mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring a limited node in a network, said limited node being able to receive data only within limited reception opportunities, the method being characterized by comprising at a first node: (a) detecting that an update of a network configuration parameter value for the limited node is required; (b) deciding on whether to change a limited node behaviour from a first behaviour based at least partly on communication characteristics of the limited node, said change of behaviour including increasing reception opportunity at the limited node; (c) depending on decision at step (b), triggering delivery of a request of behaviour change to the limited node during a first reception opportunity of the limited node (d) triggering delivery of the updated network configuration parameter value to the limited node during a second reception opportunity of the limited node. (a) detecting that an update of a network configuration parameter value for the limited node is required; (b) deciding on whether to change a limited node behaviour from a first behaviour based at least partly on communication characteristics of the limited node, said change of behaviour including increasing reception opportunity at the limited node; (c) depending on decision at step (b), triggering delivery of a request of behaviour change to the limited node during a first reception opportunity of the limited node (d) triggering delivery of the updated network configuration parameter value to the limited node during a second reception opportunity of the limited node.
A glass-ceramic formed from a composition comprising, in weight percent: SiO 2 25-45% Al 2 O 3 23-37% TiO 2 5-15% BaO 0-35% SrO 0-30% Molar ratio SrO+BaO/ Al 2 O 3 <1.2; and SrO + BaO 15-35% wherein (i) the glass-ceramic includes celsian (BaAl 2 Si 2 O 8) or its strontium equivalent (SrAl 2 Si 2 O 8) or solid solutions or mixtures of celsian and its strontium equivalent as a primary crystalline phase, (ii) the composition is alkali-free, (iii) the composition is free of PbO, ZnO, CuO and P 2 O 5, and (iv) the glass-ceramic will not deform or change shape at temperatures in the range of from 1350°C to 1450°C.
A fastening product comprising: a flexible, sheet-form substrate having a surface; a plurality of walls extending from the surface and defining therebetween an array of cells bounded by the walls such that the walls separate adjacent cells of the array, the substrate forming a floor of each cell; and a plurality of fastener elements extending from the surface and interspersed among the cells, the fastener elements having heads spaced above the surface to define loop engagement overhangs disposed within the cells, wherein the cells of the array are arranged in columns and rows, each column and each row comprising at least three of the cells, such that there exists at least one closed path within the substrate that fully circumscribes at least one of the cells, wherein the walls are configured to form flow barriers between adjacent cells when the product is held against a flat surface with the fastener elements extending from the substrate toward the flat surface. a flexible, sheet-form substrate having a surface; a plurality of walls extending from the surface and defining therebetween an array of cells bounded by the walls such that the walls separate adjacent cells of the array, the substrate forming a floor of each cell; and a plurality of fastener elements extending from the surface and interspersed among the cells, the fastener elements having heads spaced above the surface to define loop engagement overhangs disposed within the cells, wherein the cells of the array are arranged in columns and rows, each column and each row comprising at least three of the cells, such that there exists at least one closed path within the substrate that fully circumscribes at least one of the cells, wherein the walls are configured to form flow barriers between adjacent cells when the product is held against a flat surface with the fastener elements extending from the substrate toward the flat surface.
A hair care composition comprising: (i) from 5% to 15% by weight of sodium cocoyl isoethionate and from 0.1 % to 5% by weight of sodium lauryl sulphoacetate; and (ii) An antimicrobial active selected from an azole compound; wherein the azole compound is climbazole or ketoconazole. (i) from 5% to 15% by weight of sodium cocoyl isoethionate and from 0.1 % to 5% by weight of sodium lauryl sulphoacetate; and (ii) An antimicrobial active selected from an azole compound;
An asymmetric pair of shoes, comprising: a first shoe having a first upper and a first sole (304, 306, 310) attached to the first upper, wherein the first upper comprises a first support feature (156, 322) configured to provide increased support to at least one portion of the first upper during performance of a first predetermined action of a first foot of a wearer, and the first sole comprises a first traction feature (350b, 360e) configured to provide increased traction to at least one portion of the first sole during performance of the first predetermined action of the first foot; and a second shoe having a second upper and a second sole attached to the second upper, wherein the first support feature and first traction feature are not present at corresponding mirror-image locations of the second shoe, characterized by the first support feature (156, 322) comprising a first enhanced support zone located at a lateral middle to forefoot area of the first upper, wherein the first enhanced support zone is stronger and more flexible than other areas of the first upper. a first shoe having a first upper and a first sole (304, 306, 310) attached to the first upper, wherein the first upper comprises a first support feature (156, 322) configured to provide increased support to at least one portion of the first upper during performance of a first predetermined action of a first foot of a wearer, and the first sole comprises a first traction feature (350b, 360e) configured to provide increased traction to at least one portion of the first sole during performance of the first predetermined action of the first foot; and a second shoe having a second upper and a second sole attached to the second upper, wherein the first support feature and first traction feature are not present at corresponding mirror-image locations of the second shoe, characterized by the first support feature (156, 322) comprising a first enhanced support zone located at a lateral middle to forefoot area of the first upper, wherein the first enhanced support zone is stronger and more flexible than other areas of the first upper.
Copolyamide comprising at least two units and corresponding to the following general formula: A / diamine. Cw diacid, in which: • the diamine is a cycloaliphatic diamine comprising two rings chosen from bis(3,5-dialkyl-4-aminocyclohexyl)ethane, bis(3,5-dialkyl-4-aminocyclohexyl)propane, bis(3,5-dialkyl-4-aminocyclohexyl)butane, bis(3-methyl-4-aminocyclohexyl)methane (MACM) and bis(p-aminocyclohexyl)methane (PACM), • w represents the number of carbon atoms of the diacid and is preferably between 4 and 36, the diacid being sebacic acid (w=10), and • A is chosen from a unit obtained from an amino acid chosen from 9-aminononanoic acid, 10-aminodecanoic acid and 1-aminoundecanoic acid and its derivatives, and in which at least one of the monomers chosen from A and the Cw diacid is obtained, in all or part, from renewable starting materials according to Standard ASTM D6866 in order for the content, expressed as percentage, of renewable organic carbon in the copolyamide, denoted %C renew.org, to be strictly greater than 0, the content %C renew.org corresponding to the following equation: % C renew. org = ∑ i Fi × Ci + ∑ k Fk × Ck ' ∑ j Fj × Cj + ∑ i Fi × Ci + ∑ k Fk × Ck × 100 with i = monomer(s) resulting from 100% renewable starting materials, within the meaning of Standard ASTM D6866 j = monomer(s) resulting from 100% fossil starting materials, within the meaning of Standard ASTM D6866 k = monomer(s) resulting in part from renewable starting materials, within the meaning of Standard ASTM D6866 Fi, Fj, Fk = respective molar fraction (s) of the monomers i, j and k in the copolyamide Ci, Cj, Ck = respective number of carbon atoms of the monomers i, j and k in the copolyamide, Ck' = number of atoms of renewable organic carbon, within the meaning of Standard ASTM D6866, in the monomer(s) k. • the diamine is a cycloaliphatic diamine comprising two rings chosen from bis(3,5-dialkyl-4-aminocyclohexyl)ethane, bis(3,5-dialkyl-4-aminocyclohexyl)propane, bis(3,5-dialkyl-4-aminocyclohexyl)butane, bis(3-methyl-4-aminocyclohexyl)methane (MACM) and bis(p-aminocyclohexyl)methane (PACM), • w represents the number of carbon atoms of the diacid and is preferably between 4 and 36, the diacid being sebacic acid (w=10), and • A is chosen from a unit obtained from an amino acid chosen from 9-aminononanoic acid, 10-aminodecanoic acid and 1-aminoundecanoic acid and its derivatives, with i = monomer(s) resulting from 100% renewable starting materials, within the meaning of Standard ASTM D6866 j = monomer(s) resulting from 100% fossil starting materials, within the meaning of Standard ASTM D6866 k = monomer(s) resulting in part from renewable starting materials, within the meaning of Standard ASTM D6866 Fi, Fj, Fk = respective molar fraction (s) of the monomers i, j and k in the copolyamide Ci, Cj, Ck = respective number of carbon atoms of the monomers i, j and k in the copolyamide, Ck' = number of atoms of renewable organic carbon, within the meaning of Standard ASTM D6866, in the monomer(s) k.
An exhaust gas recirculation valve for vehicles, comprising: a housing comprising an EGR channel formed therein; a driving motor and a motor shaft provided in the housing; a pinion gear disposed at the motor shaft; a power train gear comprising a tooth formed on an outer edge and engaged with the pinion gear; and a cam unit coupled to the power train gear and rotating along with the power train gear, wherein the EGR channel is selectively opened and closed via up and down movement in response to rotation of the cam unit, further comprising: an inserting portion formed in the power train gear; and a protrusion portion formed on one surface of the cam unit 8200) and inserted into the inserting portion, wherein the protrusion portion is coupled and fixed by heat while being inserted into the inserting portion, further comprising a spacer step difference portion disposed around the protrusion portion and configured to space a surface of the power train gear and a surface of the cam unit apart from each other. a housing comprising an EGR channel formed therein; a driving motor and a motor shaft provided in the housing; a pinion gear disposed at the motor shaft; a power train gear comprising a tooth formed on an outer edge and engaged with the pinion gear; and a cam unit coupled to the power train gear and rotating along with the power train gear, wherein the EGR channel is selectively opened and closed via up and down movement in response to rotation of the cam unit, further comprising: an inserting portion formed in the power train gear; and a protrusion portion formed on one surface of the cam unit 8200) and inserted into the inserting portion, wherein the protrusion portion is coupled and fixed by heat while being inserted into the inserting portion, further comprising a spacer step difference portion disposed around the protrusion portion and configured to space a surface of the power train gear and a surface of the cam unit apart from each other.
Deflecting device for a conveyor belt of a band conveyor, comprising a deflecting drum and a support means for the deflecting drum, - wherein the support means comprises a support body and a multiplicity of support units (10-13; 14-17), - wherein each support unit (10-13; 14-17) comprises at least one support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) characterized - in that each support unit (10-13; 14-17) comprises the at least one support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) and a spring means (10c-17c), - wherein the spring means (10c-17c) is in each case arranged between each support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) and the support body, - in that the spring means (10c-17c) comprises an axle, - wherein the axle is mounted on the support body, - wherein the axle (27; 30; 31; 34) projects on one side beyond the support body and has a first free end (27a; 30a; 31a; 34a), or is mounted on the support body such that the axle (28; 29; 32; 33) projects on both sides beyond the support body and has a first free end (28a; 29a; 32a; 33a) and a second free end (28b; 29b; 32b; 33b), wherein, on the free end (27a; 30a; 31a; 34a), or the free ends (28a, 28b; 29a, 29b; 32a, 32b; 33a, 33b), of the axle mounted on the support body, there is arranged in each case one of the support rollers (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a), and - wherein a lateral surface of the deflecting drum is supported by lateral surfaces (24, 25) of the support rollers (10a or 14a) or rolls thereon. - wherein the support means comprises a support body and a multiplicity of support units (10-13; 14-17), - wherein each support unit (10-13; 14-17) comprises at least one support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) - in that each support unit (10-13; 14-17) comprises the at least one support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) and a spring means (10c-17c), - wherein the spring means (10c-17c) is in each case arranged between each support roller (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a) and the support body, - in that the spring means (10c-17c) comprises an axle, - wherein the axle is mounted on the support body, - wherein the axle (27; 30; 31; 34) projects on one side beyond the support body and has a first free end (27a; 30a; 31a; 34a), or is mounted on the support body such that the axle (28; 29; 32; 33) projects on both sides beyond the support body and has a first free end (28a; 29a; 32a; 33a) and a second free end (28b; 29b; 32b; 33b), wherein, on the free end (27a; 30a; 31a; 34a), or the free ends (28a, 28b; 29a, 29b; 32a, 32b; 33a, 33b), of the axle mounted on the support body, there is arranged in each case one of the support rollers (10a; 11a, 11b; 12a, 12b; 13a; 14a; 15a, 15b; 16a, 16b; 17a), and - wherein a lateral surface of the deflecting drum is supported by lateral surfaces (24, 25) of the support rollers (10a or 14a) or rolls thereon.
A system for testing a plurality of wireless device under test transmitters (255, 256, 257) in a cabled radio frequency environment, comprising: a network equipment test device including at least one processor, said network equipment test device further including: a plurality of channel modeling functions (263, 264, 265) for generating modeled RF channels having orthogonal transmission modes; a plurality of precode matrix calculator functions (260, 261, 262) respectively coupled to said channel modeling functions (263, 264, 265) and operative to derive feedback parameters from said modeled RF channels; and a plurality of beamforming feedback functions (234, 235, 236) respectively and operatively coupled to said precode matrix calculator functions (260, 261, 262) for transmitting said feedback parameters to said DUT transmitters (255, 256, 257), wherein said feedback parameters for each wireless DUT transmitter (255, 256, 257) contain a product of a precoding matrix V and a matrix H representing the modeled RF channel and are operative to cause said wireless DUT transmitters (255, 256, 257) to precode the signals transmitted to said network equipment test device via RF cables each of whose RF propagation matrix is equivalent to an identity matrix in accordance with said modeled RF channels. a network equipment test device including at least one processor, said network equipment test device further including: a plurality of channel modeling functions (263, 264, 265) for generating modeled RF channels having orthogonal transmission modes; a plurality of precode matrix calculator functions (260, 261, 262) respectively coupled to said channel modeling functions (263, 264, 265) and operative to derive feedback parameters from said modeled RF channels; and a plurality of beamforming feedback functions (234, 235, 236) respectively and operatively coupled to said precode matrix calculator functions (260, 261, 262) for transmitting said feedback parameters to said DUT transmitters (255, 256, 257), a plurality of channel modeling functions (263, 264, 265) for generating modeled RF channels having orthogonal transmission modes; a plurality of precode matrix calculator functions (260, 261, 262) respectively coupled to said channel modeling functions (263, 264, 265) and operative to derive feedback parameters from said modeled RF channels; and a plurality of beamforming feedback functions (234, 235, 236) respectively and operatively coupled to said precode matrix calculator functions (260, 261, 262) for transmitting said feedback parameters to said DUT transmitters (255, 256, 257), wherein said feedback parameters for each wireless DUT transmitter (255, 256, 257) contain a product of a precoding matrix V and a matrix H representing the modeled RF channel and are operative to cause said wireless DUT transmitters (255, 256, 257) to precode the signals transmitted to said network equipment test device via RF cables each of whose RF propagation matrix is equivalent to an identity matrix in accordance with said modeled RF channels.
A voice recognition method, comprising: generating a speech model for the speech of children using a computerized method which comprises the steps of: deriving a transformation that would produce an existing speech model for the speech of adult females when operating on an existing speech model for the speech of adult males; and applying the transformation to the speech model for the speech of adult females to derive the speech model for the speech of children; and using the speech model for the speech of children as part of a computerized voice recognition method. generating a speech model for the speech of children using a computerized method which comprises the steps of: deriving a transformation that would produce an existing speech model for the speech of adult females when operating on an existing speech model for the speech of adult males; and applying the transformation to the speech model for the speech of adult females to derive the speech model for the speech of children; and deriving a transformation that would produce an existing speech model for the speech of adult females when operating on an existing speech model for the speech of adult males; and applying the transformation to the speech model for the speech of adult females to derive the speech model for the speech of children; and using the speech model for the speech of children as part of a computerized voice recognition method.
An ear therapeutic device ETD comprising: a. middle ear ambient pressure equalizing means comprising at least one conduit comprising at least one first end configured for receiving an airflow blown thereinto and at least one second end provided with an ear piece configured for external attachment to the ear aperture being in a fluid communication therebetween; b. a vibrator inducing vibrations propagating into said patient Eustachian tube; c. at least one inhaling valve and at least one exhaling valve configured for to allow the entry of external air when inhaling and diverting the air when exhaling into the conduit; d. a mouth piece connected to said first end and conducting said airflow blown by a patient into said conduit; and wherein said ear piece comprises a pressure regulator (65; 288) of said airflow at said ear piece configured for regulating airflow pressure at an exit port aperture of said ear piece, and comprising a regulating gear configured to translate a fluid pressure force into rotating motion creating an oscillating translational pumping movement in a pumping sleeve: and a partially insertable protruding portion. a. middle ear ambient pressure equalizing means comprising at least one conduit comprising at least one first end configured for receiving an airflow blown thereinto and at least one second end provided with an ear piece configured for external attachment to the ear aperture being in a fluid communication therebetween; b. a vibrator inducing vibrations propagating into said patient Eustachian tube; c. at least one inhaling valve and at least one exhaling valve configured for to allow the entry of external air when inhaling and diverting the air when exhaling into the conduit; d. a mouth piece connected to said first end and conducting said airflow blown by a patient into said conduit; and a pressure regulator (65; 288) of said airflow at said ear piece configured for regulating airflow pressure at an exit port aperture of said ear piece, and comprising a regulating gear configured to translate a fluid pressure force into rotating motion creating an oscillating translational pumping movement in a pumping sleeve: and a partially insertable protruding portion.
A method for determining impedance of a variable impedance component, comprising - tuning a voltage-controlled oscillator over a predefined frequency tuning range, the oscillator having a resonator as a variable impedance component coupled as a load thereof, - measuring the frequency response of the tunable oscillator in at least two different states of said variable impedance component and as a function of the applied control voltage, and - analyzing the measured frequency responses and determining a difference between the resonating frequencies in the respective states of said variable impedance component for at least one control voltage value for determining the impedance of the variable impedance component. - tuning a voltage-controlled oscillator over a predefined frequency tuning range, the oscillator having a resonator as a variable impedance component coupled as a load thereof, - measuring the frequency response of the tunable oscillator in at least two different states of said variable impedance component and as a function of the applied control voltage, and - analyzing the measured frequency responses and determining a difference between the resonating frequencies in the respective states of said variable impedance component for at least one control voltage value for determining the impedance of the variable impedance component.
A thermoplastic vulcanizate composition comprising a dispersed rubber phase, including a rubber that has been at least partially cured in the presence of a phenolic resin curing agent; a continuous thermoplastic phase, including at least one thermoplastic polymer; carbon black; and one or more of the following: the composition further comprises an epoxidized soy bean oil; and the composition further comprises a mixture of an alkyl radical scavenger and an alkyl phosphite. a dispersed rubber phase, including a rubber that has been at least partially cured in the presence of a phenolic resin curing agent; a continuous thermoplastic phase, including at least one thermoplastic polymer; carbon black; and one or more of the following: the composition further comprises an epoxidized soy bean oil; and the composition further comprises a mixture of an alkyl radical scavenger and an alkyl phosphite. the composition further comprises an epoxidized soy bean oil; and the composition further comprises a mixture of an alkyl radical scavenger and an alkyl phosphite.