mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing and storing a Portland cement, wherein the method comprises: (i) providing at least: - a Portland clinker, - a source of calcium sulphate comprising gypsum in majority, - from 0.01 to 0.1% of an organic compound selected from adipic acid, stearic acid, 2,4,7,9-tetramethyl-5-decyne-4,7-diol, mixture of adipic, glutaric and succinic acids, salts thereof, and mixtures thereof, in % expressed by weight relative to the weight of the Portland cement, (ii) grinding the components of step (i) to produce a Portland cement; (iii) feeding a container with the Portland cement obtained after step (ii), wherein the Portland cement has a temperature above 70°C when feeding the container. (i) providing at least: - a Portland clinker, - a source of calcium sulphate comprising gypsum in majority, - from 0.01 to 0.1% of an organic compound selected from adipic acid, stearic acid, 2,4,7,9-tetramethyl-5-decyne-4,7-diol, mixture of adipic, glutaric and succinic acids, salts thereof, and mixtures thereof, in % expressed by weight relative to the weight of the Portland cement, - a Portland clinker, - a source of calcium sulphate comprising gypsum in majority, - from 0.01 to 0.1% of an organic compound selected from adipic acid, stearic acid, 2,4,7,9-tetramethyl-5-decyne-4,7-diol, mixture of adipic, glutaric and succinic acids, salts thereof, and mixtures thereof, in % expressed by weight relative to the weight of the Portland cement, (ii) grinding the components of step (i) to produce a Portland cement; (iii) feeding a container with the Portland cement obtained after step (ii), wherein the Portland cement has a temperature above 70°C when feeding the container.
An ion transfer tube assembly for delivering an ion stream comprising ions formed from a sample to an ion detection device , comprising: an ion transfer tube for delivering the ion stream ; a first conduit configured to receive an ion stream from an ion source, where the ion transfer tube is arranged and configured to receive the ion stream from said first conduit ; and a pump fluidly coupled to the ion transfer tube , where the pump is configured to cause a sheath gas to flow through the ion transfer tube so that the sheath gas flow encompasses the ion stream introduced from an outlet of the first conduit into the sheath gas flow and the ion stream is separated from the ion transfer tube walls by a coaxial sheath gas flow ; a second conduit arranged and configured to receive the ion stream from the ion transfer tube and configured to be coupled to an ion detection device , where an outlet of the first conduit and an inlet of the second conduit is disposed in the cross-sectional center of the ion transfer tube . an ion transfer tube for delivering the ion stream ; a first conduit configured to receive an ion stream from an ion source, where the ion transfer tube is arranged and configured to receive the ion stream from said first conduit ; and a pump fluidly coupled to the ion transfer tube , where the pump is configured to cause a sheath gas to flow through the ion transfer tube so that the sheath gas flow encompasses the ion stream introduced from an outlet of the first conduit into the sheath gas flow and the ion stream is separated from the ion transfer tube walls by a coaxial sheath gas flow ; a second conduit arranged and configured to receive the ion stream from the ion transfer tube and configured to be coupled to an ion detection device , where an outlet of the first conduit and an inlet of the second conduit is disposed in the cross-sectional center of the ion transfer tube .
A method comprising: collinearly converging a first laser beam and a second laser beam along a mutual path, a first focus point of the first laser beam and a second focus point of the second laser beam offset from one another along the mutual path; moving the collinearly converged first and second laser beams in a first pass across at least a portion of a transparent article to form a first series of flaws in the transparent article at a first depth (d1) from a surface of the transparent article corresponding to the first focus point and a second depth (d2) from the surface of the transparent article corresponding to the second focus point; adjusting at least one of the first focus point and the second focus point ; and moving the collinearly converged first and second laser beams in a second pass across the portion of the transparent article to form a second series of flaws in the transparent article at a third depth (d3) from the surface of the transparent article corresponding to the first focus point and a fourth depth (d4) from the surface of the transparent article corresponding to the second focus point, the first series of flaws interleaved with the second series of flaws. collinearly converging a first laser beam and a second laser beam along a mutual path, a first focus point of the first laser beam and a second focus point of the second laser beam offset from one another along the mutual path; moving the collinearly converged first and second laser beams in a first pass across at least a portion of a transparent article to form a first series of flaws in the transparent article at a first depth (d1) from a surface of the transparent article corresponding to the first focus point and a second depth (d2) from the surface of the transparent article corresponding to the second focus point; adjusting at least one of the first focus point and the second focus point ; and moving the collinearly converged first and second laser beams in a second pass across the portion of the transparent article to form a second series of flaws in the transparent article at a third depth (d3) from the surface of the transparent article corresponding to the first focus point and a fourth depth (d4) from the surface of the transparent article corresponding to the second focus point, the first series of flaws interleaved with the second series of flaws.
A refrigeration cycle device comprising: a refrigerant circuit in which at least a compressor , a heat exchanger , a decompressor , and an evaporator are circularly connected; and a controller , wherein the refrigeration cycle device has a defrosting operation mode for defrosting frost formation of the evaporator , wherein the heat exchanger includes: an inner pipe in which water flows; an insertion body inserted in the inner pipe ; and an outer pipe in which refrigerant flows, the outer pipe being provided at an outer periphery of the inner pipe , wherein the insertion body has a shaft portion and a spiral projection portion formed on an outer surface of the shaft portion , the water flows in a spiral flow path formed by an inner surface of the inner pipe , the shaft portion , and the spiral projection portion , and a winding direction of the outer pipe and a spiral direction of the spiral projection portion are same directions, characterized in that a flow of the water and a flow of the refrigerant are configured to be opposed flows, and wherein the insertion body is made of a resin. a refrigerant circuit in which at least a compressor , a heat exchanger , a decompressor , and an evaporator are circularly connected; and a controller , wherein the refrigeration cycle device has a defrosting operation mode for defrosting frost formation of the evaporator , wherein the heat exchanger includes: an inner pipe in which water flows; an insertion body inserted in the inner pipe ; and an outer pipe in which refrigerant flows, the outer pipe being provided at an outer periphery of the inner pipe , wherein the insertion body has a shaft portion and a spiral projection portion formed on an outer surface of the shaft portion , the water flows in a spiral flow path formed by an inner surface of the inner pipe , the shaft portion , and the spiral projection portion , and a winding direction of the outer pipe and a spiral direction of the spiral projection portion are same directions, characterized in that a flow of the water and a flow of the refrigerant are configured to be opposed flows, and wherein the insertion body is made of a resin. an inner pipe in which water flows; an insertion body inserted in the inner pipe ; and an outer pipe in which refrigerant flows, the outer pipe being provided at an outer periphery of the inner pipe , wherein the insertion body has a shaft portion and a spiral projection portion formed on an outer surface of the shaft portion , the water flows in a spiral flow path formed by an inner surface of the inner pipe , the shaft portion , and the spiral projection portion , and a winding direction of the outer pipe and a spiral direction of the spiral projection portion are same directions, characterized in that a flow of the water and a flow of the refrigerant are configured to be opposed flows, and wherein the insertion body is made of a resin.
A communication device for handling transmission/reception for a serving cell, the communication device comprising a storage unit , for storing instructions of: receiving an indication indicating at least one physical resource block group, PRB group, of a plurality of PRB groups of the serving cell from a network , wherein at least one location and at least one bandwidth of the at least one PRB group are configured by a higher layer signaling transmitted by the network, and the at least one PRB group comprises at least one subframe, at least one time slot or at least one time interval; and performing a communication operation in the at least one PRB group with the network, after receiving the indication ; wherein each of the plurality of PRB groups comprise at least one physical uplink, UL, control channel, PUCCH, resource; wherein each of the at least one PUCCH resource comprises a starting symbol and a duration of a PUCCH, and the duration of the PUCCH is a short duration; wherein the communication operation comprises transmitting a UCI and a demodulation reference signal, DMRS, with a PUCCH format in a PUCCH in one of the at least one PRB group, the one of the at least one PRB group is used for transmitting the PUCCH and a physical UL shared channel, PUSCH, the PUCCH and the PUSCH are transmitted according to a time-division multiplexing, TDM, scheme, and the UCI and UCIs of other communication devices are multiplexed in the at least one PUCCH resource according to a code-division multiplexing, CDM, scheme; and a processing circuit , coupled to the storage unit, configured to execute the instructions stored in the storage unit. receiving an indication indicating at least one physical resource block group, PRB group, of a plurality of PRB groups of the serving cell from a network , wherein at least one location and at least one bandwidth of the at least one PRB group are configured by a higher layer signaling transmitted by the network, and the at least one PRB group comprises at least one subframe, at least one time slot or at least one time interval; and performing a communication operation in the at least one PRB group with the network, after receiving the indication ; wherein each of the plurality of PRB groups comprise at least one physical uplink, UL, control channel, PUCCH, resource; wherein each of the at least one PUCCH resource comprises a starting symbol and a duration of a PUCCH, and the duration of the PUCCH is a short duration; wherein the communication operation comprises transmitting a UCI and a demodulation reference signal, DMRS, with a PUCCH format in a PUCCH in one of the at least one PRB group, the one of the at least one PRB group is used for transmitting the PUCCH and a physical UL shared channel, PUSCH, the PUCCH and the PUSCH are transmitted according to a time-division multiplexing, TDM, scheme, and the UCI and UCIs of other communication devices are multiplexed in the at least one PUCCH resource according to a code-division multiplexing, CDM, scheme; and a processing circuit , coupled to the storage unit, configured to execute the instructions stored in the storage unit.
A method of replacing a wind turbine blade comprising: suspending the wind turbine blade from a support hub of a wind turbine ; securing a first end of one or more cables to corresponding ones of one or more bracket members connected to the support hub , and allowing a second end of the one or more cables to fall under force of gravity; connecting one or more cable climbing members between the support hub and the wind turbine blade; wherein connecting the one or more cable climbing members includes coupling the one or more cable climbing members at the second end of corresponding ones of the one or more cables, and climbing the one or more cable climbing members up the corresponding one or more cables to the support hub; and lowering the one or more cable climbing members and the wind turbine blade from the support hub . suspending the wind turbine blade from a support hub of a wind turbine ; securing a first end of one or more cables to corresponding ones of one or more bracket members connected to the support hub , and allowing a second end of the one or more cables to fall under force of gravity; connecting one or more cable climbing members between the support hub and the wind turbine blade; wherein connecting the one or more cable climbing members includes coupling the one or more cable climbing members at the second end of corresponding ones of the one or more cables, and climbing the one or more cable climbing members up the corresponding one or more cables to the support hub; and lowering the one or more cable climbing members and the wind turbine blade from the support hub .
A pharmaceutical composition for use in preventing or treating pancreatitis, the pharmaceutical composition comprising monoclonal stem cells obtained by steps of: 1) culturing bone marrow isolated from a subject in a first vessel; 2) transferring only a supernatant from the first vessel to a new vessel and culturing the supernatant; 3) culturing cells present in the new vessel and obtaining a supernatant; 4) obtaining the monoclonal stem cells by repeating steps 2) and 3) at least once using the supernatant of step 3) as the supernatant of the first vessel of step 2) ; 5) inoculating the monoclonal stem cells of step 4) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passage 1; and 6) inoculating the subcultured monoclonal stem cells of step 5) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passages 2 to 8, wherein the culture medium in the step 5) and 6) further includes an antioxidant. 1) culturing bone marrow isolated from a subject in a first vessel; 2) transferring only a supernatant from the first vessel to a new vessel and culturing the supernatant; 3) culturing cells present in the new vessel and obtaining a supernatant; 4) obtaining the monoclonal stem cells by repeating steps 2) and 3) at least once using the supernatant of step 3) as the supernatant of the first vessel of step 2) ; 5) inoculating the monoclonal stem cells of step 4) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passage 1; and 6) inoculating the subcultured monoclonal stem cells of step 5) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passages 2 to 8,
A bipolymer having General Formula (I): in which: R 1 is chosen from divalent C 5 -C 7 aliphatic groups and divalent C 5 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combinations thereof, where: the divalent C 5 -C 7 heteroaliphatic groups comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 is two; x is a molar fraction range chosen from 0.15 to 0.85; and y is a molar fraction range chosen from 0.15 to 0.85, where the summation of x and y equals 1. R 1 is chosen from divalent C 5 -C 7 aliphatic groups and divalent C 5 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combinations thereof, where: the divalent C 5 -C 7 heteroaliphatic groups comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 is two; the divalent C 5 -C 7 heteroaliphatic groups comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 is two; x is a molar fraction range chosen from 0.15 to 0.85; and y is a molar fraction range chosen from 0.15 to 0.85, where the summation of x and y equals 1.
Light guide element for a lamp unit or a motor vehicle headlamp, the light guide element comprising at least one light input region for coupling in light including at least one light source and the light guide element further comprising at least one light output region for coupling out the light, wherein a beam region is arranged between the light input region and the light output region , at which a portion of the light guide element coming from the light input region is divided into at least one first light guide portion and at least one second light guide portion , which portions extend in directions away from one another, wherein in the region spanned by the light guide portions a light guiding connecting element is provided, which connecting element , at its side facing away from the light guide portions , transitions into the light output region , characterised in that in the connecting element light guide rods and/or light guide grooves are provided, originating at the light guide portions and merging into the light output region , and in that the light guide portions comprise optical structuring elements on their side facing away from the light output region and configured to divert the light irradiated into it to the connecting element.
Shaped composite material comprising an inner layer (3; 103) of CCM C/SiC/Si material comprising disorderly filaments, essentially consisting of carbon, and respective outer layers (2, 2'; 102, 102') of C/SiC/Si material having a orderly fabric structure, wherein the inner layer (3; 103) has a composition, expressed as percentages by weight, that varies within the ranges given below: said disorderly filaments essentially consisting of carbon having a length of less than 30 mm 30-65% silicon 5-25% SiC 25-55%, and wherein the outer layers (2, 2'; 102, 102') of composite material C/SiC/Si with orderly fabric structure have a composition by weight that varies within the ranges given below: carbon fibres 5-40% carbon binder 5-40% silicon 15-60% SiC 20-60%.
An auto piecing unit for piecing broken yarns on a cop of a ring spinning machine, the auto piecing unit comprising: a motor ; a gripping arrangement connected on a mounting means for holding said cop , the gripping arrangement being moveable downwards, for gripping and lifting the cop upwards, after lifting the cop , the cop is rotatable in a direction opposite to a normal winding direction by the motor ; a scribing arrangement connected to a drive element for performing at least one of linear movement and/or sideways movement during said reverse rotation of the cop , thereby scribing the cop , for loosening and/or disentangling a broken yarn wound over the cop ; a suction arrangement to suck the broken yarn for a piecing operation when positioned over the cop ; whereby the auto piecing unit is characterized by comprising an indexing arrangement for rotating the gripping arrangement to 180 degrees so that the suction arrangement connected to the other end of the mounting means positions above the cop having the broken yarn. a motor ; a gripping arrangement connected on a mounting means for holding said cop , the gripping arrangement being moveable downwards, for gripping and lifting the cop upwards, after lifting the cop , the cop is rotatable in a direction opposite to a normal winding direction by the motor ; a scribing arrangement connected to a drive element for performing at least one of linear movement and/or sideways movement during said reverse rotation of the cop , thereby scribing the cop , for loosening and/or disentangling a broken yarn wound over the cop ; a suction arrangement to suck the broken yarn for a piecing operation when positioned over the cop ; whereby the auto piecing unit is characterized by comprising an indexing arrangement for rotating the gripping arrangement to 180 degrees so that the suction arrangement connected to the other end of the mounting means positions above the cop having the broken yarn.
Internal combustion engine valve train changeover device with a changeover unit , characterised in that the changeover unit has an implementation unit comprising: - two switching units designed as axially displaceable parts of a camshaft with cams having at least partially different contours, and - two switching means , wherein: ∘ the switching units form a first control gate and a second control gate ; ∘ a first of the switching means is radially retractable into the first control gate , whereby the switching units can be displaced in a first direction consecutively, axially and relative to the switching means ; and ∘ the second switching means is radially retractable into the second control gate , whereby the switching units can be displaced in a second direction opposed to the first direction consecutively, axially and relative to the switching means . - two switching units designed as axially displaceable parts of a camshaft with cams having at least partially different contours, and - two switching means , wherein: ∘ the switching units form a first control gate and a second control gate ; ∘ a first of the switching means is radially retractable into the first control gate , whereby the switching units can be displaced in a first direction consecutively, axially and relative to the switching means ; and ∘ the second switching means is radially retractable into the second control gate , whereby the switching units can be displaced in a second direction opposed to the first direction consecutively, axially and relative to the switching means . ∘ the switching units form a first control gate and a second control gate ; ∘ a first of the switching means is radially retractable into the first control gate , whereby the switching units can be displaced in a first direction consecutively, axially and relative to the switching means ; and ∘ the second switching means is radially retractable into the second control gate , whereby the switching units can be displaced in a second direction opposed to the first direction consecutively, axially and relative to the switching means .
Starter for an internal combustion engine, having a starter pinion which is mounted so as to be displaceable relative to a drive shaft of the starter and is connected to a pinion shaft , wherein the starter pinion being coupled in a rotationally fixed manner to the pinion shaft but being axially adjustable relative to the pinion shaft , comprising a spring element for exerting an axial spring force between the starter pinion and the pinion shaft and comprising a coupling device between the starter pinion and the pinion shaft , wherein the starter pinion and the pinion shaft are insertable one into the other via their axially facing end faces and wherein the coupling device and the spring element are arranged radially outside of the interior space of the pinion shaft which accommodates a drive shaft, or respectively of the starter pinion , wherein the pinion shaft has a roller collar , which is axially connected to the end face of the starter pinion , and wherein there is a gap between the roller collar and the facing end face of the starter pinion , which forms an axial clearance between the starter pinion and pinion shaft , characterized in that the spring element is designed as a wave spring , wherein the pinion shaft engages over the starter pinion .