mhurhangee/patent-ind-claim-en huggingface dataset:
A method of inspecting pipette tips each extending along a longitudinal axis (L), the method comprising the following method steps: a) Providing pipette tips arranged in a first carrier ; b) Picking up pipette tips from the first carrier by a holding device comprising a plurality of pick-up elements for receiving one pipette tip each; c) Acquiring first image data of the respective pipette tip outlet openings of the pipette tips picked up by the holding device by a first image acquisition device ; d) Acquiring second image data of the pipette tips held in the holding device by a second image acquisition device , the optical axis (OA2) of which is aligned during the acquisition of the second image data transversely to the respective longitudinal axis (L) of the pipette tips held in the holding device and onto the partial segments of the respective pipette tip jacket surfaces of the held pipette tips facing the second image acquisition device ; e) Determining whether or not the first and/or second image data are within predefined allowable limits using a data processing system ; f) Discarding those pipette tips whose first and/or second image data determined in step e) lie outside the predefined allowable limits into a waste container by the holding device ; g) Dispensing those pipette tips whose first and second image data determined in step e) lie within the predefined allowable limits into a second carrier , in particular into a rack ; wherein in method step d) the second image data of several of the pipette tips held in the holding device , preferably of all pipette tips held in the holding device , are acquired simultaneously. a) Providing pipette tips arranged in a first carrier ; b) Picking up pipette tips from the first carrier by a holding device comprising a plurality of pick-up elements for receiving one pipette tip each; c) Acquiring first image data of the respective pipette tip outlet openings of the pipette tips picked up by the holding device by a first image acquisition device ; d) Acquiring second image data of the pipette tips held in the holding device by a second image acquisition device , the optical axis (OA2) of which is aligned during the acquisition of the second image data transversely to the respective longitudinal axis (L) of the pipette tips held in the holding device and onto the partial segments of the respective pipette tip jacket surfaces of the held pipette tips facing the second image acquisition device ; e) Determining whether or not the first and/or second image data are within predefined allowable limits using a data processing system ; f) Discarding those pipette tips whose first and/or second image data determined in step e) lie outside the predefined allowable limits into a waste container by the holding device ; g) Dispensing those pipette tips whose first and second image data determined in step e) lie within the predefined allowable limits into a second carrier , in particular into a rack ; wherein in method step d) the second image data of several of the pipette tips held in the holding device , preferably of all pipette tips held in the holding device , are acquired simultaneously.
An interlocking means for connecting a first panel , a second panel and a leg of a piece of furniture with each other, comprising an elongated element ; and a brace element ; and wherein the elongated element comprises a portion configured to be attached to a first upper surface of the first panel and a first upper surface of the second panel , and either a securing means configured to receive an interconnection element protruding from the leg or an interconnection element configured to match a securing means formed in the leg ; and the brace element comprises a portion configured to be attached to a second lower surface of the first panel and a second lower surface of the second panel , and a through opening configured to receive the interconnection element . an elongated element ; and a brace element ; and wherein the elongated element comprises a portion configured to be attached to a first upper surface of the first panel and a first upper surface of the second panel , and either a securing means configured to receive an interconnection element protruding from the leg or an interconnection element configured to match a securing means formed in the leg ; and a portion configured to be attached to a first upper surface of the first panel and a first upper surface of the second panel , and either a securing means configured to receive an interconnection element protruding from the leg or an interconnection element configured to match a securing means formed in the leg ; and the brace element comprises a portion configured to be attached to a second lower surface of the first panel and a second lower surface of the second panel , and a through opening configured to receive the interconnection element . a portion configured to be attached to a second lower surface of the first panel and a second lower surface of the second panel , and a through opening configured to receive the interconnection element .
A method for spatially modulating electromagnetic radiation comprising the steps of collecting the electromagnetic radiation to be spatially modulated; directing said radiation onto an ordered array of optical elements on a substrate of a spatial modulator; translating said substrate to cause at least two different optical elements to engage the incident radiation at two different times; wherein the array of optical elements of the spatial modulator has at least three optical elements and at least two different types of optical elements thereof which modulate said radiation incident thereon differently; and wherein each of the different types of optical elements causes electromagnetic radiation incident on that element to leave that element in a different state than electromagnetic radiation incident on an optical element of a different type; measuring the substrate position at said two different times; and transmitting said positions to a user. collecting the electromagnetic radiation to be spatially modulated; directing said radiation onto an ordered array of optical elements on a substrate of a spatial modulator; translating said substrate to cause at least two different optical elements to engage the incident radiation at two different times; wherein the array of optical elements of the spatial modulator has at least three optical elements and at least two different types of optical elements thereof which modulate said radiation incident thereon differently; and wherein each of the different types of optical elements causes electromagnetic radiation incident on that element to leave that element in a different state than electromagnetic radiation incident on an optical element of a different type; measuring the substrate position at said two different times; and transmitting said positions to a user.
Extrusion blow mould for the manufacture of hollow objects by extrusion blow moulding, with at least two mould components , e.g. mould halves, which define a mould chamber delimited by a mould chamber wall in the closed state, characterized in that a plurality of temperature sensors with which the temperature of the hollow object in the blow mould can be measured in a plurality of areas of the mould components are integrated into at least one mould component , wherein the temperature sensors are integrated into the mould cavity wall in a flush manner by being inserted into holes in the mould cavity wall and integrated into the mould cavity wall in a flush manner so that the temperature sensors also delimit the mould chamber and constitute the surface of the mould cavity wall in areas. with at least two mould components , e.g. mould halves, which define a mould chamber delimited by a mould chamber wall in the closed state, characterized in that a plurality of temperature sensors with which the temperature of the hollow object in the blow mould can be measured in a plurality of areas of the mould components are integrated into at least one mould component , wherein the temperature sensors are integrated into the mould cavity wall in a flush manner by being inserted into holes in the mould cavity wall and integrated into the mould cavity wall in a flush manner so that the temperature sensors also delimit the mould chamber and constitute the surface of the mould cavity wall in areas.
Method for detecting a defect in a vibration sensor , comprising the spectral whitening (E1) of a vibratory signal ( X ( n )) delivered by the vibration sensor and the calculation (E2) of an indicator of asymmetry in the whitened vibratory signal ( X b (n) ), wherein the calculation of the asymmetry indicator comprises the calculation of a number of positive aberrant points and a number of negative aberrant points in the whitened vibratory signal, a point in the whitened vibratory signal being a positive or negative aberrant point when the absolute value thereof is higher than an aberration threshold (α), and the calculation of the difference between the number of positive aberrant points and a number of negative aberrant points, the method further comprising a step in which a defect in the vibration sensor is detected when the asymmetry indicator exceeds an alarm threshold (μ).
A car comprising: two front wheels ; two rear wheels ; a passenger compartment arranged between the front wheels and the rear wheels ; a body comprising: a windshield delimiting the passenger compartment at the front, a roof covering the passenger compartment at the top, and two front pillars , each delimiting the windshield on the sides; and two covering elements , each of which covers a corresponding front pillar on the outside, comprises an outer cover visible from the outside of the car and comprises a support structure , which is glued to the outer cover and is firmly constrained to the corresponding front pillar ; the car is characterised in that the outer cover of each covering element has a series of projections that are arranged below an edge of the windshield and are arranged at a given distance from each other. two front wheels ; two rear wheels ; a passenger compartment arranged between the front wheels and the rear wheels ; a body comprising: a windshield delimiting the passenger compartment at the front, a roof covering the passenger compartment at the top, and two front pillars , each delimiting the windshield on the sides; and two covering elements , each of which covers a corresponding front pillar on the outside, comprises an outer cover visible from the outside of the car and comprises a support structure , which is glued to the outer cover and is firmly constrained to the corresponding front pillar ; the car is characterised in that the outer cover of each covering element has a series of projections that are arranged below an edge of the windshield and are arranged at a given distance from each other.
An infrared thermographic inspection system for inspection of a unitized composite structure comprising at least a first frame and a second frame , which are spaced apart by a distance, and wherein each frame has an edge, the system comprising: a thermography camera ; one or more lights ; and, a carriage comprising, a carriage body , wherein the thermography camera and the one or more lights are secured to the carriage body , a first support disposed on the carriage body , and a second support disposed on the carriage body , wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame and the second support to rest on the edge of the second frame of the unitized composite structure . a thermography camera ; one or more lights ; and, a carriage comprising, a carriage body , wherein the thermography camera and the one or more lights are secured to the carriage body , a first support disposed on the carriage body , and a second support disposed on the carriage body , wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame and the second support to rest on the edge of the second frame of the unitized composite structure . a carriage body , wherein the thermography camera and the one or more lights are secured to the carriage body , a first support disposed on the carriage body , and a second support disposed on the carriage body , wherein the first support and the second support are spaced apart at a distance for the first support to rest on the edge of the first frame and the second support to rest on the edge of the second frame of the unitized composite structure .
A method of operating a data processing system comprising a control processor , the method comprising: communicatively coupling endpoint devices over a communication fabric (1151-1155, 1150); and establishing, by the control processor , a peer-to-peer arrangement between the endpoint devices over the communication fabric (1151-1155, 1150) by at least providing an isolation function in the communication fabric (1151-1155, 1150) configured to isolate a device fabric address domain associated with the endpoint devices from at least a local fabric address domain associated with a host processor that initiates the peer-to-peer arrangement between the endpoint devices isolating, by the isolation function , the device fabric address domain from the local fabric address domain by at least establishing synthetic endpoint devices , by the control processor , representing the endpoint devices in the local fabric address domain ; redirecting traffic transferred by the host processor for the endpoint devices in the local fabric address domain for delivery to corresponding ones of the endpoint devices in the device fabric address domain ; and responsive to peer-to-peer traffic from a first of the endpoint devices indicating the second of the endpoint devices as a destination in the local fabric address domain , employing a peer-to-peer address trap in the isolation function to receive the peer-to-peer traffic and transfer the peer-to-peer traffic to the second of the endpoint devices in the device fabric address domain . communicatively coupling endpoint devices over a communication fabric (1151-1155, 1150); and establishing, by the control processor , a peer-to-peer arrangement between the endpoint devices over the communication fabric (1151-1155, 1150) by at least providing an isolation function in the communication fabric (1151-1155, 1150) configured to isolate a device fabric address domain associated with the endpoint devices from at least a local fabric address domain associated with a host processor that initiates the peer-to-peer arrangement between the endpoint devices isolating, by the isolation function , the device fabric address domain from the local fabric address domain by at least establishing synthetic endpoint devices , by the control processor , representing the endpoint devices in the local fabric address domain ; redirecting traffic transferred by the host processor for the endpoint devices in the local fabric address domain for delivery to corresponding ones of the endpoint devices in the device fabric address domain ; and responsive to peer-to-peer traffic from a first of the endpoint devices indicating the second of the endpoint devices as a destination in the local fabric address domain , employing a peer-to-peer address trap in the isolation function to receive the peer-to-peer traffic and transfer the peer-to-peer traffic to the second of the endpoint devices in the device fabric address domain .
An elongate dental implant formed as a single monolithic piece for fixation in a patient, said implant comprising: an apical bone anchoring portion for apposition to a zygomatic bone of the patient, and a non-threaded coronal portion , wherein said coronal portion has a length (L2) between 15 to 40 mm, said length (L2) exceeding or equaling a length (L1) of said apical portion , and said apical portion has a maximum outer diameter (Dl) that is equal to or larger than a maximum outer diameter (D2) of said coronal portion an apical bone anchoring portion for apposition to a zygomatic bone of the patient, and a non-threaded coronal portion , wherein said coronal portion has a length (L2) between 15 to 40 mm, said length (L2) exceeding or equaling a length (L1) of said apical portion , and said apical portion has a maximum outer diameter (Dl) that is equal to or larger than a maximum outer diameter (D2) of said coronal portion
A composition comprising particles with an average size of 0.1-10 mm, wherein said particles comprise at least (i) 50%-90% by weight water or an aqueous solution, and (ii) 10%-50% by weight insoluble alpha-glucan or an insoluble cationic ether of said insoluble alpha-glucan, wherein the insoluble alpha-glucan comprises alpha-1,3-glycosidic linkages and has a weight-average degree of polymerization of at least 100. (i) 50%-90% by weight water or an aqueous solution, and (ii) 10%-50% by weight insoluble alpha-glucan or an insoluble cationic ether of said insoluble alpha-glucan,
Confectionary item producing machine comprising a mass area in which liquid confectionary mass is processed, an electric consumer load which is arranged in the mass area , wherein the electric consumer load is arranged in a processing element of the confectionary item producing machine that gets into contact with the liquid confectionary mass, characterized by a cable-less energy transfer unit comprising a transmitter and a receiver for suppling the electric consumer load with electric energy, wherein the receiver is arranged in the mass area . a mass area in which liquid confectionary mass is processed, an electric consumer load which is arranged in the mass area , wherein the electric consumer load is arranged in a processing element of the confectionary item producing machine that gets into contact with the liquid confectionary mass, characterized by a cable-less energy transfer unit comprising a transmitter and a receiver for suppling the electric consumer load with electric energy, wherein the receiver is arranged in the mass area .
Connector for medical fluid lines and the like, comprising a hollow body within which a connector (2; 3) accessible at one end of the body is coaxially housed, and unidirectional coupling means configured to lock the connector (2; 3) in rotation with respect to the body in a direction (F) corresponding to the screwing of said connector (2; 3) and a complementary connector to be coupled therewith, and to enable free rotation of said connector (2; 3) in the opposite direction, characterized in that said connector (2; 3) is configured during use so as to inviolably obstruct the passage through said body permanently thereby providing a safety cap.
Thermal deburring installation having a first and a separate second chamber part (12; 13) for receiving workpieces to be deburred, wherein a closing device is provided, by means of which the first chamber part can be pushed against the second chamber part , or vice versa, with respect to a closing direction , wherein the corresponding closing forces are absorbed by at least one supporting assembly , which has a form that is annular with respect to a transverse axis which is oriented perpendicularly to the closing direction , characterized in that the at least one supporting assembly can be moved relative to the first and the second chamber part (12; 13) transversely to the closing direction .
A longitudinal adjuster for a seat , in particular vehicle seat, comprising at least: a fixed lower track and an upper track slidable coupled to the lower track , an adjustment device for longitudinally adjusting the upper track relative to the lower track , a latch mechanism to latch the upper track relative to the lower track , and an electromechanical device relatively coupled to the latch mechanism , characterized in that the electromechanical device is configured to bias the latch mechanism between a release position (RP) and a latch position (LP), and upon release of the latch mechanism the adjustment device is actuated to drive the upper track relative to the lower track , wherein the adjustment device is arranged outside a profile of the tracks . a fixed lower track and an upper track slidable coupled to the lower track , an adjustment device for longitudinally adjusting the upper track relative to the lower track , a latch mechanism to latch the upper track relative to the lower track , and an electromechanical device relatively coupled to the latch mechanism , characterized in that the electromechanical device is configured to bias the latch mechanism between a release position (RP) and a latch position (LP), and upon release of the latch mechanism the adjustment device is actuated to drive the upper track relative to the lower track , wherein the adjustment device is arranged outside a profile of the tracks .
A cable system having an implant and a sensor integrated onto the implant, the implant being configured to be attached to a femur bone and to envelope the femur bone, the sensor enabling to measure a force applied on the femur bone by the implant providing the required force and carrying out the enveloping force that is required in order for the implant to be used efficiently the implant comprising - at least a main body , - at least a tightening cable , which extends along the main body and which enables the implant to envelope the bone, - at least an adjustment hole located in the main body which enables the winding of the tightening cable around the bone to be wound with force, wherein the sensor is configured to measure the force applied onto the tightening cable , the force direction, displacement, displacement direction, deformation, deformation direction and all other similar data, characterised in that the sensor is positioned within the tightening cable . - at least a main body , - at least a tightening cable , which extends along the main body and which enables the implant to envelope the bone, - at least an adjustment hole located in the main body which enables the winding of the tightening cable around the bone to be wound with force, wherein the sensor is configured to measure the force applied onto the tightening cable , the force direction, displacement, displacement direction, deformation, deformation direction and all other similar data, characterised in that the sensor is positioned within the tightening cable .
A screen capture method, comprising: detecting that a two finger swipe parallel in a same direction on a screen; acquiring (S140) start point positions, end point positions; acquiring (S110) a screen capture region according to the start point positions, the end point positions; and acquiring (S120), according to the screen capture region, an image displayed in the screen capture region; characterized in that before acquiring the screen capture region, the method further comprises: acquiring (S130) swipe tracks of the same-direction parallel swiping; acquiring (S111) the screen capture region according to the start point positions, the end point positions and the swipe tracks. detecting that a two finger swipe parallel in a same direction on a screen; acquiring (S140) start point positions, end point positions; acquiring (S110) a screen capture region according to the start point positions, the end point positions; and acquiring (S120), according to the screen capture region, an image displayed in the screen capture region; characterized in that before acquiring the screen capture region, the method further comprises: acquiring (S130) swipe tracks of the same-direction parallel swiping; acquiring (S111) the screen capture region according to the start point positions, the end point positions and the swipe tracks. acquiring (S130) swipe tracks of the same-direction parallel swiping; acquiring (S111) the screen capture region according to the start point positions, the end point positions and the swipe tracks.