stage of the extraction system is adapted and configured for receiving biomass, wherein the biomass is from a rubber bearing plant of the genus Taraxacum or another non-Hevea plant, and wherein the extraction system is adapted and configured to mix the biomass with the liquid solvent in a manner such that the extraction system generates the carbohydrate-containing liquid and the carbohydrate-depleted biomass solids; and a solid-liquid separator arranged in fluid communication with a last in series of the continuous stirred tank extraction stages, wherein the separator is adapted and configured for separating the carbohydrate-depleted biomass solids from the carbohydrate-containing liquid.
A gel comprising between 50% and 100% by weight of the gel of a lamellar phase composition, optionally a viscous hydrophobic ingredient, and optionally a cleaning or care active; wherein the lamellar phase composition comprises a surfactant wherein the surfactant is selected from alkyl benzene sulphonate, alkyl ethoxylated sulphate and mixtures thereof, a material selected from a fatty acid, a fatty alcohol or a mixture thereof, and a solvent, wherein the solvent is selected from water, glycerol, 1,2-propanediol, 1,3-propanediol, dipropylene glycol and mixtures thereof; wherein the ratio of the combined weight of the surfactant and fatty amphiphile to the weight of the solvent is between 90:10 and 80:20; and wherein the lamellar phase comprises no more than 10% by weight of the lamellar phase of water, wherein, the gel comprises between 29% and 38% of the lamellar phase of the surfactant.
A device for the processing of a biological material, characterised by the fact that the said device comprises at least two cylinders which define chambers or sections which may be sealable together and interconnected by at least one drawing partition ; in each chamber or section at least one pusher piston is slidable and at least one cutter is present; in the operational configuration, the cutter rotates and creates micro-fragmentations of the material to be processed when the said material moves from one chamber or section to the other, driven by means of the thrust action of the relative pusher piston.
A solid electrolyte material comprising: Li, Zr, Y, W, and X, wherein X is at least one element selected from the group consisting of CI and Br; wherein the solid electrolyte material is represented by a following composition formula : Li 6-(4+2a-b)c (Zr 1-a-b Y b W a ) c X 6 where, following mathematical expressions: a > 0; b > 0; 0.01 ≤ a≤ 0.33; (a + b) < 1; and 0 < c < 1.5 are satisfied. Li, Zr, Y, W, and X, wherein X is at least one element selected from the group consisting of CI and Br; a > 0; b > 0; 0.01 ≤ a≤ 0.33; (a + b) < 1; and 0 < c < 1.5 are satisfied.
A portable ice barrel , comprising: a base comprising a bottom rim ; a top wall having a top rim and an opening; a cylindrical insulation layer having an opening; an inner liner extending into the opening of the top wall and into the opening of the cylindrical insulation layer to form an interior barrel cavity ; wherein the cylindrical insulation layer is formed from a plurality of sections , the sections provided with a degree of curvature, wherein the plurality of sections include a series of fins for trapping air to provide thermal insulation; and an exterior barrel wall ; wherein the base , the top wall , the inner liner , the cylindrical insulation layer and the exterior barrel wall are configured to be assembled into the portable ice barrel ; the base , the top wall , the inner liner , the cylindrical insulation layer , and the exterior barrel wall disassemblable from one another for shipping in a container having a flat configuration, the container defining a length, height, and width, wherein the width of the container is less than a diameter of the assembled portable ice barrel . a base comprising a bottom rim ; a top wall having a top rim and an opening; a cylindrical insulation layer having an opening; an inner liner extending into the opening of the top wall and into the opening of the cylindrical insulation layer to form an interior barrel cavity ; wherein the cylindrical insulation layer is formed from a plurality of sections , the sections provided with a degree of curvature, wherein the plurality of sections include a series of fins for trapping air to provide thermal insulation; and an exterior barrel wall ; wherein the base , the top wall , the inner liner , the cylindrical insulation layer and the exterior barrel wall are configured to be assembled into the portable ice barrel ; the base , the top wall , the inner liner , the cylindrical insulation layer , and the exterior barrel wall disassemblable from one another for shipping in a container having a flat configuration, the container defining a length, height, and width, wherein the width of the container is less than a diameter of the assembled portable ice barrel .
A halftone raster image for creating the illusion of a continuous-tone image on a printed copy, wherein said halftone raster image comprises a plurality of halftone dots which comprise (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral , and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral . (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral , and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral .
An electrolysis cell comprising an anode chamber and a cathode chamber which are separated from one another by an ion-exchange membrane , wherein the electrolysis cell further comprises an anode , a gas diffusion electrode and a cathode current distributor , wherein the anode , the ion-exchange membrane , the gas diffusion electrode and the cathode current distributor are each in direct touching contact with one another in the mentioned order and wherein resilient holding elements are arranged on the other side of the anode and/or on the other side of the cathode current distributor , which resilient holding elements exert a contact pressure on the anode and/or on the cathode current distributor , characterized in that the resilient holding elements comprise annular elements or at least one tubular portion , the axis of which is oriented in the height direction or in the longitudinal direction of the electrolysis cell , and which are arranged in the anode chamber or in the cathode chamber in such a manner that they are compression loaded in the radial direction, wherein the holding elements undergo in the electrolysis cell , in addition to an elastic deformation, at least in part a plastic deformation and are configured to be elastoplastically resilient, wherein plastic deformation is understood as meaning a permanent deformation of a material, in which the stress acting in the material exceeds the yield strength or the 0.2% offset yield point of the material.
A multi-node communication network, comprising: a plurality of nodes forming a cluster, the nodes including normal value nodes, a cluster head node, and a high value node, wherein each of the plurality of nodes includes a communication interface and a controller , wherein the high value node is defined as high value relative to the normal value nodes during mission data information loading fill; in which network: the high value node is configured to locate the cluster head node, register the high value node's membership to the cluster head node, and send position-location information, PLI, to the cluster head node during registration; wherein, upon receipt of a PLI request, which is not a time-critical or high-precision PLI request, each of the normal value nodes is configured to send current PLI to the cluster head node; wherein, upon receipt of the PLI request, which is not a time-critical or high-precision PLI request, the high value node remains silent; and wherein each of the cluster head node, the normal value nodes, and the high value node are configured to send current PLI upon receipt of a time-critical or high-precision PLI request. a plurality of nodes forming a cluster, the nodes including normal value nodes, a cluster head node, and a high value node, wherein each of the plurality of nodes includes a communication interface and a controller , wherein the high value node is defined as high value relative to the normal value nodes during mission data information loading fill; in which network: the high value node is configured to locate the cluster head node, register the high value node's membership to the cluster head node, and send position-location information, PLI, to the cluster head node during registration; wherein, upon receipt of a PLI request, which is not a time-critical or high-precision PLI request, each of the normal value nodes is configured to send current PLI to the cluster head node; wherein, upon receipt of the PLI request, which is not a time-critical or high-precision PLI request, the high value node remains silent; and wherein each of the cluster head node, the normal value nodes, and the high value node are configured to send current PLI upon receipt of a time-critical or high-precision PLI request.
A polyolefin resin foam sheet made of a polyolefin resin foam comprising a polyolefin resin and a thermoplastic elastomer resin, wherein the endothermic peaks measured by a differential scanning calorimeter (DSC), measured as described in the specification, occur in both of a range of 110°C or more and 143°C or less and in a range of 153°C or more, and said thermoplastic elastomer resin is contained at a ratio of 30% by mass or more and 60% by mass or less in 100% by mass of the resins constituting said foam, wherein the surface roughness Sa (arithmetic mean height) of both the front and back surfaces is 5 μm or more and 80 μm or less, measured as described in the specification, and the difference in surface roughness Sa of the front and back surfaces as determined by the following formula is 20 μm or more: Difference in surface roughness Sa between both the front and back surfaces = Surface roughness Sa on the surface B - Surface roughness Sa on the surface A, and wherein the average cell size in the machine direction corresponding to the direction of the resin extrusion for producing a polyolefin resin foam sheet on both the front and back surfaces is 100 μm or more, measured as described in the specification, and the ratio of the average cell size in the machine direction on the surface B to the average cell size in the machine direction on the surface A as determined by the following formula is 1.2 or more: Ratio of the average cell size in the machine direction = Average cell size in the machine direction on the surface B / Average cell size in the machine direction on the surface A. wherein the surface roughness Sa (arithmetic mean height) of both the front and back surfaces is 5 μm or more and 80 μm or less, measured as described in the specification, and the difference in surface roughness Sa of the front and back surfaces as determined by the following formula is 20 μm or more: Difference in surface roughness Sa between both the front and back surfaces = Surface roughness Sa on the surface B - Surface roughness Sa on the surface A, and wherein the average cell size in the machine direction corresponding to the direction of the resin extrusion for producing a polyolefin resin foam sheet on both the front and back surfaces is 100 μm or more, measured as described in the specification, and the ratio of the average cell size in the machine direction on the surface B to the average cell size in the machine direction on the surface A as determined by the following formula is 1.2 or more: Ratio of the average cell size in the machine direction = Average cell size in the machine direction on the surface B / Average cell size in the machine direction on the surface A.