mhurhangee/patent-ind-claim-en huggingface dataset:
A locking assembly for locking a portable electronic device to a work surface, the locking assembly comprising: a clamp assembly including a bar extending between a first end and a second end for placement adjacent to the work surface; the clamp assembly further including a first jaw and a second jaw extending outwardly from the bar in spaced relationship to one another; at least one of the first jaw or the second jaw moveable along the bar between the first and second ends for clamping a work surface between the first and second jaws; a locking mechanism operably interconnected to one of the first jaw or the second jaw and interchangeable from an unlocked condition wherein the at least one movable first or second jaw is freely movable along the bar to a locked condition wherein the at least one movable first or second jaw is prevented from moving along the bar to selectively lock the relative positioning between the first jaw and the second jaw ; characterized by a connector extending from a first connector end that is releasably connected to one of the clamp assembly or the locking mechanism in the locked condition to a second connector end for being connected to the portable electronic device to secure the portable electronic device to the work surface when the locking mechanism is disposed in the locked condition. a clamp assembly including a bar extending between a first end and a second end for placement adjacent to the work surface; the clamp assembly further including a first jaw and a second jaw extending outwardly from the bar in spaced relationship to one another; at least one of the first jaw or the second jaw moveable along the bar between the first and second ends for clamping a work surface between the first and second jaws; a locking mechanism operably interconnected to one of the first jaw or the second jaw and interchangeable from an unlocked condition wherein the at least one movable first or second jaw is freely movable along the bar to a locked condition wherein the at least one movable first or second jaw is prevented from moving along the bar to selectively lock the relative positioning between the first jaw and the second jaw ; characterized by a connector extending from a first connector end that is releasably connected to one of the clamp assembly or the locking mechanism in the locked condition to a second connector end for being connected to the portable electronic device to secure the portable electronic device to the work surface when the locking mechanism is disposed in the locked condition.
An isolated bispecific antigen-binding molecule, comprising: (a) a first antigen-binding domain that specifically binds a human B cell maturation antigen (BCMA) that comprises HCDR1,HCDR2,HCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 68, 70, 72, and LCDR1,LCDR2,LCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 84, 86, 88; and (b) a second antigen-binding domain that specifically binds human CD3 that comprises HCDR1,HCDR2,HCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 92, 94, 96, and LCDR1,LCDR2,LCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 84, 86, 88. (a) a first antigen-binding domain that specifically binds a human B cell maturation antigen (BCMA) that comprises HCDR1,HCDR2,HCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 68, 70, 72, and LCDR1,LCDR2,LCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 84, 86, 88; and (b) a second antigen-binding domain that specifically binds human CD3 that comprises HCDR1,HCDR2,HCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 92, 94, 96, and LCDR1,LCDR2,LCDR3 domains, respectively, comprising the amino acid sequences of SEQ ID NOs: 84, 86, 88.
A process for utilizing an adaptive algorithm to allow for variations in RFID transponders within a supply roll of a thermal printer , comprising the steps of: starting the thermal printer at a RF power level low enough to avoid detecting a RFID transponder; incrementing the RF power level up in steps until a RFID transponder is detected to determine a detection point; reading and saving a serialized tag identification, TID, field for the detected RFID transponder; increasing the RF power level; encoding data on the detected RFID transponder; reducing the RF power level back down to a selected read RF power level; reading and comparing the encoded data with data originally transmitted to confirm the encoded data is correct; and utilizing the detection point as a starting point for next RFID transponder. starting the thermal printer at a RF power level low enough to avoid detecting a RFID transponder; incrementing the RF power level up in steps until a RFID transponder is detected to determine a detection point; reading and saving a serialized tag identification, TID, field for the detected RFID transponder; increasing the RF power level; encoding data on the detected RFID transponder; reducing the RF power level back down to a selected read RF power level; reading and comparing the encoded data with data originally transmitted to confirm the encoded data is correct; and utilizing the detection point as a starting point for next RFID transponder.
A portable communication device comprising: a communication circuitry ; a memory configured to store a client application (310-1, 310-2, 510) configured to perform one or more functions corresponding to a multi-access edge computing, MEC, application (460-1, 460-2) that can be executed by a MEC host server , and a MEC service module configured to provide information on the MEC application to the client application, and a processor operatively connected to the communication circuitry and the memory , wherein the processor is configured to: transmit, through the communication circuitry, a request for a MEC application list that can be executed by the MEC host server to a MEC proxy server by executing the MEC service module , receive, through the communication circuitry, the MEC application list from the MEC proxy server using the MEC service module , provide information related to the MEC application to the client application using the MEC service module , if the MEC application is in the received MEC application list, and connect, through the communication circuitry, with the MEC host server based on the provided information by executing the client application. a communication circuitry ; a memory configured to store a client application (310-1, 310-2, 510) configured to perform one or more functions corresponding to a multi-access edge computing, MEC, application (460-1, 460-2) that can be executed by a MEC host server , and a MEC service module configured to provide information on the MEC application to the client application, and a processor operatively connected to the communication circuitry and the memory , wherein the processor is configured to: transmit, through the communication circuitry, a request for a MEC application list that can be executed by the MEC host server to a MEC proxy server by executing the MEC service module , receive, through the communication circuitry, the MEC application list from the MEC proxy server using the MEC service module , provide information related to the MEC application to the client application using the MEC service module , if the MEC application is in the received MEC application list, and connect, through the communication circuitry, with the MEC host server based on the provided information by executing the client application. transmit, through the communication circuitry, a request for a MEC application list that can be executed by the MEC host server to a MEC proxy server by executing the MEC service module , receive, through the communication circuitry, the MEC application list from the MEC proxy server using the MEC service module , provide information related to the MEC application to the client application using the MEC service module , if the MEC application is in the received MEC application list, and connect, through the communication circuitry, with the MEC host server based on the provided information by executing the client application.
A patella protection system adapted for use by a wearer comprising: - an upper member designed to be positioned in proximity of an upper part of the wearer's leg; - a lower member designed to be positioned in proximity of a lower part of the wearer's leg; - an intermediate guard member designed to be positioned over the patella and operatively connected to the upper member and the lower member ; wherein said upper member and said lower member are designed to move within said intermediate guard member between a straight configuration and an angulated configuration, the patella protection system is characterized in that said upper member and lower member have predetermined degree of overlap there between within the intermediate guard member in the straight configuration and a reduced degree of overlap there between within the intermediate guard member in the angulated configuration. - an upper member designed to be positioned in proximity of an upper part of the wearer's leg; - a lower member designed to be positioned in proximity of a lower part of the wearer's leg; - an intermediate guard member designed to be positioned over the patella and operatively connected to the upper member and the lower member ;
A heddle for a harness of a Jacquard weaving loom , this heddle comprising two strands each equipped at a first end with a member for hooking-up the heddle to an element (18; 26) of the harness , as well as a link with an eyelet for guiding a warp thread , the eyelet being positioned, along a longitudinal axis (X10) of the heddle, between both strands, and the link being in a synthetic material and comprising two branches positioned on either side of the eyelet along the longitudinal axis (X10), characterized in that - a portion of each branch of the link is over-molded on a second end of a strand opposite to its first end , the second end being shifted longitudinally from the eyelet , - each branch of the link completely surrounds the second end of the corresponding strand , - the second end of each strand is conformed with a geometry intended to make an anchoring opposing the displacement of the over-molded portion of the branch of the link relatively to the second end of the corresponding strand along two opposite longitudinal directions (F1, F2), - the eyelet is delimited by the synthetic material which makes up the link . - a portion of each branch of the link is over-molded on a second end of a strand opposite to its first end , the second end being shifted longitudinally from the eyelet , - each branch of the link completely surrounds the second end of the corresponding strand , - the second end of each strand is conformed with a geometry intended to make an anchoring opposing the displacement of the over-molded portion of the branch of the link relatively to the second end of the corresponding strand along two opposite longitudinal directions (F1, F2), - the eyelet is delimited by the synthetic material which makes up the link .
Method for determining the state of wear of a sidewall of a tyre for a heavy-duty vehicle for urban use: - said sidewall comprising at least one wear indicator which is recessed in relation to an outer face of the sidewall, is in contact with the atmospheric air, and visually contrasts with the outer face of the sidewall, - said method for determining the state of wear of the sidewall being characterized by: - a step of sensing the state of the wear indicator on a given date Ti, - a step of determining the depth Pi of the wear indicator on the given date Ti, - a step of determining the mean rate of wear Vi of the wear indicator on the given date Ti, - a step of estimating the provisional date of maintenance Mi for the tyre when the depth of the wear indicator will be zero, - a step of outputting at least one item of information about the state of wear of the sidewall and about the provisional date of maintenance Mi for the tyre . - said sidewall comprising at least one wear indicator which is recessed in relation to an outer face of the sidewall, is in contact with the atmospheric air, and visually contrasts with the outer face of the sidewall, - said method for determining the state of wear of the sidewall being characterized by: - a step of sensing the state of the wear indicator on a given date Ti, - a step of determining the depth Pi of the wear indicator on the given date Ti, - a step of determining the mean rate of wear Vi of the wear indicator on the given date Ti, - a step of estimating the provisional date of maintenance Mi for the tyre when the depth of the wear indicator will be zero, - a step of outputting at least one item of information about the state of wear of the sidewall and about the provisional date of maintenance Mi for the tyre . - a step of sensing the state of the wear indicator on a given date Ti, - a step of determining the depth Pi of the wear indicator on the given date Ti, - a step of determining the mean rate of wear Vi of the wear indicator on the given date Ti, - a step of estimating the provisional date of maintenance Mi for the tyre when the depth of the wear indicator will be zero, - a step of outputting at least one item of information about the state of wear of the sidewall and about the provisional date of maintenance Mi for the tyre .
A method comprising: forming a fuel cell fluid flow field plate by extruding carbonaceous elongated sheets (17; 25) of material with an extrusion die, wherein the extrusion die is configured to create straight grooves (18; 28) separated by ridges in the elongated sheets (17; 25); and thereafter cutting the elongated sheets (17; 25) of material to provide flow field plates (22; 32) of desired size for fuel cell stacks, wherein said elongated sheet (17; 25) of elongated carbonaceous material is porous and hydrophilic, and said grooves (18; 28) comprise reactant gas flow fields, characterized in that said elongated sheet of material having the straight grooves is thereafter cut along cutting lines into a plurality of pieces at an oblique angle with respect to said straight grooves , wherein a plurality of oxidant reactant flow field plates with edges at an oblique angle with respect to said straight grooves is formed. thereafter cutting the elongated sheets (17; 25) of material to provide flow field plates (22; 32) of desired size for fuel cell stacks, wherein said elongated sheet (17; 25) of elongated carbonaceous material is porous and hydrophilic, and said grooves (18; 28) comprise reactant gas flow fields, characterized in that said elongated sheet of material having the straight grooves is thereafter cut along cutting lines into a plurality of pieces at an oblique angle with respect to said straight grooves , wherein a plurality of oxidant reactant flow field plates with edges at an oblique angle with respect to said straight grooves is formed.
A computer-implemented method for processing blockchain data, the method being performed by a non-validating node, NVN, of a permissioned blockchain network, the method comprising: receiving transactions issued by a client node communicably coupled to the permissioned blockchain network; sending the transactions to a plurality of validating nodes for validating the transactions and running consensus; receiving one or more blocks generated based on consensus of at least a portion of the transactions by the plurality of validating nodes; encoding the one or more blocks using error correction coding, ECC, to generate one or more encoded blocks; and for each encoded block of the one or more encoded blocks: dividing the encoded block into a plurality of datasets based on a data storage scheme associated with the one or more blocks, wherein the data storage scheme provides assignments of the plurality of datasets to a plurality of non-validating nodes, NVNs, wherein the NVNs do not participate in consensus; and storing at least one of the plurality of datasets based on the assignments provided in the data storage scheme. receiving transactions issued by a client node communicably coupled to the permissioned blockchain network; sending the transactions to a plurality of validating nodes for validating the transactions and running consensus; receiving one or more blocks generated based on consensus of at least a portion of the transactions by the plurality of validating nodes; encoding the one or more blocks using error correction coding, ECC, to generate one or more encoded blocks; and for each encoded block of the one or more encoded blocks: dividing the encoded block into a plurality of datasets based on a data storage scheme associated with the one or more blocks, wherein the data storage scheme provides assignments of the plurality of datasets to a plurality of non-validating nodes, NVNs, wherein the NVNs do not participate in consensus; and storing at least one of the plurality of datasets based on the assignments provided in the data storage scheme. dividing the encoded block into a plurality of datasets based on a data storage scheme associated with the one or more blocks, wherein the data storage scheme provides assignments of the plurality of datasets to a plurality of non-validating nodes, NVNs, wherein the NVNs do not participate in consensus; and storing at least one of the plurality of datasets based on the assignments provided in the data storage scheme.
A method for receiving an input to a vision sensory test by way of a touch screen device having memory and a processor, the method comprising: displaying a graphical element of the vision sensory test at a remote sensory testing and training device on a first display ; communicating between the sensory testing and training device and the touch screen device by way of a wireless communication protocol; receiving an input from a subject in response to the vision sensory test, the input in the form of a physical contact between the subject and the display surface of the touch screen device , wherein the physical contact input is in the form of a slide touch comprising contact at an initial point on the display surface and the contact being maintained across the display surface to a second point on the display surface, the direction of the input being identified based on the direction of travel radiating from the initial point of contact to the second point relative to one of two orthogonal axes , and wherein the display surface of the touch screen device comprises a noninput portion and an input portion , the noninput portion being associated with a null input that is not associated with a direction ,; and communicating the directional input to the sensory testing and training device utilizing the wireless communication protocol. displaying a graphical element of the vision sensory test at a remote sensory testing and training device on a first display ; communicating between the sensory testing and training device and the touch screen device by way of a wireless communication protocol; receiving an input from a subject in response to the vision sensory test, the input in the form of a physical contact between the subject and the display surface of the touch screen device , wherein the physical contact input is in the form of a slide touch comprising contact at an initial point on the display surface and the contact being maintained across the display surface to a second point on the display surface, the direction of the input being identified based on the direction of travel radiating from the initial point of contact to the second point relative to one of two orthogonal axes , and wherein the display surface of the touch screen device comprises a noninput portion and an input portion , the noninput portion being associated with a null input that is not associated with a direction ,; and communicating the directional input to the sensory testing and training device utilizing the wireless communication protocol.
A gas turbine engine comprising a fan and an intake liner , the liner comprising at least two acoustic absorption segments forming a duct and an axially extending splice , that is a splice having its longitudinal extent substantially parallel to the main rotational axis of the gas turbine engine, at each axially extending interface between segments, the splice being located between the segments, and where at least one of the splices comprises a first portion and a second portion , the splice having a greater segment separating width in the second portion than in the first portion, so that adjacent the first portion the segments are closer together than adjacent the second portion and where further the first portion is nearer to the fan than the second portion.
Method for overmoulding a polyamide component by means of a polyolefin matrix, the polyamide component having a melting point M p and the polyolefin matrix consisting of a mixture of at least one non-reactive aliphatic polyolefin and at least one polyolefin comprising a reactive function chosen from the anhydride family, comprising a step of overmoulding the polyamide component by means of the polyolefin matrix, said matrix being injected in the molten state onto the polyamide component, characterized in that the polyolefin comprising said reactive function represents between 5% and 20% by weight of the abovementioned matrix and in that , prior to the step of overmoulding said component by means of the matrix, at least the surface of said component is heated to a temperature in a range between (M p - 55)°C (degrees Celsius) and (M p - 20)°C.
System which has at least two electric machines , wherein each electric machine comprises a rotor rotatable about a shaft and a stator, wherein the stator has an original stator plate , the outer wall of which is locally limited and flattened in at least one location and otherwise is designed to be round, wherein the electric machines are arranged next to one another, wherein for each two directly adjacent electric machines locally limited and flattened locations of the outer walls of the stator plates of the respective electric machines face one another, wherein for the two directly adjacent electric machines the located limited and flattened locations of the outer walls of the stator plates of the stators are connected to one another at least partly to form a common stator metal plate , characterised in that an original stator plate has a completely round outer wall, which is flattened and locally limited in at least one location , wherein for each electric machine an originally round coolant circuit , which coaxially encloses the respective electric machine , is flattened in one location, and thereby a flattened coolant circuit is produced, wherein the flattened coolant circuits are unified into a common coolant circuit .