mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting target nucleic acids or nucleic acid analogs (targets) or for detecting genetic polymorphisms, where at least one pair of marked oligonucleotides or oligonucleotide analogs (probes) or at least a marked probe trio are used, with the upstream probe(s) being proportionally hybridised by the 5' end thereof to the target and by the 3' end thereof to the 5' end of the downstream probe, and the 3' end of the downstream probe being proportionally hybridised to the target in such a way that a triplex structure is formed as a result between the target nucleic acid and a probe pair, with a) one or both probes having a marking on the 5' and/or 3' end b) a measuring signal being generated after partial hydrolysis of the probe pair by an enzyme contained in the homogeneous assay c) sufficient hybridisation of the probes to the target occurring only with the probe pair or the probe trio but not with the individual probes d) the sequence sections of the upstream and downstream probes, capable of proportional target hybridisation, hybridising to adjacent sequences of the target, and simultaneously a stabilising stem structure being formed between the 3' end of the upstream probe and the 5' end of the downstream probe, characterised in that the upstream probe is marked with a ligand acting each as a reporter and a quencher, and does not comprise a 3' OH blocking whereas the downstream probe is unmarked and blocked on the 3' OH. a) one or both probes having a marking on the 5' and/or 3' end b) a measuring signal being generated after partial hydrolysis of the probe pair by an enzyme contained in the homogeneous assay c) sufficient hybridisation of the probes to the target occurring only with the probe pair or the probe trio but not with the individual probes d) the sequence sections of the upstream and downstream probes, capable of proportional target hybridisation, hybridising to adjacent sequences of the target, and simultaneously a stabilising stem structure being formed between the 3' end of the upstream probe and the 5' end of the downstream probe,
A synergistic antimicrobial composition comprising (i) A polyvalent metal salt of pyrithione; and (ii) A piperazine compound selected from 1-(2-fluorobenzoyl)-4-(4-phenyl cylcohexyl) piperazine, 1-(3-chlorobenzyl)-4-(4- ethylbenzyl)piperazine oxalate, 1-(4-fluorophenyl)-4-isobutyrylpiperazine, 1-isobutyryl-4-phenylpiperazine, or 1-(4-ethylbenzyl)-4-(4- methylcyclohexyl)piperazine oxalate. (i) A polyvalent metal salt of pyrithione; and (ii) A piperazine compound selected from 1-(2-fluorobenzoyl)-4-(4-phenyl cylcohexyl) piperazine, 1-(3-chlorobenzyl)-4-(4- ethylbenzyl)piperazine oxalate, 1-(4-fluorophenyl)-4-isobutyrylpiperazine, 1-isobutyryl-4-phenylpiperazine, or 1-(4-ethylbenzyl)-4-(4- methylcyclohexyl)piperazine oxalate.
Analysis method for building management and administration, in which boundary surface data for boundary surfaces bounding a space, together with data for the structure, which are determined by applying electromagnetic waves to the boundary surface and receiving the reflected waves, are stored in a memory and prepared for display, wherein the boundary surface data define the boundary surfaces bounding the space with respect to their spatial extent and the data for the structure provide details of the internal structure behind the boundary surface, characterized in that the movements of a measuring device applying radar waves to the boundary surface are controlled on the basis of the data for the structure in such a way that, when a discontinuity in the structure is detected, a data density in the region of the discontinuity is increased by slowing down the movements of the measuring device.
Burner for a combustion chamber of a gas turbine, with an injection device for the introduction of at least one gaseous fuel into the burner, wherein the injection device has at least one body which is arranged in the burner with at least one nozzle for introducing the at least one gaseous fuel into the burner, the at least one body being configured as a streamlined body which has a streamlined cross-sectional profile and which extends with a longitudinal direction perpendicularly or at an inclination to a main flow direction prevailing in the burner, the at least one nozzle having its outlet orifice at or in a trailing edge of the streamlined body, wherein the streamlined body has two lateral surfaces, and wherein upstream of the at least one nozzle on at least one lateral surface there is located at least one vortex generator, the burner characterised in that the two lateral surfaces of the streamlined body are joined in a smooth round transition at the leading edge and are ending at a small radius/sharp angle at the trailing edge defining the cross-sectional profile.
Valve, for pneumatic applications in vehicles, having a pressure input, a pressure output, a switching element and a restoring element, it being possible for the switching element to be moved between a shut-off position and a passage position, the transition from the passage position to the shut-off position being dependent on the pressure at the pressure input and the opposing force of the restoring element, and a check element being integrated into the switching element, which check element closes only when the pressure at the pressure output is higher than at the pressure input, characterized in that, in the shut-off position of the switching element, the check element can release a passage in the direction from the pressure input to the pressure output.
Method of producing hydrogen, characterised by the following method steps: generating electric current from a combination of a combustion process in the form of combustion of regenerative energy carriers and a photovoltaic process and using the thus-generated electric current for a continuous electrolysis process for producing hydrogen, wherein the time sequence of the generation of current is fully controlled by a control unit and wherein it is predetermined by the control at which times and to what extent the combustion process on the one hand and the photovoltaic process on the other hand are utilised for generation of the current required for the electrolysis process. generating electric current from a combination of a combustion process in the form of combustion of regenerative energy carriers and a photovoltaic process and using the thus-generated electric current for a continuous electrolysis process for producing hydrogen, wherein the time sequence of the generation of current is fully controlled by a control unit and wherein it is predetermined by the control at which times and to what extent the combustion process on the one hand and the photovoltaic process on the other hand are utilised for generation of the current required for the electrolysis process.
A paste for a secondary battery comprising a conductive additive, a polymer, and a dispersion medium, wherein the conductive additive includes one or more carbon nanotubes having a surface base content of not less than 0.01 mmol/g and not more than 0.10 mmol/g and a ratio of surface acid content relative to the surface base content of not less than 0.1 and not more than 1.0, the surface base content being measured according to the Example <Surface base content> and the surface acid content being measured according to the Example <Surface acid content>.
Actuating drive for an actuating member for controlling a fluid, in particular a coolant of a vehicle, wherein at least one first, electric drive motor has at least one first rotor unit that is rotatable about a first rotation axis and one first stator unit that comprises at least two first drive coils, characterized in that an electrical and/or electronic printed circuit board comprises at least one electrical and/or electronic control unit for controlling the first drive motor, in that the at least two first drive coils of the first stator unit are arranged at least on a first side of a carrier plate and at least two second drive coils of a second stator unit of a second electric drive motor are arranged on a second side of the carrier plate, which second side is arranged opposite the first side of the carrier plate, wherein the second electric drive motor comprises the second stator unit and a second rotor unit, and in that at least one first drive shaft of the first electric drive motor is designed at least partially as a first hollow shaft and/or at least one second drive shaft of the second electric drive motor is designed at least partially as a second hollow shaft, wherein a drive axle is designed as a bearing element of the first and/or the second hollow shaft (17, 18), so that the first and/or the second hollow shaft (17, 18) are/is rotatable about the drive axle.
A system (12, 200) for determining beginning blood volume of a patient undergoing dialysis treatment, the system (12, 200) comprising: a first portion of tubing, configured to connect the patient to an input (HCT 206) of a dialyzer (22, 204); a second portion of tubing, configured to connect the patient to an output (HCT 208) of the dialyzer (22, 204); a pump (20, 202), configured to pump blood from the patient through the first portion of tubing into the dialyzer (22, 204), and out of the dialyzer into the second portion of tubing; a first blood chamber, disposed along the first portion of tubing, and a second blood chamber, disposed along the second portion of tubing, wherein the first blood chamber and the second blood chamber are configured to facilitate hematocrit measurement; and a controller, configured to determine the beginning blood volume using hematocrit values associated with the input (HCT 206) of the dialyzer (22, 204), characterized in that the controller is configured to determine the beginning blood volume further using hematocrit values associated with the output (HCT 208) of the dialyzer (22, 204) and a flowrate of blood through the first portion of tubing. a first portion of tubing, configured to connect the patient to an input (HCT 206) of a dialyzer (22, 204); a second portion of tubing, configured to connect the patient to an output (HCT 208) of the dialyzer (22, 204); a pump (20, 202), configured to pump blood from the patient through the first portion of tubing into the dialyzer (22, 204), and out of the dialyzer into the second portion of tubing; a first blood chamber, disposed along the first portion of tubing, and a second blood chamber, disposed along the second portion of tubing, wherein the first blood chamber and the second blood chamber are configured to facilitate hematocrit measurement; and a controller, configured to determine the beginning blood volume using hematocrit values associated with the input (HCT 206) of the dialyzer (22, 204), characterized in that the controller is configured to determine the beginning blood volume further using hematocrit values associated with the output (HCT 208) of the dialyzer (22, 204) and a flowrate of blood through the first portion of tubing.
An apparatus for transmitting a digital optical data signal along a fiber optic medium in a seismic data acquisition system, the apparatus comprising: a transducer arranged to modulate an optical carrier to provide a digital optical data signal corresponding to a signal indicative of a sensed environmental condition; and an optical interrogator arranged to retrieve the digital optical data signal from the optical carrier; characterized in that the transducer includes a controllable reflector; in that the controllable reflector includes a mirror configured to reflect at least a portion of the optical carrier, and in that the mirror comprises a micro-machined mirror. a transducer arranged to modulate an optical carrier to provide a digital optical data signal corresponding to a signal indicative of a sensed environmental condition; and an optical interrogator arranged to retrieve the digital optical data signal from the optical carrier; characterized in that the transducer includes a controllable reflector; in that the controllable reflector includes a mirror configured to reflect at least a portion of the optical carrier, and in that the mirror comprises a micro-machined mirror.
Agricultural vehicle-and-trailer combination, comprising a towing vehicle having a first coupling part and an articulation point which is formed above the coupling part, and comprising a trailing vehicle having a second coupling part which is formed on a drawbar, a pressure cylinder, which is formed above the coupling part, for exerting a pressure force which is axial to the drawbar, wherein a cylinder piston of the pressure cylinder is connected in an articulated manner to the articulation point, and comprising a sensor arrangement for determining the bending angle between the longitudinal axis of the towing vehicle and the longitudinal axis of the trailing vehicle, characterized in that the pressure force which is exerted by the pressure cylinder is controlled depending on the bending angle between the longitudinal axis of the towing vehicle and the longitudinal axis of the trailing vehicle, which bending angle is ascertained by means of the sensor arrangement.
An engine comprising: a piston; a carburetor having a diaphragm fuel pump; the diaphragm fuel pump including: a pump chamber configured to suck and discharge fuel; and a diaphragm chamber to which a pressure to drive the pump chamber is applied; and a communicating passage configured to connect between the diaphragm chamber and a negative pressure part in which a negative pressure is created due to movement of the piston, wherein: the negative pressure part is a crank chamber in which the piston slidably moves; characterized in that the communicating passage is formed in a side member that contacts the cylinder part; a check valve is formed in the communicating passage to allow fluid to move only in a direction from the diaphragm chamber to the negative pressure part; the check valve is formed in a crank chamber side opening in a cylinder part; and the side member is configured to position and fix the check valve in the cylinder part. a piston; a carburetor having a diaphragm fuel pump; the diaphragm fuel pump including: a pump chamber configured to suck and discharge fuel; and a diaphragm chamber to which a pressure to drive the pump chamber is applied; and a pump chamber configured to suck and discharge fuel; and a diaphragm chamber to which a pressure to drive the pump chamber is applied; and a communicating passage configured to connect between the diaphragm chamber and a negative pressure part in which a negative pressure is created due to movement of the piston, wherein: the negative pressure part is a crank chamber in which the piston slidably moves; characterized in that the communicating passage is formed in a side member that contacts the cylinder part; a check valve is formed in the communicating passage to allow fluid to move only in a direction from the diaphragm chamber to the negative pressure part; the check valve is formed in a crank chamber side opening in a cylinder part; and the side member is configured to position and fix the check valve in the cylinder part.
Headrest for a vehicle seat, wherein the headrest has at least one first sub-piece which faces the head of a seat occupant, wherein the headrest has a second sub-piece, wherein at least one energy storage device with a trigger actuator is arranged between the first sub-piece and the second sub-piece, wherein the first sub-piece is able to be moved - relative to the second sub-piece - out of a use position into a safety position along a movement direction towards the head of the seat occupant under the effect of a discharge of the energy storage device, which is actuated by means of the trigger actuator, as a result of an accident, wherein the headrest is configured such that the volume of an expansion area is increased while the first sub-piece is moved relative to the second sub-piece as a result of an accident and by means of the effect of the discharge of the energy storage device, wherein the headrest has a sealing means between the first sub-piece and the second sub-piece in order to delimit the expansion area, characterized in that headrest has a displacement means between the first sub-piece and the second sub-piece for displacing the first sub-piece from the use position into the safety position, wherein the displacement means is attached to the first sub-piece via a helical connection such that a rotational movement of the first sub-piece relative to the displacement means leads to a relative movement of the first-sub-piece towards the head of the occupant of the vehicle seat, wherein the displacement means is attached to the second sub-piece via a further helical connection such that a rotational movement of the displacement means relative to the second sub-piece leads to a relative movement of the displacement means relative to the second sub-piece towards the head of the occupant of the vehicle seat, wherein the displacement means is configured so as to be able to be latched to the first sub-piece and/or to the second sub-piece, in particular when the first sub-piece is moved relative to the second sub-piece into the safety position of the first sub-piece.
An arrangement comprising a supporting structure with a surface consisting of one or more faces (2a, 2b, 2c), wherein a bore runs from at least one face into an inner region of the supporting structure, and said bore is filled with an adhesive and with a portion of a fiber bundle projecting beyond said bore, characterized in that, on the at least one face from which the bore runs into an inner region of the supporting structure, the supporting structure is provided with a plurality of grooves which extend from the bore in a region of at least one circular sector, and the projecting part of the fiber bundle, divided up according to fiber strands, is at least partially located in the grooves and is fastened therein with adhesive.
A sensing device comprising: a substrate; a dielectric layer located on the substrate; a heater located within the dielectric layer; a material for sensing a gas, wherein the material comprises an alumina (Al 2 O 3) doped conductive metal oxide, wherein the sensing device is an NO 2 sensing device, the conductive metal oxide is any one of a group comprising tungsten oxide, zinc oxide, indium oxide, titanium oxide, chromium oxide, copper oxide and tin oxide, the substrate comprises an etched portion and a substrate portion; the dielectric layer comprises a dielectric membrane, and wherein the dielectric membrane is adjacent to the etched portion of the substrate; the heater is located within the dielectric membrane, and characterised in that the material for sensing a gas does not comprise a noble metal. a substrate; a dielectric layer located on the substrate; a heater located within the dielectric layer; a material for sensing a gas, wherein the material comprises an alumina (Al 2 O 3) doped conductive metal oxide, wherein the sensing device is an NO 2 sensing device, the conductive metal oxide is any one of a group comprising tungsten oxide, zinc oxide, indium oxide, titanium oxide, chromium oxide, copper oxide and tin oxide, the substrate comprises an etched portion and a substrate portion; the dielectric layer comprises a dielectric membrane, and wherein the dielectric membrane is adjacent to the etched portion of the substrate; the heater is located within the dielectric membrane, and characterised in that the material for sensing a gas does not comprise a noble metal.
Filter apparatus having a filter housing, in which a replaceable filter element is received, and having a filter head to fix the filter housing on a third-party component such as a tank wall of a storage tank, wherein, by means of a mounting providing more than one degree of freedom, the filter housing is mounted in an articulated manner to the filter head, wherein, to form the mounting, the filter head is formed by two head parts (30, 32), of which one head part is fixed in a stationary manner to the third-party component and the other head part is pivotally mounted opposite thereto, wherein, to form the mounting, the pivotable head part, which is connected to the filter housing, has a bearing face extending in a convex manner, which is guided in a bearing face of the stationary head part extending in a concave manner, characterised in that the respective bearing face (34, 36) forms part of a shell (44, 42); in that the stationary bearing surface, viewed in the axial direction, extends over the moved convex bearing face such that the bearing faces (34, 36) always remain in engagement with one another in the event of a pivoting movement in order to compensate an angular offset; and in that a peripheral delimitation for the pivoting movement is provided as a stop surface on the inside of the stationary head part. wherein, to form the mounting, the filter head is formed by two head parts (30, 32), of which one head part is fixed in a stationary manner to the third-party component and the other head part is pivotally mounted opposite thereto, wherein, to form the mounting, the pivotable head part, which is connected to the filter housing, has a bearing face extending in a convex manner, which is guided in a bearing face of the stationary head part extending in a concave manner, characterised in that the respective bearing face (34, 36) forms part of a shell (44, 42); in that the stationary bearing surface, viewed in the axial direction, extends over the moved convex bearing face such that the bearing faces (34, 36) always remain in engagement with one another in the event of a pivoting movement in order to compensate an angular offset; and in that a peripheral delimitation for the pivoting movement is provided as a stop surface on the inside of the stationary head part.
A method of forming a component for use in a gas turbine engine comprising the steps of: forming an airfoil/root assembly (12, 14); creating a platform assembly structure having an opening; inserting said airfoil/root assembly (12, 14) into said opening; and bonding said platform assembly structure to said airfoil/root assembly (12, 14) to form said component; characterised in that: the bonding step is carried out by introducing a bonding agent, which after bonding creates an interfacial layer between the airfoil/root assembly (12, 14) and the platform assembly. forming an airfoil/root assembly (12, 14); creating a platform assembly structure having an opening; inserting said airfoil/root assembly (12, 14) into said opening; and bonding said platform assembly structure to said airfoil/root assembly (12, 14) to form said component; characterised in that: the bonding step is carried out by introducing a bonding agent, which after bonding creates an interfacial layer between the airfoil/root assembly (12, 14) and the platform assembly.