mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a cellular communication network, the method comprising a network node generating at least one new Input Offset Value, IOV value , for use in protecting communications between the network node and a mobile station; the network node calculating a Message Authentication Code based on at least the at least one new IOV value , an incremented IOV counter value , and a constant indicating that the Message Authentication Code is calculated to protect the new IOV value ; and the network node transmitting a message comprising an IOV container that includes the at least one new IOV value , the IOV counter value , and the calculated Message Authentication Code to the mobile station; the mobile station receiving the message; the mobile station calculating an Expected Message Authentication Code based on at least the new IOV value , the received IOV counter value , and the constant; the mobile station verifying that the received IOV counter value is larger than an IOV counter value locally stored in the mobile station; the mobile station discarding the message if the received IOV counter value is equal or lower than the locally stored IOV counter value; the mobile station determining whether the received Message Authentication Code matches the calculated Expected Message Authentication Code; and the mobile station using the new IOV value for protecting communications between the mobile station and the network node if the received Message Authentication Code matches the calculated Expected Message Authentication Code and the received IOV counter value is larger than the IOV counter value locally stored in the mobile station. a network node generating at least one new Input Offset Value, IOV value , for use in protecting communications between the network node and a mobile station; the network node calculating a Message Authentication Code based on at least the at least one new IOV value , an incremented IOV counter value , and a constant indicating that the Message Authentication Code is calculated to protect the new IOV value ; and the network node transmitting a message comprising an IOV container that includes the at least one new IOV value , the IOV counter value , and the calculated Message Authentication Code to the mobile station; the mobile station calculating an Expected Message Authentication Code based on at least the new IOV value , the received IOV counter value , and the constant; the mobile station verifying that the received IOV counter value is larger than an IOV counter value locally stored in the mobile station; the mobile station discarding the message if the received IOV counter value is equal or lower than the locally stored IOV counter value; the mobile station determining whether the received Message Authentication Code matches the calculated Expected Message Authentication Code; and the mobile station using the new IOV value for protecting communications between the mobile station and the network node if the received Message Authentication Code matches the calculated Expected Message Authentication Code and the received IOV counter value is larger than the IOV counter value locally stored in the mobile station.
Construction element including a concrete body and at least one straight edging strip that is anchored in the concrete body to form at least a part of an edge of the construction element, the edging strip extending along a straight line (X) and having two main faces extending along said straight line (X), the edging strip including a magnet intended to press the edge against a wall of a mould for manufacturing the construction element, the magnet being arranged on one of the main faces of the edging strip so as to project from said face, the edging strip being rigidly secured to the concrete body so as to form therewith a rigid whole and an upper portion of the edging strip projecting beyond an upper face of the concrete body.
A method for registering a group of two or more communication devices in a communication network characterized by : - sending, from a network device being part of the communication network, a group challenge message to the group of two or more communication devices, said group challenge message comprising a random challenge and an authentication token, and - receiving, at the network device, one or more response messages to the group challenge respectively from one or more of the group of two or more communication devices, wherein said response message from each of the responding communication devices in the group comprises a same group credential corresponding to the group, the same group credential being computed using said random challenge and by validating said authentication token using a group key provisioned prior to registration, wherein the network device aggregates responses received from the communication devices in the group and sends an aggregate message to an authenticator in the communication network such that all of the communication devices in the group are mutually authenticated with the authenticator, as a group. - sending, from a network device being part of the communication network, a group challenge message to the group of two or more communication devices, said group challenge message comprising a random challenge and an authentication token, and - receiving, at the network device, one or more response messages to the group challenge respectively from one or more of the group of two or more communication devices, wherein said response message from each of the responding communication devices in the group comprises a same group credential corresponding to the group, the same group credential being computed using said random challenge and by validating said authentication token using a group key provisioned prior to registration, wherein the network device aggregates responses received from the communication devices in the group and sends an aggregate message to an authenticator in the communication network such that all of the communication devices in the group are mutually authenticated with the authenticator, as a group.
A layered polyester film comprising a polyester film and a covering layer, wherein the polyester film is a biaxially oriented polyester film including a dicarboxylic acid component containing mainly a furandicarboxylic acid and a glycol component containing mainly ethylene glycol, the covering layer is formed on at least one surface of the polyester film, the layered polyester film has a plane orientation coefficient ΔP of not less than 0.100 and not more than 0.160, wherein the plane orientation coefficient ΔP is calculated in accordance with the equation ΔP = {(n x + n y ) - 2n z }/2, the refractive indices n x , n y and n z being measured in accordance with JIS K 7142-1996 5.1 (method A), and a thickness of the layered polyester film is not thinner than 5 μm and not thicker than 200 μm, and the layered polyester film has a heat shrinkage rate of not less than 0.01% and not more than 30% when heated at 150°C for 30 minutes in a machine direction and in a transverse direction perpendicular to the machine direction.
A data prefetching method, comprising: obtaining , by a compiler, N functions and one or more global variables of the N functions, wherein N is an integer greater than or equal to 1, the N functions relating to a specific service; and determining , by the compiler, a start address of one of the N functions and a start address of the one or more global variables of the N functions, so that, when a prefetch engine reads the start address of one of the N functions, the prefetch engine prefetches into a cache, according to the start address of one of the N functions and the start address of the one or more global variables, data that is in a memory and that is associated with the one or more global variables, wherein there is an address mapping relationship between the start address of the one or more global variables and a start address of the data. obtaining , by a compiler, N functions and one or more global variables of the N functions, wherein N is an integer greater than or equal to 1, the N functions relating to a specific service; and determining , by the compiler, a start address of one of the N functions and a start address of the one or more global variables of the N functions, so that, when a prefetch engine reads the start address of one of the N functions, the prefetch engine prefetches into a cache, according to the start address of one of the N functions and the start address of the one or more global variables, data that is in a memory and that is associated with the one or more global variables, wherein there is an address mapping relationship between the start address of the one or more global variables and a start address of the data.
A method of manufacturing a negative electrode material for a lithium ion secondary battery, the method comprising: (a) a step of obtaining a mixture containing a graphitizable aggregate and a graphitizable binder; (b) a step of obtaining a molded product with a density of 1.3 g/cm 3 or less by molding the mixture; (c) a step of obtaining a graphitized product by graphitizing the molded product; and (d) a step of obtaining a ground product by grinding the graphitized product, wherein the graphitizable aggregate includes coke, the graphitizable binder includes at least one selected from the group consisting of a pitch, a tar, a thermoplastic resin and a thermosetting resin and a content of the graphitizable binder is from 10 parts by mass to 30 parts by mass with respect to 100 parts by mass of the graphitizable aggregate or a content rate of the graphitizable binder is from 10% by mass to 25% by mass with respect to the mixture. (a) a step of obtaining a mixture containing a graphitizable aggregate and a graphitizable binder; (b) a step of obtaining a molded product with a density of 1.3 g/cm 3 or less by molding the mixture; (c) a step of obtaining a graphitized product by graphitizing the molded product; and (d) a step of obtaining a ground product by grinding the graphitized product,
A bending machine with a rear stop positioning system with a rear stop , the rear stop comprising a stop finger on which at least one stop surface is formed, a base unit that is formed for coupling with the rear stop positioning system , wherein the stop finger is coupled to the base unit by means of a linear guide , and the stop finger can be displaced relative to the base unit between a pushed-forward working position and a retracted position , characterized in that the stop finger and the base unit are coupled to a reset device, in particular a first spring element , by means of which the stop finger is pre-loaded into its working position , and that a switchable locking device is formed, by means of which the stop finger can optionally be locked in the working position or is released into its retracted position for displacement, in particular counter to the spring force of the first spring element .
A method, comprising: receiving , via a locking device, a first credential of a custodian; validating the first credential; determining a random period of time based upon a time-delay policy when the first credential is validated; and executing a lock release protocol upon expiration of the random period of time; wherein said executing a lock release protocol comprises: requesting, via the locking device, a second credential of the custodian within a specified time period upon expiration of the random period of time; receiving, via the locking device, the second credential of the custodian within the specified time period; validating the second credential; and executing a lock release command to cause the locking device to unlock. receiving , via a locking device, a first credential of a custodian; validating the first credential; determining a random period of time based upon a time-delay policy when the first credential is validated; and executing a lock release protocol upon expiration of the random period of time; wherein said executing a lock release protocol comprises: requesting, via the locking device, a second credential of the custodian within a specified time period upon expiration of the random period of time; receiving, via the locking device, the second credential of the custodian within the specified time period; validating the second credential; and executing a lock release command to cause the locking device to unlock.
A flavor inhaler comprising: a flavor source configured to generate flavor without combusting; a cylindrical holding member including at least the flavor source inside; and a flow path that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; wherein the suction port comprises a filter ; and wherein the cylindrical holding member has one or more holes arranged such that external air flows into the flow path without passing the flavor source , characterized by a cooling layer provided only downstream of the flavor source , wherein the cooling layer is provided on an inner surface of the cylindrical holding member , and faces the flow path , and wherein inside of the cooling layer is hollow. a flavor source configured to generate flavor without combusting; a cylindrical holding member including at least the flavor source inside; and a flow path that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; wherein the suction port comprises a filter ; and wherein the cylindrical holding member has one or more holes arranged such that external air flows into the flow path without passing the flavor source , characterized by a cooling layer provided only downstream of the flavor source , wherein the cooling layer is provided on an inner surface of the cylindrical holding member , and faces the flow path , and wherein inside of the cooling layer is hollow.
Water-borne UV-curable coating composition comprising (a) 30 to 70 wt% of a waterborne UV-curable polyurethane dispersion, wherein the UV-curable polyurethane preferably comprises hydroxyl groups, (b) 10 to 40 wt% of a waterborne UV-curable acrylate emulsion, wherein the UV-curable acrylate preferably comprises hydroxyl groups, (c) 0.5 to 5 wt% of a mixture of defoamers comprising (i) 30 to 70 wt% of a silicone-free polymeric defoamer, and (ii) 70 to 30 wt% of a polysiloxane emulsion, based on the total weight of the defoamer, (d) 1.2 to 5 wt% of a mixture of photoinitiators comprising 25 to 75 wt% a first photoinitiator selected from the group of acyl-phosphine-oxides, and 75 to 25 wt% a second photoinitiator selected from the group of alpha-hydroxy-ketones based on the total weight of the mixture of photoinitiators, and (e) 0 to 30 wt% of colorant, wherein the amounts of components (a) to (e) are based on the total weight of the water-borne UV-curable coating composition. (a) 30 to 70 wt% of a waterborne UV-curable polyurethane dispersion, wherein the UV-curable polyurethane preferably comprises hydroxyl groups, (b) 10 to 40 wt% of a waterborne UV-curable acrylate emulsion, wherein the UV-curable acrylate preferably comprises hydroxyl groups, (c) 0.5 to 5 wt% of a mixture of defoamers comprising (i) 30 to 70 wt% of a silicone-free polymeric defoamer, and (ii) 70 to 30 wt% of a polysiloxane emulsion, based on the total weight of the defoamer, (i) 30 to 70 wt% of a silicone-free polymeric defoamer, and (ii) 70 to 30 wt% of a polysiloxane emulsion, (d) 1.2 to 5 wt% of a mixture of photoinitiators comprising 25 to 75 wt% a first photoinitiator selected from the group of acyl-phosphine-oxides, and 75 to 25 wt% a second photoinitiator selected from the group of alpha-hydroxy-ketones based on the total weight of the mixture of photoinitiators, and 25 to 75 wt% a first photoinitiator selected from the group of acyl-phosphine-oxides, and 75 to 25 wt% a second photoinitiator selected from the group of alpha-hydroxy-ketones (e) 0 to 30 wt% of colorant,
A cell culture device comprising: a disposable culture vessel comprising a casing in which vessel there is situated at least one cell culture zone and at least one cell-free medium transfer zone , allowing a flow of a culture medium (M) between the cell culture zone and the at least one cell-free medium transfer zone ; and at least one sensor element of a sensor for measuring at least one culture parameter of said cell culture, wherein the sensor comprises a cell density sensor; said sensor element being situated in said culture vessel on one of the walls delimiting the cell culture zone of the disposable culture vessel and directed toward said cell culture zone ; wherein said cell culture zone is a volume within said culture vessel comprising cells in culture, said cells being at least partially isolated from the rest of said culture vessel by impermeable and semi-permeable walls. a disposable culture vessel comprising a casing in which vessel there is situated at least one cell culture zone and at least one cell-free medium transfer zone , allowing a flow of a culture medium (M) between the cell culture zone and the at least one cell-free medium transfer zone ; and at least one sensor element of a sensor for measuring at least one culture parameter of said cell culture, wherein the sensor comprises a cell density sensor; said sensor element being situated in said culture vessel on one of the walls delimiting the cell culture zone of the disposable culture vessel and directed toward said cell culture zone ; wherein said cell culture zone is a volume within said culture vessel comprising cells in culture, said cells being at least partially isolated from the rest of said culture vessel by impermeable and semi-permeable walls.
Swimming pool aerator being intended for use in swimming pools equipped with a water recirculation circuit, said swimming pool aerator comprising a spray body with a Venturi tube channel and an atmospheric air intake pipe for intake of air from above the pool, whereby said spray body consists of a frustoconical plastic tube , provided at the smaller diameter end with a connecting means to a recirculating water outlet in the pool, below the pool water level, the other end, of larger diameter, being free for the jet outlet of the aspirated air together with the recirculated water, in the pool water, the axis of the frustoconical plastic tube being inclined at an angle (a) between 10 - 20 degrees to the perpendicular to the base plane of the connecting means , and in the first third of the length of the spray body from the end with the connecting means , said spray body being provided with a cylindrical branch also acting as guide, in which the lower end of the air intake pipe has been inserted by sliding until it reaches the inner wall of the tube.
A method of operating a see-through display of a head-mounted display device , the method comprising: displaying , with the see-through display , an image of a virtual object such that the virtual object appears in front of a real-world background when viewed through the see-through display ; and increasing a relative brightness of the real-world background around a virtual shadow of the virtual object when viewed through the see-through display with illuminated pixels of the see-through display such that the virtual shadow appears to result from a spotlight , characterized in that the spotlight is offset and fixed relative to a vantage point of the see-through display . displaying , with the see-through display , an image of a virtual object such that the virtual object appears in front of a real-world background when viewed through the see-through display ; and increasing a relative brightness of the real-world background around a virtual shadow of the virtual object when viewed through the see-through display with illuminated pixels of the see-through display such that the virtual shadow appears to result from a spotlight , characterized in that the spotlight is offset and fixed relative to a vantage point of the see-through display .
An intravascular blood filter system, comprising: an expandable proximal filter adapted to be collapsed within a proximal sheath; an expandable distal filter carried by a guiding member and adapted to be collapsed within a distal articulatable sheath, wherein the proximal sheath and the proximal filter are adapted for relative axial translation to allow the proximal filter to expand from a collapsed configuration within the proximal sheath to an expanded configuration outside of the proximal sheath, and wherein the guiding member and the distal sheath are adapted for relative axial translation to allow the expandable distal filter to expand from a collapsed configuration within the distal articulatable sheath to an expanded configuration outside of the distal articulatable sheath characterised in that the distal articulatable sheath has a preset S-bend configuration, the proximal filter has a generally distally-facing opening, and the distal filter has a generally proximally-facing opening. an expandable proximal filter adapted to be collapsed within a proximal sheath; an expandable distal filter carried by a guiding member and adapted to be collapsed within a distal articulatable sheath, wherein the proximal sheath and the proximal filter are adapted for relative axial translation to allow the proximal filter to expand from a collapsed configuration within the proximal sheath to an expanded configuration outside of the proximal sheath, and wherein the guiding member and the distal sheath are adapted for relative axial translation to allow the expandable distal filter to expand from a collapsed configuration within the distal articulatable sheath to an expanded configuration outside of the distal articulatable sheath characterised in that the distal articulatable sheath has a preset S-bend configuration, the proximal filter has a generally distally-facing opening, and the distal filter has a generally proximally-facing opening.
A drilling method that comprises: obtaining a formation model representing formation properties to be encountered by a drilling assembly being steered towards a target; identifying at least one path-dependent drilling model for predicting the drilling assembly's response to one or more operating parameters; characterizing uncertainties associated with said formation model and said at least one drilling model, said characterizing yielding a probability density function for each uncertainty; representing an acceptable range for each of said one or more operating parameters as a probability density function; and steering the drilling assembly towards the target using the optimized operating parameters, wherein the drilling assembly includes: a bottomhole assembly with a drill bit and a steering assembly ; and a drill string that connects the bottomhole assembly to a drilling rig. obtaining a formation model representing formation properties to be encountered by a drilling assembly being steered towards a target; identifying at least one path-dependent drilling model for predicting the drilling assembly's response to one or more operating parameters; characterizing uncertainties associated with said formation model and said at least one drilling model, said characterizing yielding a probability density function for each uncertainty; representing an acceptable range for each of said one or more operating parameters as a probability density function; and steering the drilling assembly towards the target using the optimized operating parameters, wherein the drilling assembly includes: a bottomhole assembly with a drill bit and a steering assembly ; and a drill string that connects the bottomhole assembly to a drilling rig. a bottomhole assembly with a drill bit and a steering assembly ; and a drill string that connects the bottomhole assembly to a drilling rig.
A method of pre-drying hydrolytic lignin comprising blending hydrolytic lignin having a relative moisture content of 55% to 80% with hydrolytic lignin having a relative moisture content of 0% to 45% to produce a hydrolytic lignin product having a moisture content below 55%, wherein the ratio of hydrolytic lignins is from 1:6 to 10:1.