mhurhangee/patent-ind-claim-en huggingface dataset:
A sight line direction estimation device comprising: an imaging unit that is configured to capture an image of a head portion including an eyeball of a person (OP); an apparent sight line direction derivation unit that is configured to derive an apparent sight line direction (g eb ) connecting a center position (E) of the eyeball and an apparent pupil center position (D) on a surface of the eyeball corresponding to a pupil center position (B) based on the image captured by the imaging unit ; a correction amount derivation unit configured to determine a correction amount from the apparent sight line direction (g eb ) to the actual sight line direction (g' eb ), and to derive this correction amount using a corresponding relationship between the apparent sight line direction stored in a map and the correction amount to the actual sight line direction; and a sight line direction estimation unit that is configured to estimate an actual sight line direction (g' eb ) of the person (OP) by performing a calculation of correcting the apparent sight line direction (g eb ) calculated by the apparent sight line direction derivation unit with the correction amount derived by the correction amount derivation unit . an imaging unit that is configured to capture an image of a head portion including an eyeball of a person (OP); an apparent sight line direction derivation unit that is configured to derive an apparent sight line direction (g eb ) connecting a center position (E) of the eyeball and an apparent pupil center position (D) on a surface of the eyeball corresponding to a pupil center position (B) based on the image captured by the imaging unit ; a correction amount derivation unit configured to determine a correction amount from the apparent sight line direction (g eb ) to the actual sight line direction (g' eb ), and to derive this correction amount using a corresponding relationship between the apparent sight line direction stored in a map and the correction amount to the actual sight line direction; and a sight line direction estimation unit that is configured to estimate an actual sight line direction (g' eb ) of the person (OP) by performing a calculation of correcting the apparent sight line direction (g eb ) calculated by the apparent sight line direction derivation unit with the correction amount derived by the correction amount derivation unit .
A method for sending a handover success report, performed by a terminal device, the method comprising: sending (S210) to a target base station, the handover success report in a case that Conditional Handover, CHO, is successful, characterized in that the handover success report comprises at least one of: signal measurement results of candidate cells that do not meet a handover condition by the terminal device; or a duration from receiving a CHO configuration to triggering the CHO. signal measurement results of candidate cells that do not meet a handover condition by the terminal device; or a duration from receiving a CHO configuration to triggering the CHO.
A compound of the formula I, wherein, R 1 is halogen or haloC 1-6 alkyl; R 2 is hydrogen or halogen; R 3 is hydrogen, halogen, C 1-6 alkyl, haloC 1-6 alkyl, cyano or hydroxy; R 4 is hydrogen; R 5 and R 6 together with nitrogen to which they are attached form pyrrolidinyl, oxopyrrolidinyl, azepanyl, diazepanyl, piperidinyl, hydroxypiperidinyl, carboxypiperidinyl, C 1-6 alkylpiperazinyl, morpholinyl, 2,6-diazaspiro[3.4]octan-6-yl or 2,7-diazaspiro[4.4]nonan-2-yl, wherein pyrrolidinyl is unsubstituted or substituted with one, two or three substituents independently selected from C 1-6 alkyl, C 1-6 alkoxy, hydroxy, carboxy, haloC 1-6 alkyl, carboxyC 1-6 alkyl, hydroxyC 1-6 alky, amino, C 1-6 alkoxycarbonyl, halophenyl, pyridinyl, (diC 1-6 alkylamino)carbonyl and morpholinylcarbonyl; X is-C(=O)-; A 1 is N or CR 7 , wherein R 7 is hydrogen, halogen or C 1-6 alkyl; A 2 is N or CH; Y is O; or pharmaceutically acceptable salts, or enantiomers, or diastereomers thereof. R 1 is halogen or haloC 1-6 alkyl; R 2 is hydrogen or halogen; R 3 is hydrogen, halogen, C 1-6 alkyl, haloC 1-6 alkyl, cyano or hydroxy; R 4 is hydrogen; R 5 and R 6 together with nitrogen to which they are attached form pyrrolidinyl, oxopyrrolidinyl, azepanyl, diazepanyl, piperidinyl, hydroxypiperidinyl, carboxypiperidinyl, C 1-6 alkylpiperazinyl, morpholinyl, 2,6-diazaspiro[3.4]octan-6-yl or 2,7-diazaspiro[4.4]nonan-2-yl, wherein pyrrolidinyl is unsubstituted or substituted with one, two or three substituents independently selected from C 1-6 alkyl, C 1-6 alkoxy, hydroxy, carboxy, haloC 1-6 alkyl, carboxyC 1-6 alkyl, hydroxyC 1-6 alky, amino, C 1-6 alkoxycarbonyl, halophenyl, pyridinyl, (diC 1-6 alkylamino)carbonyl and morpholinylcarbonyl; X is-C(=O)-; A 1 is N or CR 7 , wherein R 7 is hydrogen, halogen or C 1-6 alkyl; A 2 is N or CH; Y is O;
A method of assembling an orthopaedic prosthesis for use in a patient's knee joint, the method comprising: providing a mounting platform of a surgical instrument about an axis, attaching a carrier to the mounting platform , attaching a shim to the carrier , positioning a first femoral prosthetic component on the carrier , the first femoral prosthetic component including a pair of spaced apart condyles , an intercondylar notch sized to receive the shim , and a proximal post , and providing a second femoral prosthetic component ; characterized in that the second femoral prosthetic component includes an offset adapter and an elongated stem component configured to be attached to a proximal end of the offset adapter and the method further comprises: rotating the mounting platform of the surgical instrument about a vertically-extending axis; and securing the second femoral prosthetic component to the proximal post of the first femoral prosthetic component in a desired orientation and position. providing a mounting platform of a surgical instrument about an axis, attaching a carrier to the mounting platform , attaching a shim to the carrier , positioning a first femoral prosthetic component on the carrier , the first femoral prosthetic component including a pair of spaced apart condyles , an intercondylar notch sized to receive the shim , and a proximal post , and providing a second femoral prosthetic component ; characterized in that the second femoral prosthetic component includes an offset adapter and an elongated stem component configured to be attached to a proximal end of the offset adapter and the method further comprises: rotating the mounting platform of the surgical instrument about a vertically-extending axis; and securing the second femoral prosthetic component to the proximal post of the first femoral prosthetic component in a desired orientation and position. rotating the mounting platform of the surgical instrument about a vertically-extending axis; and securing the second femoral prosthetic component to the proximal post of the first femoral prosthetic component in a desired orientation and position.
A method for removing a workpiece part from the remainder of the workpiece supported in a bearing plane (E), comprising: moving the workpiece part , which is clamped between at least one ejector element of an ejection unit and at least one counter-holding element (14a,b, 49b,c, 47) of a counter-holding unit , along a removal direction (Z), and checking whether the workpiece part has been completely separated from the remainder of the workpiece during movement along the removal direction (Z), characterized by reducing or completely canceling the clamping of the workpiece part and subsequently resuming the clamping of the workpiece part if it is determined during checking that the workpiece part has not been completely separated from the remainder of the workpiece. moving the workpiece part , which is clamped between at least one ejector element of an ejection unit and at least one counter-holding element (14a,b, 49b,c, 47) of a counter-holding unit , along a removal direction (Z), and checking whether the workpiece part has been completely separated from the remainder of the workpiece during movement along the removal direction (Z), characterized by reducing or completely canceling the clamping of the workpiece part and subsequently resuming the clamping of the workpiece part if it is determined during checking that the workpiece part has not been completely separated from the remainder of the workpiece.
Separator device of non-ferrous metals from bulk goods containing non-ferrous metal with bulk particles, the average diameter of which is at least in part smaller than 3 mm, having a conveying equipment and a separator of non-ferrous metals downstream the conveying equipment in the conveying direction, characterised by a vacuum chamber , the ejection trajectories of said bulk goods ejected by said conveying equipment extending within the vacuum chamber .
A clip body with a retainer for a fastening device , wherein the clip body can be fastened to a panel provided with at least one fastening opening , wherein the clip body has two limbs, one of which can be arranged on a first side of the panel and the other one can be arranged on a second side of the panel and for this purpose is pushed onto an edge of the panel , and wherein the clip body has at least one positioning element which can be guided through the fastening opening of the plate , and the clip body can be positioned on the panel by a stop of the positioning element at an edge of the fastening opening , characterized in that the positioning element is at the same time a locking element for stabilization in the axial direction with which the panel can be contacted on a side facing away from the retainer and which has at least one tongue .
Fifth wheel coupling for reversible coupling of a trailer to a tractor, comprising: - a coupling plate for receiving a pin element of the trailer and - a bearing block for pivotably mounting the coupling plate about a pivot axis (S), in particular about a horizontally extending pivot axis (S), characterized in that at least one distance sensor is provided, which determines a distance in relation to a reference surface , wherein a load condition and/or a wear condition of the fifth wheel coupling is determined via the distance and taking into account a correspondingly selected stiffness model for the bearing block, wherein the at least one distance sensor and/or the reference surface is part of the bearing block or is arranged on the bearing block . - a coupling plate for receiving a pin element of the trailer and - a bearing block for pivotably mounting the coupling plate about a pivot axis (S), in particular about a horizontally extending pivot axis (S), characterized in that at least one distance sensor is provided, which determines a distance in relation to a reference surface , wherein a load condition and/or a wear condition of the fifth wheel coupling is determined via the distance and taking into account a correspondingly selected stiffness model for the bearing block, wherein the at least one distance sensor and/or the reference surface is part of the bearing block or is arranged on the bearing block .
A filter stack for a Thomson Parabola spectrometer, the filter stack having a stack of filter foils of a filter material, each of the filter foils is shaped to have filter stripes of a respective stripe size made of the filter material, with gaps of a respective controlled gap size free of the filter material between the stripes , wherein each filter foil has different stripes and gaps. the filter stack having a stack of filter foils of a filter material, each of the filter foils is shaped to have filter stripes of a respective stripe size made of the filter material, with gaps of a respective controlled gap size free of the filter material between the stripes , wherein each filter foil has different stripes and gaps.
A gearing assembly comprising a rotary input member and a rotary output member and a gearing arrangement between the input member and the output member selectively engageable to effect a driving engagement between the input member and the output member through at least a first torque connection having a first gear ratio, a second torque connection having a second gear ratio and a third torque connection having a third gear ratio; wherein the gearing arrangement includes a first engagement member operable selectively to effect the first torque connection in a 1:1 ratio, a first planetary gear stage and a second planetary gear stage , and a second engagement member operable selectively to effect the second torque connection and a third engagement member operable selectively to effect the third torque connection respectively through one or more of the planetary gear stages; and wherein the first engagement member is located on a first side of the input member and the first planetary gear stage, second engagement member , second planetary gear stage and third engagement member are located on a second side of the input member opposite to said first side, and, characterised in that the gearing assembly further comprises a rotary drive mechanism consisting of a rotary electric motor to drive the input member, wherein the first engagement member is located on a first side of the rotary drive mechanism and the first planetary gear stage, second engagement member, second planetary gear stage and third engagement member are located on a second side of the rotary drive mechanism opposite to said first side.
Network control unit comprising: - a noise generation unit for generating low power noise signals (s1, s2, s3) in respective frequency bands; - power amplifier blocks (PA) for respectively amplifying the low power noise signals (s1, s2, S3) into noise signals (S1, S2, S3); and - a multi-band combiner designed for summing the noise signals (S1, S2, S3) into a single output signal (S O ) to be provided to an antenna ; characterized in that the network control unit further comprises, for at least one of the power amplifier blocks (PA), a circulator connected between this power amplifier block (PA) and the multi-band combiner . - a noise generation unit for generating low power noise signals (s1, s2, s3) in respective frequency bands; - power amplifier blocks (PA) for respectively amplifying the low power noise signals (s1, s2, S3) into noise signals (S1, S2, S3); and - a multi-band combiner designed for summing the noise signals (S1, S2, S3) into a single output signal (S O ) to be provided to an antenna ;
Mobile driving device for driving a roller conveyor - a chassis frame , - a traction device (20, 20a-d, 120a-d) mounted to said chassis frame, wherein said traction device is adapted to move said chassis frame on a supporting surface , - a first drive unit (30, 40, 41, 42, 43, 44, 45a,b, 46a,b) mechanically coupled to said traction device to transmit a driving force to said traction device for moving said chassis frame on said supporting surface, - a roller driving device (60, 60a,b, 160a-i, 161a-i, 162, 163a-i, 180, 360, 366a,b, 367, 368a,b, 460, 465, 466) mounted to said chassis frame, wherein said roller driving device is adapted to be mechanically coupled to one or a plurality of rollers (2a-d, 102a-e, 320a-d, 420a-d) of said roller conveyor, and - a second drive unit mechanically coupled to said roller driving device for transmitting a conveying force to said roller driving device, characterized by a control unit coupled to said first drive unit and said second drive unit, wherein said control unit is adapted to control said first and second drive unit such that - in a first mode said first drive unit is stopped and said second drive unit is driven, - in a second mode said first drive unit is driven such that said chassis frame moves along said supporting surface with a first velocity and said second drive unit is driven such that a frictional surface of said roller driving device is driven with a second velocity, said second velocity being twice as high as the first velocity. - a chassis frame , - a traction device (20, 20a-d, 120a-d) mounted to said chassis frame, wherein said traction device is adapted to move said chassis frame on a supporting surface , - a first drive unit (30, 40, 41, 42, 43, 44, 45a,b, 46a,b) mechanically coupled to said traction device to transmit a driving force to said traction device for moving said chassis frame on said supporting surface, - a roller driving device (60, 60a,b, 160a-i, 161a-i, 162, 163a-i, 180, 360, 366a,b, 367, 368a,b, 460, 465, 466) mounted to said chassis frame, wherein said roller driving device is adapted to be mechanically coupled to one or a plurality of rollers (2a-d, 102a-e, 320a-d, 420a-d) of said roller conveyor, and - a second drive unit mechanically coupled to said roller driving device for transmitting a conveying force to said roller driving device, characterized by a control unit coupled to said first drive unit and said second drive unit, wherein said control unit is adapted to control said first and second drive unit such that - in a first mode said first drive unit is stopped and said second drive unit is driven, - in a second mode said first drive unit is driven such that said chassis frame moves along said supporting surface with a first velocity and said second drive unit is driven such that a frictional surface of said roller driving device is driven with a second velocity, said second velocity being twice as high as the first velocity.
Dental article comprising a dental article body made of a ceramic material in the form of yttria-stabilized zirconia YSZ 2 and a coating formed on the surface of said dental article body, wherein the coating comprises crystalline nanostructures, which are made of yttria-stabilized zirconia YSZ 1 and have a size of less than 200 nm, the coating being obtainable by physical vapor deposition using a target made of a zirconium-yttrium alloy or using a target made of zirconium and a target made of yttrium, and wherein the percentage of yttrium in YSZ 1 is higher than the percentage of yttrium in YSZ 2 and the amount of yttria in YSZ 1 is higher than 3 mol-%, the crystal habitus of at least a portion of the nanostructures having at least approximately the shape of a regular convex polyhedron.
A thread-forming mounting screw for mounting metal sheets, comprising a head part , a tip part , a shank part between the head part and the tip part , the tip part having a tapered shape tapering from the shank part to the tip of the screw, and comprising a tip part thread , said tip part thread extending to the very end of the tip , the mounting screw further comprising the shank part comprising a shank part thread , wherein the pitch (P1) of the shank part thread is larger than the pitch (P2) of the tip part thread , and the thread root of the tip part being frustoconical in its shape, characterized in that the angle (α1) of the leading edge of the shank part thread to the normal of the axial direction (A) of the screw is smaller than the angle (α2) of the leading edge of the tip part thread .
A device for isolating an analyte from a body fluid sample , wherein the analyte is part of a target contained in the body fluid sample , said device comprising: - at least two types of magnetic particles , wherein a first type of magnetic particle is capable to bind a target to form a first complex for purifying the target from the body fluid sample , and wherein a second type of magnetic particle is capable to bind an analyte contained in the target to form a second complex for isolating the analyte ; - at least three chambers arranged in series and configured to include fluids, to allow controlled movement of the magnetic particles and to prevent the mixing of fluids, wherein a first chamber enables forming of the first complex by binding of the first magnetic particle to the target , wherein a second chamber enables releasing the analyte from the target and forming of the second complex by binding of the second magnetic particle to the analyte , and wherein a third chamber enables eluting the analyte from the second magnetic particle and isolating the analyte from the body fluid sample ; - an inlet for the introduction of the body fluid sample to one of the chambers ; and - at least one fluid for releasing the analyte from the target . - at least two types of magnetic particles , wherein a first type of magnetic particle is capable to bind a target to form a first complex for purifying the target from the body fluid sample , and wherein a second type of magnetic particle is capable to bind an analyte contained in the target to form a second complex for isolating the analyte ; - at least three chambers arranged in series and configured to include fluids, to allow controlled movement of the magnetic particles and to prevent the mixing of fluids, wherein a first chamber enables forming of the first complex by binding of the first magnetic particle to the target , wherein a second chamber enables releasing the analyte from the target and forming of the second complex by binding of the second magnetic particle to the analyte , and wherein a third chamber enables eluting the analyte from the second magnetic particle and isolating the analyte from the body fluid sample ; - an inlet for the introduction of the body fluid sample to one of the chambers ; and - at least one fluid for releasing the analyte from the target .
A method of lubricating a large two-stroke engine comprising a cylinder with a reciprocal piston inside and with a plurality of lubricant injectors distributed along a perimeter of the cylinder for injection of lubricant into the cylinder at various positions on the perimeter during injection phases; wherein each lubricant injector comprises a nozzle , the nozzle comprising a nozzle exit from which the lubricant leaves the nozzle into the cylinder; wherein the nozzle exit has a diameter D if the nozzle is circular, or wherein the nozzle has an equivalent diameter D which is two times the square root of the nozzle exit area divided by Pi≈3.14, if the nozzle is not circular; wherein the method comprises providing the lubricant with a density ρ, viscosity μ and a pressure P to the nozzle aperture and injection of lubricant into the cylinder as a spray during operation of the engine, characterized in that the method further comprises providing ultrasonic vibrations in the nozzle and selecting the density ρ, viscosity μ and the pressure P for a given diameter D so as to inject the lubricant into the cylinder through the nozzle exit with a Reynolds number above 450 for inducing lubricant cavitation in the nozzle during the injection and influencing characteristics of the spray by the cavitation. wherein each lubricant injector comprises a nozzle , the nozzle comprising a nozzle exit from which the lubricant leaves the nozzle into the cylinder; wherein the nozzle exit has a diameter D if the nozzle is circular, or wherein the nozzle has an equivalent diameter D which is two times the square root of the nozzle exit area divided by Pi≈3.14, if the nozzle is not circular; wherein the method comprises providing the lubricant with a density ρ, viscosity μ and a pressure P to the nozzle aperture and injection of lubricant into the cylinder as a spray during operation of the engine, characterized in that the method further comprises providing ultrasonic vibrations in the nozzle and selecting the density ρ, viscosity μ and the pressure P for a given diameter D so as to inject the lubricant into the cylinder through the nozzle exit with a Reynolds number above 450 for inducing lubricant cavitation in the nozzle during the injection and influencing characteristics of the spray by the cavitation.