mhurhangee/ep-ind-claims huggingface dataset:
A method for allocating a MAC address to a communication device (4, 5) in a network environment, which is part of a desk-sharing environment comprising a number of communication devices (4, 5), wherein a first communication device is arranged in a first environment with a first workstation and a second communication device is arranged in a second environment with a second workstation, and wherein a user has a near-field communication device in the form of a headset to connect to the first communication device or the second communication device via a Bluetooth connection, wherein the first and second communication devices (4, 5) can be configured with a MAC address, wherein the user registration with the network environment is executed via the communication device (4, 5), and wherein a telephone number associated with the user is allocated to the first telephony terminal when the user registers with the network environment, wherein a MAC address associated with the user and specific to the user is configured in the first communication device to pair the first communication device with the headset of the user when the user initially registers with the network environment via the first telephony terminal, wherein the pairing is executed between the first communication device and the near-field communication device of the user in the first environment when the user initially registers in the first environment of the network environment, characterized in that a unique identifier assigned to the user, which is used to generate the MAC address on the first telephony terminal in the first environment, is generated by calculating a hash value using a defined hash algorithm of 24 bits from the phone number associated with the user, wherein the unique identifier assigned to the user is written into a second half of an individually configurable portion of the MAC address consisting of 3 bytes in order to generate a user-specific MAC address, and wherein, when the user changes from the first environment to the second environment during the user registration with the second communication device of the second workstation, the same MAC address associated with the user and specific to the user is used, which MAC address is calculated using the same hash algorithm to avoid a repeat pairing between the headset of the user and the second communication device.
An in situ method for preparing a bimorphological aqueous dispersion of polymer particles comprising the steps of: a) mixing together an aqueous dispersion of phosphorus acid-functionalized acrylic-based first seed polymer particles having a volume average particle size in the range of from 40 nm to 85 nm with an aqueous dispersion of acrylic-based second seed polymer particles comprising a substantial absence of phosphorus acid functionality and having a volume average particle size in the range of from 20 nm to 80 nm; wherein the volume average particle size is measured according to the method defined in the experimental section of the specification; b) contacting monomers with the aqueous dispersions of the first and second seed polymer particles under emulsion polymerization conditions to form a dispersion of 1) polymer particles with a protuberating phosphorus acid functionalized core; and 2) polymer particles without a protuberating core; and wherein the weight-to-weight ratio of particles with the protuberating phosphorus acid functionalized core to particles without a protuberating core is in the range of 25:75 to 75:25; and wherein the monomers used to prepare the second seed polymer are the same and in the same proportions as the monomers fed to the reactor. a) mixing together an aqueous dispersion of phosphorus acid-functionalized acrylic-based first seed polymer particles having a volume average particle size in the range of from 40 nm to 85 nm with an aqueous dispersion of acrylic-based second seed polymer particles comprising a substantial absence of phosphorus acid functionality and having a volume average particle size in the range of from 20 nm to 80 nm; wherein the volume average particle size is measured according to the method defined in the experimental section of the specification; b) contacting monomers with the aqueous dispersions of the first and second seed polymer particles under emulsion polymerization conditions to form a dispersion of 1) polymer particles with a protuberating phosphorus acid functionalized core; and 2) polymer particles without a protuberating core; and
An optically variable security element for securing valuable articles that viewing-angle-dependently displays a motif having at least one curve depiction (14A, 14B) that, from a first viewing direction, is visible as an initial curve having two or more connected, non-collinear segments, and that, when the security element is tilted about a predetermined axis, splits into the individual segments in that the segments of the initial curve move alternatingly in different directions away from the initial curve, having - an areal motif region having a plurality of optically effective elements (30,32, 34, 36), each of which directs incident light in a preferred direction, - the segments of the initial curve in the areal motif region each having associated with it one movement segment in the form of a sub-region of the areal motif region, in which sub-region the optically effective elements (30, 32, 34, 36) are arranged and aligned in such a way that, from the first viewing direction, they display the initial curve having the connected segments, and that, from viewing directions tilted about the predetermined axis, they display curve depictions in which the segments lie alternatingly in different directions and, with increasing tilt angle, increasingly further away from the initial curve. - an areal motif region having a plurality of optically effective elements (30,32, 34, 36), each of which directs incident light in a preferred direction, - the segments of the initial curve in the areal motif region each having associated with it one movement segment in the form of a sub-region of the areal motif region, in which sub-region the optically effective elements (30, 32, 34, 36) are arranged and aligned in such a way that, from the first viewing direction, they display the initial curve having the connected segments, and that, from viewing directions tilted about the predetermined axis, they display curve depictions in which the segments lie alternatingly in different directions and, with increasing tilt angle, increasingly further away from the initial curve.
A flow battery comprising: a liquid electrolyte (22,26) including an electrochemically active specie; a bipolar plate (50,52;150;250;450;550;650) including a face having channels (50a;150a,150a';350a;450a;550a;650a) therein for receiving flow of the liquid electrolyte (22,26); and a porous electrode (62,64) contacting the face and extending across open tops (150c;350c;650c) of the channels (50a;150a,150a';350a;450a;550a;650a), the porous electrode (62,64) being catalytically active with regard to the liquid electrolyte (22,26), and wherein the channels (50a;150a,150a';350a;450a;550a;650a) of the bipolar plate (50,52;150;250;450;550;650) have a channel shape having a cross-sectional area that varies over the length of the channel (50a;150a,150a';350a;450a;550a;650a) that is configured to positively force at least a portion of the flow of the liquid electrolyte (22,26) into the porous electrode (62,64). a liquid electrolyte (22,26) including an electrochemically active specie; a bipolar plate (50,52;150;250;450;550;650) including a face having channels (50a;150a,150a';350a;450a;550a;650a) therein for receiving flow of the liquid electrolyte (22,26); and a porous electrode (62,64) contacting the face and extending across open tops (150c;350c;650c) of the channels (50a;150a,150a';350a;450a;550a;650a), the porous electrode (62,64) being catalytically active with regard to the liquid electrolyte (22,26), and wherein the channels (50a;150a,150a';350a;450a;550a;650a) of the bipolar plate (50,52;150;250;450;550;650) have a channel shape having a cross-sectional area that varies over the length of the channel (50a;150a,150a';350a;450a;550a;650a) that is configured to positively force at least a portion of the flow of the liquid electrolyte (22,26) into the porous electrode (62,64).
A photographic paper with perfume for a thermal sublimation printer, comprising: a first substrate; a second substrate over the first substrate; a perfume-containing adhesive layer interposed between the first substrate and the second substrate; and a dye-receiving layer over the second substrate; characterized in that the photographic paper further comprises a reflective layer interposed between the second substrate and the dye-receiving layer. a first substrate; a second substrate over the first substrate; a perfume-containing adhesive layer interposed between the first substrate and the second substrate; and a dye-receiving layer over the second substrate; characterized in that the photographic paper further comprises a reflective layer interposed between the second substrate and the dye-receiving layer.
A power transmission device of a steering apparatus comprising: a first shaft that has a one-side end at which a coupling end is provided; a second shaft that has an end facing the first shaft at which a coupling groove into which the one-side end of the first shaft is inserted is provided; an elastic support member having an inner circumferential face with which the coupling end is supported and coupled and an outer circumferential face that is supported on and coupled with an inner circumferential face of the coupling groove, and a connecting member that has one side with which the first shaft is coupled and the other side with which the second shaft is coupled and transmits power by coaxially connecting the first shaft and the second shaft, wherein one side face of the elastic support member in an axial direction is supported on a stepped part formed at a tip end of the coupling end, and the other side face of the elastic support member in the axial direction is supported on an inner wall face of the coupling groove. a first shaft that has a one-side end at which a coupling end is provided; a second shaft that has an end facing the first shaft at which a coupling groove into which the one-side end of the first shaft is inserted is provided; an elastic support member having an inner circumferential face with which the coupling end is supported and coupled and an outer circumferential face that is supported on and coupled with an inner circumferential face of the coupling groove, and a connecting member that has one side with which the first shaft is coupled and the other side with which the second shaft is coupled and transmits power by coaxially connecting the first shaft and the second shaft,
A method, comprising: transmitting, by a centralized unit of a split architecture, an instruction to a distributed unit of the split architecture, the distributed unit connected with the centralized unit through a fronthaul interface, the instruction configured to request the distributed unit to report a flow control state; receiving, by the centralized unit from the distributed unit, a flow control state message including flow control state information, wherein the flow control state information includes: identification information of a data packet received by the distributed unit from the centralized unit and successfully transmitted to a user equipment by the distributed unit, a desired buffer size of a radio bearer, RB, of the distributed unit, and identification information for notifying the centralized unit of a data packet lost in the distributed unit; and performing, by the centralized unit according to the flow control state information, a flow control processing. transmitting, by a centralized unit of a split architecture, an instruction to a distributed unit of the split architecture, the distributed unit connected with the centralized unit through a fronthaul interface, the instruction configured to request the distributed unit to report a flow control state; receiving, by the centralized unit from the distributed unit, a flow control state message including flow control state information, wherein the flow control state information includes: identification information of a data packet received by the distributed unit from the centralized unit and successfully transmitted to a user equipment by the distributed unit, a desired buffer size of a radio bearer, RB, of the distributed unit, and identification information for notifying the centralized unit of a data packet lost in the distributed unit; and performing, by the centralized unit according to the flow control state information, a flow control processing.
A direct laminated flooring product, comprising, on a surface S a polymer resin impregnated cellulose sheet, on which a ceramic tile design with perimetral rims is printed, characterized in that, once pressed by a press mould, tile units of the flooring product have an offset/sunken area on their perimetral rims.
A composition for Ag plating a metal surface comprising a) a source of Ag ions; b) an amino acid inhibitor of Ag deposition which functions at a pH between 4 and 5 to slow Ag deposition rate; and c) water, wherein the composition has a pH between 4 and 5 and an ionic content such that the composition has a room temperature conductivity below 25 mS/cm. a) a source of Ag ions; b) an amino acid inhibitor of Ag deposition which functions at a pH between 4 and 5 to slow Ag deposition rate; and c) water,
An apparatus of a mobile station, MS, configured for cellular Internet of Things, CloT, the apparatus comprising one or more processors and memory configured to: receive, at the MS, a ready state discontinuous reception, RS-DRX, configuration message from a base station, wherein the RS-DRX configuration message includes one or more RS-DRX parameters; and initiate, at the MS, RS-DRX based on the one or more RS-DRX parameters included in the RS-DRX configuration message, wherein RS-DRX enables the MS to be in a packet idle state of an MS ready state in between data communications by the MS with the base station, wherein the packet idle state includes a selected number of short RS-DRX cycles and one or more long RS-DRX cycles, wherein the MS is configured to periodically switch from a defined sleep duration to a defined ON duration during the packet idle state of the MS ready state and check for downlink or uplink packet arrivals, wherein the MS is configured to receive an acknowledgement, ACK, from the base station or transmit an ACK or response to the base station during a defined ON duration in one of the selected number of short RS-DRX cycles in the packet idle state of the MS ready state, wherein reception of the ACK or transmission of the ACK or response during the defined ON duration in one of the selected number of short RS-DRX cycles does not terminate a remaining number of short RS-DRX cycles, and wherein the MS is configured to initiate the one or more long RS-DRX cycles after the selected number of short RS-DRX cycles. receive, at the MS, a ready state discontinuous reception, RS-DRX, configuration message from a base station, wherein the RS-DRX configuration message includes one or more RS-DRX parameters; and initiate, at the MS, RS-DRX based on the one or more RS-DRX parameters included in the RS-DRX configuration message, wherein RS-DRX enables the MS to be in a packet idle state of an MS ready state in between data communications by the MS with the base station, wherein the packet idle state includes a selected number of short RS-DRX cycles and one or more long RS-DRX cycles, wherein the MS is configured to periodically switch from a defined sleep duration to a defined ON duration during the packet idle state of the MS ready state and check for downlink or uplink packet arrivals, wherein the MS is configured to receive an acknowledgement, ACK, from the base station or transmit an ACK or response to the base station during a defined ON duration in one of the selected number of short RS-DRX cycles in the packet idle state of the MS ready state, wherein reception of the ACK or transmission of the ACK or response during the defined ON duration in one of the selected number of short RS-DRX cycles does not terminate a remaining number of short RS-DRX cycles, and wherein the MS is configured to initiate the one or more long RS-DRX cycles after the selected number of short RS-DRX cycles.
A method of providing a call handling service between a calling party and a called party having subscribed to said service in a communication network, the method comprising: - at a switching node serving the called party, receiving a request to set up a call from the calling party to the called party, the request including information identifying the calling party; - invoking a database checking function for comparing the information identifying the calling party with identities in a remote database; - in the event that the information identifying the calling party matches with an identity in the remote database, taking further action determined by call handling policies; - in the event that the information identifying the calling party does not match identities in the remote database, setting up the call, and when a request to provision the calling party identity in the data base is received from the called party, forwarding the calling party identity to the database for provisioning specific to the called party; characterized in that the method further comprises - at the database, when the number of requests for provisioning exceeds a predetermined number, provision the calling party identity as valid for all subscribers of said service. - at a switching node serving the called party, receiving a request to set up a call from the calling party to the called party, the request including information identifying the calling party; - invoking a database checking function for comparing the information identifying the calling party with identities in a remote database; - in the event that the information identifying the calling party matches with an identity in the remote database, taking further action determined by call handling policies; - in the event that the information identifying the calling party does not match identities in the remote database, setting up the call, and when a request to provision the calling party identity in the data base is received from the called party, forwarding the calling party identity to the database for provisioning specific to the called party; characterized in that the method further comprises - at the database, when the number of requests for provisioning exceeds a predetermined number, provision the calling party identity as valid for all subscribers of said service.
Internal combustion engine with multiple cylinders arranged in a row, each cylinder comprising at least one first outlet valve and at least one second outlet valve, wherein the first outlet valve and the second outlet valve are connected in terms of flow to an exhaust manifold device, wherein the exhaust manifold device comprises a first exhaust manifold and a second exhaust manifold that is separate from the first exhaust manifold, which can be mounted separately and independently from one another, and wherein the first exhaust manifold is connected in terms of flow to the first outlet valve and the second exhaust manifold is connected in terms of flow to the second outlet valve, characterised in that the first exhaust manifold and the second exhaust manifold are mounted together to a cylinder head of the internal combustion engine by means of a first support rail and a second support rail, wherein the first support rail comprises alternately a clamping area for the first exhaust manifold and an insertion area for the second exhaust manifold, wherein the clamping area is configured such that after mounting the first support rail to the cylinder head the first exhaust manifold is already held securely thereto, and wherein the insertion area is configured such that the second exhaust manifold can still be inserted into the cylinder head after mounting the first support rail to the cylinder head.
A medicament delivery device comprising a plurality of radioactive seeds and a reversibly deformable substrate adapted to support the plurality of radioactive seeds at a treatment site, and at least one spacer configured to link the seeds together, characterised in that: the plurality of radioactive seeds are reversibly attachable to the substrate such that the plurality of radioactive seeds are replaceable while the reversibly deformable substrate is adapted to remain at the treatment site.
A method for feeding back a correlation matrix in a multi-input multi-output system, comprising: constructing codebooks for the correlation matrix based on a conjugation nature of the correlation matrix and based on a predetermined relationship between diagonal elements and off-diagonal elements in the correlation matrix; selecting a codeword from the constructed codebooks; and feeding back a corresponding index of the selected codeword in the codebooks, wherein the constructing is characterised by: dividing elements of the correlation matrix into a first group of values, a second group of values, and a third group of values; and constructing a first codebook represented by a l -bit index, a second codebook represented by an m -bit index, and a third codebook represented by a n -bit index for the first group of values, the second group of values, and the third group of values, respectively, wherein l, m, and n ≥0, wherein: the first group of values denotes diagonal elements values R ii of the correlation matrix, R ii being a positive real number; the second group of values denotes off-diagonal correlation coefficient magnitudes r ij of the correlation matrix, r ij being a positive real number less than 1; and the third group of values denotes off-diagonal correlation coefficient phases θ ij of the correlation matrix, θ ij being in a range of [0, 2π), wherein diagonal elements in the correlation matrix are represented by R ij (i=j), the off-diagonal elements R ij in the correlation matrix are represented by R ij = R ii R jj r ij e jθ ij i ≠ j, and wherein i and j denote indexes of rows and columns of the correlation matrix, respectively,.