mhurhangee/ep-ind-claims huggingface dataset:
A system for recovering heat from wastewater by heat exchange between the wastewater and a heat transfer fluid, the heat recovery system comprising: - an external heat transfer fluid holding tank, the external tank having a side wall, the external tank having a heat transfer fluid inlet and a heat transfer fluid outlet, one located at the top of the external tank, and the other located at the bottom of the external tank, - an internal tank for holding wastewater, the internal tank having a side wall, the internal tank being arranged inside the external tank for an exchange of heat between the heat transfer fluid and the wastewater through the side wall of the internal tank, an annular retention space being delimited between the side wall of the external tank and the side wall of the internal tank, and - a pipe ramp arranged between the side wall of the external tank and the side wall of the internal tank so as to delimit, in the holding space, a circulation duct extending helically around the internal tank, for the circulation of the heat transfer fluid from the heat transfer fluid inlet to the heat transfer fluid outlet, wherein the internal tank has an inlet for wastewater and an outlet for wastewater located at the bottom of the internal tank, the heat recovery system having an inlet duct for the wastewater supplying the wastewater inlet, and an outlet duct for the wastewater supplied by the wastewater outlet, the outlet duct rising from the wastewater outlet so as to form a siphon, the system being characterized in that the wastewater inlet is located at the top of the internal tank. - an external heat transfer fluid holding tank, the external tank having a side wall, the external tank having a heat transfer fluid inlet and a heat transfer fluid outlet, one located at the top of the external tank, and the other located at the bottom of the external tank, - an internal tank for holding wastewater, the internal tank having a side wall, the internal tank being arranged inside the external tank for an exchange of heat between the heat transfer fluid and the wastewater through the side wall of the internal tank, an annular retention space being delimited between the side wall of the external tank and the side wall of the internal tank, and - a pipe ramp arranged between the side wall of the external tank and the side wall of the internal tank so as to delimit, in the holding space, a circulation duct extending helically around the internal tank, for the circulation of the heat transfer fluid from the heat transfer fluid inlet to the heat transfer fluid outlet, wherein the internal tank has an inlet for wastewater and an outlet for wastewater located at the bottom of the internal tank, the heat recovery system having an inlet duct for the wastewater supplying the wastewater inlet, and an outlet duct for the wastewater supplied by the wastewater outlet, the outlet duct rising from the wastewater outlet so as to form a siphon, the system being characterized in that the wastewater inlet is located at the top of the internal tank.
A method of transmitting a Sounding Reference Signal, SRS, by a user equipment, UE, in a wireless communication system, comprising: receiving, from a base station, a configuration related to at least one SRS resource set for transmitting a SRS, wherein each of the at least one SRS resource set includes one or more SRS resources; receiving first information related to first quasi co-location, QCL, relations between the SRS and a reference signal for QCL relation, via radio resource control, RRC, signaling, wherein the first QCL relations is configured for each of the one or more SRS resources; the method being characterized in that: a type of the SRS is a semi-persistent SRS, and by further comprising: receiving, from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; wherein the first information is updated to the second information; and transmitting, to the base station, the semi-persistent SRS using the one or more specific SRS resources, based on the control information and the second information. receiving, from a base station, a configuration related to at least one SRS resource set for transmitting a SRS, wherein each of the at least one SRS resource set includes one or more SRS resources; receiving first information related to first quasi co-location, QCL, relations between the SRS and a reference signal for QCL relation, via radio resource control, RRC, signaling, wherein the first QCL relations is configured for each of the one or more SRS resources; the method being characterized in that: a type of the SRS is a semi-persistent SRS, and by further comprising: receiving, from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; a type of the SRS is a semi-persistent SRS, and by further comprising: receiving, from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; wherein the first information is updated to the second information; and transmitting, to the base station, the semi-persistent SRS using the one or more specific SRS resources, based on the control information and the second information.
A damping system for damping an oscillation of a vehicle unit on a fluctuant water surface, wherein a direction of travel defines a front, a back, and sides of the vehicle unit and corresponding front, rear, and side elements of the damping system, the damping system comprising two buoyancy systems (310a, 310b), connectable to each side of the vehicle unit and located opposite to one another, each buoyancy system (310a, 310b) comprising: a front pair of buoys (313a, 314a; 313b, 314b) and a rear pair of buoys (311a, 312a; 311b, 312b), each pair of buoys connected by a lower frame (331a, 332a, 331b, 332b) of the buoyancy system to an upper frame (341a, 342a, 341b, 342b) of the buoyancy system, each buoy being pivotally connected to its lower frame by a buoy axle (41a, 42a, 43a, 44a, 41b, 42b, 43b, 44b), each lower frame being pivotally connected to its upper frame by a lower frame hinge (321a, 322a, 321b, 322b), each upper frame being connected to a central connector (323a, 323b) of the buoyancy system (310a, 310b) that is connectable to the vehicle unit, and wherein the buoys of each buoyancy system (310a, 310b) are arranged in line one after each other in the direction of travel, wherein each buoy is of the same oval shape and size, wherein the upper frames (341a, 342a, 341b, 342b) and the lower frame hinges (321a, 322a, 321b, 322b) are above the lower frames (331a, 332a, 331b, 332b) and their buoy axles (41a, 42a, 43a, 44a, 41b, 42b, 43b, 44b), and wherein, when the damping system is connected to the vehicle unit, each buoyancy system (310a, 310b) extends further forward than the front of the vehicle unit and each buoyancy system (310a, 310b) extends further back than the back of the vehicle unit.
A gas turbine engine comprising: a spool; a turbine coupled with said spool; a propulsor coupled to be rotated at a design speed about an axis by said turbine through said spool; and a gear assembly coupled between said propulsor and said spool such that rotation of said turbine drives said propulsor at a different speed than said spool, wherein said propulsor includes a hub and a row of propulsor blades that extend from said hub, each of said propulsor blades includes an airfoil body that extends in a radial span between a root and a tip, in a chord direction between a leading edge and a trailing edge and in a thickness direction between a pressure side and a suction side, characterized in that: said leading edge of the airfoil body has a swept profile such that, at the design speed, a component of a relative velocity vector of a working gas that is normal to the leading edge is subsonic along the entire radial span, said swept profile being as illustrated in Figure 4A of the drawings. a spool; a turbine coupled with said spool; a propulsor coupled to be rotated at a design speed about an axis by said turbine through said spool; and a gear assembly coupled between said propulsor and said spool such that rotation of said turbine drives said propulsor at a different speed than said spool, wherein said propulsor includes a hub and a row of propulsor blades that extend from said hub, each of said propulsor blades includes an airfoil body that extends in a radial span between a root and a tip, in a chord direction between a leading edge and a trailing edge and in a thickness direction between a pressure side and a suction side, characterized in that: said leading edge of the airfoil body has a swept profile such that, at the design speed, a component of a relative velocity vector of a working gas that is normal to the leading edge is subsonic along the entire radial span, said swept profile being as illustrated in Figure 4A of the drawings. said leading edge of the airfoil body has a swept profile such that, at the design speed, a component of a relative velocity vector of a working gas that is normal to the leading edge is subsonic along the entire radial span, said swept profile being as illustrated in Figure 4A of the drawings.
A method of remotely monitoring and diagnosing a device, comprising: obtaining data from a sensor disposed on the device at a first network; encrypting the data to generate an encrypted code at the first network at a selected sampling rate; generating a signal comprising the encrypted code at an interface wherein the encrypted code is refreshed at the interface at a selected refresh rate; obtaining a copy of the encrypted code at a detector separated from the first network via a non-network medium, the transmission of the encoded data occurring with communication over the non-network medium in only one direction so that data is not transmittable from a second network to the first network, transmitting the copy of the encrypted code from the detector to the second network via a secure tunnel network connection, decoding the copy of the encrypted code to obtain a copy of the data at the second network separate from the first network; and monitoring and diagnosing of the device at the second network using the copy of the data. obtaining data from a sensor disposed on the device at a first network; encrypting the data to generate an encrypted code at the first network at a selected sampling rate; generating a signal comprising the encrypted code at an interface wherein the encrypted code is refreshed at the interface at a selected refresh rate; obtaining a copy of the encrypted code at a detector separated from the first network via a non-network medium, the transmission of the encoded data occurring with communication over the non-network medium in only one direction so that data is not transmittable from a second network to the first network, transmitting the copy of the encrypted code from the detector to the second network via a secure tunnel network connection, decoding the copy of the encrypted code to obtain a copy of the data at the second network separate from the first network; and monitoring and diagnosing of the device at the second network using the copy of the data.
Method for the laser engraving of a mould element for a mould for a tyre of the type comprising a tread and two sidewalls delimiting the tread, the method comprising the following steps of: - a) defining a texture negative to be engraved on at least a part of a moulding surface of the mould element, which is made up of a plurality of patterns having an external polygonal shape, said patterns being each delimited by adjacent edges, where adjacent patterns of the texture negative are contiguous pattern that comprise at least one common edge, with the texture negative being intended to mould, on one of the sidewalls of the tyre, a texture that contrasts with the rest of said sidewall, and characterised by: - b) dividing said part of the moulding surface of the mould element into a plurality of adjacent elementary areas of action of the laser beam, the external shape of each elementary area of action of the laser beam being defined such that the perimeter of said area coincides with the perimeter of a pattern of the texture negative to be engraved or with the perimeter made up of the meeting of several juxtaposed patterns of said texture negative to be engraved, and - c) producing, by laser engraving, the patterns of the texture negative in a manner that the edges of each elementary area of action of the laser beam, which delimit the perimeter of said area, are superposed with the edges of one or more patterns of the engraved texture negative. - a) defining a texture negative to be engraved on at least a part of a moulding surface of the mould element, which is made up of a plurality of patterns having an external polygonal shape, said patterns being each delimited by adjacent edges, where adjacent patterns of the texture negative are contiguous pattern that comprise at least one common edge, with the texture negative being intended to mould, on one of the sidewalls of the tyre, a texture that contrasts with the rest of said sidewall, and characterised by: - b) dividing said part of the moulding surface of the mould element into a plurality of adjacent elementary areas of action of the laser beam, the external shape of each elementary area of action of the laser beam being defined such that the perimeter of said area coincides with the perimeter of a pattern of the texture negative to be engraved or with the perimeter made up of the meeting of several juxtaposed patterns of said texture negative to be engraved, and - c) producing, by laser engraving, the patterns of the texture negative in a manner that the edges of each elementary area of action of the laser beam, which delimit the perimeter of said area, are superposed with the edges of one or more patterns of the engraved texture negative.
A method of operating a network entity in a wireless communications network, the method comprising: removing, by an application server, one or more headers from a Session Initiation Protocol, SIP, message, wherein removing the one or more headers comprises: retrieving an application policy from a home subscriber server, removing via headers from the SIP message, wherein the SIP message comprises a SIP code 200 message corresponding to a SIP Invite message, and providing status information of an application of the application policy to a user agent, characterized in that the status information identifies a first portion of the application policy that was successfully applied and a second portion of the application policy that was not successfully applied. retrieving an application policy from a home subscriber server, removing via headers from the SIP message, wherein the SIP message comprises a SIP code 200 message corresponding to a SIP Invite message, and providing status information of an application of the application policy to a user agent, characterized in that the status information identifies a first portion of the application policy that was successfully applied and a second portion of the application policy that was not successfully applied.
A ferritic stainless steel sheet having a sheet thickness t of 5.0 to 12.0 mm, comprising a chemical composition consisting of, in mass percent: C: 0.001 to 0.010%; Si: 0.01 to 1.0%; Mn: 0.01 to 1.0%; P: 0.04% or less; S: 0.010% or less; Cr: 10.0 to 20.0%; Ni: 0.01 to 1.0%; Ti: 0.10 to 0.30%; V: 0.01 to 0.40%; Al: 0.005 to 0.3%; N: 0.001 to 0.02%; B: 0 to 0.0030%; Mo: 0 to 2.0%; Cu: 0 to 0.3%; Mg: 0 to 0.0030%; Sn: 0 to 0.1%; Sb: 0 to 0.1%; Zr: 0 to 0.1%; Ta: 0 to 0.1%; Nb: 0 to 0.1%; Hf: 0 to 0.1%; W: 0 to 0.1%; Co: 0 to 0.2%; Ca: 0 to 0.0030%; REM: 0 to 0.05%; Ga: 0 to 0.1%; and optionally Bi: 0.001 to 0.1%, with the balance being Fe and unavoidable impurities, wherein in a steel micro-structure, on a cross section parallel to a rolling direction, an area ratio of structures each satisfying: major grain diameter / minor grain diameter being less than 5.0 is 90% or more, and an average minor grain diameter of the structures is 55 μm or less, and wherein the area ratio of structures each satisfying: major grain diameter / minor grain diameter being less than 5.0 is determined as described in the description, and the average minor grain diameter of the structures is determined as described in the description. C: 0.001 to 0.010%; Si: 0.01 to 1.0%; Mn: 0.01 to 1.0%; P: 0.04% or less; S: 0.010% or less; Cr: 10.0 to 20.0%; Ni: 0.01 to 1.0%; Ti: 0.10 to 0.30%; V: 0.01 to 0.40%; Al: 0.005 to 0.3%; N: 0.001 to 0.02%; B: 0 to 0.0030%; Mo: 0 to 2.0%; Cu: 0 to 0.3%; Mg: 0 to 0.0030%; Sn: 0 to 0.1%; Sb: 0 to 0.1%; Zr: 0 to 0.1%; Ta: 0 to 0.1%; Nb: 0 to 0.1%; Hf: 0 to 0.1%; W: 0 to 0.1%; Co: 0 to 0.2%; Ca: 0 to 0.0030%; REM: 0 to 0.05%; Ga: 0 to 0.1%; and optionally Bi: 0.001 to 0.1%, with the balance being Fe and unavoidable impurities, wherein in a steel micro-structure, on a cross section parallel to a rolling direction, an area ratio of structures each satisfying: major grain diameter / minor grain diameter being less than 5.0 is 90% or more, and an average minor grain diameter of the structures is 55 μm or less, and wherein the area ratio of structures each satisfying: major grain diameter / minor grain diameter being less than 5.0 is determined as described in the description, and the average minor grain diameter of the structures is determined as described in the description.
A system for storing at least one harvested biopsy tissue sample, the system comprising: - a tissue storage container (8, 80) capable of receiving and storing the at least one tissue sample; - a vessel (20, 70) containing a volume of a preserving agent; - a connecting structure (7, 70) for gas-tightly mating or coupling the vessel to the tissue storage container; - a fluid transferring mechanism (14, 72) for causing a transfer of the volume of preserving agent from the vessel to the tissue storage container, when the vessel is gas-tightly mated or coupled to the tissue storage container, wherein the connecting structure comprises a lid (7, 70) for closing the tissue storage container, the lid (7, 70) configured to mate with a biopsy tissue sample collecting unit by means of a snap lock connector for connecting a collecting unit lid to the lid (7, 70) such that the collecting unit along with the at least one biopsy sample is introduced into the tissue storage container when the lid (7, 70) is joined to the container. - a tissue storage container (8, 80) capable of receiving and storing the at least one tissue sample; - a vessel (20, 70) containing a volume of a preserving agent; - a connecting structure (7, 70) for gas-tightly mating or coupling the vessel to the tissue storage container; - a fluid transferring mechanism (14, 72) for causing a transfer of the volume of preserving agent from the vessel to the tissue storage container, when the vessel is gas-tightly mated or coupled to the tissue storage container, wherein the connecting structure comprises a lid (7, 70) for closing the tissue storage container, the lid (7, 70) configured to mate with a biopsy tissue sample collecting unit by means of a snap lock connector for connecting a collecting unit lid to the lid (7, 70) such that the collecting unit along with the at least one biopsy sample is introduced into the tissue storage container when the lid (7, 70) is joined to the container.
A reinforcement fabric laminating apparatus comprising: a reinforcement fabric to be laminated on a mold; a sheet feeding unit that feeds out the reinforcement fabric; and a pressure contact unit that pressure-contacts the reinforcement fabric onto the mold, wherein the pressure contact unit has a narrower width than the reinforcement fabric, and the sheet feeding unit supplies the reinforcement fabric while applying tension between the sheet feeding unit and the pressure contact unit, characterized in that the sheet feeding unit includes an adhesive supply unit that supplies an adhesive for bonding the reinforcement fabric and the mold together. a reinforcement fabric to be laminated on a mold; a sheet feeding unit that feeds out the reinforcement fabric; and a pressure contact unit that pressure-contacts the reinforcement fabric onto the mold, wherein the pressure contact unit has a narrower width than the reinforcement fabric, and the sheet feeding unit supplies the reinforcement fabric while applying tension between the sheet feeding unit and the pressure contact unit, characterized in that the sheet feeding unit includes an adhesive supply unit that supplies an adhesive for bonding the reinforcement fabric and the mold together.
Pollution-control system for the exhaust gases of a vehicle propulsion unit, comprising a housing (2, 102) intended to be mounted on an exhaust line of a vehicle combustion engine, the said housing (2, 102) comprising an oxidation catalyst and a particulate filter (4, 104), the said housing being elongate and having a flat designed to reduce the cross section of the said housing and at least partially extending along the said housing, the said flat being produced at the portion of the housing that is placed around the particulate filter or at the portion of the housing that is placed around the oxidation catalyst, the said system being characterized in that the length of the flat corresponds to the length of the particulate filter or to the length of the oxidation catalyst.
A skin care composition comprising: a delivery vehicle which is a lotion, cream, ointment, or powder base, and polymeric beads formed from monomers selected from allyl (meth)acrylate, butyl (meth)acrylate, methyl (meth)acrylate, ethyl (meth)acrylate, styrene, and divinyl benzene; wherein the refractive index of the polymeric material at or near the center of each individual polymeric bead is different than the refractive index of the polymeric material near the surface of the bead; and wherein the polymeric beads consist of a mixture of a first type of polymeric beads and a second type of polymeric beads, wherein the first type of polymeric beads has a composition different than the second type of polymeric beads, and 90 % or more of the first type of polymeric beads have a particle diameter of 1.8 micron to 2.2 micron, and 90 % or more of the second type of polymeric beads have a particle diameter of 4.8 micron to 5.2 micron. a delivery vehicle which is a lotion, cream, ointment, or powder base, and polymeric beads formed from monomers selected from allyl (meth)acrylate, butyl (meth)acrylate, methyl (meth)acrylate, ethyl (meth)acrylate, styrene, and divinyl benzene; wherein the refractive index of the polymeric material at or near the center of each individual polymeric bead is different than the refractive index of the polymeric material near the surface of the bead; and wherein the polymeric beads consist of a mixture of a first type of polymeric beads and a second type of polymeric beads, wherein the first type of polymeric beads has a composition different than the second type of polymeric beads, and 90 % or more of the first type of polymeric beads have a particle diameter of 1.8 micron to 2.2 micron, and 90 % or more of the second type of polymeric beads have a particle diameter of 4.8 micron to 5.2 micron.