mhurhangee/ep-ind-claims huggingface dataset:
A handling system for transporting, removing or inserting rod-like elements, in particular smoking rods, from or into a storage frame, from an automatic hanging line or from a release line, the rod-like elements serving for storing sausage-shaped products, in particular sausages, each having a loop for a pendulously storage of the sausage-shaped products, including: a robotic device comprising a robotic arm (124, 125), and a gripping unit for reversibly gripping the rod-like elements, wherein the gripping unit is attached to the robotic arm (124, 125) of the robotic device, wherein the gripping unit comprises at least one bar and at least one movable clamping element, and wherein the at least one bar has at least one seat for receiving the rod-like element, characterized in that the at least one clamping element is linearly movable to clamp the received rod-like element in the at least one seat, wherein the movement is substantially parallel to the bar. a robotic device comprising a robotic arm (124, 125), and a gripping unit for reversibly gripping the rod-like elements, wherein the gripping unit is attached to the robotic arm (124, 125) of the robotic device, wherein the gripping unit comprises at least one bar and at least one movable clamping element, and wherein the at least one bar has at least one seat for receiving the rod-like element,
A turbomachine ring including a plurality of recesses (104, 204, 304, 404, 504) each for receiving a guide pivot of a variable-pitch vane, and a plurality of bushings (100, 200, 300, 400, 500) each mounted in one of said recesses, characterised in that each bushing comprises a body (102, 202, 302, 402, 502) that is substantially tubular having a longitudinal axis (Z-Z) and at least three branches (106, 206, 306, 406, 506) extending radially outwards relative to the longitudinal axis (Z-Z) of the tubular body and being distributed in substantially equidistant manner around the circumference of the tubular body, said branches extending axially over the full height of said tubular body.
Method for controlling a hybrid drive, which comprises at least one internal combustion engine and at least one electric machine, of a vehicle, having a first clutch, which is arranged between the electric machine and the drivetrain of the vehicle, and a second clutch, which is arranged between the electric machine and the internal combustion engine, wherein, in the case of the vehicle being driven exclusively by the electric machine, - for a start of the internal combustion engine by the electric machine which is in operation, a clutch torque predefinable as setpoint value of the slipping torque is applied to the second clutch, and at the same time a timer is started which predefines a first time interval (Δt3), - in that the rotational speed of the internal combustion engine is monitored, wherein - the clutch torque, which is predefinable as setpoint value of the slipping torque, of the second clutch is incremented by a predefinable percentage of the setpoint value of the slipping torque to a higher value if, within a further, second predefinable time interval (Δt2) which is started after the setpoint value of the slipping torque for the second clutch is reached, the rotational speed of the internal combustion engine lies below a predefinable threshold value and thus no rotation of the internal combustion engine is detected, wherein the clutch torque, which is predefinable as setpoint value of the slipping torque, of the second clutch is incremented by a predefinable percentage of the setpoint value of the slipping torque to a lower value if, within the first time interval (Δt3), the rotational speed of the internal combustion engine lies above a predefinable threshold value, and wherein that clutch torque of the second clutch which leads to a rotational speed required for a successful start of the internal combustion engine is predefined as setpoint value of the slipping torque for the second clutch for the next starting attempt of the internal combustion engine. - for a start of the internal combustion engine by the electric machine which is in operation, a clutch torque predefinable as setpoint value of the slipping torque is applied to the second clutch, and at the same time a timer is started which predefines a first time interval (Δt3), - in that the rotational speed of the internal combustion engine is monitored, - the clutch torque, which is predefinable as setpoint value of the slipping torque, of the second clutch is incremented by a predefinable percentage of the setpoint value of the slipping torque to a higher value if, within a further, second predefinable time interval (Δt2) which is started after the setpoint value of the slipping torque for the second clutch is reached, the rotational speed of the internal combustion engine lies below a predefinable threshold value and thus no rotation of the internal combustion engine is detected,
A compact heat exchanger unit for an air conditioning apparatus for a vehicle for the condensation of refrigerant cooled with liquid, wherein a condenser region for the condensation of the refrigerant is formed as a heat exchanging surface, and a high-pressure-refrigerant collector region as a refrigerant collector is formed in the integrated form as a plate packet of a heat exchanger within a plate heat exchanger, wherein a separate excess cooling region for the excess cooling of the refrigerant is formed in the state of being connected after the condenser region and arranged in the state of being integrated within the compact heat exchanger unit as the plate packet and wherein an evaporator region, an internal heat exchanger region, and the condenser region are formed as the plate packets, and arranged in the state of being integrated within an integrated plate heat exchanger, characterized in that the plates of the plate heat exchanger have ribs, the ribs are formed by an offset-design, a dimple-design, or a chevron-design, and the ribs formed by the offset-design are implemented between two plates as an insertion plate and wherein the plates of the plate heat exchanger within the high-pressure-refrigerant collector region have the ribs as the insertion plate formed by the offset-design and the insertion plate has a recess for enlarging the volume of the high-pressure-refrigerant collector region.
A fastening clip for mounting in a hole of a component, the fastening clip comprising a head portion adapted to be positioned against a first surface of the component and a body portion extending from the head portion and adapted to protrude through the hole in the component, wherein the body portion comprises an elastically deflectable retaining member (6a, 6b) adapted to deflect inwardly in a deflecting direction as the body portion is pushed through the hole of the component, and to engage a second surface of the component, opposite to the first surface, to retain the fastening clip in the hole of the component, and wherein the body portion further comprises an abutment configured to engage the elastically deflectable retaining member as it is deflected inwardly to prevent deformation of the elastically deflectable retaining member in a second direction, generally perpendicular to deflection direction; and wherein the body portion comprises a sidewall in a plane parallel to the deflecting direction of the elastically deflectable retaining member, and characterised in that the abutment is formed on the sidewall. wherein the body portion comprises an elastically deflectable retaining member (6a, 6b) adapted to deflect inwardly in a deflecting direction as the body portion is pushed through the hole of the component, and to engage a second surface of the component, opposite to the first surface, to retain the fastening clip in the hole of the component, and wherein the body portion further comprises an abutment configured to engage the elastically deflectable retaining member as it is deflected inwardly to prevent deformation of the elastically deflectable retaining member in a second direction, generally perpendicular to deflection direction; and wherein the body portion comprises a sidewall in a plane parallel to the deflecting direction of the elastically deflectable retaining member, and characterised in that the abutment is formed on the sidewall.
A method comprising: providing double-stranded nucleic acid material comprising one or more double-stranded nucleic acid molecules, wherein each double-stranded nucleic acid molecule comprises a single molecule identifier sequence on each strand and an adapter on at least one of the 5' and/or 3' ends of the nucleic acid molecule, and wherein, for each nucleic acid molecule, a first adapter sequence is associated with a first strand and a second adapter sequence is associated with a second strand of the nucleic acid molecule; amplifying the nucleic acid material; separating the amplified nucleic acid material into a first sample and a second sample; amplifying the first strand in the first sample through use of a primer specific to the first adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to a target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a first nucleic acid product; amplifying the second strand in the second sample through use of a primer specific to the second adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to the target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a second nucleic acid product; sequencing each of the first nucleic acid product and second nucleic acid product; and comparing the sequence of the first nucleic acid product to the sequence of the second nucleic acid product. providing double-stranded nucleic acid material comprising one or more double-stranded nucleic acid molecules, wherein each double-stranded nucleic acid molecule comprises a single molecule identifier sequence on each strand and an adapter on at least one of the 5' and/or 3' ends of the nucleic acid molecule, and wherein, for each nucleic acid molecule, a first adapter sequence is associated with a first strand and a second adapter sequence is associated with a second strand of the nucleic acid molecule; amplifying the nucleic acid material; separating the amplified nucleic acid material into a first sample and a second sample; amplifying the first strand in the first sample through use of a primer specific to the first adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to a target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a first nucleic acid product; amplifying the second strand in the second sample through use of a primer specific to the second adapter sequence and at least one single-stranded oligonucleotide at least partially complementary to the target sequence of interest such that the single molecule identifier sequence is at least partially maintained to provide a second nucleic acid product; sequencing each of the first nucleic acid product and second nucleic acid product; and comparing the sequence of the first nucleic acid product to the sequence of the second nucleic acid product.
A composition comprising one or more of the formulae: or wherein, optionally, one or more positions on the polymeric backbone can be substituted with an aromatic group; each X is, independently, -CO 2 R, -CONR 1 R 2, CN, a C 1 to a C 20 alkyl group; each X' is, independently, -CO 2 R, -CONR 1 R 2, CN, a C 1 to a C 20 alkyl group, or a residual terminal portion of a vinyl terminated macromonomer; R is a C 1 to a C 20 alkyl group or an aromatic group; each R 1 and R 2 is, independently, a hydrogen, a C 1 to a C 20 alkyl group, or an aromatic group; each R 5 is, independently, a hydrogen atom or a C 1 to a C 40 alkyl group; each Ar is, independently, an aromatic group; and each n is, independently, from 0 to 40. optionally, one or more positions on the polymeric backbone can be substituted with an aromatic group; each X is, independently, -CO 2 R, -CONR 1 R 2, CN, a C 1 to a C 20 alkyl group; each X' is, independently, -CO 2 R, -CONR 1 R 2, CN, a C 1 to a C 20 alkyl group, or a residual terminal portion of a vinyl terminated macromonomer; R is a C 1 to a C 20 alkyl group or an aromatic group; each R 1 and R 2 is, independently, a hydrogen, a C 1 to a C 20 alkyl group, or an aromatic group; each R 5 is, independently, a hydrogen atom or a C 1 to a C 40 alkyl group; each Ar is, independently, an aromatic group; and each n is, independently, from 0 to 40.
Method for detecting additives in an aqueous fluid, comprising: a. mixing a detecting solution comprising a lanthanide cation and a lanthanide chelating agent, with a sample of the aqueous fluid to be analysed optionally comprising at least one additive, under conditions allowing complexing of the lanthanide by the chelating agent and by the additive that is optionally present, b. detecting and, if appropriate, quantifying the variation in fluorescence associated with the possible presence of the additive in the aqueous fluid by time-resolved fluorescence, characterized in that the chelating agent is selected from diaminopyridine, imidazoline, hydrolysed polymaleic anhydride, oxalic acid, acetylacetonate, thiodiacetate, nitrilotriacetic acid, or derivatives thereof. a. mixing a detecting solution comprising a lanthanide cation and a lanthanide chelating agent, with a sample of the aqueous fluid to be analysed optionally comprising at least one additive, under conditions allowing complexing of the lanthanide by the chelating agent and by the additive that is optionally present, b. detecting and, if appropriate, quantifying the variation in fluorescence associated with the possible presence of the additive in the aqueous fluid by time-resolved fluorescence,
A method for forming a fiber-reinforced polymer component, the method comprising: impregnating a first fiber tow with a polymerizable liquid contained within a reservoir to form a first impregnated fiber tow; positioning the first impregnated fiber tow within a build region of the reservoir, the build region having a shape and size corresponding to a cross-section of the fiber-reinforced polymer component; and, irradiating the build region of the reservoir to form a polymerized solid from the polymerizable liquid within the build region, the polymerized solid encasing a portion of the first fiber tow to form at least a portion of the fiber-reinforced polymer component. impregnating a first fiber tow with a polymerizable liquid contained within a reservoir to form a first impregnated fiber tow; positioning the first impregnated fiber tow within a build region of the reservoir, the build region having a shape and size corresponding to a cross-section of the fiber-reinforced polymer component; and, irradiating the build region of the reservoir to form a polymerized solid from the polymerizable liquid within the build region, the polymerized solid encasing a portion of the first fiber tow to form at least a portion of the fiber-reinforced polymer component.
Device for securing to a substrate such a radiator as has at least two somewhat spaced apart, substantially vertical surfaces, the device comprising a stand, which is securable in the substrate and is arranged to extend approximately vertically from the substrate and upwards between the vertical surfaces, an adjustable lower anchorage device for cooperating with a lower portion of the radiator surfaces, and an upper anchorage device for cooperation with the vertical surfaces above the lower portions thereof, wherein the stand is bifurcated, with two halves (2a, 2b) thereof, to accommodate an approximately horizontally extending tube at the lower portion of the radiator, and the upper anchorage device has a clamping device (7a, 7b) for lateral expansion, and an actuator device beneath the lower anchorage device, connected to the upper anchorage device, by means of an operating device, for expanding the clamping device (7a, 7b) of the upper anchorage device to a position wherein the radiator is retained. characterized in that the operating device is bifurcated, with two halves (9a, 9b) thereof and includes two pivotable stabilization devices (8a, 8b) for stabilizing the bifurcated operating device in the position where the clamping arms (7a, 7b) of the clamping device are expanded.
A method of crimping a polymer stent on a catheter, the method comprising: (a) positioning the stent (200; 300) over a balloon of a catheter, wherein the stent comprises a set of longitudinally spaced rings (212, 212a, 212b, 212c, 212d; 312, 312a, 312b, 312c, 312d) formed by struts (230; 330) connected at crowns (207, 209, 210; 307, 309, 310), the struts configured to fold and unfold, the set of longitudinally spaced rings including a proximal end ring (212d; 312d), a distal end ring opposing the proximal end ring, and interior rings (212a, 212b, 212c; 312a, 312b, 312c) positioned between the end rings, wherein each ring is associated with its direct neighboring ring by links (234; 234a, 234b, 234c, 234d; 237; 334; 334a, 334b, 334c, 334d) extending parallel to a longitudinal axis (A-A) of the stent, at least one of the links of the stent comprises a marker structure for holding a pair of markers, and the marker structure includes a pair of depots (502a, 502b) in which the markers are placed, the depots being placed in a planar view along a vertical axis (B-B) perpendicular to the longitudinal axis (A-A); and (b) crimping the stent to the balloon of the catheter, wherein the at least one of the links comprising the marker structure is configured to avoid interfering with the folding of the struts of the pair of rings, between which the marker structure resides when the stent is crimped to a crimped diameter. (a) positioning the stent (200; 300) over a balloon of a catheter, wherein the stent comprises a set of longitudinally spaced rings (212, 212a, 212b, 212c, 212d; 312, 312a, 312b, 312c, 312d) formed by struts (230; 330) connected at crowns (207, 209, 210; 307, 309, 310), the struts configured to fold and unfold, the set of longitudinally spaced rings including a proximal end ring (212d; 312d), a distal end ring opposing the proximal end ring, and interior rings (212a, 212b, 212c; 312a, 312b, 312c) positioned between the end rings, wherein each ring is associated with its direct neighboring ring by links (234; 234a, 234b, 234c, 234d; 237; 334; 334a, 334b, 334c, 334d) extending parallel to a longitudinal axis (A-A) of the stent, at least one of the links of the stent comprises a marker structure for holding a pair of markers, and the marker structure includes a pair of depots (502a, 502b) in which the markers are placed, the depots being placed in a planar view along a vertical axis (B-B) perpendicular to the longitudinal axis (A-A); and (b) crimping the stent to the balloon of the catheter, wherein the at least one of the links comprising the marker structure is configured to avoid interfering with the folding of the struts of the pair of rings, between which the marker structure resides when the stent is crimped to a crimped diameter.
A composition comprising: (a) at least 5 wt% of compounds of formula: wherein R 1 represents a C 4-36 substituted or unsubstituted hydrocarbyl group; each of R 2, R 3, R 4 and R 5 independently represents a hydrogen atom or a C 1-4 alkyl group and wherein at least one of R 2, R 3, R 4 and R 5 is not hydrogen and M + represents a cation; and mixtures thereof; (b) a cationic polymer; and (c) a water insoluble benefit agent; wherein the composition comprises less than 3 wt% amphoteric or zwitterionic surfactants; and wherein the composition comprises less than 1 wt% of compounds of formula R 6 COOCH 2 CH 2 SO 3 - M + wherein R 6 represents a C 4-36 substituted or unsubstituted hydrocarbyl group and M + represents a cation. (a) at least 5 wt% of compounds of formula: wherein R 1 represents a C 4-36 substituted or unsubstituted hydrocarbyl group; each of R 2, R 3, R 4 and R 5 independently represents a hydrogen atom or a C 1-4 alkyl group and wherein at least one of R 2, R 3, R 4 and R 5 is not hydrogen and M + represents a cation; and mixtures thereof; (b) a cationic polymer; and (c) a water insoluble benefit agent;
An optical inner surface measuring device configured to observe and measure a target object using an interference optical method, comprising: an optical fiber built into a tube; at least one light path conversion unit arranged at a leading end side of the optical fiber; a motor configured to rotationally drive the light path conversion unit; and an optical interference analysis unit for collecting reflected light from the target object via the optical fiber, and a computer for calculating waveform data, based on the collected light, of an inner peripheral surface of the target object; characterized in that it comprises a displacement detection unit configured to measure an amount of runout of a rotation shaft unit of the motor, and to generate displacement amount data, wherein the computer is configured to subtract the displacement amount data from the calculated waveform data to obtain waveform data which is corrected for runout. an optical fiber built into a tube; at least one light path conversion unit arranged at a leading end side of the optical fiber; a motor configured to rotationally drive the light path conversion unit; and an optical interference analysis unit for collecting reflected light from the target object via the optical fiber, and a computer for calculating waveform data, based on the collected light, of an inner peripheral surface of the target object; characterized in that it comprises a displacement detection unit configured to measure an amount of runout of a rotation shaft unit of the motor, and to generate displacement amount data, wherein the computer is configured to subtract the displacement amount data from the calculated waveform data to obtain waveform data which is corrected for runout.
A determination method of determining whether or not an attack on a server by an attack code has succeeded, comprising: an attack type determination step of determining an attack type of an attack code included in an attack request on the server; a feature extraction step of carrying out emulation of an attack by the attack code on the server in accordance with the determined attack type, and in a case of succeeding in an attack on the server as a result of the emulation, extracting a feature appearing in a response from the server; and a success/failure determination step of examining whether a plurality of responses respectively corresponding to a plurality of requests to the server after the attack request each have the extracted feature, and in a case where at least any one of the plurality of responses has the extracted feature, determining that an attack by the attack code has succeeded. an attack type determination step of determining an attack type of an attack code included in an attack request on the server; a feature extraction step of carrying out emulation of an attack by the attack code on the server in accordance with the determined attack type, and in a case of succeeding in an attack on the server as a result of the emulation, extracting a feature appearing in a response from the server; and a success/failure determination step of examining whether a plurality of responses respectively corresponding to a plurality of requests to the server after the attack request each have the extracted feature, and in a case where at least any one of the plurality of responses has the extracted feature, determining that an attack by the attack code has succeeded.