mhurhangee/patent-ind-claim-en huggingface dataset:
A method for load balancing of a service chain, comprising: receiving , by a flow classifier, a service chain selection and control policy sent by a policy and charging rules function, PCRF, unit, wherein the service chain selection and control policy comprises a service chain identifier and a correspondence between the service chain and a hash quantity, the service chain selection and control policy is used to instruct the flow classifier to hash a service flow passing through the service chain, into subflows according to the hash quantity, and the hash quantity is used to indicate a quantity of subflows that the service flow passing through the service chain is to be hashed into; hashing , by the flow classifier according to the hash quantity, the service flow corresponding to the service chain identifier, to obtain multiple subflows, and adding the service chain identifier and hashing factors to packets of the subflows, wherein different subflows correspond to different hashing factors; and sending , by the flow classifier, the packets of the subflows after the service chain identifier and the hashing factors are added, to a forwarding device. receiving , by a flow classifier, a service chain selection and control policy sent by a policy and charging rules function, PCRF, unit, wherein the service chain selection and control policy comprises a service chain identifier and a correspondence between the service chain and a hash quantity, the service chain selection and control policy is used to instruct the flow classifier to hash a service flow passing through the service chain, into subflows according to the hash quantity, and the hash quantity is used to indicate a quantity of subflows that the service flow passing through the service chain is to be hashed into; hashing , by the flow classifier according to the hash quantity, the service flow corresponding to the service chain identifier, to obtain multiple subflows, and adding the service chain identifier and hashing factors to packets of the subflows, wherein different subflows correspond to different hashing factors; and sending , by the flow classifier, the packets of the subflows after the service chain identifier and the hashing factors are added, to a forwarding device.
A support for raised floors comprising a base which can be positioned on a support surface and a head operatively coupled to said base comprising a shock-absorber levelling accessory arranged above said head to be interposed between it and a building element, said shock-absorber levelling accessory in turn comprising: - a plate-like support body with at least one upper surface and at least one lower surface ; - coupling and releasing means of said support body with respect to said head , characterized in that said shock-absorber levelling accessory comprises a layer of soft material co-moulded at least on one portion of said upper surface of said support body . - a plate-like support body with at least one upper surface and at least one lower surface ; - coupling and releasing means of said support body with respect to said head , characterized in that
Process for providing sites of improved protein adherence on an abutment basic body of an abutment for a dental implant system for connecting a dental implant and a suprastructure, characterized therein that nanostructures are grown on the outer surface of the abutment basic body by storing it in an aqueous solution for at least one month, whereby nanostructures extending in at least two dimensions to 200 nm at most are formed.
A method of using a belaying device for blocking a rope , the belaying device comprising a main body formed by two flat plates constrained one to each other preferably according to two parallel planes by means of a plurality of constraining means (4 - 7), said rope being adapted to be inserted inside the body of the device between the two plates , a portion of the side surface of the device is open for allowing the restraining rope to be inserted into the device body in the space between the two plates , the restraining rope being "U" folded for the insertion through the open portion of the outer side surface of the device body until the lower portion of the latter is reached, the device further comprising at least one contrast element , a single carabiner and an opening , constraining the device to a belayer using said carabiner, attaching said carabiner to the main body of the device passing through said opening , the belayer leaving a free end of the rope running inside the device to provide it to a climber constrained to an occupied end of the rope, said carabiner being further movable along said opening between a non-blocking position of said rope and a blocking position of said rope, and vice versa, wherein the outline of said opening comprises one or more projecting tooth which separates said opening in a first portion and a second portion , said carabiner being located at said first portion when it is in said non-blocking position of said rope , said carabiner being located at said second portion when it is in said blocking position of said rope wherein said rope is disposed between said carabiner and said contrast element , so that the running of the free end of the rope is blocked because of the friction of the carabiner that is forced against the contrast element under a tension effect of the rope .
An energy storage device comprising a positive electrode that includes a positive active material layer , wherein the positive active material layer contains at least positive active material particles, the positive active material layer contains primary particles that are each present alone and secondary particles that are formed by mutual coagulation of a plurality of primary particles , the positive active material particles contained in the positive active material layer gives a volume-based particle size frequency distribution that has a first peak and a second peak appearing in a particle size larger than a particle size of the first peak, positive active material particles having particle sizes equal to or smaller than a particle size Dx have a volume proportion of 49% or more and 62% or less in a volume of whole positive active material particles contained in the positive active material layer , with the particle size Dx defined as a particle size at a local minimum frequency between the first peak and the second peak in the volume-based particle size frequency distribution, and the particle size frequency distribution is determined by measurement with a laser diffraction and scattering particle size distribution measuring apparatus, wherein the secondary particles of the positive active material have a pore formed therein, with the pore being equal to or larger than particle sizes of the primary particles constituting the secondary particles . the positive active material layer contains at least positive active material particles, the positive active material layer contains primary particles that are each present alone and secondary particles that are formed by mutual coagulation of a plurality of primary particles , the positive active material particles contained in the positive active material layer gives a volume-based particle size frequency distribution that has a first peak and a second peak appearing in a particle size larger than a particle size of the first peak, positive active material particles having particle sizes equal to or smaller than a particle size Dx have a volume proportion of 49% or more and 62% or less in a volume of whole positive active material particles contained in the positive active material layer , with the particle size Dx defined as a particle size at a local minimum frequency between the first peak and the second peak in the volume-based particle size frequency distribution, and the particle size frequency distribution is determined by measurement with a laser diffraction and scattering particle size distribution measuring apparatus, wherein the secondary particles of the positive active material have a pore formed therein, with the pore being equal to or larger than particle sizes of the primary particles constituting the secondary particles .
A brushless direct-current (BLDC) motor comprising: a stator assembly including a stator core having an aperture extending therethrough, a plurality of stator teeth radially extending outwardly from the stator core and defining a plurality of slots therebetween, and a plurality of stator windings wound around the plurality of stator teeth; a stator mount including a radial portion disposed proximate a first axial end of the stator core and an elongated cylindrical portion projecting axially from the radial member into the aperture of the stator core, the elongated cylindrical portion including a hollow portion formed proximate a second axial end of the stator core; an outer rotor comprising a cylindrical rotor core supporting at least one permanent magnet around an outer surface of the stator core; a rotor mount including an outer rim arranged to couple to the outer rotor, a radial wall extending inwardly from the outer rim, and an inner body formed centrally and supported by the radial wall; and a motor bearing , characterized in that the motor bearing has an outer race supported by the inner body of the rotor mount and an inner race; and in that the BLDC motor further comprises a piloting pin having a rear portion received within the hollow portion of the elongated cylindrical portion of the stator mount and a front portion being slidingly receivable within the inner race of the motor bearing to allow the stator assembly to be modularly detachable from the outer rotor. a stator assembly including a stator core having an aperture extending therethrough, a plurality of stator teeth radially extending outwardly from the stator core and defining a plurality of slots therebetween, and a plurality of stator windings wound around the plurality of stator teeth; a stator mount including a radial portion disposed proximate a first axial end of the stator core and an elongated cylindrical portion projecting axially from the radial member into the aperture of the stator core, the elongated cylindrical portion including a hollow portion formed proximate a second axial end of the stator core; an outer rotor comprising a cylindrical rotor core supporting at least one permanent magnet around an outer surface of the stator core; a rotor mount including an outer rim arranged to couple to the outer rotor, a radial wall extending inwardly from the outer rim, and an inner body formed centrally and supported by the radial wall; and a motor bearing , characterized in that the motor bearing has an outer race supported by the inner body of the rotor mount and an inner race; and in that the BLDC motor further comprises a piloting pin having a rear portion received within the hollow portion of the elongated cylindrical portion of the stator mount and a front portion being slidingly receivable within the inner race of the motor bearing to allow the stator assembly to be modularly detachable from the outer rotor.
An adhesion promoter composition comprising: from 80 wt % to 99 wt % of a solvent; and from 20 wt % to 1 wt % of a maleic anhydride functionalized ethylene/octene multi-block copolymer with a base ethylene/octene multi-block copolymer comprising hard segments and soft segments linked in a linear fashion, the base ethylene/octene multi-block copolymer having (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg. from 80 wt % to 99 wt % of a solvent; and from 20 wt % to 1 wt % of a maleic anhydride functionalized ethylene/octene multi-block copolymer with a base ethylene/octene multi-block copolymer comprising hard segments and soft segments linked in a linear fashion, the base ethylene/octene multi-block copolymer having (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg. (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg.
A loading device for a plunge cut grinding machine for centreless external cylindrical grinding, having a receiving frame for receiving a raw workpiece to be machined, wherein the receiving frame is designed to be open in the direction of gravity, a support body for forming a support base for the raw workpiece received in the receiving frame , and a displacement actuator engaging the receiving frame for axially displacing the receiving frame relative to the support body into a grinding gap of the plunge cut grinding machine, where the receiving frame is positioned offset to the support body , wherein the receiving frame has a conveying stop on an end face pointing in the axial direction for axially conveying out a final workpiece arranged in the grinding gap , wherein the receiving frame has a positioning stop for axially striking against an axial side of the raw workpiece facing away from the support body , characterised in that the receiving frame has a flap on an axial side facing the grinding gap , wherein the flap has the positioning stop on the side facing away from the grinding gap . a receiving frame for receiving a raw workpiece to be machined, wherein the receiving frame is designed to be open in the direction of gravity, a support body for forming a support base for the raw workpiece received in the receiving frame , and a displacement actuator engaging the receiving frame for axially displacing the receiving frame relative to the support body into a grinding gap of the plunge cut grinding machine, where the receiving frame is positioned offset to the support body , wherein the receiving frame has a conveying stop on an end face pointing in the axial direction for axially conveying out a final workpiece arranged in the grinding gap , wherein the receiving frame has a positioning stop for axially striking against an axial side of the raw workpiece facing away from the support body , characterised in that the receiving frame has a flap on an axial side facing the grinding gap , wherein the flap has the positioning stop on the side facing away from the grinding gap .
A method for performing, by a first apparatus, sidelink, SL, transmission, the method comprising: transmitting, to a new radio, NR, base station , a user equipment, UE, capability information regarding a minimum latency of the first apparatus; receiving (S1410), from the NR base station through NR Uu interface, scheduling information including (i) information regarding a first timing offset related to the minimum latency, (ii) information regarding a second timing offset related to activation of a SL semi persistent scheduling, SPS, configuration, (iii) index information of the SL SPS configuration, and (iv) information representing activation or release of the SL SPS configuration; and performing (S1430) long-term evolution, LTE, SL transmission based on the scheduling information. transmitting, to a new radio, NR, base station , a user equipment, UE, capability information regarding a minimum latency of the first apparatus; receiving (S1410), from the NR base station through NR Uu interface, scheduling information including (i) information regarding a first timing offset related to the minimum latency, (ii) information regarding a second timing offset related to activation of a SL semi persistent scheduling, SPS, configuration, (iii) index information of the SL SPS configuration, and (iv) information representing activation or release of the SL SPS configuration; and performing (S1430) long-term evolution, LTE, SL transmission based on the scheduling information.
A radio frequency, RF, chip (34a, 34b, 44a, 44b, 54a, 54b, 64, 73a, 73b, 93, 110, 110', 154, 162, 173a, 173b, 173_1c, 173_2c, 183) configured to process an RF signal, the RF chip (34a, 34b, 44a, 44b, 54a, 54b, 64, 73a, 73b, 93, 110, 110', 154, 162, 173a, 173b, 173_1c, 173_2c, 183) comprising: an input/out pin for connecting to an antenna (22_1 - 22_n, 32a, 32b, 42a, 42b, 52a, 52b, 152_1, 187_1 - 187_4); a first output pin (OUT1, OUT41, OUT51, OUT151) and a first input pin (IN1, IN41, IN51, IN151)for respectively connecting to electrodes of a first active device included in a first active device array (36b, 74_1, 74_1a, 74_1b, 94_1, 164_1, 182_1) separated from the RF chip; and a transmission circuit constituting a part of a transmission path (TX1 - TXn) for generating the RF signal to be provided to the antenna (22_1 - 22_n, 32a, 32b, 42a, 42b, 52a, 52b, 152_1, 187_1 - 187_4), wherein the transmission path (TX1 - TXn) sequentially passes through the first output pin (OUT1, OUT41, OUT51, OUT151), the first active device, and the first input pin (IN1, IN41, IN51, IN151). an input/out pin for connecting to an antenna (22_1 - 22_n, 32a, 32b, 42a, 42b, 52a, 52b, 152_1, 187_1 - 187_4); a first output pin (OUT1, OUT41, OUT51, OUT151) and a first input pin (IN1, IN41, IN51, IN151)for respectively connecting to electrodes of a first active device included in a first active device array (36b, 74_1, 74_1a, 74_1b, 94_1, 164_1, 182_1) separated from the RF chip; and a transmission circuit constituting a part of a transmission path (TX1 - TXn) for generating the RF signal to be provided to the antenna (22_1 - 22_n, 32a, 32b, 42a, 42b, 52a, 52b, 152_1, 187_1 - 187_4), wherein the transmission path (TX1 - TXn) sequentially passes through the first output pin (OUT1, OUT41, OUT51, OUT151), the first active device, and the first input pin (IN1, IN41, IN51, IN151).
An ultrasonic flow meter device comprising: a fluid passage forming section including a measurement fluid passage , a bottom plate and an opening facing a flat surface of the bottom plate ; a pair of ultrasonic transducers which transmit and receive an ultrasonic wave via the opening ; a partition plate which partitions the measurement fluid passage , characterized in that the ultrasonic flow meter device further comprises: an identification section provided on an end surface of the partition plate and used to identify an obverse surface and a reverse surface of the partition plate , wherein the ultrasonic flow meter device, further comprises: a sheet covering the opening , wherein the sheet includes a first aperture through which the ultrasonic wave transmitted from the ultrasonic transducer travels, and a second aperture through which the ultrasonic wave reflected on the flat surface of the measurement fluid passage travels, and wherein the identification section is a convex section protruding through one of the first aperture and the second aperture . a fluid passage forming section including a measurement fluid passage , a bottom plate and an opening facing a flat surface of the bottom plate ; a pair of ultrasonic transducers which transmit and receive an ultrasonic wave via the opening ; a partition plate which partitions the measurement fluid passage , characterized in that the ultrasonic flow meter device further comprises: an identification section provided on an end surface of the partition plate and used to identify an obverse surface and a reverse surface of the partition plate , wherein the ultrasonic flow meter device, further comprises: a sheet covering the opening , wherein the sheet includes a first aperture through which the ultrasonic wave transmitted from the ultrasonic transducer travels, and a second aperture through which the ultrasonic wave reflected on the flat surface of the measurement fluid passage travels, and wherein the identification section is a convex section protruding through one of the first aperture and the second aperture . a sheet covering the opening , wherein the sheet includes a first aperture through which the ultrasonic wave transmitted from the ultrasonic transducer travels, and a second aperture through which the ultrasonic wave reflected on the flat surface of the measurement fluid passage travels, and wherein the identification section is a convex section protruding through one of the first aperture and the second aperture .
A compound of the formula: wherein: X is CH, or N; R 1 is -CH 3 , -CH 2 F, -CHF 2 , -CF 3 , -CH 2 CH 3 , -CH 2 CF 3 , -CH(CH 3 ) 2 , -CH 2 CHF 2 , -CH 2 CH 2 F, -CF(CH 3 ) 2 , -CF 2 CH 3 , -OCH 3 , and R 2 is -H or -CH 2 OCH 3 ; or a pharmaceutically acceptable salt thereof. X is CH, or N; R 1 is -CH 3 , -CH 2 F, -CHF 2 , -CF 3 , -CH 2 CH 3 , -CH 2 CF 3 , -CH(CH 3 ) 2 , -CH 2 CHF 2 , -CH 2 CH 2 F, -CF(CH 3 ) 2 , -CF 2 CH 3 , -OCH 3 , and R 2 is -H or -CH 2 OCH 3 ; or a pharmaceutically acceptable salt thereof.
A computer implemented method of fracturing a surface into elementary features, said elementary features to be each exposed to at least one shot of a variable shaped beam VSB to transfer a free-form desired pattern onto the surface, said method further comprising: - a step of determining a topological skeleton of the free-form desired pattern, the topological skeleton being the medial axis of the free-form desired pattern; - a step of taking into account as parameters, the VSB tool available directions ; - a step of simulating a contour of the fractured design and a step of determining a distance between the simulated contour of the fractured design and a contour of the free-form desired pattern; - a step of defining the elementary features as rectangles substantially centered on the topological skeleton of the free-form desired pattern and having an available direction substantially parallel to a VSB tool available direction, said rectangles having each a size which is maximal under the constraint that the distance between the simulated contour of the fractured design and a contour of the free-form desired pattern stays within a predetermined roughness tolerance. - a step of determining a topological skeleton of the free-form desired pattern, the topological skeleton being the medial axis of the free-form desired pattern; - a step of taking into account as parameters, the VSB tool available directions ; - a step of simulating a contour of the fractured design and a step of determining a distance between the simulated contour of the fractured design and a contour of the free-form desired pattern; - a step of defining the elementary features as rectangles substantially centered on the topological skeleton of the free-form desired pattern and having an available direction substantially parallel to a VSB tool available direction, said rectangles having each a size which is maximal under the constraint that the distance between the simulated contour of the fractured design and a contour of the free-form desired pattern stays within a predetermined roughness tolerance.
A photoresist cleaning composition for stripping a photoresist pattern having a film thickness of 3-150 μm, which comprises (a) 0.5-5 mass % of at least one quaternary ammonium hydroxide or mixtures of two or more quaternary ammonium hydroxides; (b) 60-97.5 mass % of a mixture of water-soluble organic solvent comprising dimethylsulfoxide, sulfolane or dimethylsulfone or mixtures thereof, and at least one additional organic solvent or two or more additional organic solvents; (c) 0.5-15 mass % of at least one corrosion inhibitor or a mixture of two or more corrosion inhibitors; and (d) 0.5-25 mass % of water, wherein the corrosion inhibitor further comprises polyethyleneimine and wherein the composition does not comprise non-ionic alkoxylated acetylenic diol surfactants.