mhurhangee/ep-ind-claims huggingface dataset:
A power generation system comprising: a first heating fluid circuit thermally coupled to a plurality of heat sources (102a-102f) from a plurality of sub-units of a petrochemical refining system; a second heating fluid circuit thermally coupled to the plurality of heat sources (103a-103d) from the plurality of sub-units of the petrochemical refining system, wherein the plurality of sub-units comprises a diesel hydro-treating plant and an aromatics plant, wherein a first subset of the plurality of heat sources comprises a plurality of diesel hydro-treating plant heat exchangers (102d-120f, 103d) coupled to streams in the diesel hydro-treating plant, wherein a second subset of the plurality of heat sources comprises a plurality of aromatics plant heat exchangers (102b, 102c, 103a-103c) coupled to streams in the aromatics plant; a power generation system that comprises an organic Rankine cycle, the organic Rankine cycle comprising i) a working fluid that is thermally coupled to the first heating fluid circuit and the second heating fluid circuit to heat the working fluid, and ii) an expander configured to generate electrical power from the heated working fluid; and a control system configured to activate a set of control valves to selectively thermally couple each of the first heating fluid circuit and the second heating fluid circuit to at least a portion of the plurality of heat sources. a first heating fluid circuit thermally coupled to a plurality of heat sources (102a-102f) from a plurality of sub-units of a petrochemical refining system; a second heating fluid circuit thermally coupled to the plurality of heat sources (103a-103d) from the plurality of sub-units of the petrochemical refining system, wherein the plurality of sub-units comprises a diesel hydro-treating plant and an aromatics plant, a power generation system that comprises an organic Rankine cycle, the organic Rankine cycle comprising i) a working fluid that is thermally coupled to the first heating fluid circuit and the second heating fluid circuit to heat the working fluid, and ii) an expander configured to generate electrical power from the heated working fluid; and a control system configured to activate a set of control valves to selectively thermally couple each of the first heating fluid circuit and the second heating fluid circuit to at least a portion of the plurality of heat sources.
Method of producing an article, comprising the step of producing the article in an additive manufacturing method from a free-radically crosslinkable build material, characterized in that the build material comprises a polyamine component and a compound obtainable from the reaction of an NCO-terminated polyisocyanurate with a molar excess, based on the free NCO groups, of a hydroxyalkyl (meth)acrylate, in that the article is obtained from a precursor and in that the method comprises the following steps: I) depositing free-radically crosslinked build material on a carrier so as to obtain a layer of a build material bonded to the carrier and corresponding to a first selected cross section of the precursor; II) depositing free-radically crosslinked build material onto a previously applied layer of the build material so as to obtain another layer of the build material corresponding to another selected cross section of the precursor and bonded to the previously applied layer; III) repeating step II) until the precursor is formed; wherein the depositing of free-radically crosslinked build material at least in step II) is effected by exposure and/or irradiation of a selected region of a free-radically crosslinkable build material corresponding to the respectively selected cross section of the precursor and wherein the free-radically crosslinkable build material has a viscosity (23°C, DIN EN ISO 2884-1) of ≥ 5 mPas to ≤ 100 000 mPas, and in that step III) is followed by a further step IV): IV) heating the precursor obtained after step III) to a temperature of ≥ 50°C to obtain the article. I) depositing free-radically crosslinked build material on a carrier so as to obtain a layer of a build material bonded to the carrier and corresponding to a first selected cross section of the precursor; II) depositing free-radically crosslinked build material onto a previously applied layer of the build material so as to obtain another layer of the build material corresponding to another selected cross section of the precursor and bonded to the previously applied layer; III) repeating step II) until the precursor is formed;
Method for performing a cryptographic task on at least one digital data item in an electronic component, said method comprising a step of using a cryptographic function comprising a basic encryption function (h) obtained by addition between: - an intermediate function (g) issuing from a composition of a coding function consisting of an error correcting code with a first function (f), - and a second function, said first (f) and second functions each consisting of a polynomial function respectively of degree d f and d E greater than or equal to 2. - an intermediate function (g) issuing from a composition of a coding function consisting of an error correcting code with a first function (f), - and a second function,
A high strength steel plate having low yield ratio characteristics and low temperature toughness as defined herein, the high strength steel plate comprising, by wt%, C: 0.03% to 0.08%, Si: 0.05% to 0.3%, Mn: 1.0% to 2.0%, Al: 0.005% to 0.04%, Nb: 0.005% to 0.04%, Ti: 0.001% to 0.02%, Cu: 0.05% to 0.4%, Ni: 0.6% to 2.0%, Mo: 0.08% to 0.3%, N: 0.002% to 0.006%, P: 0.01% or less, S: 0.003% or less, and the balance being Fe and inevitable impurities, wherein a microstructure of the high strength steel plate consists of, by area%, ferrite in an amount of 80% to 92% and MA, a mixed structure of martensite/austenite, in an amount of 8% to 20%, and optionally pearlite in an amount of 1% or less, and the MA has an average size of 3 μm or less when measured in equivalent circular diameter, wherein when a 100-μm-long straight line is drawn on the high strength steel plate, five to thirteen MA sites are present on the 100-μm-long straight line, wherein the high strength steel plate has a yield ratio of 0.5 to 0.65 and a low temperature impact property of 100 J or greater at -40°C, wherein the high strength steel plate has a strength of 350 MPa to 400 MPa and a tensile strength of 600 MPa or greater. wherein a microstructure of the high strength steel plate consists of, by area%, ferrite in an amount of 80% to 92% and MA, a mixed structure of martensite/austenite, in an amount of 8% to 20%, and optionally pearlite in an amount of 1% or less, and the MA has an average size of 3 μm or less when measured in equivalent circular diameter, wherein when a 100-μm-long straight line is drawn on the high strength steel plate, five to thirteen MA sites are present on the 100-μm-long straight line, wherein the high strength steel plate has a yield ratio of 0.5 to 0.65 and a low temperature impact property of 100 J or greater at -40°C, wherein the high strength steel plate has a strength of 350 MPa to 400 MPa and a tensile strength of 600 MPa or greater.
A wireless communication method, comprising: receiving, by a terminal device, a common Physical Downlink Control Channel, PDCCH, the terminal device being in an idle state or an inactive state, wherein target information carried by the common PDCCH is used for indicating at least one of: resource information of a reference signal, or monitoring occasion information of the reference signal; wherein, in a case where the target information is used for indicating the resource information of the reference signal, the target information is specifically used for indicating that one or more reference signal resource sets in a reference signal resource configuration are the resources of the reference signal; wherein the reference signal resource configuration is acquired from the system information sent by the network device; wherein the number of bits occupied by the target information is dependent on the number of reference signal resource sets comprised in the reference signal resource configuration; and wherein the reference signal comprises a Tracking Reference Signal, TRS. receiving, by a terminal device, a common Physical Downlink Control Channel, PDCCH, the terminal device being in an idle state or an inactive state, wherein target information carried by the common PDCCH is used for indicating at least one of: resource information of a reference signal, or monitoring occasion information of the reference signal; wherein, in a case where the target information is used for indicating the resource information of the reference signal, the target information is specifically used for indicating that one or more reference signal resource sets in a reference signal resource configuration are the resources of the reference signal; wherein the reference signal resource configuration is acquired from the system information sent by the network device; wherein the number of bits occupied by the target information is dependent on the number of reference signal resource sets comprised in the reference signal resource configuration; and wherein the reference signal comprises a Tracking Reference Signal, TRS.
A method performed by a wireless device for managing reachability of the wireless device, wherein the wireless device is in ECM_CONNECTED state and has an ECM connection between a network node of a RAN, Radio Access Network, and a core node associated with the RAN, the method comprising: - entering from the ECM_Connected state into an inactive state in which a RRC connection between the wireless device and the network node of the RAN is suspended while the ECM connection is kept and starting an AS, Access Stratum, reachable timer when entering the inactive state, - sending to the network node a reachable notification indicating that the wireless device is reachable when detecting in the inactive state that the AS reachable timer expires, and after sending said reachable notification to the network node, - restarting the AS reachable timer in response to receiving a reachable notification acknowledgement from the network node, in response to detecting that the RAN is not reachable, starting an AS detach timer, and, when detecting that the AS detach timer expires, changing from the inactive state to ECM_IDLE state and, - stopping the AS reachable timer in response to a change from the inactive state to a connected state before the AS reachable timer expires. - entering from the ECM_Connected state into an inactive state in which a RRC connection between the wireless device and the network node of the RAN is suspended while the ECM connection is kept and starting an AS, Access Stratum, reachable timer when entering the inactive state, - sending to the network node a reachable notification indicating that the wireless device is reachable when detecting in the inactive state that the AS reachable timer expires, and after sending said reachable notification to the network node, - restarting the AS reachable timer in response to receiving a reachable notification acknowledgement from the network node, in response to detecting that the RAN is not reachable, starting an AS detach timer, and, when detecting that the AS detach timer expires, changing from the inactive state to ECM_IDLE state and, - stopping the AS reachable timer in response to a change from the inactive state to a connected state before the AS reachable timer expires.
A solid composition for use in textile treatment, containing, in each case based on the total weight of the solid composition, a total amount of - 25 to 65 wt.% of at least one peroxide compound, - 10 to 20 wt.% of at least one organic bleach activator, - 5 to 20 wt.% alkali metal silicate, calculated without water content, - 1 to 15 wt.% of at least one polysaccharide, - 0 to 5 wt.% surfactant. - 25 to 65 wt.% of at least one peroxide compound, - 10 to 20 wt.% of at least one organic bleach activator, - 5 to 20 wt.% alkali metal silicate, calculated without water content, - 1 to 15 wt.% of at least one polysaccharide, - 0 to 5 wt.% surfactant.
A shaving razor system comprising: a shaving razor cartridge having a proximal end and a distal end; and a handle having a proximal end portion connected to the distal end of the shaving razor cartridge, the handle having an enlarged distal end portion, wherein the handle has a maximum width of 28mm to 35mm at the enlarged distal end portion and tapers 10 degrees to 15 degrees along a first length of 60mm to 65mm that extends from a terminal end of the handle to a second width of 20mm to 25mm toward the proximal end portion and the handle has a maximum thickness of 8mm to 14mm along the first length. a shaving razor cartridge having a proximal end and a distal end; and a handle having a proximal end portion connected to the distal end of the shaving razor cartridge, the handle having an enlarged distal end portion, wherein the handle has a maximum width of 28mm to 35mm at the enlarged distal end portion and tapers 10 degrees to 15 degrees along a first length of 60mm to 65mm that extends from a terminal end of the handle to a second width of 20mm to 25mm toward the proximal end portion and the handle has a maximum thickness of 8mm to 14mm along the first length.
A method comprising: at a wearable electronic device with: a first electro-acoustic input transducer and a second electro-acoustic input transducer arranged to pick up a first acoustic signal and convert the first acoustic signal to a first microphone signal and a second microphone signal; and a third electro-acoustic input transducer arranged to pick up a second acoustic signal and convert the second acoustic signal to a third microphone signal; and a processor: generating a beamformed signal based on the first microphone signal and the second microphone signal; estimating a first frequency value representing a fundamental frequency in one or more of: the first microphone signal, the second microphone signal and the third microphone signal; configuring a first filter (150, 250) with one or more first passbands (303, 304, 305) including an upper first passband, at one or more integer multiples of the first frequency value; and one or more first stop bands (306, 307) adjacent the one or more passbands; wherein the first filter has a second passband above the upper passband; filtering, using the first filter, one or more of: the first microphone signal, the second microphone signal and the beamformed signal. generating a beamformed signal based on the first microphone signal and the second microphone signal; estimating a first frequency value representing a fundamental frequency in one or more of: the first microphone signal, the second microphone signal and the third microphone signal; configuring a first filter (150, 250) with one or more first passbands (303, 304, 305) including an upper first passband, at one or more integer multiples of the first frequency value; and one or more first stop bands (306, 307) adjacent the one or more passbands; wherein the first filter has a second passband above the upper passband; filtering, using the first filter, one or more of: the first microphone signal, the second microphone signal and the beamformed signal.
A hybrid rocket engine (300, 350) comprising: a first pump (302, 362) powered by a first turbine (304, 364); a second pump (306, 366) powered by a second turbine (308, 368); a gas generator (310, 360) connected to the first pump and the second pump, wherein an output of the gas generator is connected to the first turbine and the second turbine to provide mechanical power to the first pump and the second pump; a third pump (312, 352) powered by a third turbine (314, 354); a fourth pump (316, 356) powered by a fourth turbine (318, 358); and a nozzle (322, 372) comprising an expander cycle and a combustion chamber (326, 376); wherein an output of the third pump is connected to the expander cycle, wherein an output of the fourth pump, an output of the third turbine, and an output of the fourth turbine are connected to the combustion chamber, and the expander cycle is in a wall (324, 374) of the nozzle, characterised in that an output of the expander cycle is connected to the third turbine and the fourth turbine to provide mechanical power to the third pump and the fourth pump. a first pump (302, 362) powered by a first turbine (304, 364); a second pump (306, 366) powered by a second turbine (308, 368); a gas generator (310, 360) connected to the first pump and the second pump, wherein an output of the gas generator is connected to the first turbine and the second turbine to provide mechanical power to the first pump and the second pump; a third pump (312, 352) powered by a third turbine (314, 354); a fourth pump (316, 356) powered by a fourth turbine (318, 358); and a nozzle (322, 372) comprising an expander cycle and a combustion chamber (326, 376); wherein an output of the third pump is connected to the expander cycle, wherein an output of the fourth pump, an output of the third turbine, and an output of the fourth turbine are connected to the combustion chamber, and the expander cycle is in a wall (324, 374) of the nozzle,
Electric machine comprising an at least partially electrically conductive housing located on a reference potential, a stator on which groove-like receptacles for stator windings are formed, wherein a closing element which closes the receptacles on the rotor side is respectively provided in the receptacles, and a rotor rotatably mounted inside the stator, wherein the same closing element has a planar, electrically conductive conductor region for shielding the stator windings from the rotor, wherein the conductor region is electrically conductively connected to the housing, wherein the conductor region is continued beyond at least one end face (12, 13) of the stator in the form of a conductor region extension (17, 18) and is arranged between the rotor and at least one winding head (14, 15) comprising a plurality of stator windings, characterised in that the conductor region extension (17, 18) is guided radially outwards to a housing section.
A compound of formula or a pharmaceutically acceptable salt, hydrate, or solvate thereof for use in the treatment or improvement of at least one disorder of sleep in a subject suffering from schizophrenia:
A composition comprising a combination of three S. pyogenes protein antigens, wherein the protein antigens are: Spy0167, wherein the Spy0167 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:107; Spy0269, wherein the Spy0269 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:50; and Spy0416, wherein the Spy0416 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:1. Spy0167, wherein the Spy0167 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:107; Spy0269, wherein the Spy0269 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:50; and Spy0416, wherein the Spy0416 protein antigen has an amino acid sequence that is at least 90% identical to SEQ ID NO:1.
An anti-migratory stent comprising: a tubular structure having a distal end, a proximal end, and an exterior surface; and a plurality of protrusions provided on the exterior surface and comprising a first set of protrusions adjacent the proximal end and a second set of protrusions adjacent the distal end, each of the first and second set of protrusions (214, 216) having a base and an apex, the apex of each of the first set of protrusions being offset from the base of the first set of protrusions in a direction opposite a direction of offset of the apex of each of the second set of protrusions from the base of the second set of protrusions, wherein the apex of the first set of protrusions faces the proximal end and the apex of the second set of protrusions faces the distal end. a tubular structure having a distal end, a proximal end, and an exterior surface; and a plurality of protrusions provided on the exterior surface and comprising a first set of protrusions adjacent the proximal end and a second set of protrusions adjacent the distal end, each of the first and second set of protrusions (214, 216) having a base and an apex, the apex of each of the first set of protrusions being offset from the base of the first set of protrusions in a direction opposite a direction of offset of the apex of each of the second set of protrusions from the base of the second set of protrusions, wherein the apex of the first set of protrusions faces the proximal end and the apex of the second set of protrusions faces the distal end.
A transfer coupling comprising a static component and a rotatable component arranged in co-axial alignment, the static component including a first number of ports and the rotatable component including a second number of ports, the ports arranged in a common circumferential plane, wherein the ports (41a, 42a) are configured and arranged, in use, to homogenise a flow area for a fluid being transferred through the ports (41a, 42a) and thereby create a homogenous volume flow, wherein each of the static and rotatable components is provided with ports which are elongate slots, characterized in that the slots on a first of the components are all arranged with their main arr axis inclined to the co-axis of the components at a first angle and the slots on the second of the components are all arranged with their main axis inclined to the co-axis of the components at a second angle, different from the first angle.