mhurhangee/ep-ind-claims huggingface dataset:
Cable duct device for a railway vehicle, comprising: a cable duct body having a cable duct opening and a cable duct cover for closing the cable duct opening, wherein the cable duct body has a clamping region (22; 72) with a receptacle for an edge region of the cable duct cover, into which the receptacle the edge region of the cable duct cover can be inserted and which is configured as a pivot bearing for pivoting the cable duct cover relative to the cable duct body, and a fastening region (21; 71) with a fixing means for releasably fixing the cable duct cover to the cable duct body, wherein the cable duct opening is arranged between the fixing region (21; 71) and the clamping region (22; 72); and wherein for closing the cable duct opening by pivoting the cable duct cover relative to the cable duct body, the edge region of the cable duct cover inserted in the receptacle of the cable duct body can be clamped in the receptacle of the cable duct body and the fixing means holds the cable duct cover in its closed position, wherein the receptacle is formed by an outer region of the cable duct body and a counter bearing, and wherein the counter bearing of the receptacle is located in the cable duct body, wherein, when the edge region of the cable duct cover is inserted in the receptacle, the counter-bearing presses the cable duct cover against the outer region of the receptacle and thereby exerts a clamping force on the edge region of the cable duct cover. a cable duct body having a cable duct opening and a cable duct cover for closing the cable duct opening, wherein the cable duct body has a clamping region (22; 72) with a receptacle for an edge region of the cable duct cover, into which the receptacle the edge region of the cable duct cover can be inserted and which is configured as a pivot bearing for pivoting the cable duct cover relative to the cable duct body, and a fastening region (21; 71) with a fixing means for releasably fixing the cable duct cover to the cable duct body, wherein the cable duct opening is arranged between the fixing region (21; 71) and the clamping region (22; 72); and wherein for closing the cable duct opening by pivoting the cable duct cover relative to the cable duct body, the edge region of the cable duct cover inserted in the receptacle of the cable duct body can be clamped in the receptacle of the cable duct body and the fixing means holds the cable duct cover in its closed position, wherein the receptacle is formed by an outer region of the cable duct body and a counter bearing, and wherein the counter bearing of the receptacle is located in the cable duct body, wherein, when the edge region of the cable duct cover is inserted in the receptacle, the counter-bearing presses the cable duct cover against the outer region of the receptacle and thereby exerts a clamping force on the edge region of the cable duct cover.
A beverage product comprising: at least one aqueous liquid; and uncoated capsules comprising a gelled mixture of alginate and denatured whey protein isolate, and probiotic bacteria entrapped within the gelled mixture, wherein the weight ratio of the whey protein to the alginate is from 1:1 to 9:1, and wherein the capsules comprise an average particle size of less than 500 microns (μm) in diameter; wherein subjection of the beverage product to a temperature of up to 92 degrees Celsius for up to 5 seconds results in a decrease of viable probiotic bacteria cells of between 0 and 1 x 10 3 CFU per gram of capsules. at least one aqueous liquid; and uncoated capsules comprising a gelled mixture of alginate and denatured whey protein isolate, and probiotic bacteria entrapped within the gelled mixture, wherein the weight ratio of the whey protein to the alginate is from 1:1 to 9:1, and wherein the capsules comprise an average particle size of less than 500 microns (μm) in diameter; wherein subjection of the beverage product to a temperature of up to 92 degrees Celsius for up to 5 seconds results in a decrease of viable probiotic bacteria cells of between 0 and 1 x 10 3 CFU per gram of capsules.
A method of fabricating a magnetic field sensor, comprising: depositing a first dielectric material above a substrate; forming a first trench in the first dielectric material; depositing a ferromagnetic material in the first trench; etching the ferromagnetic material to form a flux guide having an angled surface; removing the angled surface of the flux guide comprising the ferromagnetic material by subjecting the angled surface of the flux guide to an oxide-chemical mechanical polishing process; and depositing an electrically conductive material in the first trench after the step of removing the angled surface. depositing a first dielectric material above a substrate; forming a first trench in the first dielectric material; depositing a ferromagnetic material in the first trench; etching the ferromagnetic material to form a flux guide having an angled surface; removing the angled surface of the flux guide comprising the ferromagnetic material by subjecting the angled surface of the flux guide to an oxide-chemical mechanical polishing process; and depositing an electrically conductive material in the first trench after the step of removing the angled surface.
A lithium-sulphur battery comprising a cathode unit containing: - a cathode collector which comprises a carbon substrate, - an electrochemically active component which is selected from among sulphur and lithium sulphide and is in electrically conductive contact with the carbon substrate, characterized in that the carbon substrate is present as self-supporting sheet-like structure in the form of a carbon fibre felt, a woven carbon fibre fabric, a carbon gas diffusion layer or a combination thereof or a carbon nanotube braid or a carbon foil and has a thickness in the range from 50 μm to 5 mm and the electrochemically active component at least partly covers the surface of the carbon substrate. - a cathode collector which comprises a carbon substrate, - an electrochemically active component which is selected from among sulphur and lithium sulphide and is in electrically conductive contact with the carbon substrate,
A method for configuring a measurement gap, characterized in that the method is used in a first access network device among at least two access network devices connected to a terminal, the terminal being in a connected state allowing to perform communications with the at least two access network devices, and the method comprises: performing, by the first access network device, network negotiation with a second access network device among the at least two access network devices to determine whether the first access network device is a configuration device, wherein the second access network device is different from the first access network device; when the first access network device is the configuration device among the at least two access network devices, generating (S202, S303, S403), by the first access network device, measurement gap configuration information, wherein the measurement gap configuration information is used for configuring a measurement gap for the terminal, and the measurement gap is used to indicate a period of time during which the terminal performs signal measurement at a frequency other than any serving frequency for the at least two access network devices; and sending (S203, S304, S404), by the first access network device, the measurement gap configuration information to the terminal. performing, by the first access network device, network negotiation with a second access network device among the at least two access network devices to determine whether the first access network device is a configuration device, wherein the second access network device is different from the first access network device; when the first access network device is the configuration device among the at least two access network devices, generating (S202, S303, S403), by the first access network device, measurement gap configuration information, wherein the measurement gap configuration information is used for configuring a measurement gap for the terminal, and the measurement gap is used to indicate a period of time during which the terminal performs signal measurement at a frequency other than any serving frequency for the at least two access network devices; and sending (S203, S304, S404), by the first access network device, the measurement gap configuration information to the terminal.
A method of fabricating an electrode comprising the steps of: a. providing a substrate; b. providing an active material comprising a particulate silicon; c. mixing a chelating agent with the active material comprising particulate silicon; d. either (i) mixing the product of step (c) comprising the active material and chelating agent with a cellulose binder to form a cohesive mass; or (ii) separating the active material from the chelating agent, washing and drying the active material and then mixing the active material with a cellulose binder to form a cohesive mass; and e. applying the cohesive mass formed in step d(i) or step d(ii) to the substrate. a. providing a substrate; b. providing an active material comprising a particulate silicon; c. mixing a chelating agent with the active material comprising particulate silicon; d. either (i) mixing the product of step (c) comprising the active material and chelating agent with a cellulose binder to form a cohesive mass; or (ii) separating the active material from the chelating agent, washing and drying the active material and then mixing the active material with a cellulose binder to form a cohesive mass; and (i) mixing the product of step (c) comprising the active material and chelating agent with a cellulose binder to form a cohesive mass; or (ii) separating the active material from the chelating agent, washing and drying the active material and then mixing the active material with a cellulose binder to form a cohesive mass; and e. applying the cohesive mass formed in step d(i) or step d(ii) to the substrate.
System for switching the flow of a fluid within a fluid circuit comprising two fluid treatment members (F1, F2), mounted in a parallel manner between a main fluid inlet and a main fluid outlet, the switching system being for switching the flow to either treatment member (F1, F2), with isolating the treatment member (F1, F2) in which the fluid does not flow, so-called inactive treatment member, with respect to the other, so-called active, treatment member (F1, F2), characterized by the fact that the system comprises a two-way inlet isolation valve (VI1, VI3) mounted at the inlet of each treatment member (F1, F2), and two pressure-balanced branches (BE1, BE2) each having a fluid inlet fluidically communicating with the main fluid inlet, upstream said inlet isolation valves (VI1, VI3), and a fluid outlet (S1, S2) fluidically communicating with the inlet of a respective treatment member (F1, F2), the fluid outlet (S1, S2) of each pressure-balanced branch (BE1, BE2) being downstream the respective inlet isolation valve (VI1, VI3), a two-way pressure-balanced valve (VE1, VE2) being mounted on each pressure-balanced branch (BE1, BE2) so as to allow or inhibit the fluid flow along a path from the main fluid inlet to the respective treatment member (F1, F2) by passing through the corresponding pressure-balanced branch (BE1, BE2).
Use of a cold worked and solution-annealed object in sea water applications comprising a duplex stainless steel consisting of the composition in weight% (wt %): C less than or equal to 0.03; Si less than or equal to 0.5; Mn less than or equal to 1.0; Ni 6.0 to 7.0; Cr 23.0 to 24.0; Mo 2.5 to 4.5; N 0.1 to 0.2; P less than or equal to 0.03; S less than or equal to 0.03; Cu less than or equal to 0.3; Al less than or equal to 0.10; Optionally Ti, Ca, Ce and B in an amount of max 0.5 wt% in total; the balance being Fe and inevitable impurities; wherein the duplex stainless steel fulfills the equation of Cr+50N ≤34; and wherein the duplex stainless steel has a ferrite phase content in the range of from 40% to 60 % by volume measured according to ASTM E562 and an austenite phase content in the range of 40 to 60 % by volume; in sea water applications; and wherein the austenite spacing of the duplex stainless steel is in the range of from 5-35 μm measured according to DNV-RP-F112; and wherein the PRE= Cr+3.3Mo+16N of the duplex stainless steel is at least 31; and wherein the proof strength (R p0.2) of the duplex stainless steel is in the range of from 450-700 MPa; and wherein the elongation of the duplex stainless steel is in the range of from 15-45% the balance being Fe and inevitable impurities; wherein the duplex stainless steel fulfills the equation of Cr+50N ≤34; and wherein the duplex stainless steel has a ferrite phase content in the range of from 40% to 60 % by volume measured according to ASTM E562 and an austenite phase content in the range of 40 to 60 % by volume; in sea water applications; and wherein the austenite spacing of the duplex stainless steel is in the range of from 5-35 μm measured according to DNV-RP-F112; and wherein the PRE= Cr+3.3Mo+16N of the duplex stainless steel is at least 31; and wherein the proof strength (R p0.2) of the duplex stainless steel is in the range of from 450-700 MPa; and wherein the elongation of the duplex stainless steel is in the range of from 15-45%
A method performed by a control entity configured to influence a selection of one service instance from a plurality of service instances provided by a distributed cloud system, each service instance providing a predefined service to a data packet flow of a user entity connected to a mobile communications network, the method comprising: - monitoring (S12, S31) a creation of new service instances providing the predefined service in the distributed cloud system, wherein for each new service instance a corresponding location in the distributed cloud system is determined, - determining (S13, S32), for each of the newly created service instances, location information indicating for each service instance a corresponding nearest access point name, APN, to the mobile communications network, - transmitting (S14, S33) the location information to the mobile communications network requesting to take into account the transmitted location information for a selection of a user plane entity configured to transmit at least a user data plane of the data packet flow between the user entity and said one of the service instances, wherein the creation of all new service instances providing different types of services is monitored, wherein the location information is determined and transmitted for each service instance and for each type of the different types of services, wherein monitoring the creation of new service instances comprises: - transmitting a request to the distributed cloud system requesting that the control entity be informed each time a new service instance is created in the distributed cloud system, - receiving a response to the transmitted request, the response comprising the new service instance and its location in the distributed cloud system. - monitoring (S12, S31) a creation of new service instances providing the predefined service in the distributed cloud system, wherein for each new service instance a corresponding location in the distributed cloud system is determined, - determining (S13, S32), for each of the newly created service instances, location information indicating for each service instance a corresponding nearest access point name, APN, to the mobile communications network, - transmitting (S14, S33) the location information to the mobile communications network requesting to take into account the transmitted location information for a selection of a user plane entity configured to transmit at least a user data plane of the data packet flow between the user entity and said one of the service instances, wherein the creation of all new service instances providing different types of services is monitored, wherein the location information is determined and transmitted for each service instance and for each type of the different types of services, - transmitting a request to the distributed cloud system requesting that the control entity be informed each time a new service instance is created in the distributed cloud system, - receiving a response to the transmitted request, the response comprising the new service instance and its location in the distributed cloud system.
A hand tool comprising a shaft and a tool part lockable in a detachable manner thereto by means of a connection mechanism which comprises a spigot and a socket that are detachably interconnectable, which spigot comprises a flexible element that protrudes outwardly from the spigot surface and which socket comprises a gap to receive the flexible element when the spigot is set inside the socket for interlocking the shaft and the tool part, characterized in that the connection mechanism comprises a sliding piece mounted on top of the socket to cover the gap and the flexible element for preventing sand and other dirt from intruding inside the connection mechanism, which sliding piece is movable in the axial direction of the socket for pressing the flexible element out of the gap.
A valve for a fuel supply system of an internal combustion engine, the valve comprising: a valve housing defining a channel therethrough in fluid communication with an inert gas supply line at a first end of the valve housing, the valve housing further comprising a first flange disposed at a second end thereof, the second end being distal to the first end; a valve body movably disposed within the channel of the valve housing, the valve body configured to selectively allow the channel of the valve housing to communicate with an inner bore of a double-walled connecting element of the fuel supply system; and a second flange disposed adjacent to the first flange, wherein the first flange and the second flange are coupled to the double-walled connecting element, and wherein the second flange comprises a passage therethrough in fluid communication with a detection space of the double-walled connecting element; wherein the first flange and the second flange define a detection gap therebetween, and wherein the passage of the second flange is in fluid communication with the detection gap. a valve housing defining a channel therethrough in fluid communication with an inert gas supply line at a first end of the valve housing, the valve housing further comprising a first flange disposed at a second end thereof, the second end being distal to the first end; a valve body movably disposed within the channel of the valve housing, the valve body configured to selectively allow the channel of the valve housing to communicate with an inner bore of a double-walled connecting element of the fuel supply system; and a second flange disposed adjacent to the first flange, wherein the first flange and the second flange are coupled to the double-walled connecting element, and wherein the second flange comprises a passage therethrough in fluid communication with a detection space of the double-walled connecting element; wherein the first flange and the second flange define a detection gap therebetween, and wherein the passage of the second flange is in fluid communication with the detection gap.
Safety and emergency sign lamp with at least a primary illuminant, a pictogram in the form of a pictogram plate with a primary symbol and a lamp housing, wherein the primary illuminant is arranged for a uniform illumination of the primary symbol, wherein the safety and emergency sign lamp comprises a transparent symbol plate with a secondary symbol, which is visibly or non-visibly superposed the primary symbol by at least one secondary illuminant assigned to a light entry edge (12, 16) of the symbol plate by switching on and switching off the secondary illuminant, wherein the secondary symbol is formed by a surface processing and/or structuring of a lateral surface of the symbol plate directed to the pictogram plate, which symbol plate is arranged downstream of the primary symbol in the light exit direction, wherein the symbol plate is separately constructed to the pictogram plate and wherein the lamp further comprises a light distribution plate and the primary illuminant is assigned to a light entry edge of the light distribution plate, which light distribution plate has at least one light exit surface for uniform illumination of the primary symbol and wherein the pictogram plate is arranged between the light distribution plate and the symbol plate.
A data decoder system comprising: (a.) a decoding unit coupled to a communication channel that decodes information received, wherein said received information is encoded in an amplitude-shift keying signal including: a short low state L1, a short high state H1, a long low state L2 and a long high state H2, the decoder comprising: (i.) a free running local oscillator LO coupled to an array of sampling capacitors (33, 34), that effectively samples the information using the LO frequency; and (ii.) a circuit (39, 311) coupled to the sampling capacitors (33, 34) for generating a data bit stream and decoding the information by identifying - a bit stream pattern of 0 or 00 with a short low state L1, - a bit stream pattern of 11 or 111 with a short high state H1, - a bit stream pattern of 000 or 0000 with a long low state L2, and - a bit stream pattern of 1111 or 11111 with a long high state H2. (a.) a decoding unit coupled to a communication channel that decodes information received, wherein said received information is encoded in an amplitude-shift keying signal including: a short low state L1, a short high state H1, a long low state L2 and a long high state H2, the decoder comprising: (i.) a free running local oscillator LO coupled to an array of sampling capacitors (33, 34), that effectively samples the information using the LO frequency; and (ii.) a circuit (39, 311) coupled to the sampling capacitors (33, 34) for generating a data bit stream and decoding the information by identifying - a bit stream pattern of 0 or 00 with a short low state L1, - a bit stream pattern of 11 or 111 with a short high state H1, - a bit stream pattern of 000 or 0000 with a long low state L2, and - a bit stream pattern of 1111 or 11111 with a long high state H2. (i.) a free running local oscillator LO coupled to an array of sampling capacitors (33, 34), that effectively samples the information using the LO frequency; and (ii.) a circuit (39, 311) coupled to the sampling capacitors (33, 34) for generating a data bit stream and decoding the information by identifying - a bit stream pattern of 0 or 00 with a short low state L1, - a bit stream pattern of 11 or 111 with a short high state H1, - a bit stream pattern of 000 or 0000 with a long low state L2, and - a bit stream pattern of 1111 or 11111 with a long high state H2. - a bit stream pattern of 0 or 00 with a short low state L1, - a bit stream pattern of 11 or 111 with a short high state H1, - a bit stream pattern of 000 or 0000 with a long low state L2, and - a bit stream pattern of 1111 or 11111 with a long high state H2.
Process for addition of a compound onto an H-functional starter compound in the presence of a catalyst, wherein the at least one compound is selected from at least one group consisting of alkylene oxide (A-1), lactone (A-2), lactide (A-3), cyclic acetal (A-4), lactam (A-5), cyclic anhydride (A-6) and oxygen-containing heterocycle compound (A-7) distinct from (A-1), (A-2), (A-3), (A-4) and (A-6), characterized in that the catalyst comprises an organic, n-protic Bronsted acid, wherein n ≥ 2 and is an element of the natural numbers and the degree of protolysis D is 0<D<n where n is the maximum number of transferrable protons and D is the calculated proton fraction of the organic, n-protic Bronsted acid, wherein the organic, n-protic Bronsted acid has a calculated molar mass of ≤ 1200 g/mol.