mhurhangee/ep-ind-claims huggingface dataset:
A method in a wireless local area network, WLAN, system, the method comprising: transmitting, by a first non- access point, AP, station, STA, a multi-link probe request frame to a first AP; and receiving, by the first non-AP STA, a multi-link probe response frame from the first AP, wherein the first AP operating on a first link and a second AP operating on a second link are affiliated with an AP multi-link device, MLD, wherein the first non-AP STA operating on the first link and a second non-AP STA operating on the second link affiliated with a non-AP MLD, wherein the multi-link probe request frame includes a profile field for the second AP, wherein the profile field for the second AP includes a first Complete Profile Requested subfield of a first STA Control field, the method being characterized by the further steps of: wherein based on the first non-AP STA requesting partial information on the second AP, a value of the first Complete Profile Requested subfield is set to 0, and the profile field for the second AP further includes a first request element, wherein based on the first non-AP STA requesting complete information on the second AP, the value of the first Complete Profile Requested subfield is set to 1, and the profile field for the second AP does not include the first request element, wherein the partial information on the second AP is requested based on the first request element, and wherein the complete information on the second AP is requested based on the profile field for the second AP. transmitting, by a first non- access point, AP, station, STA, a multi-link probe request frame to a first AP; and receiving, by the first non-AP STA, a multi-link probe response frame from the first AP, wherein the first AP operating on a first link and a second AP operating on a second link are affiliated with an AP multi-link device, MLD, wherein the first non-AP STA operating on the first link and a second non-AP STA operating on the second link affiliated with a non-AP MLD, wherein the multi-link probe request frame includes a profile field for the second AP, wherein the profile field for the second AP includes a first Complete Profile Requested subfield of a first STA Control field, the method being characterized by the further steps of: wherein based on the first non-AP STA requesting partial information on the second AP, a value of the first Complete Profile Requested subfield is set to 0, and the profile field for the second AP further includes a first request element, wherein based on the first non-AP STA requesting complete information on the second AP, the value of the first Complete Profile Requested subfield is set to 1, and the profile field for the second AP does not include the first request element, wherein the partial information on the second AP is requested based on the first request element, and wherein the complete information on the second AP is requested based on the profile field for the second AP.
A light emitting diode, LED, filament, configured to emit LED filament light, comprising an array of a plurality of light emitting diodes, LEDs, configured to emit LED light, circuitry coupled to the plurality of LEDs, a carrier arranged to support the plurality of LEDs, an encapsulant comprising a translucent material and a luminescent material configured to at least partially convert the LED light into converted light, wherein the encapsulant at least partially encloses the plurality of LEDs and the carrier, wherein the plurality of LEDs comprises a first set of LEDs arranged to emit first LED light in a first wavelength range of 430-490 nm, and a second set of LEDs arranged to emit second LED light in a second wavelength range of 315-420 nm, wherein the circuitry is configured to provide the first set of LEDs with a first current, I c1, and to provide the second set of LEDs with a second current, I c2, during operation of the LED filament, wherein I c2 > I c1 and wherein the encapsulant, via the luminescent material thereof, is configured to, during operation of the LED filament, convert a portion of the first LED light into first converted light at a first conversion ratio, R 1, wherein the first converted light has a first converted light intensity, Iconv 1, and convert a portion of the second LED light into second converted light at a second conversion ratio, R 2, wherein the second converted light has a second converted light intensity, Iconv 2, wherein R 1 /R 2 > 3 and 0.7 < (Iconv 1 /Iconv 2) < 1.3, preferably 0.8 < (Iconv 1 /Iconv 2) < 1.2. an array of a plurality of light emitting diodes, LEDs, configured to emit LED light, circuitry coupled to the plurality of LEDs, a carrier arranged to support the plurality of LEDs, an encapsulant comprising a translucent material and a luminescent material configured to at least partially convert the LED light into converted light, wherein the encapsulant at least partially encloses the plurality of LEDs and the carrier, wherein the plurality of LEDs comprises a first set of LEDs arranged to emit first LED light in a first wavelength range of 430-490 nm, and a second set of LEDs arranged to emit second LED light in a second wavelength range of 315-420 nm, wherein the circuitry is configured to provide the first set of LEDs with a first current, I c1, and to provide the second set of LEDs with a second current, I c2, during operation of the LED filament, wherein I c2 > I c1 and wherein the encapsulant, via the luminescent material thereof, is configured to, during operation of the LED filament, convert a portion of the first LED light into first converted light at a first conversion ratio, R 1, wherein the first converted light has a first converted light intensity, Iconv 1, and convert a portion of the second LED light into second converted light at a second conversion ratio, R 2, wherein the second converted light has a second converted light intensity, Iconv 2, wherein R 1 /R 2 > 3 and 0.7 < (Iconv 1 /Iconv 2) < 1.3, preferably 0.8 < (Iconv 1 /Iconv 2) < 1.2.
A compound comprising: a cyclic peptide comprising at least the amino acid sequence X 1 -X 2 -X 3 -X 4 -X 5 -X 6 -X 7 -R-W-H-X 11 -X 12 -X 13 -X 14, wherein the amino acid X 1 is selected from the group consisting of the amino acids A, C, D, E, F, G, H, I, K, L, M, N, P, Q, R, S, T, V, W and Y, wherein the amino acids X 2, X 3, X 4, X 5, X 6, X 7, X 11, X 12, X 13 and X 14 are independently selected from the group consisting of the amino acids A, C, D, E, F, G, H, I, K, L, M, N, P, Q, R, S, T, V, W and Y, and wherein X 2, X 3, X 4, X 5, X 6, X 7, X 12, X 13 and X 14 are optionally present in the amino acid sequence, the compound comprising a chemical bond between two adjacent amino acids of the cyclic peptide which is not a chemical bond between the N-terminus of a first amino acid and the C-terminus of a second amino acid of the two adjacent amino acids, and wherein at least one amino acid of the cyclic peptide is a D-amino acid. the compound comprising a chemical bond between two adjacent amino acids of the cyclic peptide which is not a chemical bond between the N-terminus of a first amino acid and the C-terminus of a second amino acid of the two adjacent amino acids, and wherein at least one amino acid of the cyclic peptide is a D-amino acid.
A system for use in an internal combustion engine having at least one engine valve associated with a cylinder, the system comprising: a main motion source (102, 102') configured to supply motions to the at least one engine valve (104, 404, 406, 504, 506, 904, 906, 1004, 1006, 1104, 1106, 1204, 1206, 1504) along a main motion load path; an auxiliary motion source (108, 108') configured to supply motions to the at least one engine valve; an automatic lash adjuster (110, 112) associated with the main motion load path; and a linkage configured to receive the motions from the auxiliary motion source and provide a first force to the at least one engine valve, the system being characterized in that the linkage is configured to provide a second force to the main motion load path in a direction toward the main motion source, wherein the second force is sufficient to control lash adjustment by the automatic lash adjuster. a main motion source (102, 102') configured to supply motions to the at least one engine valve (104, 404, 406, 504, 506, 904, 906, 1004, 1006, 1104, 1106, 1204, 1206, 1504) along a main motion load path; an auxiliary motion source (108, 108') configured to supply motions to the at least one engine valve; an automatic lash adjuster (110, 112) associated with the main motion load path; and a linkage configured to receive the motions from the auxiliary motion source and provide a first force to the at least one engine valve, the system being characterized in that the linkage is configured to provide a second force to the main motion load path in a direction toward the main motion source, wherein the second force is sufficient to control lash adjustment by the automatic lash adjuster.
Guide device for guiding a furniture component which is movable relative to a furniture carcass, in particular a drawer, door or flap, with at least one guide unit which has a carcass rail attachable to the furniture carcass, and at least one running rail (17, 18), movably mounted relative to the carcass rail, and with a support fixture serving to support the running rail (17, 18) and having at least one support member located on a front section of the carcass rail and by which the running rail (17, 18) may come into contact with the support member in such a way that, in a closed position of the movable furniture part, it lies on the support member, wherein the support surface, in the axial direction of the running rail (17, 18), is shorter than the maximum travel of the running rail (17, 18) in such a way that the support effect during outward movement of the running rail (17, 18) lapses after a certain distance, and wherein the support fixture has guide means to guide the support member between a raised support position supporting the running rail (17, 18) and a lowered standby position lying out of contact with the support surface, wherein the guide means have at least one guide track rising towards the rear of the carcass rail, characterised in that the guide track is part of a slotted link guide.
A computer-implemented method, comprising: receiving seismic attributes obtained through seismic inversion of seismic data for a region of interest in a subsurface of the earth; receiving electrical attributes obtained through an electromagnetic inversion of electromagnetic survey data for the region of interest; receiving a selection of an isotropic or anisotropic rock physics model for the region of interest, wherein the region of interest is represented by multi-dimensional cells; calculating values of rock parameters for the selected rock physics model, individually for each of a plurality of the multi-dimensional cells, at least in part by linearizing a nonlinear relation that links cross-properties between the seismic attributes and the electrical attributes for the region of interest; and determining the presence of hydrocarbon deposits in the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells; or determining a petrophysical model for the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells (370, 380, 385). receiving seismic attributes obtained through seismic inversion of seismic data for a region of interest in a subsurface of the earth; receiving electrical attributes obtained through an electromagnetic inversion of electromagnetic survey data for the region of interest; receiving a selection of an isotropic or anisotropic rock physics model for the region of interest, wherein the region of interest is represented by multi-dimensional cells; calculating values of rock parameters for the selected rock physics model, individually for each of a plurality of the multi-dimensional cells, at least in part by linearizing a nonlinear relation that links cross-properties between the seismic attributes and the electrical attributes for the region of interest; and determining the presence of hydrocarbon deposits in the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells; or determining a petrophysical model for the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells (370, 380, 385).
Thermal power plant for producing electricity or motive power, comprising at least one fuel or heat recovery boiler, at least one turbine, at least one main circuit for circulating a working fluid, at least one drum located in the boiler on said main circuit, at least one reheating module and at least one secondary circuit in which a reheating fluid circulates, wherein: - said main circuit comprises at least one initial stretch located in said at least one boiler, at least one first stretch for sending working fluid from said at least one boiler to a first set of at least one turbine section, and a second stretch for sending working fluid from said first set of at least one turbine section to a second set of at least one turbine section, and - said reheating module comprises at least one downstream heat exchanger located on the second stretch of the main circuit, where said secondary circuit comprises at least one upstream heat exchanger located in said boiler, the upstream heat exchanger enabling heat to be transferred from combustion fumes or recovery fluid to the reheating fluid circulating in the secondary circuit, said reheating fluid circulating in said secondary circuit between the upstream and downstream heat exchangers, characterized in that said plant is designed so that the reheating fluid can be, at the outlet of the upstream heat exchanger, at the nominal load point, at a pressure level at least ten bars higher than the pressure level at the nominal load point of the working fluid in said drum. - said main circuit comprises at least one initial stretch located in said at least one boiler, at least one first stretch for sending working fluid from said at least one boiler to a first set of at least one turbine section, and a second stretch for sending working fluid from said first set of at least one turbine section to a second set of at least one turbine section, and - said reheating module comprises at least one downstream heat exchanger located on the second stretch of the main circuit, where said secondary circuit comprises at least one upstream heat exchanger located in said boiler, the upstream heat exchanger enabling heat to be transferred from combustion fumes or recovery fluid to the reheating fluid circulating in the secondary circuit, said reheating fluid circulating in said secondary circuit between the upstream and downstream heat exchangers, characterized in that said plant is designed so that the reheating fluid can be, at the outlet of the upstream heat exchanger, at the nominal load point, at a pressure level at least ten bars higher than the pressure level at the nominal load point of the working fluid in said drum.
A method of establishing multiple links with multiple component carriers for a mobile device of an LTE-Advanced wireless communication system, characterized by: performing an inter-RAT handover to E-UTRAN as a single radio resource control, RRC, procedure for connection establishment to establish a plurality of links corresponding to a plurality of component carriers for simultaneously receiving and/or transmitting on each component carrier; and performing a random access procedure for synchronization of at least a link of the plurality of links, when a RRC message of the RRC procedure, indicating that synchronization is required or excluding uplink timing information, is received. performing an inter-RAT handover to E-UTRAN as a single radio resource control, RRC, procedure for connection establishment to establish a plurality of links corresponding to a plurality of component carriers for simultaneously receiving and/or transmitting on each component carrier; and performing a random access procedure for synchronization of at least a link of the plurality of links, when a RRC message of the RRC procedure, indicating that synchronization is required or excluding uplink timing information, is received.
A spider for handling/gripping well components (20, 22) for use with a subterranean well, the spider comprising: multiple slip assemblies distributed circumferentially about a central axis of the spider, characterised in that each slip assembly comprises: a) a slip carrier radially displaceable relative to the central axis, b) a slip displaceable relative to the slip carrier, and c) a slip actuator operable to displace the slip relative to the slip carrier, the slip actuator being disposed at least partially internal to the slip carrier. a) a slip carrier radially displaceable relative to the central axis, b) a slip displaceable relative to the slip carrier, and c) a slip actuator operable to displace the slip relative to the slip carrier, the slip actuator being disposed at least partially internal to the slip carrier.
Welding torch, comprising a nozzle stock for receiving a contact tube and a gas nozzle, in particular for MIG/MAG protective gas welding, a torch holder, and a flexible, tubular connecting element which connects the nozzle stock and the torch holder to one another and which is designed to set a stable position of the nozzle stock and preferably also of arc components, such as a welding wire and/or an electrode, which are arranged in the nozzle stock, relative to the torch holder, wherein the connecting element leads a wire guide core and/or the welding wire or the electrode, a duct for conducting gas, such as protective gas, to the gas nozzle, and leads an electrical conductor from the torch holder to the nozzle stock, wherein the connecting element furthermore leads at least one line (55, 57) for a cooling fluid, such as water, from the torch holder to the nozzle stock, wherein the nozzle stock comprises a fluid-cooled heat exchanger which is connected to the at least one line (55, 57), and the heat exchanger has at least one connection (25, 27) for the at least one line (55, 57) at its end facing away from the arc, characterized in that the at least one line (55, 57) is configured as a polymer tube, and the heat exchanger comprises a plurality of cooling chambers, which are offset in the axial direction, for receiving the cooling fluid, wherein a partition wall is provided between two directly axially adjacent cooling chambers, which partition wall comprises at least one passage for the communication of axially adjacent cooling chambers. the connecting element furthermore leads at least one line (55, 57) for a cooling fluid, such as water, from the torch holder to the nozzle stock, wherein the nozzle stock comprises a fluid-cooled heat exchanger which is connected to the at least one line (55, 57), and the heat exchanger has at least one connection (25, 27) for the at least one line (55, 57) at its end facing away from the arc, characterized in that the at least one line (55, 57) is configured as a polymer tube, and the heat exchanger comprises a plurality of cooling chambers, which are offset in the axial direction, for receiving the cooling fluid, wherein a partition wall is provided between two directly axially adjacent cooling chambers, which partition wall comprises at least one passage for the communication of axially adjacent cooling chambers.
A flexible insulating substrate, having a first side and a second side, and suitable to be rolled about an axis parallel to the substrate, characterized in that the flexible insulating substrate further comprises: a first planar conducting spiral that is right-handed relative to a normal to the substrate, and a second planar conducting spiral that is left-handed relative to the normal, formed on the first side of the substrate, the first conducting spiral having a first initial termination and a first final termination, the second conducting spiral having a second initial termination and a second final termination, the spirals having a displacement therebetween, with a preset magnitude so that when the substrate is rolled about the axis the first initial termination aligns with the second initial termination; and a via penetrating the substrate from the first side to the second side so as to interconnect the first initial termination and the second initial termination. a first planar conducting spiral that is right-handed relative to a normal to the substrate, and a second planar conducting spiral that is left-handed relative to the normal, formed on the first side of the substrate, the first conducting spiral having a first initial termination and a first final termination, the second conducting spiral having a second initial termination and a second final termination, the spirals having a displacement therebetween, with a preset magnitude so that when the substrate is rolled about the axis the first initial termination aligns with the second initial termination; and a via penetrating the substrate from the first side to the second side so as to interconnect the first initial termination and the second initial termination.
An electromagnetic switching device comprising: a shaft coupled with a movable contact point to reciprocate up and down; and further comprising a fixed core to surround an outer side of the shaft, wherein the fixed core comprises an upper fixed core and a lower fixed core vertically spaced apart from each other, the shaft comprises a large diameter portion and a small diameter portion provided below the large diameter portion, further comprising a movable core provided at an outer side of the small diameter portion, and wherein the upper fixed core surrounds an outer side of the large diameter portion, characterized in that, in a state of the electromagnetic switching device with no internal temperature increase due to an operation of the device, the top end of the movable core is spaced apart from a bottom end of the upper fixed core by a predetermined distance under the upper fixed core; and an elastic member (350, 350a) is coupled with a bottom end of the shaft, wherein a vertical volume of the elastic member (350, 350a) expands as a temperature is increased wherein an elastic member receiving part (360, 360a) is provided at a lower portion of the shaft, and the elastic member (350, 350a) is received in the elastic member receiving part (360, 360a) such that a top end of the elastic member (350, 350a) makes contact with a top surface of the elastic member receiving part (360, 360a) to limit volume expansion in an upward direction. a shaft coupled with a movable contact point to reciprocate up and down; and further comprising a fixed core to surround an outer side of the shaft, wherein the fixed core comprises an upper fixed core and a lower fixed core vertically spaced apart from each other, the shaft comprises a large diameter portion and a small diameter portion provided below the large diameter portion, further comprising a movable core provided at an outer side of the small diameter portion, and wherein the upper fixed core surrounds an outer side of the large diameter portion, characterized in that, in a state of the electromagnetic switching device with no internal temperature increase due to an operation of the device, the top end of the movable core is spaced apart from a bottom end of the upper fixed core by a predetermined distance under the upper fixed core; and an elastic member (350, 350a) is coupled with a bottom end of the shaft, wherein a vertical volume of the elastic member (350, 350a) expands as a temperature is increased wherein an elastic member receiving part (360, 360a) is provided at a lower portion of the shaft, and the elastic member (350, 350a) is received in the elastic member receiving part (360, 360a) such that a top end of the elastic member (350, 350a) makes contact with a top surface of the elastic member receiving part (360, 360a) to limit volume expansion in an upward direction.