mhurhangee/patent-ind-claim-en huggingface dataset:
An ethylene polymer having: a melt index in a range from 0 to 15 g/10 min as determined by ASTM D1238 at 190 °C with a 2,160 gram weight; a density in a range from 0.91 to 0.945 g/cm 3 as determined by ASTM D1505; a Carreau-Yasuda (CY)-a parameter at 190 °C in a range from 0.2 to 0.6 using the Carreau-Yasuda model: η * ω = η 0 1 + τ η ω a 1 − n / a , wherein: | η *( ω )| = magnitude of complex shear viscosity; η 0 = zero shear viscosity; τ η = viscous relaxation time (Tau(η)); a = "breadth" parameter (CY-a parameter); n = fixes the final power law slope, fixed at 2/11; and ω = angular frequency of oscillatory shearing deformation an average number of long chain branches (LCBs) per 1,000,000 total carbon atoms of the ethylene polymer in a molecular weight range of 500,000 to 2,000,000 g/mol of less than or equal to 5, measured as described in the description; and a maximum ratio of extensional viscosity to three times shear viscosity, η E /3η, at an extensional rate of 0.03 sec -1 in a range from 3 to 15, wherein the ratio of extensional viscosity to three times the shear viscosity is determined using a Sentmanat Extensional Rheometer (SER) at 150 °C. a melt index in a range from 0 to 15 g/10 min as determined by ASTM D1238 at 190 °C with a 2,160 gram weight; a density in a range from 0.91 to 0.945 g/cm 3 as determined by ASTM D1505; a Carreau-Yasuda (CY)-a parameter at 190 °C in a range from 0.2 to 0.6 using the Carreau-Yasuda model: η * ω = η 0 1 + τ η ω a 1 − n / a , wherein: | η *( ω )| = magnitude of complex shear viscosity; η 0 = zero shear viscosity; τ η = viscous relaxation time (Tau(η)); a = "breadth" parameter (CY-a parameter); n = fixes the final power law slope, fixed at 2/11; and ω = angular frequency of oscillatory shearing deformation | η *( ω )| = magnitude of complex shear viscosity; η 0 = zero shear viscosity; τ η = viscous relaxation time (Tau(η)); a = "breadth" parameter (CY-a parameter); n = fixes the final power law slope, fixed at 2/11; and ω = angular frequency of oscillatory shearing deformation an average number of long chain branches (LCBs) per 1,000,000 total carbon atoms of the ethylene polymer in a molecular weight range of 500,000 to 2,000,000 g/mol of less than or equal to 5, measured as described in the description; and a maximum ratio of extensional viscosity to three times shear viscosity, η E /3η, at an extensional rate of 0.03 sec -1 in a range from 3 to 15, wherein the ratio of extensional viscosity to three times the shear viscosity is determined using a Sentmanat Extensional Rheometer (SER) at 150 °C.
A blow molding device including a blow molding mold to which a bottomed tubular preform (PF) is fitted, a blow nozzle that is fitted to a mouth tubular portion (PFb) of the preform (PF) fitted to the mold , and a pressurized liquid supply unit configured to supply a pressurized liquid (Fp) to the blow nozzle , the preform (PF) being to be molded into a shape conforming to a cavity of the mold by filling the liquid (Fp) into the preform (PF) through the blow nozzle , the blow molding device comprising: a deaeration mechanism that is connected to the blow nozzle , wherein the liquid (Fp) is filled into the preform (PF) through the blow nozzle after air that is present within the preform (PF) fitted to the mold is sucked out by the deaeration mechanism , characterised in that the deaeration mechanism has a function of supplying flush air into a flow path connecting the deaeration mechanism and the blow nozzle to return the liquid (Fp) within the flow path to the blow nozzle .
Pad for a disc brake comprising a support plate and a friction material , wherein said pad mainly extends in a plane defined, when the plate is in use, by a radial direction (R-R) and a tangential direction (T-T), which define a lying plane that can face a disc of a disc brake, and wherein said support plate comprises at least one first plate and at least one second plate , wherein said first plate is in single-piece and extends over a region of said lying plane which defines the overall dimensions of the pad in said lying plane, and wherein said first plate comprises a flat piston support surface suitable for facing at least one thrust means, and a first friction surface opposite the piston support surface and at least partially suitable for facing the friction material , and wherein said at least one second plate is suitable for being interposed between said at least one first plate and the friction material , and wherein said at least one second plate is connected to the first plate in a plurality of junction points separate from one another, wherein said at least one second plate extends on at least one portion of the friction surface of said at least one first plate delimited by a single closed perimeter, at least one portion of the friction surface of said at least one first plate is external to said closed perimeter of at least one second plate and faces said friction material , said at least one second plate defines a second friction surface facing said friction material , wherein said second friction surface is continuous; characterised in that said at least one second plate comprises at least one stiffening rib that extends along a curved edge of the first plate .
An atomizer comprising: an atomizing sleeve , with a reservoir formed therein; a heater , disposed inside the atomizing sleeve, the heater comprising: a quartz glass tube , hollow and with two ends opened; a liquid conductive element , received in the quartz glass tube; the liquid conductive element is configured for absorbing tobacco liquid into the quartz glass tube; a heating element, sleeved on the quartz glass tube; the heating element generates infrared radiation to heat the tobacco liquid stored in the quartz glass tube. an atomizing sleeve , with a reservoir formed therein; a heater , disposed inside the atomizing sleeve, the heater comprising: a quartz glass tube , hollow and with two ends opened; a liquid conductive element , received in the quartz glass tube; the liquid conductive element is configured for absorbing tobacco liquid into the quartz glass tube; a heating element, sleeved on the quartz glass tube; the heating element generates infrared radiation to heat the tobacco liquid stored in the quartz glass tube. a quartz glass tube , hollow and with two ends opened; a liquid conductive element , received in the quartz glass tube; the liquid conductive element is configured for absorbing tobacco liquid into the quartz glass tube; a heating element, sleeved on the quartz glass tube; the heating element generates infrared radiation to heat the tobacco liquid stored in the quartz glass tube.
A method for measuring a quality of experience, QoE, on a communication path between a software defined networking, SDN, switch and a quality measurement protocol receiver associated with the SDN switch, the method , performed by the SDN switch, comprising: receiving, from a SDN controller, (S630) a quality measurement request message including service type information; generating a standard probe packet based on the service type information by using a user traffic emulation function, wherein the user traffic emulation function is a function of creating a user traffic emulation packet as the standard probe packet to match a traffic type of the service type information; measuring (S655) the QoE of the communication path using the standard probe packet; and transmitting, to the SDN controller, (S680) the QoE test reply message, wherein the quality measurement request message and the QoE test reply message are transmitted as being included in an OpenFlow message. receiving, from a SDN controller, (S630) a quality measurement request message including service type information; generating a standard probe packet based on the service type information by using a user traffic emulation function, wherein the user traffic emulation function is a function of creating a user traffic emulation packet as the standard probe packet to match a traffic type of the service type information; measuring (S655) the QoE of the communication path using the standard probe packet; and transmitting, to the SDN controller, (S680) the QoE test reply message, wherein the quality measurement request message and the QoE test reply message are transmitted as being included in an OpenFlow message.
A method performed by a terminal , the method comprising detecting (S71) a connection opportunity to a radio access network other than a home public land mobile network of said terminal, obtaining (S72), from an authentication, authorization and accounting entity of said home public land mobile network of said terminal, a second network identifier of said radio access network ascertained by said authentication, authorization and accounting entity of said home public land mobile network of said terminal on the basis of a first network identifier of said radio access network, said second network identifier being indicative of trust related information with respect to said radio access network, wherein said trust related information comprises an allocation to one of a plurality of predetermined trust classes having different confidence levels, verifying (S73) correctness of said second network identifier, and controlling (S74) a selection processing of selecting to connect to said radio access network or not based on said second network identifier of said radio access network, if said second network identifier is verified as being correct. detecting (S71) a connection opportunity to a radio access network other than a home public land mobile network of said terminal, obtaining (S72), from an authentication, authorization and accounting entity of said home public land mobile network of said terminal, a second network identifier of said radio access network ascertained by said authentication, authorization and accounting entity of said home public land mobile network of said terminal on the basis of a first network identifier of said radio access network, said second network identifier being indicative of trust related information with respect to said radio access network, wherein said trust related information comprises an allocation to one of a plurality of predetermined trust classes having different confidence levels, verifying (S73) correctness of said second network identifier, and controlling (S74) a selection processing of selecting to connect to said radio access network or not based on said second network identifier of said radio access network, if said second network identifier is verified as being correct.
A method for controlling at least one wind power installation for generating electrical energy from wind for infeed into an electrical supply network , wherein - the wind power installation has an aerodynamic rotor with rotor blades which can be adjusted in respect of their blade angle, - the rotor can be operated at a variable rotor rotational speed, and - the wind power installation has a generator, which is coupled to the aerodynamic rotor , for generating a generator power, wherein - the wind power installation is operated in a normal mode in which it feeds available wind power up to a rated power into the electrical supply network , wherein the available wind power indicates a power which can be obtained from the wind and fed into the electrical supply network depending on the wind and technical limitations of the wind power installation , and - the wind power installation changes over from a normal mode to a support mode depending on an operating situation of at least one solar installation which feeds into the same electrical supply network , wherein - the wind power installation can provide more instantaneous reserve in the support mode than in the normal mode. - the wind power installation has an aerodynamic rotor with rotor blades which can be adjusted in respect of their blade angle, - the rotor can be operated at a variable rotor rotational speed, and - the wind power installation has a generator, which is coupled to the aerodynamic rotor , for generating a generator power, wherein - the wind power installation is operated in a normal mode in which it feeds available wind power up to a rated power into the electrical supply network , wherein the available wind power indicates a power which can be obtained from the wind and fed into the electrical supply network depending on the wind and technical limitations of the wind power installation , and - the wind power installation changes over from a normal mode to a support mode depending on an operating situation of at least one solar installation which feeds into the same electrical supply network , wherein - the wind power installation can provide more instantaneous reserve in the support mode than in the normal mode.
A camera module comprising: a housing including a first surface , a through hole and a lens assembly disposed in the through hole to face the first surface on which light is incident; an infrared filter attached to a second surface of the housing, positioned on a side opposite to the first surface ; an image sensor configured to recognize the light passing through the infrared filter; and a printed circuit board coupled to the housing, wherein the infrared filter includes an effective filtering region configured to transmit visible light, and a masking region surrounding the effective filtering region and having chamfered edges in regions corresponding to vertices of the housing, the infrared filter having a shape corresponding to a shape of the chamfered edges of the masking region, and wherein the effective filtering region includes a central region forming a center and a corner region protruding outward from a vertex of the central region, characterised in that a circle is being formed in the corner region , and in that the printed circuit board includes a seating groove inside which the image sensor is disposed, the seating groove having a shape corresponding to the shape of the image sensor, wherein a diameter (D2) of the circle is twice a separation distance (D1) between the image sensor and the seating groove. a housing including a first surface , a through hole and a lens assembly disposed in the through hole to face the first surface on which light is incident; an infrared filter attached to a second surface of the housing, positioned on a side opposite to the first surface ; an image sensor configured to recognize the light passing through the infrared filter; and a printed circuit board coupled to the housing, wherein the infrared filter includes an effective filtering region configured to transmit visible light, and a masking region surrounding the effective filtering region and having chamfered edges in regions corresponding to vertices of the housing, the infrared filter having a shape corresponding to a shape of the chamfered edges of the masking region, and wherein the effective filtering region includes a central region forming a center and a corner region protruding outward from a vertex of the central region, characterised in that a circle is being formed in the corner region , and in that the printed circuit board includes a seating groove inside which the image sensor is disposed, the seating groove having a shape corresponding to the shape of the image sensor, wherein a diameter (D2) of the circle is twice a separation distance (D1) between the image sensor and the seating groove.
A floor element for forming a floor covering, wherein this floor element comprises a decorative layer made of a ceramic material and a support layer arranged below this decorative layer , wherein the support layer comprises edges provided with coupling elements configured to realize a mechanical coupling with coupling elements of an adjacent floor element wherein the floor element comprises an intermediate layer having a resin material that permeates an open porosity at the lower surface of the decorative layer, characterized in that the resin material has a viscosity at 20°C below 1000 Pas.
Laser scanner for 3D measuring an environment according to a laser time-of-flight method, comprising: a stand for placement in the environment , a scanning unit rotatably mounted on the stand and configured to emit a largely planar fan of laser beams fanned out about a scanning axis and to receive laser beams (5*) reflected at targets of the environment , a rotation drive configured to rotate the scanning unit relative to the stand by a predetermined rotation angle (δ) about a rotation axis that is normal to the scanning axis and to a beam direction (R) within the fan , and an evaluation unit connected to the scanning unit and the rotation drive for evaluating the received laser beams (5*), wherein the rotation axis is horizontal when the stand is placed in the environment , characterized by a pivot drive connected to the evaluation unit and configured to pivot the scanning unit relative to the stand by a predetermined pivot angle (δ) about a vertical pivot axis after the scanning unit has been rotated by the rotation angle (δ). a stand for placement in the environment , a scanning unit rotatably mounted on the stand and configured to emit a largely planar fan of laser beams fanned out about a scanning axis and to receive laser beams (5*) reflected at targets of the environment , a rotation drive configured to rotate the scanning unit relative to the stand by a predetermined rotation angle (δ) about a rotation axis that is normal to the scanning axis and to a beam direction (R) within the fan , and an evaluation unit connected to the scanning unit and the rotation drive for evaluating the received laser beams (5*), wherein the rotation axis is horizontal when the stand is placed in the environment , characterized by a pivot drive connected to the evaluation unit and configured to pivot the scanning unit relative to the stand by a predetermined pivot angle (δ) about a vertical pivot axis after the scanning unit has been rotated by the rotation angle (δ).
A voice interactive device configured to transmit a voice content to a plurality of voice interactive services (2-1)(2-2) through a network , wherein the plurality of voice interactive services (2-1)(2-2) are selected based at least in part on the voice content, the voice interactive device comprising: a keyword detector configured to detect from the voice content a first keyword or a second keyword different from the first keyword; and a controller , wherein the controller is configured to transmit at least a first content after the first keyword of the voice content to a first voice interactive service (2-1) of the voice interactive service when the keyword detector detects the first keyword, and to transmit at least a second content after the second keyword of the voice content to a second voice interactive service (2-2) of the voice interactive service when the keyword detector detects the second keyword, characterized in that the controller is further configured to stop transmitting the second content following the second keyword in the voice content following the first keyword, and to resume transmitting the second content to the second voice interactive service (2-2) when the keyword detector detects the second keyword in the voice content following the first keyword. a keyword detector configured to detect from the voice content a first keyword or a second keyword different from the first keyword; and a controller , wherein the controller is configured to transmit at least a first content after the first keyword of the voice content to a first voice interactive service (2-1) of the voice interactive service when the keyword detector detects the first keyword, and to transmit at least a second content after the second keyword of the voice content to a second voice interactive service (2-2) of the voice interactive service when the keyword detector detects the second keyword, characterized in that the controller is further configured to stop transmitting the second content following the second keyword in the voice content following the first keyword, and to resume transmitting the second content to the second voice interactive service (2-2) when the keyword detector detects the second keyword in the voice content following the first keyword.
A method of securing authentication in electronic communication between at least one user authentication means and at least one server authentication means , characterised in that primary authentication is performed in the first step of an authentication transaction, a secondary authentication secret is created within said primary authentication and shared between the user authentication means and the server authentication means , wherein the secondary authentication secret is valid only during the given authentication transaction, and wherein the secondary authentication secret represents a shared secret created and authenticated within the primary authentication, and wherein the secondary authentication secret is a pseudo-random secret information known only to the user authentication means and the server authentication means, and wherein the secondary authentication secret is created so that it is not predictable even if the primary authentication secret is known, and said secondary authentication secret is subsequently used as an input for a transformation, preferably for a cryptographic transformation, performed by user authentication means separately on each authentication vector element, thereby creating first authentication vector element product , wherein the authentication vector is an ordered set of authentication vector elements (AVE)(i)), wherein the first authentication vector product is transferred from the user authentication means to the server authentication means and is evaluated by the server authentication means using secondary authentication secret .
A method comprising: comparing (S5) at least one received signal received parameter value for at least one channel state information reference signal associated with a first frequency with at least one received signal received parameter value for at least one channel state information reference signal associated with a second frequency, wherein a received signal received parameter comprises at least one of received signal received power and received signal received quality; and causing (S6) information from said comparing to be reported. comparing (S5) at least one received signal received parameter value for at least one channel state information reference signal associated with a first frequency with at least one received signal received parameter value for at least one channel state information reference signal associated with a second frequency, wherein a received signal received parameter comprises at least one of received signal received power and received signal received quality; and causing (S6) information from said comparing to be reported.
A urine analysis device comprising a case configured to be positioned entirely within a toilet , the case having a front face for receiving a stream of urine directly from a user urinating on the toilet, a rear face opposite the front face, and a collection port , and wherein the case contains a test assembly configured to perform an analysis on urine collected through the collection port, wherein the rear face is configured to face an inner wall of a toilet bowl , and characterised in that the collection orifice is disposed on the rear face . the case having a front face for receiving a stream of urine directly from a user urinating on the toilet, a rear face opposite the front face, and a collection port , and wherein the case contains a test assembly configured to perform an analysis on urine collected through the collection port, wherein the rear face is configured to face an inner wall of a toilet bowl , and characterised in that the collection orifice is disposed on the rear face .