mhurhangee/ep-ind-claims huggingface dataset:
An electrosurgical system for sealing tissue, comprising: a forceps (10, 700) including opposing jaw members (110, 120, 600, 620) that cooperate to grasp tissue therebetween, each jaw member including a sealing plate (112, 122) that is connected to an electrosurgical generator and is configured to communicate electrosurgical energy through the tissue held therebetween; at least one sensor (170a, 170b) configured to determine a gap distance between the sealing plates of the jaw members; and characterised by a microprocessor programmed to communicate with the at least one sensor to measure an initial gap distance between the sealing plates and to generate a desired gap distance trajectory based on the initial gap distance, the microprocessor further programmed to communicate with the at least one sensor to adjust an output level of the electrosurgical generator as a function of the measured gap distance during the sealing process to match the measured gap distance with a corresponding desired gap distance. a forceps (10, 700) including opposing jaw members (110, 120, 600, 620) that cooperate to grasp tissue therebetween, each jaw member including a sealing plate (112, 122) that is connected to an electrosurgical generator and is configured to communicate electrosurgical energy through the tissue held therebetween; at least one sensor (170a, 170b) configured to determine a gap distance between the sealing plates of the jaw members; and characterised by a microprocessor programmed to communicate with the at least one sensor to measure an initial gap distance between the sealing plates and to generate a desired gap distance trajectory based on the initial gap distance, the microprocessor further programmed to communicate with the at least one sensor to adjust an output level of the electrosurgical generator as a function of the measured gap distance during the sealing process to match the measured gap distance with a corresponding desired gap distance.
An adjustable antenna mounting system for installation of antennas on a surface of a vehicle, the system comprising at least one beam segment adapted to receive at least one antenna for mounting thereon, and at least two leg members each comprising means for fastening the leg member to the vehicle, characterised in that: the beam segment has a substantially C-shaped cross section, and each of the at least two leg members is arranged to be removably fastened to the beam segment at any longitudinal position along the length of the beam segment and dimensioned to elevate the beam segment from the surface of the vehicle when the leg members are fastened to the vehicle. the beam segment has a substantially C-shaped cross section, and each of the at least two leg members is arranged to be removably fastened to the beam segment at any longitudinal position along the length of the beam segment and dimensioned to elevate the beam segment from the surface of the vehicle when the leg members are fastened to the vehicle.
A cutting unit for cutting a web of labelling material fed off a roll, comprising: a vacuum drum; a rotary blade drum rotatable about a relative axis and bearing at least one rotary blade arranged peripherally; a stationary blade group supporting a stationary blade in a predetermined position relative to the lateral surface of said rotary blade drum; a blow block for directing a flow of compressed air towards said labelling material web as it is transferred from the rotary blade drum onto the vacuum drum; a support structure for supporting said stationary blade group and said blow block in operative coupling with said rotary blade drum; characterised in that said rotation axis of said rotary blade drum identifies, with the rotation axis of said vacuum drum, a symmetry plane; said support structure defining two seats (117a, 117b) arranged symmetrically with respect to said symmetry plane and adapted to receive either of said stationary blade group and said blow block, so that said cutting unit can be assembled in either right-hand or left-hand configuration. a vacuum drum; a rotary blade drum rotatable about a relative axis and bearing at least one rotary blade arranged peripherally; a stationary blade group supporting a stationary blade in a predetermined position relative to the lateral surface of said rotary blade drum; a blow block for directing a flow of compressed air towards said labelling material web as it is transferred from the rotary blade drum onto the vacuum drum; a support structure for supporting said stationary blade group and said blow block in operative coupling with said rotary blade drum; characterised in that said rotation axis of said rotary blade drum identifies, with the rotation axis of said vacuum drum, a symmetry plane; said support structure defining two seats (117a, 117b) arranged symmetrically with respect to said symmetry plane and adapted to receive either of said stationary blade group and said blow block, so that said cutting unit can be assembled in either right-hand or left-hand configuration.
A computer implemented method for testing the operation of a target computer system, said operation of the target computer system being constrained by a set of timed requirements, wherein a timed requirement corresponds to constraints, including timing constraints, between outputs of the target computer system and inputs to said target computer system, wherein said method is characterized in that it comprises defining subsets of timed requirements of the set, and for each subset of a plurality of subsets, iterating steps of: - searching for an execution sequence of the target computer system, referred to as witness trace, satisfying a criterion for detecting a conflict between timed requirements of the subset; - when a witness trace is found: searching for a contradicting timed requirement among the timed requirements of the set which are not present in the subset, which prevents the witness trace to occur when considered with the subset; - when a contradicting timed requirement is found: augmenting the subset by including the contradicting timed requirement in the subset; wherein an inconsistency of the operation of the target computer system constrained by the set of timed requirements is detected when a witness trace is found for at least one subset and no contradicting timed requirement is found for said witness trace. - searching for an execution sequence of the target computer system, referred to as witness trace, satisfying a criterion for detecting a conflict between timed requirements of the subset; - when a witness trace is found: searching for a contradicting timed requirement among the timed requirements of the set which are not present in the subset, which prevents the witness trace to occur when considered with the subset; - when a contradicting timed requirement is found: augmenting the subset by including the contradicting timed requirement in the subset;
A steering device comprising: a steering shaft; and a torque index sensor coupled to the steering shaft, wherein the torque index sensor includes a rotor, rotating with an input shaft of the steering shaft, having a first magnet on an outer circumferential surface thereof; a stator disposed on an outer side of the first magnet and rotating with an output shaft of the steering shaft; a magnet seating member disposed on a lower side of the stator and rotating with the second shaft; and a second magnet combined with a lower side of the magnet seating member and rotating with the second shaft, characterized in that the torque index sensor includes a circuit board; a first cover configured to accommodate the circuit board; a first Hall sensor and a second Hall sensor mounted on the circuit board; a magnet seating member coupled to the stator; a second magnet coupled to the magnet seating member; and a second cover made of a metal material and coupled to the first cover, wherein the magnet seating member and the second magnet are disposed between the first cover and the second cover, the second cover includes an upper plate in which a through hole is formed and a side plate configured to extend in a rotational axis direction from the upper plate, and the side plate includes a groove formed at a location corresponding to the second Hall sensor. a steering shaft; and a torque index sensor coupled to the steering shaft, wherein the torque index sensor includes a rotor, rotating with an input shaft of the steering shaft, having a first magnet on an outer circumferential surface thereof; a stator disposed on an outer side of the first magnet and rotating with an output shaft of the steering shaft; a magnet seating member disposed on a lower side of the stator and rotating with the second shaft; and a second magnet combined with a lower side of the magnet seating member and rotating with the second shaft, characterized in that the torque index sensor includes a circuit board; a first cover configured to accommodate the circuit board; a first Hall sensor and a second Hall sensor mounted on the circuit board; a magnet seating member coupled to the stator; a second magnet coupled to the magnet seating member; and a second cover made of a metal material and coupled to the first cover, wherein the magnet seating member and the second magnet are disposed between the first cover and the second cover, the second cover includes an upper plate in which a through hole is formed and a side plate configured to extend in a rotational axis direction from the upper plate, and the side plate includes a groove formed at a location corresponding to the second Hall sensor.
A lock, in particular door lock, having a locking latch which is rotatable to and fro between a locking position and an unlocking position, a locking holder in which the locking latch can engage in the locking position, and a stop limiting the rotational movement of the locking latch, wherein the stop is configured as a repositionable stop which is usable for providing different stop positions (P1, P2) in different stop receptacles (8,9) characterized in that the stop receptacles (8, 9) are arranged on the locking holder.
A method comprising: receiving at a processor a pair of stereo images of objects in an environment captured by an image capture device; computing, using a parallel processing unit, a disparity map from the stereo images, the disparity map comprising values related to depths of the objects from the image capture device; by traversing, in parallel using a multi-threaded process, a plurality of rows or a plurality of columns of the disparity map and spatially propagating values at image elements of the disparity map along the rows or columns according to a measure of similarity between the stereo images; and wherein spatially propagating the values comprises using one thread per row or per column and replacing a disparity value at a current location of a row or column only by the value of a previous neighbor on the row or column. receiving at a processor a pair of stereo images of objects in an environment captured by an image capture device; computing, using a parallel processing unit, a disparity map from the stereo images, the disparity map comprising values related to depths of the objects from the image capture device; by traversing, in parallel using a multi-threaded process, a plurality of rows or a plurality of columns of the disparity map and spatially propagating values at image elements of the disparity map along the rows or columns according to a measure of similarity between the stereo images; and wherein spatially propagating the values comprises using one thread per row or per column and replacing a disparity value at a current location of a row or column only by the value of a previous neighbor on the row or column.
Method for joining two plastic profiles (21, 22), in particular for producing a sash frame or block frame, comprising the following sequence of steps: - bringing together the two plastic profiles (21, 22) such that, at the latest when the surfaces of the plastic profiles (21, 22) to be connected come into contact, a mechanically stable join is formed and an abutting edge is formed between the plastic profiles (21, 22), - moving a pressure body (4, 4a, 4b, 4c) along the longitudinal extension of the abutting edge, wherein the pressure body (4, 4a, 4b, 4c) exerts a force on the abutting edge which force is directed from an acute angle up to a right angle relative to the longitudinal extension of the abutting edge, characterised in that the pressure body is designed as a rotatably mounted rolling pressure body, and a welding bead protruding on the abutting edge beyond the outer contour of the joined plastic profiles (21, 22) is pushed by the pressure body (4, 4a, 4b, 4c) into the abutting region of the two plastic profiles (21, 22). - bringing together the two plastic profiles (21, 22) such that, at the latest when the surfaces of the plastic profiles (21, 22) to be connected come into contact, a mechanically stable join is formed and an abutting edge is formed between the plastic profiles (21, 22), - moving a pressure body (4, 4a, 4b, 4c) along the longitudinal extension of the abutting edge, wherein the pressure body (4, 4a, 4b, 4c) exerts a force on the abutting edge which force is directed from an acute angle up to a right angle relative to the longitudinal extension of the abutting edge, the pressure body is designed as a rotatably mounted rolling pressure body, and a welding bead protruding on the abutting edge beyond the outer contour of the joined plastic profiles (21, 22) is pushed by the pressure body (4, 4a, 4b, 4c) into the abutting region of the two plastic profiles (21, 22).
Cooking appliance device having at least a first and at least a second heating frequency unit (10, 12) and having at least one control unit that is provided so as to operate the at least two heating frequency units (10, 12) simultaneously periodically with one period duration and to divide the period duration into at least two time intervals (T A, T B), characterized in that the control unit is provided so as to select a control mode (f 1x, f 2x) for each of the at least two time intervals (T A, T B) from a catalogue of control modes (f 1x, f 2x), wherein the control mode (f 1x, f 2x) is a mode of control of at least two heating frequency units by the control unit in a time interval (T A, T B) and wherein two different control modes (f 1x, f 2x) are defined by virtue of the fact that the two control modes (f 1x, f 2x) involve operating a different number of heating frequency units (10, 12) and/or using a different number of frequencies (f 1A, f 2A, f 1B, f 2B) and/or said control modes differ by at least one calculating method by means of which at least one frequency (f 1A, f 2A, f 1B, f 2B) that is used in the control mode (f 1X, f 2X) is produced from another frequency (f 1A, f 2A, f 1B, f 2B) that is used in the control mode (f 1X, f 2X).
Device for visual detection of analytes in an analysis or liquid sample derived from the human or animal organism comprising a support plate with at least one test strip receptacle, in which a test strip provided with a sample receiving portion and a test section is arranged, which at least one test strip receptacle is at least partially closed via a cover layer non-detachably connected to the support plate, which cover layer has a control window in the area of the test section of the test strip of the at least one test strip receptacle, characterised in that the support plate is made of cardboard, wherein existing test strip receptacles and/or reservoirs are formed by impressions or recesses of an interlayer arranged between cover film and support plate.
Turbomachine rotor such as a turbojet-engine fan, comprising a disc with substantially axial alveoli and with a dovetail cross section on the rim, blades mounted individually in the alveoli, and interblade platforms mounted between the alveoli, an axial wedge (143; 243) being disposed between the root of the blades and the bottom of the alveoli and a transverse bolt (144; 244) providing the upstream axial locking of the blades in their alveolus, the bolt being guided in radial recesses provided in the flanks of the alveoli and bearing radially on the wedge, said interblade platforms being held in place by means of an annular sleeve (145; 245) comprising a part (145b, 245b) forming an abutment for a lug (8'a) provided on said interblade platforms, characterised by the fact that the axial wedge (143; 243) is immobilised in the upstream direction by being in abutment against a transverse annular piece (145a; 5"a) secured to the disc.
A composite building construction system, comprising: a frame, a unitary wallboard, and a concrete layer; said unitary wallboard comprising an outer portion and inset portion; wherein said unitary wallboard is attached to said frame with said outer portion covering an exterior side of said frame and said inset portion is disposed within said frame, said unitary wallboard providing exterior and interior insulation for said system; and wherein said concrete layer is provided on said outer portion of said unitary wallboard; characterized in that the composite building construction system further comprises one or more rebar supports attached to said frame at said exterior side of said frame. a frame, a unitary wallboard, and a concrete layer; said unitary wallboard comprising an outer portion and inset portion; wherein said unitary wallboard is attached to said frame with said outer portion covering an exterior side of said frame and said inset portion is disposed within said frame, said unitary wallboard providing exterior and interior insulation for said system; and wherein said concrete layer is provided on said outer portion of said unitary wallboard; characterized in that the composite building construction system further comprises one or more rebar supports attached to said frame at said exterior side of said frame.
A machine tool on-machine measurement method for determining a position of a workpiece or jig on a table with an imaging device by changing the posture of the table with a rotary feed axis, the method comprising: an upward imaging step wherein the table is moved to a first imaging position by rotating the rotary feed axis to orient an upper surface of the table such that the upper surface of the table faces a line-of-sight direction of the imaging device and wherein the workpiece or jig is imaged with the imaging device, a side imaging step wherein the table is moved to a second imaging position by rotating by 90° the rotary feed axis to orient a side surface of the table in the light-of-sight direction of the imaging device and wherein the workpiece or jig is imaged with the imaging device, and a calculation step wherein the shape and dimensions of the workpiece or jig in a plane of the table and the shape and dimensions of a side surface of the workpiece or jig, perpendicular to the plane of the table, are obtained by extracting image edge pixels after binarizing the images captured during the upward imaging step and the side imaging step and counting the number of pixels in the X and Y axis directions, and wherein the position of the workpiece or jig is calculated by a controller of the machine tool from the images captured in the upward imaging step and the side imaging step. an upward imaging step wherein the table is moved to a first imaging position by rotating the rotary feed axis to orient an upper surface of the table such that the upper surface of the table faces a line-of-sight direction of the imaging device and wherein the workpiece or jig is imaged with the imaging device, a side imaging step wherein the table is moved to a second imaging position by rotating by 90° the rotary feed axis to orient a side surface of the table in the light-of-sight direction of the imaging device and wherein the workpiece or jig is imaged with the imaging device, and a calculation step wherein the shape and dimensions of the workpiece or jig in a plane of the table and the shape and dimensions of a side surface of the workpiece or jig, perpendicular to the plane of the table, are obtained by extracting image edge pixels after binarizing the images captured during the upward imaging step and the side imaging step and counting the number of pixels in the X and Y axis directions, and wherein the position of the workpiece or jig is calculated by a controller of the machine tool from the images captured in the upward imaging step and the side imaging step.
A method, comprising: measuring an amount of liquid produced from a well by a pumping unit during a predetermined time period; determining first areas of first pump cards during the predetermined time period; summing the first areas; determining a pressure difference across a downhole pump of the pumping unit; and based on the amount of liquid produced, the summed first areas, and the pressure difference, determining a leakage proportionality constant of the downhole pump of the pumping unit. measuring an amount of liquid produced from a well by a pumping unit during a predetermined time period; determining first areas of first pump cards during the predetermined time period; summing the first areas; determining a pressure difference across a downhole pump of the pumping unit; and based on the amount of liquid produced, the summed first areas, and the pressure difference, determining a leakage proportionality constant of the downhole pump of the pumping unit.
An item ex-warehouse method, comprising: receiving and recording virtual warehouse location in-warehouse information of an item in a package stored at an express delivery station based on a cancel instruction of a first item acquisition task that is triggered by a user and is monitored and based on a determination result that the package corresponding to the first item acquisition task is in an undelivered state, wherein the express delivery station is used as a virtual warehouse location in a main warehouse where an item is initially ex-warehoused; determining to ex-warehouse the item from the virtual warehouse location based on a generation instruction of a second item acquisition task that is triggered by the user and is monitored and based on a determination result that it is determined that the second item acquisition task includes the item and a package transportation route corresponding to the second item acquisition task includes the express delivery station; and associating the item in the virtual warehouse location with the second item acquisition task, and associating virtual warehouse location ex-warehouse information of the item with the second item acquisition task. receiving and recording virtual warehouse location in-warehouse information of an item in a package stored at an express delivery station based on a cancel instruction of a first item acquisition task that is triggered by a user and is monitored and based on a determination result that the package corresponding to the first item acquisition task is in an undelivered state, wherein the express delivery station is used as a virtual warehouse location in a main warehouse where an item is initially ex-warehoused; determining to ex-warehouse the item from the virtual warehouse location based on a generation instruction of a second item acquisition task that is triggered by the user and is monitored and based on a determination result that it is determined that the second item acquisition task includes the item and a package transportation route corresponding to the second item acquisition task includes the express delivery station; and associating the item in the virtual warehouse location with the second item acquisition task, and associating virtual warehouse location ex-warehouse information of the item with the second item acquisition task.