mhurhangee/patent-ind-claim-en huggingface dataset:
A contactor, comprising a pedestal , wherein both end of the pedestal are step structure having notches in two ends; the step structure comprises a first step and a second step from bottom to top and is covered with a cover body having a matched shape; a part, which protrudes out of the second step , at each of two ends of the first step is provided with a first mounting groove in which a control terminal and a power terminal that are spaced apart from each other are mounted, and the cover body is provided with a first wiring port corresponding to the control terminal and a second wiring port corresponding to the power terminal ; each of two ends of the second step is provided with a second mounting groove in which an auxiliary terminal is mounted, and the cover body is provided with a third wiring port which corresponds to the auxiliary terminal mounted in the second mounting groove; wherein one end of the control terminal is plugged into the pedestal and electrically connected to a coil in a base ; one end of the power terminal is plugged into the pedestal and matched with a first movable contact on a contact support in the pedestal ; one end of the auxiliary terminal is plugged into the pedestal and matched with a second movable contact on the contact support in the pedestal ; the other ends of the control terminal , the power terminal and the auxiliary terminal are configured to be connected to external wires; characterized in that an assembling groove is formed in the middle of the first step ; the contact support is mounted in the assembling groove; the contact support protrudes out of the top surface of the first step ; the second step is of an assembled structure and comprises a first assembling block and a second assembling block which can be assembled, wherein the first assembling block and the second assembling block are mounted on the first step and are located on two sides of the contact support respectively.
A computer-implemented method for predicting a growth rate of an aortic aneurysm, the method comprising: generating a volumetric model based on non-contrast computed tomography, CT, image data, analysing one or more geometric measures of the volumetric model of at least a portion of an aorta having an aortic aneurysm, wherein the one or more geometric measures comprises at least a radius of a curvature of a path through the volumetric model and an undulation index; determining, from the analysis, a numerical growth rate prediction for the aortic aneurysm. generating a volumetric model based on non-contrast computed tomography, CT, image data, analysing one or more geometric measures of the volumetric model of at least a portion of an aorta having an aortic aneurysm, wherein the one or more geometric measures comprises at least a radius of a curvature of a path through the volumetric model and an undulation index; determining, from the analysis, a numerical growth rate prediction for the aortic aneurysm.
A method for producing latex composition comprising adding (C) a pH adjustor to (A) a chloroprene polymer latex, and then blending (B) an acrylic polymer latex, wherein the latex composition comprises: (A) the chloroprene polymer latex; (B) the acrylic polymer latex; and (C) the pH adjustor, wherein (A) the chloroprene polymer latex contains a chloroprene polymer, wherein (B) the acrylic polymer latex contains an acrylic polymer having a glass transition temperature of -40 to -10°C, wherein (C) the pH adjustor is 3 to 6 parts by mass (in terms of solid content) of boric acid or at least one compound selected from amino acids having an isoelectric point of 5.5 to 6.5, wherein the rate of (A) the chloroprene polymer latex in the latex composition is 50 to 85% by mass in terms of solid content, and wherein the rate of (B) the acrylic polymer latex in the latex composition is 15 to 50% by mass in terms of solid content. (A) the chloroprene polymer latex; (B) the acrylic polymer latex; and (C) the pH adjustor,
Method for monitoring a telecommunication network comprising at least one access node , a plurality of client devices , and a plurality of telecommunication lines connecting said at least one access node to respective client devices , the method being executed by a monitoring device , the method comprising the following steps: - determining (S2) a training set associated with the telecommunication network , said training set including a plurality of training examples, a training example specifying: - features related to the functioning of a telecommunication line , and - a label, - for at least one of said label: - clustering (S3) the training examples associated with said label, thereby determining a plurality of clusters associated with said label, - determining (S4) weights associated with the respective clusters, wherein the weight associated with a cluster is determined as a function of a position of said cluster in a feature space and as a function of said label, and - resampling (S5) said clusters according to said weights, thereby determining resampled clusters, - determining (S6) a resampled training set according to said resampled clusters, - training (S7) a machine learning model according to said resampled training set, thereby determining a trained machine learning model configured for determining or predicting a label as a function of operational data related to the functioning of a telecommunication line. - determining (S2) a training set associated with the telecommunication network , said training set including a plurality of training examples, a training example specifying: - features related to the functioning of a telecommunication line , and - a label, - features related to the functioning of a telecommunication line , and - a label, - for at least one of said label: - clustering (S3) the training examples associated with said label, thereby determining a plurality of clusters associated with said label, - determining (S4) weights associated with the respective clusters, wherein the weight associated with a cluster is determined as a function of a position of said cluster in a feature space and as a function of said label, and - resampling (S5) said clusters according to said weights, thereby determining resampled clusters, - clustering (S3) the training examples associated with said label, thereby determining a plurality of clusters associated with said label, - determining (S4) weights associated with the respective clusters, wherein the weight associated with a cluster is determined as a function of a position of said cluster in a feature space and as a function of said label, and - resampling (S5) said clusters according to said weights, thereby determining resampled clusters, - determining (S6) a resampled training set according to said resampled clusters, - training (S7) a machine learning model according to said resampled training set, thereby determining a trained machine learning model configured for determining or predicting a label as a function of operational data related to the functioning of a telecommunication line.
A cell-mimetic device comprising: an array of fibers comprised of a material comprising: hexanediol diacrylate (HDDA) or an HDDA derivative; and a multi-arm PEG-acrylate. hexanediol diacrylate (HDDA) or an HDDA derivative; and a multi-arm PEG-acrylate.
A Light Engine Module comprising: - a positive power supply line (LED+), - a common ground line (LED-), - a plurality of LEDs connected in series between said positive power supply line (LED+) and said common ground line (LED-), - a communication line (CL), - a current set resistor (Rset) connected between the communication line (CL) and the common ground line (LED-), with its value of conductance being indicative for the current demand of the Light Engine Module, characterized in that the Light Engine Module comprises a variable current generator (TDU) configured to take power from said positive power supply line (LED+) by deriving a voltage (V1) from either the whole number of series connected LEDs or a portion of the series connected LEDs, said variable current generator (TDU) connected to said communication line (CL) and generating a compensation current, thus modifying the current flowing through said communication line (CL), said variable current generator (TDU) comprising at least one sensor providing at least one measurement signal, wherein said variable current generator (TDU) is configured to determine said compensation current as a function of said at least one measurement signal provided by said at least one sensor. - a positive power supply line (LED+), - a common ground line (LED-), - a plurality of LEDs connected in series between said positive power supply line (LED+) and said common ground line (LED-), - a communication line (CL), - a current set resistor (Rset) connected between the communication line (CL) and the common ground line (LED-), with its value of conductance being indicative for the current demand of the Light Engine Module,
Adapter (A) for a rolling assembly, the said rolling assembly having an axis of rotation and comprising a tyre (P) having two beads (B), a rim (J) having two rim bead seats and two adapters (A) each intended to provide the connection between one of the beads (B) and the rim (J), the said adapter (A) comprising: - an axially inner end intended to be mounted on a rim bead seat and comprising an inner reinforcing element and a substantially radial axially outer face , - an axially outer end intended to come into contact with a bead (B) and comprising an outer reinforcing element and a substantially radial axially inner face or bearing face , - a substantially axial body connecting the said axially outer end to the said axially inner end so as to form a single piece, - the body comprising at least a main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element , the main reinforcement comprising at least one layer of mutually parallel reinforcers, - the body comprising an adapter seat intended to receive the bead (B) and situated near the axially outer end , the reinforcing element of the axially outer end being wholly situated axially on the outside of the bearing face and radially on the outside of the adapter seat , characterized in that the main reinforcement comprises a radial superposition of at least two layers of reinforcers, the said reinforcers being mutually parallel within one and the same layer and crossed with one another from one layer to the next, and in that each of the layers of the main reinforcement of the body comprises reinforcers which make, with a circumferential direction (XX') of the tyre, an angle at least equal to 30°, and coated with a polymer material having an elastic modulus at 10% elongation at most equal to 70 MPa. - an axially inner end intended to be mounted on a rim bead seat and comprising an inner reinforcing element and a substantially radial axially outer face , - an axially outer end intended to come into contact with a bead (B) and comprising an outer reinforcing element and a substantially radial axially inner face or bearing face , - a substantially axial body connecting the said axially outer end to the said axially inner end so as to form a single piece, - the body comprising at least a main reinforcement providing the connection between the outer reinforcing element and the inner reinforcing element , the main reinforcement comprising at least one layer of mutually parallel reinforcers, - the body comprising an adapter seat intended to receive the bead (B) and situated near the axially outer end ,
A stator assembly method in which coils that have slot housed portions and coil end portions formed from a conductor are mounted to an annular stator core that includes slots formed between adjacent teeth that extend from a back yoke toward an inner side in a radial direction, comprising: a step of forming a coil assembly in which a plurality of the coils are disposed in the circumferential direction to constitute the coil assembly in an annular arrangement, the coil assembly being disposed in a radially inner space of the stator core ; and a step of inserting the slot housed portions of the plurality of the coils into the slots of the stator core by pushing out the plurality of the coils which form the coil assembly from a radially inner side toward a radially outer side while guide jigs are guiding the coils such that a separation interval (W11) between the coils and edge portions of the teeth that extend in the radial direction is kept in a course of the slot housed portions moving in the slots when inserting the coils into the slots of the stator core , wherein a width of the guide jigs in a circumferential direction gradually becomes smaller from the radially outer side toward the radially inner side as seen in a rotational axis direction, and the guide jigs are disposed so as to overlap the teeth , and the step of inserting the slot housed portions into the slots includes a step of inserting the slot housed portions into the slots while the guide jigs are guiding the coils with the guide jigs disposed so as to overlap the teeth as seen in the rotational axis direction. a step of forming a coil assembly in which a plurality of the coils are disposed in the circumferential direction to constitute the coil assembly in an annular arrangement, the coil assembly being disposed in a radially inner space of the stator core ; and a step of inserting the slot housed portions of the plurality of the coils into the slots of the stator core by pushing out the plurality of the coils which form the coil assembly from a radially inner side toward a radially outer side while guide jigs are guiding the coils such that a separation interval (W11) between the coils and edge portions of the teeth that extend in the radial direction is kept in a course of the slot housed portions moving in the slots when inserting the coils into the slots of the stator core , wherein a width of the guide jigs in a circumferential direction gradually becomes smaller from the radially outer side toward the radially inner side as seen in a rotational axis direction, and the guide jigs are disposed so as to overlap the teeth , and the step of inserting the slot housed portions into the slots includes a step of inserting the slot housed portions into the slots while the guide jigs are guiding the coils with the guide jigs disposed so as to overlap the teeth as seen in the rotational axis direction.
Container having a column shape for housing electrical components for automatizing the operation of electric loads for domestic use, comprising a recess containing one or more electrical wirings for the power supply, controlling means to control the power supply of at least part of said one or more electrical wirings , said container further comprising at least one input line of electric power, as well as one or more electric loads connected to said one or more wirings and constrained, or integrated, to said container , said loads being preferably subdivided by the controlling means in at least two groups of electric loads, each group comprising at least one electric load, said container comprising at least one line outputting from said container to supply said at least one electric load to said container, characterized in that said controlling means comprise at least one detector associated with each load or group of loads to detect the overall electric power absorbed by said load or group of loads, and at least one processor to drive the supply of electric power to at least one of said loads , depending on the sum of the electric power values detected by said at least one detector .
A visual stress assessment device for inducing the visual stress experienced by a user viewing a sample provided at a viewable region inside the device, wherein the visual stress is induced through modulation of the spectral power distribution of light emitted onto the sample, the device comprising: a white light source and a plurality of coloured light sources , each coloured light source adapted to produce light of a predetermined hue, wherein each of the white light source and coloured light sources comprises a plurality of light emitting diodes ; a chamber having an interior comprising the viewable region , wherein the viewable region is configured to support a sample for inducing the visual stress and wherein each of the white light source and the plurality of coloured light sources are arranged to emit light onto the viewable region for supporting the sample when in use; and a controller configured to selectively operate the white light source and the coloured light sources such that only one or both of a first of the coloured light sources and a second of the coloured light sources are operated simultaneously with the white light source, whereby their respective emitted light is observable in the viewable region by a user at a predetermined hue and saturation. a white light source and a plurality of coloured light sources , each coloured light source adapted to produce light of a predetermined hue, wherein each of the white light source and coloured light sources comprises a plurality of light emitting diodes ; a chamber having an interior comprising the viewable region , wherein the viewable region is configured to support a sample for inducing the visual stress and wherein each of the white light source and the plurality of coloured light sources are arranged to emit light onto the viewable region for supporting the sample when in use; and a controller configured to selectively operate the white light source and the coloured light sources such that only one or both of a first of the coloured light sources and a second of the coloured light sources are operated simultaneously with the white light source, whereby their respective emitted light is observable in the viewable region by a user at a predetermined hue and saturation.
A method performed by a transmitting packet data convergence protocol, PDCP, entity (1i-01) in a wireless communication system, the method comprising: identifying that an uplink data compression, UDC, is configured, based on a radio resource control, RRC, message, wherein the UDC is associated with a radio link control, RLC, acknowledge mode, AM; receiving data from an upper layer; generating at least one packet associated with the data, wherein the at least one packet includes a UDC header and a UDC data block, the UDC header indicating whether the received data is compressed or not; performing (1i-25) ciphering on the at least one packet using a security key, wherein the UDC header and the UDC data block of the at least one packet are ciphered; and transmitting the at least one packet to a lower layer, wherein the UDC is configured when a robust header compression, ROHC, is not configured. identifying that an uplink data compression, UDC, is configured, based on a radio resource control, RRC, message, wherein the UDC is associated with a radio link control, RLC, acknowledge mode, AM; receiving data from an upper layer; generating at least one packet associated with the data, wherein the at least one packet includes a UDC header and a UDC data block, the UDC header indicating whether the received data is compressed or not; performing (1i-25) ciphering on the at least one packet using a security key, wherein the UDC header and the UDC data block of the at least one packet are ciphered; and transmitting the at least one packet to a lower layer, wherein the UDC is configured when a robust header compression, ROHC, is not configured.
A process of finishing a textile material comprising an antimicrobial process cycle and a main process cycle, the antimicrobial process cycle being performed before the main process cycle, wherein the antimicrobial process cycle comprises the steps of: - treating the textile material using an exhaust process, wherein the liquor comprises one or more chemical agents which increase the antimicrobial efficacy of the textile material, - subjecting the treated textile material to a heat treatment, and wherein the main process cycle comprises the steps of: - treating the textile material using an application process such as a knife or screen coating process, a spraying process, an exhaust process, or preferably a padding process, wherein a liquor is applied to the textile which comprises one or more chemical agents which increase the stain release capability and the water holding capacity of the textile material, the chemical agents which increase the stain release capability and the water holding capacity of the textile material being based on at least one selected from the group consisting of carboxylic acid esters, organosilane terpolymers, and starch based emulsion, and - subjecting the treated textile material to a heat treatment. - treating the textile material using an exhaust process, wherein the liquor comprises one or more chemical agents which increase the antimicrobial efficacy of the textile material, - subjecting the treated textile material to a heat treatment, - treating the textile material using an application process such as a knife or screen coating process, a spraying process, an exhaust process, or preferably a padding process, wherein a liquor is applied to the textile which comprises one or more chemical agents which increase the stain release capability and the water holding capacity of the textile material, the chemical agents which increase the stain release capability and the water holding capacity of the textile material being based on at least one selected from the group consisting of carboxylic acid esters, organosilane terpolymers, and starch based emulsion, and - subjecting the treated textile material to a heat treatment.