mhurhangee/patent-ind-claim-en huggingface dataset:
An electrolyte solution for a lithium-sulfur battery comprising a lithium salt and an organic solvent, wherein the organic solvent comprises a first solvent, a second solvent, and a third solvent, the first solvent comprises a compound represented by Formula 1 or Formula 2 containing a cyano group (-CN); , the second solvent comprises a fluorinated ether-based solvent, and the third solvent comprises an ether-based non-solvent represented by Formula 3 below: [Formula 1] R 1 -CN [Formula 2] NC-R 2 -CN wherein in Formula 1, R 1 is a C1 to C10 alkyl group, and in Formula 2, R 2 is a C1 to C10 alkylene group, [Formula 3] R 3 -O-R 4 wherein in Formula 3, R 3 and R 4 are the same as or different from each other, and are each independently a methyl group, ethyl group, n-propyl group, iso-propyl group, n-butyl group, iso-butyl group, sec-butyl group or tert-butyl group.
A mesh-type moisture-release cushion cosmetic product, comprising: a cosmetic container comprising a container body for receiving a cosmetic composition, and a mesh net mounted at an upper part of the container body; and a cosmetic composition loaded into the cosmetic container, wherein the cosmetic composition is a water-in-oil moisture release cosmetic composition comprising: an oil phase part including wax, oil, and a mixture-emulsifier comprising a combination of a main emulsifier and an auxiliary emulsifier, the main emulsifier including cetyl PEG/PPG-10/1 dimethicone and dimethicone/PEG-10/15 Crosspolymer, the auxiliary emulsifier being at least one selected from the group consisting of lauryl PEG-9 polydimethylsiloxyethyl dimethicone, lauryl PEG-10 tris(trimethylsiloxy)silylethyl dimethicone, and sorbitan sesquioleate; an aqueous phase part including water; and a powder part including hollow-structured gloss pigments, wherein the cosmetic composition is a low-hydrous, water-in-oil moisture release cosmetic composition containing the aqueous phase part at a content of 25-45 % by weight, and wherein the mesh net has a pore size of 0.5-1.5 mm. wherein the cosmetic composition is a low-hydrous, water-in-oil moisture release cosmetic composition containing the aqueous phase part at a content of 25-45 % by weight, and wherein the mesh net has a pore size of 0.5-1.5 mm.
A method of amplifying a signal for a target protein biomarker in a sample, said method comprising: a. applying to the sample a first biomarker-specific binding agent specific for the target protein biomarker; b. applying to the sample a second binding agent specific for the first biomarker-specific binding agent, the second binding agent is conjugated with a secondary enzyme; c. applying to the sample a tyramide agent comprising a tyramide molecule conjugated with a hapten, wherein the secondary enzyme catalyzes deposition of the hapten onto the sample at a location of the second binding agent; d. applying to the sample a third binding agent specific for the hapten, the third binding agent is conjugated with a tertiary enzyme; and e. applying to the sample a detectable moiety, wherein the tertiary enzyme catalyzes a reaction with the detectable moiety to make the detectable moiety visible; whereby the detectable moiety is visible as a punctate dot using brightfield microscopy, wherein the punctate dot is indicative of the target protein biomarker; and wherein the detectable moiety comprises a tyramide-rhodamine dye. a. applying to the sample a first biomarker-specific binding agent specific for the target protein biomarker; b. applying to the sample a second binding agent specific for the first biomarker-specific binding agent, the second binding agent is conjugated with a secondary enzyme; c. applying to the sample a tyramide agent comprising a tyramide molecule conjugated with a hapten, wherein the secondary enzyme catalyzes deposition of the hapten onto the sample at a location of the second binding agent; d. applying to the sample a third binding agent specific for the hapten, the third binding agent is conjugated with a tertiary enzyme; and e. applying to the sample a detectable moiety, wherein the tertiary enzyme catalyzes a reaction with the detectable moiety to make the detectable moiety visible;
Heat management method of a - high-temperature steam electrolysis [SOEC] (Fig. 1), - solid oxide fuel cell [SOFC] (Fig. 2) having high-temperature steam electrolysis [SOEC] (Fig. 1) and/or - reversible high-temperature fuel cell having SOEC and SOFC modes [rSOC] (Fig. 1/2), wherein required steam is supplied from at least one external source and at least one exhaust gas stream downstream of the cell [SOEC, SOFC, rSOC] is cooled at least once, wherein required steam is generated internally by the internal recuperative heating of externally supplied water , wherein the energy from the at least one cooling of the at least one exhaust gas stream to be cooled is used for this purpose, and in the process the external steam supply is reduced or switched off, characterised in that heat sources at temperatures of less than 100°C are used for the internal steam production , wherein either a) - water is evaporated at low pressures of less than 1 bar, wherein - the pressure of the produced steam is subsequently increased to the operating pressure of the electrolysis or - electrolysis is carried out at low pressures , wherein the electrolysis products formed, at least hydrogen , are conveyed to a pressure increase prior to further processing; or b) by means of a heat pumping process , the temperature level of the heat sources is raised to a level that is useful for the steam generation for the electrolysis; or c) an internal recirculation of the products downstream of the cell , in particular the hydrogen , is used as a carrier gas for steam production. - high-temperature steam electrolysis [SOEC] (Fig. 1), - solid oxide fuel cell [SOFC] (Fig. 2) having high-temperature steam electrolysis [SOEC] (Fig. 1) and/or - reversible high-temperature fuel cell having SOEC and SOFC modes [rSOC] (Fig. 1/2), wherein required steam is supplied from at least one external source and at least one exhaust gas stream downstream of the cell [SOEC, SOFC, rSOC] is cooled at least once, a) - water is evaporated at low pressures of less than 1 bar, wherein - the pressure of the produced steam is subsequently increased to the operating pressure of the electrolysis or - electrolysis is carried out at low pressures , wherein the electrolysis products formed, at least hydrogen , are conveyed to a pressure increase prior to further processing; or - water is evaporated at low pressures of less than 1 bar, wherein - the pressure of the produced steam is subsequently increased to the operating pressure of the electrolysis or - electrolysis is carried out at low pressures , wherein the electrolysis products formed, at least hydrogen , are conveyed to a pressure increase prior to further processing; b) by means of a heat pumping process , the temperature level of the heat sources is raised to a level that is useful for the steam generation for the electrolysis; or c) an internal recirculation of the products downstream of the cell , in particular the hydrogen , is used as a carrier gas for steam production.
A releasable mooring chain link to be suspended on a wire sling , said releasable mooring chain link having a generally ring-shaped configuration with one side of the link capable of being opened or closed by a bolt , and a web extending transverse within said ringshape to connect opposite sides of said link , wherein said mooring chain link comprises a bow having two opposing U-shaped parts and a straight connecting part interconnecting a respective leg of the U-parts , said web extends obliquely relative to a transverse axis of said link , characterized in that in use when a mooring chain is attached to the releasable link in a position between the U-shaped part of the releasable link and the web this oblique orientation of the web acts to displace the wire sling into the corner between the web part and the straight connection part when a pull is exerted on the sling such that when a lifting force from the sling is applied to said web , the link will tip towards the side of the link having the bolt . said mooring chain link comprises a bow having two opposing U-shaped parts and a straight connecting part interconnecting a respective leg of the U-parts , said web extends obliquely relative to a transverse axis of said link , characterized in that in use when a mooring chain is attached to the releasable link in a position between the U-shaped part of the releasable link and the web this oblique orientation of the web acts to displace the wire sling into the corner between the web part and the straight connection part when a pull is exerted on the sling such that when a lifting force from the sling is applied to said web , the link will tip towards the side of the link having the bolt .
An information transmission method implemented in a vehicle to transmit information to a driver of the vehicle, the vehicle being equipped with a display device disposed to be viewable by the driver assuming a driving posture, the method comprising: determining a type of the information to be transmitted to the driver when the driver is driving the vehicle; outputting the information in the form of sound; and operating the display device to display an illumination pattern as a function of the determined type, wherein the type is selected from a plurality of information types including a response status associated with information generated in communication with the driver, and wherein the illumination pattern displayed by the display device is varied based on whether the determined type is the response status, characterized in that the response status includes a standby status where a question from the driver is waited for, an analyzing status intermediate between receiving the question from the driver and giving an answer to the question, and an answering status where the answer to the question is being given, and when the determined type is the response status, the illumination pattern displayed by the display device is varied based on whether the response status is the standby status, the analyzing status, or the answering status. determining a type of the information to be transmitted to the driver when the driver is driving the vehicle; outputting the information in the form of sound; and operating the display device to display an illumination pattern as a function of the determined type, wherein the type is selected from a plurality of information types including a response status associated with information generated in communication with the driver, and wherein the illumination pattern displayed by the display device is varied based on whether the determined type is the response status, characterized in that the response status includes a standby status where a question from the driver is waited for, an analyzing status intermediate between receiving the question from the driver and giving an answer to the question, and an answering status where the answer to the question is being given, and when the determined type is the response status, the illumination pattern displayed by the display device is varied based on whether the response status is the standby status, the analyzing status, or the answering status.
A board structure for a football game comprising: a football game board formed with a plurality of card coupling holes at regular intervals at one side; a plurality of club name cards detachably coupled to some among the plurality of card coupling holes ; and a plurality of player photo cards detachably coupled to all but some of the plurality of card coupling holes according to positions of best players for each club, wherein: the football game board comprises, a first hardboard portion having the plurality of card coupling holes formed thereon, a rubber-magnet plate portion being disposed and adhered planarly corresponding to a bottom surface of the first hardboard portion and having a plurality of first separation holes formed respectively corresponding to the plurality of card coupling holes ; and a second hardboard portion being disposed and adhered planarly corresponding to a bottom surface of the rubber-magnet plate portion and having a plurality of second separation holes formed respectively corresponding to the plurality of first separation holes . a football game board formed with a plurality of card coupling holes at regular intervals at one side; a plurality of club name cards detachably coupled to some among the plurality of card coupling holes ; and a plurality of player photo cards detachably coupled to all but some of the plurality of card coupling holes according to positions of best players for each club, wherein: the football game board comprises, a first hardboard portion having the plurality of card coupling holes formed thereon, a rubber-magnet plate portion being disposed and adhered planarly corresponding to a bottom surface of the first hardboard portion and having a plurality of first separation holes formed respectively corresponding to the plurality of card coupling holes ; and a second hardboard portion being disposed and adhered planarly corresponding to a bottom surface of the rubber-magnet plate portion and having a plurality of second separation holes formed respectively corresponding to the plurality of first separation holes . the football game board comprises, a first hardboard portion having the plurality of card coupling holes formed thereon, a rubber-magnet plate portion being disposed and adhered planarly corresponding to a bottom surface of the first hardboard portion and having a plurality of first separation holes formed respectively corresponding to the plurality of card coupling holes ; and a second hardboard portion being disposed and adhered planarly corresponding to a bottom surface of the rubber-magnet plate portion and having a plurality of second separation holes formed respectively corresponding to the plurality of first separation holes .
Use of a panicein compound, to decrease or inhibit, in vitro or ex vivo, the Patched receptor drug efflux activity, wherein the panicein compound is a compound of formula (I) wherein: - R 1 is H, C 1- C 6 alkyl, C 1- C 6 aminoalkyl, C 1 -C 6 hydroxyalkyl, C 1 -C 6 halogenoalkyl or -OR 4 , - R 2 is H or C 1- C 6 alkyl, - R 3 is C 1 -C 6 alkyl, -CH 2 OR 4 , -C(=O)R 4 , -C(=O)OR 4 , -C(=O)NHR 4 , or -CH 2 NHR 4 , - each R 4 is independently -H, or C 1 -C 6 alkyl, - R is selected from the group consisting of: wherein : - bonds and are independently of each other a single bound or a double bond, and bonds and are not simultaneously double bonds, - R 5 is present when bond is a single bond, and when present R 5 represents -H, or -OR 6 , and - When present, each R 6 is independently H or a C 1 -C 6 alkyl or a pharmaceutically acceptable salt thereof. - R 1 is H, C 1- C 6 alkyl, C 1- C 6 aminoalkyl, C 1 -C 6 hydroxyalkyl, C 1 -C 6 halogenoalkyl or -OR 4 , - R 2 is H or C 1- C 6 alkyl, - R 3 is C 1 -C 6 alkyl, -CH 2 OR 4 , -C(=O)R 4 , -C(=O)OR 4 , -C(=O)NHR 4 , or -CH 2 NHR 4 , - each R 4 is independently -H, or C 1 -C 6 alkyl, - R is selected from the group consisting of: wherein : - bonds and are independently of each other a single bound or a double bond, and bonds and are not simultaneously double bonds, - R 5 is present when bond is a single bond, and when present R 5 represents -H, or -OR 6 , and - When present, each R 6 is independently H or a C 1 -C 6 alkyl or a pharmaceutically acceptable salt thereof. - bonds and are independently of each other a single bound or a double bond, and bonds and are not simultaneously double bonds, - R 5 is present when bond is a single bond, and when present R 5 represents -H, or -OR 6 , and - When present, each R 6 is independently H or a C 1 -C 6 alkyl
Method for determining a rotational variable, in particular a rotational angle position (θ, θ 1 ) of a shaft , in particular a crankshaft of an internal combustion engine , which is coupled directly or with transmission to an electric machine comprising a rotor and a stator having at least two phase windings (U, V, W) from which at least one phase signal (U U , Uv, Uw, I U , Iv, Iw) is derived in each case, wherein the phase signals (U U , U V , U W , I U , I V , I W ) each have rising edges (Fl Uu , Fl Vu , FL Wu ), falling edges (Fl Ud , Fl Vd , Flwd) and zero crossings (Fl U0 , Fl V0 , Fl W0 ), wherein a sum signal (U sum ) comprising a plurality of phase signals (Uu, Uv, Uw, I U , Iv, I W ) from the electric machine is generated in such a manner that a characteristic pulse (P f1 , P f2 , P f3 , P r1 , P r2 , P r3 ) in the sum signal (U sum ) is respectively assigned to the rising edges (Fl Uu , Fl Vu , FL Wu ), falling edges (Fl Ud , Fl Vd , Fl Wd ) and zero crossings (Fl U0 , Fl V0 , Fl W0 ), wherein the pulses (P f1 , P f2 , P f3 , P r1 , P r2 , P r3 ) are used to determine the rotational speed (n), the rotational angle position (θ, θ 1 ) or the direction of rotation (α + , α - ) of the rotor , characterized in that the pulses assigned to a first edge type having rising edges (Fl Uu , Fl Vu , FL Wu ) or falling edges (Fl Ud , Fl Vd , Fl Wd ) have a constant first pulse width (T Pf1 , T Pf2 , T Pf3 ) and the pulses assigned to an accordingly different edge type constant but mutually different further pulse widths (T Pr1 , T Pr2 , T Pr3 ).
A remote apparatus in a base station, wherein the base station comprises a centralized control apparatus , and the centralized control apparatus is connected to the remote apparatus and is configured to process data of user equipment, UE, that accesses the base station; the data of the UE is processed and is sent to the remote apparatus by the centralized control apparatus , to be sent to the UE by using the remote apparatus ; or the data of the UE is received by the remote apparatus from the UE, and is sent to the centralized control apparatus for processing; and the remote apparatus comprises a radio frequency apparatus and a baseband apparatus , wherein the baseband apparatus is configured to: perform partial or total physical layer protocol processing on the data of the UE and to respond to a random access preamble received from the UE; wherein the remote apparatus is characterized in that it is configured to first receive a second random access preamble sent by the UE, to send the second random access preamble to the centralized control apparatus , to receive a second RAR message sent by the centralized control apparatus , to buffer the second RAR message, and, after receiving a first random access preamble sent by the UE, to generate a first RAR message based on the buffered second RAR message and the first random access preamble, and to send the first RAR message to the UE. perform partial or total physical layer protocol processing on the data of the UE and to respond to a random access preamble received from the UE; wherein the remote apparatus is characterized in that it is configured to first receive a second random access preamble sent by the UE, to send the second random access preamble to the centralized control apparatus , to receive a second RAR message sent by the centralized control apparatus , to buffer the second RAR message, and, after receiving a first random access preamble sent by the UE, to generate a first RAR message based on the buffered second RAR message and the first random access preamble, and to send the first RAR message to the UE.
A trucking vehicle having a transport refrigeration unit and a fluid circuit comprising: a first fuel tank ; a second fuel tank ; a first engine ; a second engine ; a cooling system associated with the first engine , the trucking vehicle being characterised by further comprising: a first regulator assembly defining a first fuel inlet connected to the first fuel tank to receive fuel from the first fuel tank and a first fuel outlet connected to the first engine to provide fuel to the first engine , the first regulator assembly having a first heat exchanger assembly defining a first coolant inlet connected to the cooling system to receive coolant from the cooling system and a first coolant outlet connected to the cooling system to provide coolant to the cooling system ; and a second regulator assembly defining a second fuel inlet connected to the second fuel tank to receive fuel from the second fuel tank and a second fuel outlet connected to the second engine to provide fuel to the second engine associated with a transport refrigeration unit; wherein the second regulator assembly has a second heat exchanger assembly defining a second coolant inlet connected to the cooling system to receive coolant from the cooling system and a second coolant outlet connected to the cooling system to provide coolant to the cooling system . a first fuel tank ; a second fuel tank ; a first engine ; a second engine ; a cooling system associated with the first engine , the trucking vehicle being characterised by further comprising: a first regulator assembly defining a first fuel inlet connected to the first fuel tank to receive fuel from the first fuel tank and a first fuel outlet connected to the first engine to provide fuel to the first engine , the first regulator assembly having a first heat exchanger assembly defining a first coolant inlet connected to the cooling system to receive coolant from the cooling system and a first coolant outlet connected to the cooling system to provide coolant to the cooling system ; and a second regulator assembly defining a second fuel inlet connected to the second fuel tank to receive fuel from the second fuel tank and a second fuel outlet connected to the second engine to provide fuel to the second engine associated with a transport refrigeration unit; wherein the second regulator assembly has a second heat exchanger assembly defining a second coolant inlet connected to the cooling system to receive coolant from the cooling system and a second coolant outlet connected to the cooling system to provide coolant to the cooling system .