mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear including an upper and a motorized tensioning system, comprising: a tensile member; a motorized tightening device configured to apply tension in the tensile member to adjust the size of an internal void defined by the article of footwear; a power source configured to supply power to the motorized tightening device; and a control unit (302, 1215) configured to control the motorized tightening device and configured to monitor tension in the tensile member using at least one sensor; wherein the control unit is configured to operate the motorized tightening device in a normal mode and an active mode; wherein in response to a determination (502, 512) by the control unit that a user has finished tensioning the tensile member: the motorized tightening device is powered down when operating in the normal mode; and the control unit actively monitors and adjusts the tension in the tensile member to maintain a target tension when operating in the active mode, wherein the target tension is established based on contact pressures on the upper against a foot of a wearer, the contact pressures being measured by pressure sensors. a tensile member; a motorized tightening device configured to apply tension in the tensile member to adjust the size of an internal void defined by the article of footwear; a power source configured to supply power to the motorized tightening device; and a control unit (302, 1215) configured to control the motorized tightening device and configured to monitor tension in the tensile member using at least one sensor; wherein the control unit is configured to operate the motorized tightening device in a normal mode and an active mode; wherein in response to a determination (502, 512) by the control unit that a user has finished tensioning the tensile member: the motorized tightening device is powered down when operating in the normal mode; and the control unit actively monitors and adjusts the tension in the tensile member to maintain a target tension when operating in the active mode, wherein the target tension is established based on contact pressures on the upper against a foot of a wearer, the contact pressures being measured by pressure sensors. the motorized tightening device is powered down when operating in the normal mode; and the control unit actively monitors and adjusts the tension in the tensile member to maintain a target tension when operating in the active mode, wherein the target tension is established based on contact pressures on the upper against a foot of a wearer, the contact pressures being measured by pressure sensors.
A liquid developer containing an electrically insulating carrier fluid and colored particles dispersed in the carrier fluid, wherein the colored particles are pigments, the liquid developer containing at least one selected from a group consisting of polyvinyl butyral, cyclic olefin co-polymer and cellulose ether, and, the liquid developer containing, when cellulose ether is contained, tall oil fatty acid as the carrier fluid.
A conservatory, comprising a system floor, comprising - a multi-layered panelled floor in the design of a dry construction system which comprises prefabricated, individual panels or a floor panel prefabricated from several layers, - a frame construction which is arranged peripherally around the panelled floor, characterised by - at least one ground anchor for bringing into the earth and for anchoring the frame construction, wherein frame construction is fastened on the at least one ground anchor. - a multi-layered panelled floor in the design of a dry construction system which comprises prefabricated, individual panels or a floor panel prefabricated from several layers, - a frame construction which is arranged peripherally around the panelled floor, characterised by - at least one ground anchor for bringing into the earth and for anchoring the frame construction,
A processed, solid soya protein product derived from soya bean meal, obtainable by a water leaching method, which method comprises the following sequence of steps: 1) providing an initial mixture comprising milled or flaked or otherwise disintegrated soya bean material and water; 2) leaching the initial mixture under conditions where the dry matter amount in the initial mixture is between 8 and 20 % by weight, for 0.15 to 6 hours at a temperature of 5 to 65°C and at a pH of 3.5 to 5.5; 3) separating the leached mixture in a liquid extract and a first solid fraction; 4) collecting the first solid fraction; 5) optionally conveying the liquid extract from step 3) through means for further separation of solids, such as decanter centrifuging, thereby recovering a second solid fraction, and combining the second solid fraction with the first solid fraction; and 6) drying the first solid fraction or the combined solid fractions from steps 4) and 5) to a dry matter of at least 90 %; wherein the total amount of spent water in the method calculated from the initial SBM starting material is 10 times the amount of SBM or less; and which protein product comprises 65-75 % protein by weight of dry matter, has a protein to potassium weight ratio of at least 65:1 and a dry matter content of at least 90 %, which product comprises less than 0.1 % sodium, such as less than 0.01 % or less than 0.005 % or less than 0.001 % by weight, and wherein at least 65 % by weight of the indigestible oligosaccharide content of the SBM wherefrom the protein product is derived has been removed. 1) providing an initial mixture comprising milled or flaked or otherwise disintegrated soya bean material and water; 2) leaching the initial mixture under conditions where the dry matter amount in the initial mixture is between 8 and 20 % by weight, for 0.15 to 6 hours at a temperature of 5 to 65°C and at a pH of 3.5 to 5.5; 3) separating the leached mixture in a liquid extract and a first solid fraction; 4) collecting the first solid fraction; 5) optionally conveying the liquid extract from step 3) through means for further separation of solids, such as decanter centrifuging, thereby recovering a second solid fraction, and combining the second solid fraction with the first solid fraction; and 6) drying the first solid fraction or the combined solid fractions from steps 4) and 5) to a dry matter of at least 90 %; wherein the total amount of spent water in the method calculated from the initial SBM starting material is 10 times the amount of SBM or less; and which protein product comprises 65-75 % protein by weight of dry matter, has a protein to potassium weight ratio of at least 65:1 and a dry matter content of at least 90 %, which product comprises less than 0.1 % sodium, such as less than 0.01 % or less than 0.005 % or less than 0.001 % by weight, and wherein at least 65 % by weight of the indigestible oligosaccharide content of the SBM wherefrom the protein product is derived has been removed.
Onboard electrical system for a motor vehicle, having a primary power supply network and a secondary power supply network electrically connected to the primary power supply network via a DC-DC converter, wherein the primary power supply network and the secondary power supply network are connected to one another via a blocking diode of the DC-DC converter and the blocking diode has its forward direction from the primary power supply network toward the secondary power supply network, and wherein an insulation monitoring device having a measuring resistor is associated with the secondary power supply network for determining an insulation fault, characterised in that an additional resistor is connected in parallel with the blocking diode for the bridging thereof, such that by means of the insulation monitoring device an insulation fault common to the primary power supply network and the secondary power supply network can be determined.
An absorbing apparatus comprising: a shock-absorbing unit, which comprises a front plate, a rear plate and a shock-absorbing core arranged between the front plate and the rear plate; a base connected to the rear plate of the shock-absorbing unit and having a rear plate; and a side shield surrounding at least partially the shock-absorbing core, one end of the side shield being connected to one of the front plate and the rear plate of the shock-absorbing unit, the other end of the side shield being spaced-apart from the other of the front plate and the rear plate of the shock-absorbing unit, whereby the base further comprises an energy absorbing element, which is connected to the rear plate of the shock-absorbing unit and which is mounted in the rear plate of the base, characterized in that the rear plate of the base comprises a cutting unit for cutting a surface of the energy absorbing element. a shock-absorbing unit, which comprises a front plate, a rear plate and a shock-absorbing core arranged between the front plate and the rear plate; a base connected to the rear plate of the shock-absorbing unit and having a rear plate; and a side shield surrounding at least partially the shock-absorbing core, one end of the side shield being connected to one of the front plate and the rear plate of the shock-absorbing unit, the other end of the side shield being spaced-apart from the other of the front plate and the rear plate of the shock-absorbing unit, whereby the base further comprises an energy absorbing element, which is connected to the rear plate of the shock-absorbing unit and which is mounted in the rear plate of the base, characterized in that the rear plate of the base comprises a cutting unit for cutting a surface of the energy absorbing element.
An antenna system, comprising: a plurality of true time delay, TTD, modules, each TTD module comprising a plurality of switching elements (44, 46) configured to selectively define alternative RF signal transmission paths between a signal input of the TTD module and a signal output of the TTD module; and a controller programmed to control the plurality of TTD modules to steer a beam by: closing a first pair of switching elements (44, 46) within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements (44, 46) of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements (44, 46) of the subset of TTD modules after closing the second pair of switching elements (44, 46). a plurality of true time delay, TTD, modules, each TTD module comprising a plurality of switching elements (44, 46) configured to selectively define alternative RF signal transmission paths between a signal input of the TTD module and a signal output of the TTD module; and a controller programmed to control the plurality of TTD modules to steer a beam by: closing a first pair of switching elements (44, 46) within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements (44, 46) of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements (44, 46) of the subset of TTD modules after closing the second pair of switching elements (44, 46). closing a first pair of switching elements (44, 46) within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements (44, 46) of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements (44, 46) of the subset of TTD modules after closing the second pair of switching elements (44, 46).
An insulated wire having a rectangular shaped cross-section, comprising: a conductor having a rectangular shaped cross-section; and an insulating layer coated to the conductor, wherein the insulating layer has a foamed layer composed of a thermosetting resin containing bubbles, the cross-section of the insulating layer has a shape composed of a flat portion and a corner portion, and the insulating layer satisfies the relationship represented by the following formula: ε 1 < 3 and T 2 / ε 2 > T 1 / ε 1 wherein T 1 [μm] represents a thickness of the flat portion; ε 1 represents a relative dielectric constant of the flat portion; T 2 [μm] represents a thickness of the corner portion; and ε 2 represents a relative dielectric constant of the corner portion. a conductor having a rectangular shaped cross-section; and an insulating layer coated to the conductor, wherein the insulating layer has a foamed layer composed of a thermosetting resin containing bubbles, the cross-section of the insulating layer has a shape composed of a flat portion and a corner portion, and the insulating layer satisfies the relationship represented by the following formula: ε 1 < 3 and T 2 / ε 2 > T 1 / ε 1 wherein T 1 [μm] represents a thickness of the flat portion; ε 1 represents a relative dielectric constant of the flat portion; T 2 [μm] represents a thickness of the corner portion; and ε 2 represents a relative dielectric constant of the corner portion.
A depth limiter (210, 310, 410) configured to couple with a first trocar cannula and a second trocar cannula, wherein the first and second trocar cannulas have different diameters, the depth limiter comprising: (a) a first body portion comprising: (i) a first gripping surface, and (ii) a second gripping surface; and (b) a second body portion, wherein the first and second body portions are pivotably coupled together and are movable between an open configuration and a closed configuration, wherein in the open configuration the first and second body portions are configured to allow for axial movement of the depth limiter relative to the first and second trocar cannulas, wherein in the closed configuration the first and second body portions (222, 224) are configured to restrict axial movement of the depth limiter relative to the first and second trocar cannulas, wherein the second body portion comprises: (i) a first gripping surface that together with the first gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the first trocar cannula in the closed configuration, and (ii) a second gripping surface that together with the second gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the second trocar cannula in the closed configuration. (a) a first body portion comprising: (i) a first gripping surface, and (ii) a second gripping surface; and (i) a first gripping surface, and (ii) a second gripping surface; and (b) a second body portion, wherein the first and second body portions are pivotably coupled together and are movable between an open configuration and a closed configuration, wherein in the open configuration the first and second body portions are configured to allow for axial movement of the depth limiter relative to the first and second trocar cannulas, wherein in the closed configuration the first and second body portions (222, 224) are configured to restrict axial movement of the depth limiter relative to the first and second trocar cannulas, wherein the second body portion comprises: (i) a first gripping surface that together with the first gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the first trocar cannula in the closed configuration, and (ii) a second gripping surface that together with the second gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the second trocar cannula in the closed configuration. (i) a first gripping surface that together with the first gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the first trocar cannula in the closed configuration, and (ii) a second gripping surface that together with the second gripping surface of the first body portion are configured to restrict axial movement of the depth limiter relative to the second trocar cannula in the closed configuration.
A method for measuring operating parameters of a machining of at least one surface of a semi-finished component comprising: - a step of preparing at least one group of brushes for machining surfaces; - a step of preparing a line for the passage of said semi-finished components comprising at least one surface to be machined with said at least one group of brushes; - a step of preparing a data acquisition and processing unit operatively connected to said at least one group of brushes and to said line; said measuring method being characterised in that it also comprises: - a step of associating at least one measuring device in an integral fashion with said semi-finished component close to the at least one surface to be machined; - a step of positioning on said line said semi-finished component to which the at least one measuring device has been associated; - a step of machining said at least one surface using said at least one group of brushes; - a step of measuring, using the measuring device, a plurality of operating parameters of the machining performed during the machining step including at least one temperature parameter of the semi-finished component and at least one movement parameter of the semi-finished component; - a step of sending, by the measuring device, at least one signal representing said operating parameters measured during the measuring step to said data acquisition and processing unit. - a step of preparing at least one group of brushes for machining surfaces; - a step of preparing a line for the passage of said semi-finished components comprising at least one surface to be machined with said at least one group of brushes; - a step of preparing a data acquisition and processing unit operatively connected to said at least one group of brushes and to said line; - a step of associating at least one measuring device in an integral fashion with said semi-finished component close to the at least one surface to be machined; - a step of positioning on said line said semi-finished component to which the at least one measuring device has been associated; - a step of machining said at least one surface using said at least one group of brushes; - a step of measuring, using the measuring device, a plurality of operating parameters of the machining performed during the machining step including at least one temperature parameter of the semi-finished component and at least one movement parameter of the semi-finished component; - a step of sending, by the measuring device, at least one signal representing said operating parameters measured during the measuring step to said data acquisition and processing unit.
A weather barrier for sealing a rear edge of a vehicle parked at a loading dock comprising: a header structure to couple to a wall of a loading dock, the header structure being horizontally elongate, extending above a doorway in the wall and protruding in a forward direction from the wall; a lateral seal to couple to the wall, the lateral seal being vertically elongate and extending below the header structure, the lateral seal including an upper seal segment and a lower seal segment, the upper seal segment to move between a lowered position and a raised position relative to the lower seal segment; and a member having an upper end coupled to the header structure and a lower end coupled to the upper seal segment, the member to deflect from a relaxed position to a deflected position in response to a vehicle backing into the weather barrier, the upper seal segment to move from the lowered position to the raised position in response to the member deflecting from the relaxed position to the deflected position, characterized in that said member is a flexible elongate member. a header structure to couple to a wall of a loading dock, the header structure being horizontally elongate, extending above a doorway in the wall and protruding in a forward direction from the wall; a lateral seal to couple to the wall, the lateral seal being vertically elongate and extending below the header structure, the lateral seal including an upper seal segment and a lower seal segment, the upper seal segment to move between a lowered position and a raised position relative to the lower seal segment; and a member having an upper end coupled to the header structure and a lower end coupled to the upper seal segment, the member to deflect from a relaxed position to a deflected position in response to a vehicle backing into the weather barrier, the upper seal segment to move from the lowered position to the raised position in response to the member deflecting from the relaxed position to the deflected position, characterized in that said member is a flexible elongate member.
A composition comprising or consisting of: L-ascorbic acid, vitamin E, folic Acid, vitamin B1, vitamin B2, vitamin B3, vitamin B5, vitamin B6, vitamin B7 (biotin), vitamin B12, lipoic acid, choline, cinnamon extract, zinc, vanadium, L-arginine, L-lysine, magnesium, calcium, chromium, inositol, grape seed extract and green tea leaf extract, vitamin A, vitamin D3, vitamin K2 (as Menaquinone-7), potassium,, manganese, boron, iodine, silica and natural carotenoid mix (alpha carotene, lutein, zeaxanthin, cryptoxanthin).
A process for the coating of surfaces of a metallic component by contacting the surfaces of the metallic component with an aqueous composition that contains predominantly organic polymeric material whereby the aqueous composition contains at least one compound each of: A) organic film-forming polymeric material(s) selected from the group consisting of ionomeric materials containing predominantly ethylene/propylene acrylic acid copolymers, ethylene/propylene methacrylic acid copolymers, ethylene/propylene maleic anhydride copolymers or ethylene/propylene naphthalic anhydride copolymers or any combination of these as well as their esters, salts and derivates, which all together are constituents of at least 70 % by weight of the total organic polymeric material and whereby the total organic polymeric material has an average acid number in the range from 50 to 300, A') optionally at least one further organic film-forming polymer or their corresponding monomer(s), oligomer(s), copolymer(s), blockcopolymer(s), their derivates or any combination of them that do not belong to A) participating in the rest of the total organic polymeric material to 100 % by weight, B) optionally neutralizing agent(s), C) cross-linking agent(s) and D) water, whereby the pH of the aqueous composition is at the beginning of the coating process in the range from 6 to 10.5. A) organic film-forming polymeric material(s) selected from the group consisting of ionomeric materials containing predominantly ethylene/propylene acrylic acid copolymers, ethylene/propylene methacrylic acid copolymers, ethylene/propylene maleic anhydride copolymers or ethylene/propylene naphthalic anhydride copolymers or any combination of these as well as their esters, salts and derivates, which all together are constituents of at least 70 % by weight of the total organic polymeric material and whereby the total organic polymeric material has an average acid number in the range from 50 to 300, A') optionally at least one further organic film-forming polymer or their corresponding monomer(s), oligomer(s), copolymer(s), blockcopolymer(s), their derivates or any combination of them that do not belong to A) participating in the rest of the total organic polymeric material to 100 % by weight, B) optionally neutralizing agent(s), C) cross-linking agent(s) and D) water,