mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayered container obtainable by heat-forming a multilayered precursor that includes inner and outer layers of an ethylene terephthalate type polyester resin, and at least one intermediate layer of at least a lowly crystalline ethylene terephthalate type polyester resin and a gas-barrier aromatic polyamide resin, wherein a difference of refractive index (ΔRI) between the lowly crystalline ethylene terephthalate type polyester resin and the gas-barrier aromatic polyamide resin represented by the following formula, Δ ⁢ RI = RI E − RI A wherein RI E and RI A are refractive indexes of injection-formed plates made, respectively, from said lowly crystalline ethylene terephthalate type polyester resin and said gas-barrier aromatic polyamide resin after they have been monoaxially stretched into 3 times, as measured by cutting out a sample of a size of 30 x 10 mm and using the Abbes' refractometer having an eyepiece with a polarizer plate (NAR-1T: manufactured by Atago Co., Ltd.) to measure the sample for its refractive index in the direction in which it was stretched, is not more than 0.03, a haze in a side surface of the container is not more than 5% as measured using a color computer (SM-4: manufactured by Suga Test Instruments Co., Ltd.) and taking an average value from three arbitrary points, the lowly crystalline ethylene terephthalate type polyester resin is an ethylene terephthalate type polyester resin that contains 7.5 to 15 mol% of isophthalic acid in its dicarboxylic acid component or 15 to 30 mol% of cyclohexanedimethanol in its diol component, and the multilayered container is obtainable by heat-forming said multilayered precursor such that a drawing ratio H/D (H: height of a cup, D: diameter of a opening of the cup) is not less than 1.0.
Composition comprising, on a weight basis, the total being equal to 100%: - from 98% to 100% of at least one copolyamide bearing amide units and polyether units, having a melting point (T m ) from 100°C to 125°C, and having a flexural modulus of less than 100 MPa, as determined according to standard ISO 178 ; • said amide units being 6/12, the weight proportion of each constituent of the 6/12 amide unit being 25/75 or 30/70; • said polyether units being derived from at least one PTMG, the weight proportion of polyether units in the copolyamide being 50%, - from 0 to 2% of at least one additive chosen from stabilizers and dyes, or a mixture thereof. - from 98% to 100% of at least one copolyamide bearing amide units and polyether units, having a melting point (T m ) from 100°C to 125°C, and having a flexural modulus of less than 100 MPa, as determined according to standard ISO 178 ; • said amide units being 6/12, the weight proportion of each constituent of the 6/12 amide unit being 25/75 or 30/70; • said polyether units being derived from at least one PTMG, the weight proportion of polyether units in the copolyamide being 50%, • said amide units being 6/12, the weight proportion of each constituent of the 6/12 amide unit being 25/75 or 30/70; • said polyether units being derived from at least one PTMG, - from 0 to 2% of at least one additive chosen from stabilizers and dyes, or a mixture thereof.
Method for manufacturing a chip card, comprising: - the production of a chip card module comprising a substrate having a first and a second main faces, with, on the first face of the substrate, contacts for a temporary electrical connection with a reading device with card contacts, and, on the second face of the substrate, conductive tracks , this module being also provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - the production of an antenna on an antenna support for an electromagnetic coupling with a reading device without card contact, the antenna comprising two ends and a connection area respectively at each of its ends, - the lamination of the antenna support between layers of plastic material (300-340), and - the placement of the module in a cavity formed in at least some of the layers of plastic material (310-340), - a step of deposition of a solder material on each of the connection areas of the antenna and the heating, once the module is in place in the cavity , of the solder material deposited on the connection areas , in order to solder each of the conductive tracks of the module that are dedicated to an antenna connection, respectively with a connection area , characterized in that a soldering unit is used that is individualized and placed on or in the antenna support , this soldering unit comprising a flexible film on which are formed the connection areas to which the ends of the antenna are connected. - the production of a chip card module comprising a substrate having a first and a second main faces, with, on the first face of the substrate, contacts for a temporary electrical connection with a reading device with card contacts, and, on the second face of the substrate, conductive tracks , this module being also provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - the production of an antenna on an antenna support for an electromagnetic coupling with a reading device without card contact, the antenna comprising two ends and a connection area respectively at each of its ends, - the lamination of the antenna support between layers of plastic material (300-340), and - the placement of the module in a cavity formed in at least some of the layers of plastic material (310-340), - a step of deposition of a solder material on each of the connection areas of the antenna and the heating, once the module is in place in the cavity , of the solder material deposited on the connection areas , in order to solder each of the conductive tracks of the module that are dedicated to an antenna connection, respectively with a connection area ,
A method of designing a plastic container comprising the steps of: providing a design of a container having a first sidewall profile, wherein the first sidewall profile corresponds to a first volume of liquid being contained within the container ; free blow molding a first preform having known dimensions to result in a free blown container having a second sidewall profile, wherein the free blow molding is performed using liquid as the free blow medium; comparing the first sidewall profile of the design of the container to the second sidewall profile of the free blown container ; and repeating the free blow molding step using a second preform with different known dimensions or under different free blow molding conditions from the first preform to minimize a difference between the first sidewall profile of the design of the container and the second sidewall profile of the free blown container, wherein repeating the free blow molding step further includes verifying that the second sidewall profile of the free blown container corresponds to the free blown container containing the first volume of liquid therein, and wherein the second preform with different known dimensions or the different free blow molding conditions are selected based on a reference guide of previously-determined information related to a resulting free blown container formed from a particular preform. providing a design of a container having a first sidewall profile, wherein the first sidewall profile corresponds to a first volume of liquid being contained within the container ; free blow molding a first preform having known dimensions to result in a free blown container having a second sidewall profile, wherein the free blow molding is performed using liquid as the free blow medium; comparing the first sidewall profile of the design of the container to the second sidewall profile of the free blown container ; and repeating the free blow molding step using a second preform with different known dimensions or under different free blow molding conditions from the first preform to minimize a difference between the first sidewall profile of the design of the container and the second sidewall profile of the free blown container, wherein repeating the free blow molding step further includes verifying that the second sidewall profile of the free blown container corresponds to the free blown container containing the first volume of liquid therein, and wherein the second preform with different known dimensions or the different free blow molding conditions are selected based on a reference guide of previously-determined information related to a resulting free blown container formed from a particular preform.
A mask apparatus comprising: a mask body including a rear body and a front body being coupled to a front surface of the rear body , and providing an inlet and an outlet; a face guard that is coupled to a rear surface of the rear body , that is configured to accommodate a portion of user's face, and that defines a respiration space at an inner side thereof; and an air cleaning module that is mounted on the rear body , that is configured to purify air introduced into the inlet, and that is configured to supply the purified air to the respiration space, wherein a portion of the rear body protrudes toward the front body and comprises an accommodate portion configured to accommodate the air cleaning module , wherein the air cleaning module includes: a fan module that is disposed at the accommodation portion and that comprises an opening at a rear surface thereof, a flow guide covering at least a portion of the opening at the rear surface of the fan module , a filter that is disposed at a rear surface of the flow guide , and a filter housing that is coupled to the rear body and that covers a rear surface of the filter , and wherein the flow guide defines a communication hole that guides air passing through the filter to an inside of the fan module . a mask body including a rear body and a front body being coupled to a front surface of the rear body , and providing an inlet and an outlet; a face guard that is coupled to a rear surface of the rear body , that is configured to accommodate a portion of user's face, and that defines a respiration space at an inner side thereof; and an air cleaning module that is mounted on the rear body , that is configured to purify air introduced into the inlet, and that is configured to supply the purified air to the respiration space, wherein a portion of the rear body protrudes toward the front body and comprises an accommodate portion configured to accommodate the air cleaning module , wherein the air cleaning module includes: a fan module that is disposed at the accommodation portion and that comprises an opening at a rear surface thereof, a flow guide covering at least a portion of the opening at the rear surface of the fan module , a filter that is disposed at a rear surface of the flow guide , and a filter housing that is coupled to the rear body and that covers a rear surface of the filter , and a fan module that is disposed at the accommodation portion and that comprises an opening at a rear surface thereof, a flow guide covering at least a portion of the opening at the rear surface of the fan module , a filter that is disposed at a rear surface of the flow guide , and a filter housing that is coupled to the rear body and that covers a rear surface of the filter , and wherein the flow guide defines a communication hole that guides air passing through the filter to an inside of the fan module .
A method of allocating a Physical Cell ID, PCI, to a small cell , the method comprising the steps of: receiving signal strength data for a plurality of small cells ; defining a plurality of bands in a coverage area of a macro cell's base station based on the received signal strength data, wherein each band has a predetermined signal strength range; and characterised in that the small cell is one of a plurality of small cells disposed within the coverage area of the macro cell's base station ; the signal strength data relates to the strength of a signal from the macro cell's base station at each cell of the plurality of small cells ; selecting a group for each small cell based on the strength of the signal from the macro cell's base station at that small cell and the signal strength range for each band; and allocating a PCI to each small cell of the plurality of small cells based on its selected group, such that there is no duplication of PCls across different groups. receiving signal strength data for a plurality of small cells ; defining a plurality of bands in a coverage area of a macro cell's base station based on the received signal strength data, wherein each band has a predetermined signal strength range; and characterised in that the small cell is one of a plurality of small cells disposed within the coverage area of the macro cell's base station ; the signal strength data relates to the strength of a signal from the macro cell's base station at each cell of the plurality of small cells ; selecting a group for each small cell based on the strength of the signal from the macro cell's base station at that small cell and the signal strength range for each band; and allocating a PCI to each small cell of the plurality of small cells based on its selected group, such that there is no duplication of PCls across different groups.
A braking system for a vehicle comprising: - at least one disc brake comprising a brake disc having a disc brake caliper arranged to straddle the brake disc , and at least one pair of pads opposite each other and acting on said brake disc from opposite sides along an axial direction of actuation (A-A), parallel to an axis of rotation (X-X) of the brake disc , - at least one electric actuator , operatively connected to a piston acting as a pusher on at least one of said pads along said actuation direction (A-A), - a processing and control unit , operatively connected to said electric actuator , and programmed so as to move said piston and the relative pad , along the axial direction of actuation (A-A), in a forward position so as to press the pad in contact with the brake disc during a braking demand, and so as to bring the piston into a rest or rearward position, in which a gap is identified between the pad and the brake disc , - characterised in that the processing and control unit is programmed to implement an algorithm that, in the absence of a braking demand, operates the electric actuator varying said gap as a function of at least one dynamic parameter of the vehicle that defines the prediction of a demand for a braking action, so as to increase the gap when the demand for a braking action is not imminent, and to reduce the gap when the demand for a braking action is imminent. - at least one disc brake comprising a brake disc having a disc brake caliper arranged to straddle the brake disc , and at least one pair of pads opposite each other and acting on said brake disc from opposite sides along an axial direction of actuation (A-A), parallel to an axis of rotation (X-X) of the brake disc , - at least one electric actuator , operatively connected to a piston acting as a pusher on at least one of said pads along said actuation direction (A-A), - a processing and control unit , operatively connected to said electric actuator , and programmed so as to move said piston and the relative pad , along the axial direction of actuation (A-A), in a forward position so as to press the pad in contact with the brake disc during a braking demand, and so as to bring the piston into a rest or rearward position, in which a gap is identified between the pad and the brake disc , - characterised in that the processing and control unit is programmed to implement an algorithm that, in the absence of a braking demand, operates the electric actuator varying said gap as a function of at least one dynamic parameter of the vehicle that defines the prediction of a demand for a braking action, so as to increase the gap when the demand for a braking action is not imminent, and to reduce the gap when the demand for a braking action is imminent.
A method for homogenizing a shear thinning fluid contained in a cylindrical tank by pumping said fluid via a return piping out of said tank and via an injection piping back into said tank , which tank has a central axis , a radius, an internal volume and a height up to which the tank can be filled with said fluid which is greater than twice the radius of the tank , and which is in particular greater than three times the radius of the tank , which method comprises the steps of: - producing an upwardly directed jet of said fluid in said tank by means of one central nozzle provided on said injection piping and having one outlet opening for producing said jet, which outlet opening is directed upwards and passes through the central axis of the tank or is arranged at a distance from said central axis which is smaller than half said radius; and - creating a swirl movement of said fluid in a bottom portion of the tank by means of at least two off-centered nozzles provided on said injection piping and each having one outlet opening for producing said swirl movement, the outlet openings of the off-centered nozzles being positioned in two peripheral bottom locations within the tank , characterized in that said fluid comprises milk of lime, milk of dolime and/or a suspension of alkaline earth metal carbonates. - producing an upwardly directed jet of said fluid in said tank by means of one central nozzle provided on said injection piping and having one outlet opening for producing said jet, which outlet opening is directed upwards and passes through the central axis of the tank or is arranged at a distance from said central axis which is smaller than half said radius; and - creating a swirl movement of said fluid in a bottom portion of the tank by means of at least two off-centered nozzles provided on said injection piping and each having one outlet opening for producing said swirl movement, the outlet openings of the off-centered nozzles being positioned in two peripheral bottom locations within the tank ,
Protection element for protecting a fiber network component against damage thereof, the protection element comprising a guiding structure for receiving at least one fiber , the guiding structure for guiding the fiber along a path between an entry location and an exit location of the fiber into and out of the protection element , wherein the guiding structure comprises: a fiber retaining element for retaining the fiber tightly to prevent sliding of the fiber in an axial direction thereof through the retaining element ; and a cutting member ; wherein the protection element comprises a cable holding structure for receiving and holding, near said entry location for the at least one fiber, a fiber module cable comprising one or more fibers, wherein the guiding structure is arranged for guiding the fiber along the path from the entry location , via and at least partly around the circumference of the cutting member , via the fiber retaining element to the exit location , such as to break the fiber upon a tightening of the fiber around the cutting member . a fiber retaining element for retaining the fiber tightly to prevent sliding of the fiber in an axial direction thereof through the retaining element ; and a cutting member ; wherein the protection element comprises a cable holding structure for receiving and holding, near said entry location for the at least one fiber, a fiber module cable comprising one or more fibers, wherein the guiding structure is arranged for guiding the fiber along the path from the entry location , via and at least partly around the circumference of the cutting member , via the fiber retaining element to the exit location , such as to break the fiber upon a tightening of the fiber around the cutting member .
A method of testing software for operating a vehicle in an autonomous driving mode, the method comprising: running a first simulation using log data collected by a vehicle operating in an autonomous driving mode, wherein the first simulation is run using the software to control a first simulated vehicle; comparing one or more characteristics of the first simulated vehicle with one or more characteristics of the vehicle from the log data in order to determine a divergence point; using the divergence point to determine a handover time for a second simulation, the handover time corresponding to a time in the second simulation at which the software is allowed to take control of a second simulated vehicle of the second simulation; running the second simulation using the log data, wherein the second simulation is run using the handover time and the software to control the second simulated vehicle; and determining whether the software is able to complete the second simulation without a particular type of event occurring in the second simulation. running a first simulation using log data collected by a vehicle operating in an autonomous driving mode, wherein the first simulation is run using the software to control a first simulated vehicle; comparing one or more characteristics of the first simulated vehicle with one or more characteristics of the vehicle from the log data in order to determine a divergence point; using the divergence point to determine a handover time for a second simulation, the handover time corresponding to a time in the second simulation at which the software is allowed to take control of a second simulated vehicle of the second simulation; running the second simulation using the log data, wherein the second simulation is run using the handover time and the software to control the second simulated vehicle; and determining whether the software is able to complete the second simulation without a particular type of event occurring in the second simulation.
A system for analyzing and interpreting at least one data stream, wherein the system comprises a plurality of modules , at least one of which is a management module that comprises a user interface, wherein the system comprises several data processing modules that are arranged in a serial module chain with an input and an output , wherein the input of the module chain is configured to receive interception data, wherein the system is configured to use a rule engine to structure the data in accordance with at least one matching rule such that the several data processing modules are configured to structure the interception data received via the input such that the output of the module chain is configured to output structured interception data, wherein the serial module chain is configured to process data only in direction from the input to the output , characterized in that the management module is configured to communicate with the data processing modules of the serial module chain , wherein each of the data processing modules is configured to announce information with regard to its own capability, namely capability information, wherein the system is configured to forward the capability information of a single data processing module in the serial module chain in data flow direction for configuration of the data processing modules , wherein each data processing module is configured to adjust its capability based on the received capability information such that each data processing module is configured to automatically configure itself based on the capability information received from the at least one previous data processing module , thereby enabling an auto-configuration of the system .