mhurhangee/ep-ind-claims huggingface dataset:
A radiation detector module comprising a radiation detector (20,22), power source and wireless communication means (28,30), characterised in that all of said radiation detector, power source and wireless communication means are housed within a flame-proof enclosure that meets the requirements of BS EN 60079-1:2007 such that any spark or explosion within the enclosure is prevented from contacting the surrounding atmosphere, wherein said flame-proof enclosure comprises a housing comprising a body portion and at least one end cap (14, 38), wherein the body portion of said housing is made from metal and the end cap comprises a non-metallic material which is relatively more transmissive to the wireless transmission than is steel.
A method of performing device to device, D2D, communication by a transmission user equipment, UE, the method comprising: requesting and acquiring, from a discovery server, a discovery code corresponding to the application specific identifier, ID, associated with an application program in the transmission UE; requesting and acquiring, from the discovery server or from a mobile management entity, MME, a multicast ID of the transmission UE to be used for transmitting additional information on the application program; and broadcasting the discovery code and the multicast ID through a discovery subframe, transmitting, to a reception UE, the additional information by using the multicast ID through a D2D multicast subframe. requesting and acquiring, from a discovery server, a discovery code corresponding to the application specific identifier, ID, associated with an application program in the transmission UE; requesting and acquiring, from the discovery server or from a mobile management entity, MME, a multicast ID of the transmission UE to be used for transmitting additional information on the application program; and broadcasting the discovery code and the multicast ID through a discovery subframe, transmitting, to a reception UE, the additional information by using the multicast ID through a D2D multicast subframe.
A method for the preparation of a crystalline compound of Formula: wherein X is any suitable counterion, comprising (i) preparing a solution of a compound of Formula in an organic solvent, wherein PG is a suitable protecting group (ii) adding a suitable acid; (iii) bringing the solution to supersaturation to cause formation of crystals; and (iv) isolating the crystals; wherein bringing the solution to supersaturation comprises adding an anti-solvent which is hexanes or heptanes, cooling the solution to ambient temperature, and reducing the volume of the solution. (i) preparing a solution of a compound of Formula in an organic solvent, wherein PG is a suitable protecting group (ii) adding a suitable acid; (iii) bringing the solution to supersaturation to cause formation of crystals; and (iv) isolating the crystals;
Method for installing and operating a thermal well heat carrier transport system, wherein the method comprises the installation steps a) providing a first flexible tubular part into and along a drilled thermal well having a length direction, a cross-section perpendicularly to the length direction and a radial direction; b) providing a second flexible tubular part into and along the first flexible tubular part along the thermal well; c) providing into the second flexible tubular part an installation liquid at an installation overpressure sufficient to press the first flexible tubular part radially against the inner walls of the thermal well in all radial directions in said cross-section; d) providing into and along the second flexible tubular part a third tubular part, having an open end at a distal length end of the third tubular part; and wherein the method further comprises the operation step e) providing into the second flexible tubular part, directly or via the third flexible tubular part, liquid heat carrier at an operation overpressure sufficient to press the first flexible tubular part radially against the inner walls of the thermal well in all radial directions in said cross-section. a) providing a first flexible tubular part into and along a drilled thermal well having a length direction, a cross-section perpendicularly to the length direction and a radial direction; b) providing a second flexible tubular part into and along the first flexible tubular part along the thermal well; c) providing into the second flexible tubular part an installation liquid at an installation overpressure sufficient to press the first flexible tubular part radially against the inner walls of the thermal well in all radial directions in said cross-section; d) providing into and along the second flexible tubular part a third tubular part, having an open end at a distal length end of the third tubular part; and wherein the method further comprises the operation step e) providing into the second flexible tubular part, directly or via the third flexible tubular part, liquid heat carrier at an operation overpressure sufficient to press the first flexible tubular part radially against the inner walls of the thermal well in all radial directions in said cross-section.
A method comprising: heating a low surface energy material to an elevated temperature that is relative to an onset temperature associated with a glass transition temperature of said low surface energy material; applying a printable ink to an exposed surface of said heated low surface energy material; contacting said applied printable ink and said heated low surface energy material for a soak time; and curing, characterised in that, after said soak time, said printable ink applied to said exposed surface is cured so that said printable ink is at least partially embedded in said low surface energy material. heating a low surface energy material to an elevated temperature that is relative to an onset temperature associated with a glass transition temperature of said low surface energy material; applying a printable ink to an exposed surface of said heated low surface energy material; contacting said applied printable ink and said heated low surface energy material for a soak time; and curing, characterised in that, after said soak time, said printable ink applied to said exposed surface is cured so that said printable ink is at least partially embedded in said low surface energy material.
An immunogenic composition comprising at least 2 different N. meningitidis capsular saccharides, wherein one or more is/are selected from a first group consisting of MenA and MenC, which is/are conjugated through a linker to a carrier protein(s), and one or more different saccharides is/are selected from a second group consisting of MenC, MenY and MenW which is/are directly conjugated to a carrier protein(s) wherein the composition comprises MenA and MenC capsular saccharides conjugated through a linker to a carrier protein(s), and MenY and Men W capsular saccharides directly conjugated to a carrier protein(s) or MenA capsular saccharide conjugated through a linker to a carrier protein, and MenC, MenY and Men W capsular saccharides directly conjugated to a carrier protein(s) and wherein each N. meningitidis capsular saccharide is conjugated to the same carrier protein selected from the group consisting of TT, DT, CRM197, fragment C of TT and protein D.
A method of receiving a broadcasting signal, the method comprising: receiving the broadcasting signal including a signal frame comprising a first pilot symbol, at least one second pilot symbol, and data symbols including service data, the first pilot symbol being positioned at a beginning of the signal frame and including information of a guard interval and a FFT size for the at least one second pilot symbol, and the at least one second pilot symbol being positioned right after the first pilot symbol and including Layer-1, L1, signaling data; detecting synchronization information from the broadcasting signal; demodulating the received broadcasting signal by an Orthogonal Frequency Division Multiplexing, OFDM, method; obtaining the L1 signaling data included in the at least one second pilot symbol from the signal frame of the demodulated broadcasting signal; deinterleaving the obtained L1 signaling data; and decoding the deinterleaved L1 signaling data, wherein an FFT size for the first pilot symbol is fixed and the combination of the guard interval and the FFT size for the at least one second pilot symbol is signaled according to the information included in the first pilot symbol. receiving the broadcasting signal including a signal frame comprising a first pilot symbol, at least one second pilot symbol, and data symbols including service data, the first pilot symbol being positioned at a beginning of the signal frame and including information of a guard interval and a FFT size for the at least one second pilot symbol, and the at least one second pilot symbol being positioned right after the first pilot symbol and including Layer-1, L1, signaling data; detecting synchronization information from the broadcasting signal; demodulating the received broadcasting signal by an Orthogonal Frequency Division Multiplexing, OFDM, method; obtaining the L1 signaling data included in the at least one second pilot symbol from the signal frame of the demodulated broadcasting signal; deinterleaving the obtained L1 signaling data; and decoding the deinterleaved L1 signaling data, wherein an FFT size for the first pilot symbol is fixed and the combination of the guard interval and the FFT size for the at least one second pilot symbol is signaled according to the information included in the first pilot symbol.
A relay module structure comprising: a relay, comprising a main body and multiple pins connected to the main body; a loading box, comprising a box body receiving the main body and a flexible latch portion connected to the box body, the box body comprising a force exerting portion and a relay seat, comprising a seat body, the seat body comprising a recess, a positioning portion and multiple terminal holes, the positioning portion and the terminal holes disposed in the recess, characterized in that the box body comprises multiple slots and in that the pins projecting from the main body of the relay extend through the slots and project from the slots; wherein the loading box is inserted in the recess by engagement between the flexible latch portion and the positioning portion, the pins projecting from main body of the relay being inserted in the terminal holes; and the flexible latch portion is configured to be separated from the positioning portion by exerting an external force on the force exerting portion of the box body to make the loading box receiving the relay separate from the relay seat. a relay, comprising a main body and multiple pins connected to the main body; a loading box, comprising a box body receiving the main body and a flexible latch portion connected to the box body, the box body comprising a force exerting portion and a relay seat, comprising a seat body, the seat body comprising a recess, a positioning portion and multiple terminal holes, the positioning portion and the terminal holes disposed in the recess, characterized in that the box body comprises multiple slots and in that the pins projecting from the main body of the relay extend through the slots and project from the slots; wherein the loading box is inserted in the recess by engagement between the flexible latch portion and the positioning portion, the pins projecting from main body of the relay being inserted in the terminal holes; and the flexible latch portion is configured to be separated from the positioning portion by exerting an external force on the force exerting portion of the box body to make the loading box receiving the relay separate from the relay seat.
Method for the manufacture of a strip made of an aluminium alloy, which comprises the following alloy components in % by weight: 0.6 % ≤ Si ≤ 0.9 %, 0.6 % ≤ Fe ≤ 1.0 %, Cu ≤ 0.1 %, 0.6 % ≤ Mn ≤ 0.9 %, 0.5 % ≤ Mg ≤ 0.8 %, Cr ≤ 0.05 %, the remainder Al and impurities, individually up to a maximum of 0.05% by weight, in total up to a maximum of 0.15% by weight with following method steps: - casting of a rolling ingot, - homogenisation (4, 16) at a temperature of between 500°C and 600°C for at least 0.5 h, - hot rolling of the rolling ingot at temperatures of 280°C to 500°C to a thickness of 3 mm to 12 mm, - cold rolling with or without intermediate annealing with a degree of reduction of at least 50%, preferably at least 70% to a final thickness of 0.2 mm to 5 mm and - final soft annealing at 300°C to 400°C for at least 0.5h in a chamber furnace. - casting of a rolling ingot, - homogenisation (4, 16) at a temperature of between 500°C and 600°C for at least 0.5 h, - hot rolling of the rolling ingot at temperatures of 280°C to 500°C to a thickness of 3 mm to 12 mm, - cold rolling with or without intermediate annealing with a degree of reduction of at least 50%, preferably at least 70% to a final thickness of 0.2 mm to 5 mm and - final soft annealing at 300°C to 400°C for at least 0.5h in a chamber furnace.
A closure (20, 20A) that can selectively permit or prevent communication between the exterior and the interior of a system that has an opening between the exterior and interior, said closure (20, 20A) comprising: a closure body (24, 24A) that is either (a) a separate structure for being attached to said system at said opening, or (b) a structure formed as a unitary portion of said system at said opening, and wherein said body (24, 24A) has: an outer end and a through passage extending from said outer end through said body (24, 24A); and a membrane that (a) initially occludes said passage, and (b) is initially connected to the rest of said body (24, 24A); and a lid to accommodate movement relative to said body (24, 24A) between (a) a closed position on said body (24, 24A) restricting access to said passage, and (b) an open position permitting at least greater access to said passage, wherein said body (24, 24A) further including a separation member to be engaged by a user to separate at least a part of said membrane from said body (24, 24A), said separation member extending from said membrane, having a deployed configuration wherein said separation member projects outwardly beyond said body outer end when said lid is in said open position, and having the capability for assuming a stored configuration with said separation member engaged by said lid with said lid in said closed position and wherein resiliency of said separation member urges said separation member from said stored configuration to said deployed configuration when said lid is moved from said closed position to said open position; said separation member includes a stem extending outwardly from said membrane and a grippable portion extending laterally from said stem, wherein said lid is connected to said body (24, 24A) by at least one connecting element in form of a hinge, and wherein said grippable portion has an arcuate configuration; characterized in that the stem bends over and away from the hinge in the stored configuration. a closure body (24, 24A) that is either (a) a separate structure for being attached to said system at said opening, or (b) a structure formed as a unitary portion of said system at said opening, and wherein said body (24, 24A) has: an outer end and a through passage extending from said outer end through said body (24, 24A); and a membrane that (a) initially occludes said passage, and (b) is initially connected to the rest of said body (24, 24A); and an outer end and a through passage extending from said outer end through said body (24, 24A); and a membrane that (a) initially occludes said passage, and (b) is initially connected to the rest of said body (24, 24A); and a lid to accommodate movement relative to said body (24, 24A) between (a) a closed position on said body (24, 24A) restricting access to said passage, and (b) an open position permitting at least greater access to said passage, wherein
Shaft/hub connections for vehicles, or for use in drive technology, comprising: a cylinder-shaped shaft component, which has elevations or depressions on the lateral surface; and a hub component with a bore, which also includes elevations and depressions inside the bore whereby the shaft component can be mounted inside of the bore of the hub component, wherein: inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is possible, inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is less possible, the elastically deformable surfaces are connected in a materially bonding manner with the elastically less deformable surfaces, the elastic deformability of the elastically deformable surfaces is achieved by bending beams, which are shaped such that they are oriented tangential to the shaft, and the bending beams form a connection in a materially bonding manner between the surface, which can deform radially and the surface, which is responsible for the form-fitting torque transmission and cannot deform radially. a cylinder-shaped shaft component, which has elevations or depressions on the lateral surface; and a hub component with a bore, which also includes elevations and depressions inside the bore whereby the shaft component can be mounted inside of the bore of the hub component, wherein: inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is possible, inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is less possible, the elastically deformable surfaces are connected in a materially bonding manner with the elastically less deformable surfaces, the elastic deformability of the elastically deformable surfaces is achieved by bending beams, which are shaped such that they are oriented tangential to the shaft, and the bending beams form a connection in a materially bonding manner between the surface, which can deform radially and the surface, which is responsible for the form-fitting torque transmission and cannot deform radially. inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is possible, inside the bore of the hub component at least two surfaces are arranged such that an elastic deformation of these surfaces in the radial direction is less possible, the elastically deformable surfaces are connected in a materially bonding manner with the elastically less deformable surfaces, the elastic deformability of the elastically deformable surfaces is achieved by bending beams, which are shaped such that they are oriented tangential to the shaft, and the bending beams form a connection in a materially bonding manner between the surface, which can deform radially and the surface, which is responsible for the form-fitting torque transmission and cannot deform radially.
A method performed by a base station in a wireless communication system, the method comprising: transmitting, to a user equipment, UE, through a radio resource control, RRC, signaling, information on one or more measurement reference signal, MRS, configurations, wherein each of the one or more MRS configurations includes first information on an identity of an MRS, second information on a set of large-scale channel properties associated with a quasi co-location, QCL, relationship for a demodulation reference signal, DMRS, of a physical downlink shared channel, PDSCH, and third information on a bandwidth for the MRS; and transmitting, to the UE on a physical downlink control channel, PDCCH, downlink control information, DCI, scheduling the PDSCH, the DCI including information indicating an MRS configuration for the PDSCH among the one or more MRS configurations, wherein, in case that the set of large-scale channel properties is a first type, the set of large-scale channel properties includes Doppler shift, Doppler spread, average delay, and delay spread, and wherein, in case that the set of large-scale channel properties is a second type, the set of large-scale channel properties includes Doppler shift and Doppler spread. transmitting, to a user equipment, UE, through a radio resource control, RRC, signaling, information on one or more measurement reference signal, MRS, configurations, wherein each of the one or more MRS configurations includes first information on an identity of an MRS, second information on a set of large-scale channel properties associated with a quasi co-location, QCL, relationship for a demodulation reference signal, DMRS, of a physical downlink shared channel, PDSCH, and third information on a bandwidth for the MRS; and transmitting, to the UE on a physical downlink control channel, PDCCH, downlink control information, DCI, scheduling the PDSCH, the DCI including information indicating an MRS configuration for the PDSCH among the one or more MRS configurations, wherein, in case that the set of large-scale channel properties is a first type, the set of large-scale channel properties includes Doppler shift, Doppler spread, average delay, and delay spread, and wherein, in case that the set of large-scale channel properties is a second type, the set of large-scale channel properties includes Doppler shift and Doppler spread.
A razor blade (10, 60, 70, 82) comprising: a substrate (11, 31, 71)with a cutting edge being defined by a sharpened tip (12, 41), said substrate having a thickness of between 1.60 and 1.75 micrometers measured at a distance of four micrometers from the blade tip (12, 41), characterized in that the substrate comprises 1% to 5% Mo by weight of composition, and the substrate has a thickness of between 9.25 and 10.00 micrometers measured at a distance of forty micrometers from the blade tip (12, 41).
A method of performing a downhole operation comprising: circulating an invert emulsion wellbore fluid into a wellbore, wherein the invert emulsion wellbore fluid comprises an oleaginous continuous phase, an aqueous discontinuous phase, and an emulsifying agent consisting of a nitrogen-free emulsifying agent, and wherein the nitrogen-free emulsifying agent consists of a blend of an aliphatic alcohol and a glycoside having a ratio of aliphatic alcohol to glycoside selected from 0.1:10, 1:1, and 10:0.1.
A haircare appliance having a body and an attachment, the body comprising an attachment mechanism having a slot and an actuator, the attachment comprising a protrusion adapted to engage with the slot wherein the actuator has a first position and a second position and the actuator is moved from the first position towards the second position as the protrusion engages with the slot wherein the body extends along a longitudinal axis (X-X) and the slot extends both radially around and axially along the body wherein when the protrusion is at a pre-determined position within the slot, the actuator returns towards the first position, the actuator is biased into the first position and the actuator retains the attachment on the body.
A fire protection device for a vehicle, having at least one temperature-resistant tank capable of being connected to an air-conditioning system, in which tank a negative pressure prevails for holding a refrigerant of the air-conditioning system, and at least one temperature- or signal-controlled second valve for opening at least one flow channel in order to transfer refrigerant from the air-conditioning system into the at least one temperature-resistant tank in the event of a fire in order to prevent an escape of refrigerant into the fire, characterized in that the a medium to bind and/or neutralize the refrigerant is available in the tank.