mhurhangee/ep-ind-claims huggingface dataset:
A bladder for an article of footwear, the bladder comprising: a first chamber including a first segment extending along a first side of the bladder and a second segment formed on an opposite side of the bladder from the first segment; a second chamber at least partially surrounded by the first chamber and disposed between the first segment and the second segment; a manifold in direct fluid communication with each of the first segment of the first chamber, the second segment of the first chamber, and the second chamber, the manifold including a first conduit in fluid communication with an interior void of the second chamber and a pair of laterally-extending conduits (174b, 174c) extending from the first conduit to each of the first segment of the first chamber and the second segment of the first chamber, wherein each of the laterally-extending conduits (174b, 174c) extends along a compound curve, whereby a first portion of the conduit (174b, 174c) adjacent to the longitudinal axis (A 106) of the bladder has a concave curvature relative to the second chamber and a second portion of the conduit (174b, 174c) that is connected to the first chamber has a convex curvature relative to the second chamber; a web area extending continuously from the manifold at a medial side of the second chamber, around a posterior end of the second chamber, to the manifold at a lateral side of the second chamber, and connecting each of the first chamber, the second chamber, and the manifold; and a first series of ports (172a-172c) extending between the first chamber and the web area. a first chamber including a first segment extending along a first side of the bladder and a second segment formed on an opposite side of the bladder from the first segment; a second chamber at least partially surrounded by the first chamber and disposed between the first segment and the second segment; a manifold in direct fluid communication with each of the first segment of the first chamber, the second segment of the first chamber, and the second chamber, the manifold including a first conduit in fluid communication with an interior void of the second chamber and a pair of laterally-extending conduits (174b, 174c) extending from the first conduit to each of the first segment of the first chamber and the second segment of the first chamber, wherein each of the laterally-extending conduits (174b, 174c) extends along a compound curve, whereby a first portion of the conduit (174b, 174c) adjacent to the longitudinal axis (A 106) of the bladder has a concave curvature relative to the second chamber and a second portion of the conduit (174b, 174c) that is connected to the first chamber has a convex curvature relative to the second chamber; a web area extending continuously from the manifold at a medial side of the second chamber, around a posterior end of the second chamber, to the manifold at a lateral side of the second chamber, and connecting each of the first chamber, the second chamber, and the manifold; and a first series of ports (172a-172c) extending between the first chamber and the web area.
A power conversion device, comprising: a circuit body comprising: a first switching element which constitutes an upper arm circuit of a power conversion circuit; a second switching element which constitutes a lower arm circuit of the power conversion circuit; and a plurality of conductor portions (315, 318, 319, 320), which transmits an electric current to the first switching element and the second switching element; a metal member; and a conductor plate which is arranged to face the metal member with the circuit body interposed therebetween, wherein the conductor plate is a relay conductor plate which is electrically connected to a terminal connected to any one of the conductor portions (315, 318, 319, 320), and the power conversion device is configured such that an eddy current is induced in the metal member and the relay conductor plate by a recovery current flowing through the conductor portions (315, 318, 319, 320) when switching operation of the first switching element or the second switching element is performed. a circuit body comprising: a first switching element which constitutes an upper arm circuit of a power conversion circuit; a second switching element which constitutes a lower arm circuit of the power conversion circuit; and a plurality of conductor portions (315, 318, 319, 320), which transmits an electric current to the first switching element and the second switching element; a metal member; and a conductor plate which is arranged to face the metal member with the circuit body interposed therebetween, wherein the conductor plate is a relay conductor plate which is electrically connected to a terminal connected to any one of the conductor portions (315, 318, 319, 320), and the power conversion device is configured such that an eddy current is induced in the metal member and the relay conductor plate by a recovery current flowing through the conductor portions (315, 318, 319, 320) when switching operation of the first switching element or the second switching element is performed.
A process for preparing a hybrid coacervate capsule which comprises: (a) mixing a solution of a first polymer with a dispersion of at least one type of solid particles at a temperature that is above the gelling temperature of the first polymer, wherein the first polymer adsorbs onto the at least one type of solid particles to produce a dispersion of particle/polymer complexes; (b) adding a solution of a second polymer to the dispersion, wherein the second polymer interacts with the particle/polymer complexes to form hybrid complex coacervates containing particulate inclusions; (c) adding a core material to the hybrid complex coacervates, wherein the hybrid complex coacervates deposit as a coating layer around the core material active/solution interface to form core/shell capsules each containing the core material encapsulated by a hybrid coacervate shell; and (d) reducing the temperature of the core/shell capsules to a temperature that is below the gelling temperature of the first polymer; (e) optionally, cross-linking the hybrid coacervate shells of the capsules; wherein the dry matter composition of the hybrid coacervate shell is such that the ratio of the total mass of solid particles to the total mass of first polymer and second polymer is between 0.01 and 1.85. (a) mixing a solution of a first polymer with a dispersion of at least one type of solid particles at a temperature that is above the gelling temperature of the first polymer, wherein the first polymer adsorbs onto the at least one type of solid particles to produce a dispersion of particle/polymer complexes; (b) adding a solution of a second polymer to the dispersion, wherein the second polymer interacts with the particle/polymer complexes to form hybrid complex coacervates containing particulate inclusions; (c) adding a core material to the hybrid complex coacervates, wherein the hybrid complex coacervates deposit as a coating layer around the core material active/solution interface to form core/shell capsules each containing the core material encapsulated by a hybrid coacervate shell; and (d) reducing the temperature of the core/shell capsules to a temperature that is below the gelling temperature of the first polymer; (e) optionally, cross-linking the hybrid coacervate shells of the capsules;
Frame fixing comprising a cylindrical unit with a threaded outer casing designed with a bore (5; 26) that passes through in an axial direction comprising a first section designed with a cross section in a radial direction that is suitable for the insertion of a tool that is to rotate the cylindrical unit and a second section comprising a flange comprising a circular section that creates a controlling section, with the frame fixing comprising a fixing device that can be inserted into the bore (5; 26) and the controlling section, wherein the controlling section has a cross section D1 in a radial direction that is determined by the length I_1 of the controlling section in an axial direction in such a way that the controlling section limits the radial freedom of movement of the central axis of the fixing device in relation to the central axis of the controlling section to a movement of a predetermined maximal size at the end surface of the cylindrical unit, characterized in that the radial freedom of movement (Rradial) of the fixing device is less than or equal to 0.5 mm from the central axis of the fixing device to the central axis of the controlling section at the end surface of the cylindrical unit, where the radial freedom of movement is determined by the difference between the diameter of the controlling section and the diameter of the body of the fixing device, when this difference is divided by 2.
Heat exchanger, for carrying out heat exchanges between a primary liquid (O2L) and a secondary fluid (N2G), the heat exchanger comprising at least: - several plates arranged parallel to one another, - spacers extending between the plates and arranged parallel between one another so as to define i) primary channels (21; 121; 221) shaped for the flow of the primary liquid (O2L) and ii) secondary channels shaped for the flow of the secondary fluid (N2G), each primary channel being arranged so as to be able to exchange heat with at least one respective secondary channel, and - a primary liquid inlet, intended to be fluidically connected to a primary liquid dispenser (O2L), each primary channel generally has the shape of a prism with a polygonal cross-section, the prism being composed of several generally flat faces, the primary channels comprise rough primary channels, each rough primary channel having microstructure elements (30; 130; 230; 330) having dimensions between 1μm and 300μm, preferably between 1μm and 100μm, the heat exchanger being characterised in that the microstructure elements are configured such that, for each rough primary channel: r > 1 + 1.3 ⋅ 10 3 ⋅ R a ⋅ ε where: - r is the ratio of the actual surface of a respective rough primary channel, as the numerator, over the geometric surface of a respective rough primary channel, as a denominator, - R a (in m) is the arithmetical mean deviation with respect to the average line, and - ε is the void fraction of the actual surface of a respective rough primary channel. - several plates arranged parallel to one another, - spacers extending between the plates and arranged parallel between one another so as to define i) primary channels (21; 121; 221) shaped for the flow of the primary liquid (O2L) and ii) secondary channels shaped for the flow of the secondary fluid (N2G), each primary channel being arranged so as to be able to exchange heat with at least one respective secondary channel, and - a primary liquid inlet, intended to be fluidically connected to a primary liquid dispenser (O2L), each primary channel generally has the shape of a prism with a polygonal cross-section, the prism being composed of several generally flat faces, - r is the ratio of the actual surface of a respective rough primary channel, as the numerator, over the geometric surface of a respective rough primary channel, as a denominator, - R a (in m) is the arithmetical mean deviation with respect to the average line, and - ε is the void fraction of the actual surface of a respective rough primary channel.
A dispensing system, comprising: a housing; a reservoir secured to the housing; a cavity located in an upper portion of the reservoir, wherein the cavity is configured so that air in the reservoir migrates to the cavity; an air passage extending upward from the cavity; a liquid passage extending upward from the reservoir; a bottom of the liquid passage being located below a bottom of the air passage; at least one engagement member, wherein the engagement member is configured to mate with a refill container; a pump having a pump chamber in fluid communication with the reservoir; an outlet nozzle in fluid communication with the pump chamber; and a refill container configured to be releasably attached to the reservoir such that the refill container is in fluid communication with the reservoir through the at least one engagement member; the refill container having at least one sealing member; characterized in that, when the refill container is attached to the reservoir, air flows from the cavity into the container and liquid flows from the container into the reservoir. a housing; a reservoir secured to the housing; a cavity located in an upper portion of the reservoir, wherein the cavity is configured so that air in the reservoir migrates to the cavity; an air passage extending upward from the cavity; a liquid passage extending upward from the reservoir; a bottom of the liquid passage being located below a bottom of the air passage; at least one engagement member, wherein the engagement member is configured to mate with a refill container; a pump having a pump chamber in fluid communication with the reservoir; an outlet nozzle in fluid communication with the pump chamber; and a refill container configured to be releasably attached to the reservoir such that the refill container is in fluid communication with the reservoir through the at least one engagement member; the refill container having at least one sealing member; characterized in that, when the refill container is attached to the reservoir, air flows from the cavity into the container and liquid flows from the container into the reservoir.
A light emitting diode module having a light emitting diode LED semiconductor chip mounted directly or indirectly on a platform (3', 3"), the platform (3', 3") being made from silicon and extending laterally beyond the light emitting diode semiconductor chip having an active light emitting layer and a substrate, wherein the platform (3', 3") is made of a number of individual layers (31,32,33,34,34',36) that are laminated to build the platform (3', 3"), wherein the platform (3', 3") comprises a base part and a reflector (5', 5"), wherein the base part comprises a first intermediate layer and the reflector (5', 5") comprises a second intermediate layer (34, 34'), wherein at least one integrated electronic component which is part of the control circuitry for the light emitting diode semiconductor chip is arranged in the first intermediate layer or in the second intermediate layer (34, 34'), and wherein the walls of the silicon platform (3', 3") defining a depression, in which the light emitting diode LED semiconductor chip is arranged, vertically extend beyond the active light emitting layer of the light emitting diode semiconductor chip, wherein the integrated electronic component, is a wireless communication device and/or a sensor for the light intensity, the color temperature and/or the temperature.
A safety system for safeguarding cooperative operation of people, robots and machines with respect to a technical installation, comprising a first safety-related device which is configured to monitor a first hazardous area of the technical installation and to bring the technical installation into a safe state if a hazardous condition is detected, wherein the safety system is configured to identify an autonomously operating technical unit and to register the autonomously operating technical unit when it satisfies a defined condition, and to restrict monitoring of the first hazardous area by the first safety-related device in response to the registration, wherein the restricting of the monitoring includes activating another safety device that allows end protection during the restricted monitoring, characterized in that the technical installation for the end protection has further sensors which are not deactivated during the restricted monitoring or are only activated during the restricted monitoring, such sensors being tactile sensors or capacitive near-field sensors which are arranged directly on the surface of the technical installation and detect a direct contact or an imminent contact. wherein the safety system is configured to identify an autonomously operating technical unit and to register the autonomously operating technical unit when it satisfies a defined condition, and to restrict monitoring of the first hazardous area by the first safety-related device in response to the registration, wherein the restricting of the monitoring includes activating another safety device that allows end protection during the restricted monitoring, characterized in that the technical installation for the end protection has further sensors which are not deactivated during the restricted monitoring or are only activated during the restricted monitoring, such sensors being tactile sensors or capacitive near-field sensors which are arranged directly on the surface of the technical installation and detect a direct contact or an imminent contact.
An optical product comprising: a base having a convex surface and a concave surface; and an optical multilayer film formed on at least the concave surface of the base, wherein the optical multilayer film has, in total, six layers in which a first layer is closest to the base, and a layer formed of zirconium dioxide and a layer formed of silicon dioxide are alternately layered such that the first layer is the layer formed of zirconium dioxide, a physical film thickness of a fourth layer which is the layer formed of silicon dioxide is greater than or equal to 10 nm and not greater than 22 nm, and a sum of physical film thicknesses of the first layer which is the layer formed of zirconium dioxide and a second layer which is the layer formed of silicon dioxide is greater than or equal to 35 nm and not greater than 45 nm, characterized in that a sum of physical film thicknesses of the first layer to the fourth layer is greater than or equal to 100 nm and not greater than 110 nm. a base having a convex surface and a concave surface; and an optical multilayer film formed on at least the concave surface of the base, wherein the optical multilayer film has, in total, six layers in which a first layer is closest to the base, and a layer formed of zirconium dioxide and a layer formed of silicon dioxide are alternately layered such that the first layer is the layer formed of zirconium dioxide, a physical film thickness of a fourth layer which is the layer formed of silicon dioxide is greater than or equal to 10 nm and not greater than 22 nm, and a sum of physical film thicknesses of the first layer which is the layer formed of zirconium dioxide and a second layer which is the layer formed of silicon dioxide is greater than or equal to 35 nm and not greater than 45 nm,
A quick-release vacuum pump constructed inside a casing which includes a compressed air inlet and a outlet formed in opposing side sections and a suction port formed in a bottom, the quick-release vacuum pump characterized in that comprising: a vacuum pump part which comprises a cylindrical hollow area which extends through the casing between the inlet and the outlet, one portion of the hollow area communicating with the suction port, nozzles (32a, 32b, 32c) which are disposed in series inside the hollow area and have slots therein, both ends of the nozzles communicating with each other between the inlet and the outlet; a release part which comprises a support tube which is formed above the suction port, a skirt-type check valve which is moved up and down by air pressure to open and close an upper portion of the support tube, and a pressure chamber which is formed at a terminal of a passage which communicates with the suction port and passes by a valve skirt; and a filter material which is disposed between the suction port and the support tube, wherein the filter material allows discharge air that is introduced to pass through upward when the pump part operates and is cleaned by air that is supplied to the suction port below through the support tube from the pressure chamber when the pump part stops operating. a vacuum pump part which comprises a cylindrical hollow area which extends through the casing between the inlet and the outlet, one portion of the hollow area communicating with the suction port, nozzles (32a, 32b, 32c) which are disposed in series inside the hollow area and have slots therein, both ends of the nozzles communicating with each other between the inlet and the outlet; a release part which comprises a support tube which is formed above the suction port, a skirt-type check valve which is moved up and down by air pressure to open and close an upper portion of the support tube, and a pressure chamber which is formed at a terminal of a passage which communicates with the suction port and passes by a valve skirt; and a filter material which is disposed between the suction port and the support tube, wherein the filter material allows discharge air that is introduced to pass through upward when the pump part operates and is cleaned by air that is supplied to the suction port below through the support tube from the pressure chamber when the pump part stops operating.
Support for an audio system, the audio system comprising a heat source, a heat discharge surface and means for conducting at least one portion of the heat produced by the heat source towards the discharge surface, the support being characterized in that it comprises a plate comprising at least one heat-conducting elastic member able to deform itself in order to fit at least one portion of the discharge surface of the audio system, and a thermal dissipation radiator in thermal contact with the elastic member.
Method for the additive production of a component, said method comprising the following steps: - additively constructing a component on a component platform having an opening, wherein during a first part of the additive construction of the component an auxiliary structure is additively produced around the opening of the component platform, wherein the opening at the beginning of the additive construction of the component is closed by a closure; and - introducing a device through the opening into a cavity defined by the auxiliary structure; and - influencing and/or detecting properties of the component to be produced by the device during a second part of the additive construction that is subsequent to the first part of the additive construction, wherein the component platform during the first part of the additive construction of the component is lowered relative to the closure, and the closure is removed after the first part of the additive construction. - additively constructing a component on a component platform having an opening, wherein during a first part of the additive construction of the component an auxiliary structure is additively produced around the opening of the component platform, wherein the opening at the beginning of the additive construction of the component is closed by a closure; and - introducing a device through the opening into a cavity defined by the auxiliary structure; and - influencing and/or detecting properties of the component to be produced by the device during a second part of the additive construction that is subsequent to the first part of the additive construction, wherein the component platform during the first part of the additive construction of the component is lowered relative to the closure, and the closure is removed after the first part of the additive construction.