mhurhangee/ep-ind-claims huggingface dataset:
Method for transferring sample tubes between a laboratory automation system and a sample archiving system, wherein - for transferring a sample tube from the laboratory automation system to the sample archiving system, a sample tube carrier carrying at least one sample tube is conveyed to a first take-over module via a first conveyor line, at the first take-over module the at least one sample tube is removed from the sample tube carrier and the at least one sample tube is transferred to the sample archiving system, and the empty sample tube carrier is conveyed away from the first take-over module via a second conveyor line, characterized in that - for transferring a sample tube from the sample archiving system to the laboratory automation system, an empty sample tube carrier is conveyed to a second take-over module via a third conveyor line, at the second take-over module at least one sample tube taken from the sample archiving system is inserted into the sample tube carrier, and the sample tube carrier carrying the at least one sample tube is conveyed away from the second take-over module via a fourth conveyor line, wherein the conveyor lines (41, 42, 51, 52) are operable independently, and further characterized in that in case of an irregularity of the sample archiving system, sample tube carriers carrying at least one sample tube are transferred from the first conveyor line to the fourth conveyor line. - for transferring a sample tube from the laboratory automation system to the sample archiving system, a sample tube carrier carrying at least one sample tube is conveyed to a first take-over module via a first conveyor line, at the first take-over module the at least one sample tube is removed from the sample tube carrier and the at least one sample tube is transferred to the sample archiving system, and the empty sample tube carrier is conveyed away from the first take-over module via a second conveyor line, characterized in that - for transferring a sample tube from the sample archiving system to the laboratory automation system, an empty sample tube carrier is conveyed to a second take-over module via a third conveyor line, at the second take-over module at least one sample tube taken from the sample archiving system is inserted into the sample tube carrier, and the sample tube carrier carrying the at least one sample tube is conveyed away from the second take-over module via a fourth conveyor line,
A rubber compounding ingredient comprising an organosilicon compound having formula and having a number-average molecular weight of not more than 40,000 wherein each R 1 is independently an alkyl group of 1 to 10 carbon atoms or an aryl group of 6 to 10 carbon atoms, each R 2 is independently an alkyl group of 1 to 10 carbon atoms or an aryl group of 6 to 10 carbon atoms, f is a number of 0 or more, e, g and h are each independently a number larger than 0, and m is an integer from 1 to 3, with the proviso that individual recurring units are arranged in any order, and a sulfide group-containing organosilicon compound.
The cosmetic use of an oily extract of immortelle distillation residue of the Helichrysum italicum species, applied topically to the skin, as an agent for bleaching the skin and/or lightening the complexion and/or for homogenizing skin color and/or reducing or preventing the appearance of pigment spots.
A pneumatic tire 1 comprising a carcass having at least one carcass ply that extends from a tread portion through sidewall portions to bead portions, wherein the carcass ply has strip-shaped sheet-like ply pieces arranged in a tire circumferential direction, and each strip-shaped sheet-like ply piece has a radial length greater than a circumferential length in the tire circumferential direction, each ply piece has a plurality of carcass cords arranged along a longitudinal direction, the ply piece at least partially overlaps a ply piece that is adjacent thereto in the tire circumferential direction, and an intermediate elongation rate (Ee) of the carcass cords arranged in at least one of side edge portions, in a circumferential direction, of the ply piece is greater than an intermediate elongation rate (Ec) of the carcass cords arranged in a center portion of the ply piece, characterized in that the intermediate elongation rate (Ee) of the carcass cords arranged in the side edge portions is increased continuously from the center portion toward side edges in the ply piece.
Waffle iron comprising a baking mould, a heating element, a pressure body with tensioning means configured to clamp the heating element against the baking mould, and a housing part in which the pressure body and the heating element are received, wherein the baking mould has an outer surface which is accessible by a user and an inner surface adjacent to the heating element, characterized in that the tensioning means are accessible at the outer surface of the baking mould and extend from the baking mould at least up to the pressure body and at most up to an inner wall of the housing part facing toward the pressure body.
A method for NO 2 based regeneration of a particle filter pertaining to a combustion process, which filter is arranged to treat exhaust gases arising from combustion in a combustion engine, characterised in that the method comprises: - during said NO 2 based regeneration, controlling said engine according to a first mode and a second mode, in which first mode the engine is controlled in such a way that a high exhaust temperature is generated, and in said second mode the engine is controlled in such a way that a substantially larger amount of nitrogen oxides is delivered than in said first mode, which method further comprises: - determining a temperature for said particle filter, and - controlling said engine according to said first mode when said temperature determined is below a first value, whereby said engine is controlled according to said first mode until said temperature determined reaches a second value which is higher than said first value, whereupon control of said engine changes to said second mode. - during said NO 2 based regeneration, controlling said engine according to a first mode and a second mode, in which first mode the engine is controlled in such a way that a high exhaust temperature is generated, and in said second mode the engine is controlled in such a way that a substantially larger amount of nitrogen oxides is delivered than in said first mode, - determining a temperature for said particle filter, and - controlling said engine according to said first mode when said temperature determined is below a first value, whereby said engine is controlled according to said first mode until said temperature determined reaches a second value which is higher than said first value, whereupon control of said engine changes to said second mode.
A display screen component, wherein the display screen component comprising: a module rear shell; a display light board, the display light board being provided on the module rear shell; and a display light board separating structure, the display light board separating structure being disposed between the module rear shell and the display light board, the display light board separating structure comprising a ferromagnetic body, so that the display light board separating structure separates the display light board from the module rear shell under the action of an external magnetic force, characterized in that the display light board separating structure further comprises a rotating rod, the rotating rod is provided on the module rear shell, and the ferromagnetic body is provided on the rotating rod, so that the ferromagnetic body drives the rotating rod to rotate under the action of the external magnetic force and applies, on the display light board, a force away from the module rear shell. a module rear shell; a display light board, the display light board being provided on the module rear shell; and a display light board separating structure, the display light board separating structure being disposed between the module rear shell and the display light board, the display light board separating structure comprising a ferromagnetic body, so that the display light board separating structure separates the display light board from the module rear shell under the action of an external magnetic force, characterized in that the display light board separating structure further comprises a rotating rod, the rotating rod is provided on the module rear shell, and the ferromagnetic body is provided on the rotating rod, so that the ferromagnetic body drives the rotating rod to rotate under the action of the external magnetic force and applies, on the display light board, a force away from the module rear shell.
An agricultural vehicle comprising an operator environment having a roof portion, and an air treatment apparatus installed within the roof portion, wherein the air treatment apparatus comprises: a vehicle HVAC system having an inlet plenum, other HVAC components (50, 52) and an outlet to the operator environment; and an air filtration system having at least one external inlet and first and second filtration devices located in an air flow path between the at least one external inlet and the HVAC inlet plenum; wherein the roof portion is a hollow structure having upper and lower surfaces and front, rear, left and right sidewalls; the vehicle characterised by; the first and second filtration devices both being disposed along a same one of the left and right sidewalls and the HVAC system being disposed along the rear sidewall within the hollow structure of the roof portion; the air filtration system comprising a valve mechanism operative to selectively connect either the first filtration device to the HVAC inlet plenum or the second filtration device to the HVAC inlet plenum; the air treatment apparatus comprising a first blower connecting the filtration devices (34, 40) and the HVAC system inlet plenum, the first blower being connected to each of the filtration devices by a respective duct and a second blower configured to produce a higher throughput of air than the first blower, the inlet of the second blower being connected in series with the outlet of the first blower, the second blower being disposed adjacent one of the first and second filtration devices (34, 40). a vehicle HVAC system having an inlet plenum, other HVAC components (50, 52) and an outlet to the operator environment; and an air filtration system having at least one external inlet and first and second filtration devices located in an air flow path between the at least one external inlet and the HVAC inlet plenum; wherein the roof portion is a hollow structure having upper and lower surfaces and front, rear, left and right sidewalls; the vehicle characterised by; the first and second filtration devices both being disposed along a same one of the left and right sidewalls and the HVAC system being disposed along the rear sidewall within the hollow structure of the roof portion; the air filtration system comprising a valve mechanism operative to selectively connect either the first filtration device to the HVAC inlet plenum or the second filtration device to the HVAC inlet plenum; the air treatment apparatus comprising a first blower connecting the filtration devices (34, 40) and the HVAC system inlet plenum, the first blower being connected to each of the filtration devices by a respective duct and a second blower configured to produce a higher throughput of air than the first blower, the inlet of the second blower being connected in series with the outlet of the first blower, the second blower being disposed adjacent one of the first and second filtration devices (34, 40).
An apparatus for cultivating plants, the apparatus comprising: a cabinet having a cultivation space; and a cultivation shelf provided in the cultivation space; wherein the cultivation shelf comprises: a shelf base for accommodating water; a tray provided on the shelf base and having at least one seat for seating a seed package thereon; and a shutter provided on the seat and configured to be moved into an open state or a closed state, wherein in the open state, the shutter is configured to allow water accommodated in the shelf base to be introduced to an inside of the seat by passing therethrough. a cabinet having a cultivation space; and a cultivation shelf provided in the cultivation space; wherein the cultivation shelf comprises: a shelf base for accommodating water; a tray provided on the shelf base and having at least one seat for seating a seed package thereon; and a shutter provided on the seat and configured to be moved into an open state or a closed state, wherein in the open state, the shutter is configured to allow water accommodated in the shelf base to be introduced to an inside of the seat by passing therethrough. a shelf base for accommodating water; a tray provided on the shelf base and having at least one seat for seating a seed package thereon; and a shutter provided on the seat and configured to be moved into an open state or a closed state, wherein in the open state, the shutter is configured to allow water accommodated in the shelf base to be introduced to an inside of the seat by passing therethrough.
An organic light emitting device, comprising: an anode, provided on a substrate, said substrate having a refractive index in a range from 1.05 to 2.5; an organic electron material layer formed on the anode, an electron transporting and hole blocking layer comprising a blend of a low molecular weight electron transporting material having a lowest unoccupied molecular orbital (LUMO) between 1.8eV to 3.0eV as obtained from cyclic voltammetry measurements, wherein the low molecular weight electron transporting material comprises at least one pyridinyl group and a film-forming polymer having a LUMO greater than that of the low molecular weight electron transporting material, wherein the film-forming polymer is poly(2-vinylpyridine), poly(4-vinylpyridine), polystyrene, or poly(vinyl phenyl pyridine), the electron transporting layer being formed on the organic electron material layer, and a cathode formed on the electron transporting and hole blocking layer; wherein the organic electron material layer is a light-emitting layer, and wherein the amount of the low molecular weight electron transporting material in the electron transporting layer ranges from 50% to 90% by weight of the blend. an anode, provided on a substrate, said substrate having a refractive index in a range from 1.05 to 2.5; an organic electron material layer formed on the anode, an electron transporting and hole blocking layer comprising a blend of a low molecular weight electron transporting material having a lowest unoccupied molecular orbital (LUMO) between 1.8eV to 3.0eV as obtained from cyclic voltammetry measurements, wherein the low molecular weight electron transporting material comprises at least one pyridinyl group and a film-forming polymer having a LUMO greater than that of the low molecular weight electron transporting material, wherein the film-forming polymer is poly(2-vinylpyridine), poly(4-vinylpyridine), polystyrene, or poly(vinyl phenyl pyridine), the electron transporting layer being formed on the organic electron material layer, and a cathode formed on the electron transporting and hole blocking layer; wherein the organic electron material layer is a light-emitting layer, and wherein the amount of the low molecular weight electron transporting material in the electron transporting layer ranges from 50% to 90% by weight of the blend.
An anode arrangement for use in an electrolysis production of metals comprising: an anode having a hollow body comprising a cavity extending longitudinally from a first end portion to a second end portion of the anode, said body having at least one gas outlet connected in fluid flow communication with the cavity; a gas inlet connected in fluid flow communication with the cavity of said anode, said gas inlet being connectable to a source of hydrogen gas for feeding hydrogen gas into the cavity of said anode; an electrical connector for generating a current at the anode during electrolysis; and a hydrogen chloride (HCl) recuperator surrounding at least a portion of the anode for recovering HCl gas released through the at least one gas outlet at an outer surface of the anode during electrolysis, said HCl recuperator having an outlet connectable to a HCl redistributor. an anode having a hollow body comprising a cavity extending longitudinally from a first end portion to a second end portion of the anode, said body having at least one gas outlet connected in fluid flow communication with the cavity; a gas inlet connected in fluid flow communication with the cavity of said anode, said gas inlet being connectable to a source of hydrogen gas for feeding hydrogen gas into the cavity of said anode; an electrical connector for generating a current at the anode during electrolysis; and a hydrogen chloride (HCl) recuperator surrounding at least a portion of the anode for recovering HCl gas released through the at least one gas outlet at an outer surface of the anode during electrolysis, said HCl recuperator having an outlet connectable to a HCl redistributor.
A method for producing an aldehyde crosslinked polyacrylamide composition useful for strengthening paper, wherein the method comprises following steps: a. mixing aldehyde crosslinker and polyacrylamide in water to form an aqueous solution of aldehyde crosslinked polyacrylamide prepolymer, b. adding acid to said aqueous prepolymer solution to adjust the pH of the solution to a value from 1 to 5, and thus forming a stabilized aldehyde crosslinked polyacrylamide prepolymer solution, whereafter the stabilized aldehyde crosslinked polyacrylamide prepolymer solution has a solid content from 20% to 50%, c. storing said stabilized aldehyde crosslinked polyacrylamide prepolymer solution and transporting it to the location where the final aldehyde crosslinked polyacrylamide composition will be used, d. adding a base to the stabilized prepolymer solution to adjust the pH of the solution to a value from 5.5 to 12, and e. allowing the aldehyde crosslinker and polyacrylamide contained in the aldehyde crosslinked polyacrylamide prepolymer solution to react further and form aldehyde crosslinked polyacrylamide composition useful for strengthening paper. a. mixing aldehyde crosslinker and polyacrylamide in water to form an aqueous solution of aldehyde crosslinked polyacrylamide prepolymer, b. adding acid to said aqueous prepolymer solution to adjust the pH of the solution to a value from 1 to 5, and thus forming a stabilized aldehyde crosslinked polyacrylamide prepolymer solution, whereafter the stabilized aldehyde crosslinked polyacrylamide prepolymer solution has a solid content from 20% to 50%, c. storing said stabilized aldehyde crosslinked polyacrylamide prepolymer solution and transporting it to the location where the final aldehyde crosslinked polyacrylamide composition will be used, d. adding a base to the stabilized prepolymer solution to adjust the pH of the solution to a value from 5.5 to 12, and e. allowing the aldehyde crosslinker and polyacrylamide contained in the aldehyde crosslinked polyacrylamide prepolymer solution to react further and form aldehyde crosslinked polyacrylamide composition useful for strengthening paper.
A bioreactor comprising a chamber capable of receiving a liquid media, and a filter assembly comprising a perfusion filter (210; 212; 214), wherein the filter assembly is disposed in the chamber and the filter assembly is free to move within the chamber, characterized in that the filter assembly comprises means for coupling a harvesting flow through said filter (210; 212; 214) and means for coupling a feed flow through said filter in an opposite direction compared to the harvesting flow, wherein the feed flow is pumped to the bioreactor by means of a feed pump and the harvest flow is pumped from the bioreactor by means of a harvest pump.
A driver circuit for driving a load, the driver circuit comprising: a gate driver (114A-C) for providing an associated control signal to each of one or more switching elements coupled to the driver circuit, a first one of the switching elements coupled between a high supply voltage and a switching node of the load, and a second one of the switching elements coupled between the switching node and a low supply voltage; and a zero crossing detector characterized in that the zero crossing detector is configured to detect a zero crossing of a signal of the one or more switching elements and the load, the zero crossing detector comprising: a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference. a gate driver (114A-C) for providing an associated control signal to each of one or more switching elements coupled to the driver circuit, a first one of the switching elements coupled between a high supply voltage and a switching node of the load, and a second one of the switching elements coupled between the switching node and a low supply voltage; and a zero crossing detector characterized in that the zero crossing detector is configured to detect a zero crossing of a signal of the one or more switching elements and the load, the zero crossing detector comprising: a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference. a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference.