mhurhangee/ep-ind-claims huggingface dataset:
A system for assembly manufacturing comprising: at least one tacking cell configured to perform at least one tack fastening operation on a workpiece; at least one fastening cell configured to perform at least one final fastening operation on said workpiece; and a material-handling system linking said tacking cell and said fastening cell, wherein said material-handling system positions said workpiece within said tacking cell, and wherein said material-handling system transfers said workpiece from said tacking cell to said fastening cell; characterized in that said material-handling system comprises: a pair of transfer rails positioned above said tacking cell and said fastening cell; and at least one gantry movable along said pair of transfer rails between said tacking cell and said fastening cell; wherein a robotic assembly is movable along said gantry and said robotic assembly includes a robot carriage operably connected to an underside of the gantry and a robotic arm operatively connected to the robotic carriage. at least one tacking cell configured to perform at least one tack fastening operation on a workpiece; at least one fastening cell configured to perform at least one final fastening operation on said workpiece; and a material-handling system linking said tacking cell and said fastening cell, wherein said material-handling system positions said workpiece within said tacking cell, and wherein said material-handling system transfers said workpiece from said tacking cell to said fastening cell; characterized in that said material-handling system comprises: a pair of transfer rails positioned above said tacking cell and said fastening cell; and at least one gantry movable along said pair of transfer rails between said tacking cell and said fastening cell; wherein a robotic assembly is movable along said gantry and said robotic assembly includes a robot carriage operably connected to an underside of the gantry and a robotic arm operatively connected to the robotic carriage. a pair of transfer rails positioned above said tacking cell and said fastening cell; and at least one gantry movable along said pair of transfer rails between said tacking cell and said fastening cell; wherein a robotic assembly is movable along said gantry and said robotic assembly includes a robot carriage operably connected to an underside of the gantry and a robotic arm operatively connected to the robotic carriage.
A method of controlling set up of a probe tunnel used for probing purposes stretching from an access network node through a core network towards a core network node (16, 16'), the method comprising: determining a first Fully Qualified Tunnel Endpoint Identifier, or F-TEID, associated with the core network node (16, 16'); sending a first probe tunnel set up instruction to the access network node for instructing the access network node to locally set up the probe tunnel towards the core network node (16, 16') based on the first F-TEID; and sending a second probe tunnel set up instruction to the core network node (16, 16') for instructing the core network node (16, 16') to locally set up the probe tunnel based on a second F-TEID associated with the access network node; wherein at least one of the first F-TEID and the second F-TEID is determined from a predetermined pool of F-TEIDs pre-allocated to network nodes participating in the probe tunnel setup. determining a first Fully Qualified Tunnel Endpoint Identifier, or F-TEID, associated with the core network node (16, 16'); sending a first probe tunnel set up instruction to the access network node for instructing the access network node to locally set up the probe tunnel towards the core network node (16, 16') based on the first F-TEID; and sending a second probe tunnel set up instruction to the core network node (16, 16') for instructing the core network node (16, 16') to locally set up the probe tunnel based on a second F-TEID associated with the access network node; wherein at least one of the first F-TEID and the second F-TEID is determined from a predetermined pool of F-TEIDs pre-allocated to network nodes participating in the probe tunnel setup.
A method performed by a computing device comprising processing hardware and storage hardware (112, 226), the method comprising: executing a virtualization layer that manages execution of virtual machines on the processing hardware, each virtual machine comprising a respective virtual processor and a respective guest operating system (116/118); switching, by the virtualization layer, execution contexts of the virtual machines to enable the guest operating systems to issue instructions to the virtual processors; based on the instructions of the guest operating systems being executed by the virtual processors, recording execution trace data (140, 162) comprising (i) the instructions of the guest operating systems executed by the virtual processors, (ii) memory portions selected for tracing on the basis of the memory portions storing inputs and/or outputs of the captured instructions, and (iii) ordering markers inserted into the execution trace data by the virtualization layer, each said ordering marker corresponding to a respective determination that a context switch has occurred in the execution trace data; recording the execution trace data to a buffer; and copying the execution trace data from the buffer to persistent storage. executing a virtualization layer that manages execution of virtual machines on the processing hardware, each virtual machine comprising a respective virtual processor and a respective guest operating system (116/118); switching, by the virtualization layer, execution contexts of the virtual machines to enable the guest operating systems to issue instructions to the virtual processors; based on the instructions of the guest operating systems being executed by the virtual processors, recording execution trace data (140, 162) comprising (i) the instructions of the guest operating systems executed by the virtual processors, (ii) memory portions selected for tracing on the basis of the memory portions storing inputs and/or outputs of the captured instructions, and (iii) ordering markers inserted into the execution trace data by the virtualization layer, each said ordering marker corresponding to a respective determination that a context switch has occurred in the execution trace data; recording the execution trace data to a buffer; and copying the execution trace data from the buffer to persistent storage.
An oral and dental care and cleaning agent, containing, based on its weight: a) from 0.001 to 5 wt.% copolymer(s), comprising at least one structural unit of formula and at least one structural unit of formula in which R 1 represents a (C 1 to C 18) alkyl group R 2 represents a (C 1 to C 6) alkyl group M represents a hydrogen atom or an equivalent of a monovalent or polyvalent cation; b) from 0.001 to 5 wt.% polymer(s) from the group comprising chitosan and chitosan derivatives; c) from 1 to 20 wt.% precipitated silica(s) having a specific surface area according to ISO 5794-1, Annex D, of ≤ 60 m 2 /g. a) from 0.001 to 5 wt.% copolymer(s), comprising at least one structural unit of formula and at least one structural unit of formula in which R 1 represents a (C 1 to C 18) alkyl group R 2 represents a (C 1 to C 6) alkyl group M represents a hydrogen atom or an equivalent of a monovalent or polyvalent cation; R 1 represents a (C 1 to C 18) alkyl group R 2 represents a (C 1 to C 6) alkyl group M represents a hydrogen atom or an equivalent of a monovalent or polyvalent cation; b) from 0.001 to 5 wt.% polymer(s) from the group comprising chitosan and chitosan derivatives; c) from 1 to 20 wt.% precipitated silica(s) having a specific surface area according to ISO 5794-1, Annex D, of ≤ 60 m 2 /g.
A method for producing a crystal of silicon carbide, the method comprising rotating a seed crystal of silicon carbide while bringing the seed crystal into contact with a starting material solution containing silicon and carbon, wherein a crystal growth surface of the seed crystal has an off-angle, the position of a rotation center of the seed crystal lies downstream of the central position of the seed crystal in a step flow direction that is a formation direction of the off-angle, and rotation of the seed crystal includes periodic repeating of forward rotation and reverse rotation.
Mold filling machine for forming and filling plastic containers, comprising: a plurality of treatment stations, each having a hollow mold in which a preform can be formed into the plastic container and filled, characterized by at least one refill device arranged downstream of the treatment stations for dosing product into the respective, already filled plastic containers, wherein the machine further comprises: at least one fill level sensor and a control/regulating device which controls or regulates the refill device in response to a signal of the fill level sensor in such a manner that the control/regulating device sends a signal to the refill device in such a manner that product is additionally dosed when it is determined at the fill level sensor that the minimum fill height is not reached. a plurality of treatment stations, each having a hollow mold in which a preform can be formed into the plastic container and filled, characterized by at least one refill device arranged downstream of the treatment stations for dosing product into the respective, already filled plastic containers, wherein the machine further comprises: at least one fill level sensor and a control/regulating device which controls or regulates the refill device in response to a signal of the fill level sensor in such a manner that the control/regulating device sends a signal to the refill device in such a manner that product is additionally dosed when it is determined at the fill level sensor that the minimum fill height is not reached. at least one fill level sensor and a control/regulating device which controls or regulates the refill device in response to a signal of the fill level sensor in such a manner that the control/regulating device sends a signal to the refill device in such a manner that product is additionally dosed when it is determined at the fill level sensor that the minimum fill height is not reached.
Lifting gear for use in the confined spaces of a rotor hub and/or the blade roots of a wind energy turbine, comprising a mounting element and an attachment element for attaching a lifting tool, wherein the mounting element and the attachment element are connected by a series of vertically extending segments, wherein adjacent segments are interconnected pivotally in a horizontal plane for the attachment element being freely movable and alignable in a horizontal plane in respect to the mounting element, characterized in that the mounting element comprises an upper fixing point and a lower fixing point, wherein position of the lower fixing point relative of to the upper fixing point is adjustable along a circular path around the upper fixing point.
Safety device, comprising a quick-change device and a tool holder, preventing accidental falling out of the tool holder from the quick-change device during a coupling process, wherein on the quick-change device at least one ring piece (2, 22) is arranged, the internal diameter of which corresponds to the external diameter of a receiving bolt, and the ring piece (2, 22) can engage at least into half the circumference of the receiving bolt, characterized in that the receiving bolt is mounted on the tool holder, in that an opening of the ring piece (2, 22) faces in the direction of a catch slot, and wherein on the tool holder in the region of the receiving bolt at least one clamping piece is arranged at a distance to the receiving bolt, which corresponds to the ring thickness of the ring piece (2, 22), in that the clamping piece, in its position with respect to a preselected threading direction with a threading angle, lies on a line that passes through the center of the receiving bolt and runs substantially perpendicularly to the preselected threading direction and the threading angle, and in that therefore in the threaded-in state the quick-change device and the tool holder can only hook off and hook on in one threading direction. the receiving bolt is mounted on the tool holder, in that an opening of the ring piece (2, 22) faces in the direction of a catch slot, and wherein on the tool holder in the region of the receiving bolt at least one clamping piece is arranged at a distance to the receiving bolt, which corresponds to the ring thickness of the ring piece (2, 22), in that the clamping piece, in its position with respect to a preselected threading direction with a threading angle, lies on a line that passes through the center of the receiving bolt and runs substantially perpendicularly to the preselected threading direction and the threading angle, and in that therefore in the threaded-in state the quick-change device and the tool holder can only hook off and hook on in one threading direction.
A method of analyzing a seismic volume comprising: receiving the seismic volume; identifying one or more geologic intervals; transforming the seismic volume into a stratal-slice volume; characterized by: recognizing and obtaining bounding surfaces of depositional systems or elements of depositional systems in the stratal-slice volume; and inverse-transforming the bounding surfaces to the coordinate space of the original seismic volume. receiving the seismic volume; identifying one or more geologic intervals; transforming the seismic volume into a stratal-slice volume; recognizing and obtaining bounding surfaces of depositional systems or elements of depositional systems in the stratal-slice volume; and inverse-transforming the bounding surfaces to the coordinate space of the original seismic volume.
Method for defence against a missile by means of defensive radiation, in which the missile is identified as such and it is then identified whether the missile is to be classified as attacking, and in which a defensive strategy is produced and defensive radiation is directed at the missile in accordance with the defensive strategy, wherein the defensive strategy is produced as a function of an irradiation angle between the irradiation direction and the direction of flight of the missile, in order, during defence against the missile, to deposit as much radiation energy as possible in selected, functionally sensitive missile elements of the missile in order to reliably damage them, and wherein the defensive strategy indicates a missile element to be irradiated, which was selected as a function of the irradiation angle during the production of the defensive strategy.
An exhaust treatment device for a diesel engine, in which a combustible gas generating catalyst chamber is provided in a combustible gas generator, a combustible gas generating catalyst is housed in the combustible gas generating catalyst chamber, an air-fuel mixing chamber is formed at an upper portion of the combustible gas generator, air and liquid fuel are supplied into the air-fuel mixing chamber to thereby form an air-fuel mixture of the air and the liquid fuel in the air-fuel mixing chamber, the air-fuel mixture is supplied from a lower end portion of the air-fuel mixing chamber to a catalyst inlet portion at a centre of an upper portion of the combustible gas generating catalyst, the combustible gas generating catalyst generates combustible gas, the combustible gas flows out from a catalyst outlet portion in a lower end portion of the combustible gas generating catalyst, the combustible gas is released from a combustible gas release port into an exhaust passage on an upstream side of a diesel particulate filter, the combustible gas is burned with oxygen in exhaust, combustion heat increases a temperature of the exhaust 6, and heat of the exhaust can burn and remove particulate matter accumulating in the diesel particulate filter; characterised in that, in order to cause a heater for radiating heat at a start of generation of the combustible gas to enter a catalyst inlet portion, and fit a liquid fuel retaining member over a periphery of the heater, a guide plate is provided to a lower face of the liquid fuel retaining member so that the air-fuel mixture moving down in the liquid-fuel retaining member flows along an upper face of the guide plate out to a periphery of the guide plate.
An orthopedic surgical device for use in operating on a target bone (104, 208, 302), comprising: a primary positioning block (204, 306, 402); a secondary positioning component removably coupled to the primary positioning block (204, 306, 402), the secondary positioning component configured to be placed on and engage a prepared engagement feature machined into the target bone (104, 208, 302); and guide the primary positioning block (204, 306, 402) to a predetermined position on the target bone (104, 208, 302); and a first cutting block, configured to: removably couple to the primary positioning block (204, 306, 402); and guide a cutting tool to cut the target bone (104, 208, 302), characterized in that the primary positioning block (204, 306, 402) is configured to be positioned on an anterior surface of the target bone, and in that each one of the secondary positioning component and the first cutting block is configured to be coupled distally to the primary positioning block (204, 306, 402). a primary positioning block (204, 306, 402); a secondary positioning component removably coupled to the primary positioning block (204, 306, 402), the secondary positioning component configured to be placed on and engage a prepared engagement feature machined into the target bone (104, 208, 302); and guide the primary positioning block (204, 306, 402) to a predetermined position on the target bone (104, 208, 302); and a first cutting block, configured to: removably couple to the primary positioning block (204, 306, 402); and guide a cutting tool to cut the target bone (104, 208, 302), characterized in that the primary positioning block (204, 306, 402) is configured to be positioned on an anterior surface of the target bone, and in that each one of the secondary positioning component and the first cutting block is configured to be coupled distally to the primary positioning block (204, 306, 402). be placed on and engage a prepared engagement feature machined into the target bone (104, 208, 302); and guide the primary positioning block (204, 306, 402) to a predetermined position on the target bone (104, 208, 302); and a first cutting block, configured to: removably couple to the primary positioning block (204, 306, 402); and guide a cutting tool to cut the target bone (104, 208, 302),
An x-ray tube, suitable for use in a mammography imaging procedure, comprising: an evacuated enclosure having a first end and a second end interconnected by a side wall; a bearing assembly; an anode rotatably supported by the bearing assembly within the evacuated enclosure, the anode including: a target surface facing the bearing assembly, the target surface comprising a frustoconical portion including a focal track, an opposite second surface facing the first end of the evacuated enclosure, the second surface positioned adjacent to the first end of the evacuated enclosure with no intervening structure therebetween; a cathode assembly positioned to emit electrons for impingement on a focal spot portion of the focal track of the first surface; the x-ray tube characterized in that the evacuated enclosure is positioned within an outer housing, such that the first end of the evacuated enclosure is positioned adjacent to a first end of the outer housing, such that the adjacent positioning of the second surface of the anode to the first end of the evacuated housing and the first end of the evacuated housing to the first end of the outer housing serves to minimize a distance between the focal spot portion and the first end of the outer housing. an evacuated enclosure having a first end and a second end interconnected by a side wall; a bearing assembly; an anode rotatably supported by the bearing assembly within the evacuated enclosure, the anode including: a target surface facing the bearing assembly, the target surface comprising a frustoconical portion including a focal track, an opposite second surface facing the first end of the evacuated enclosure, the second surface positioned adjacent to the first end of the evacuated enclosure with no intervening structure therebetween; a target surface facing the bearing assembly, the target surface comprising a frustoconical portion including a focal track, an opposite second surface facing the first end of the evacuated enclosure, the second surface positioned adjacent to the first end of the evacuated enclosure with no intervening structure therebetween; a cathode assembly positioned to emit electrons for impingement on a focal spot portion of the focal track of the first surface; the x-ray tube characterized in that the evacuated enclosure is positioned within an outer housing, such that the first end of the evacuated enclosure is positioned adjacent to a first end of the outer housing, such that the adjacent positioning of the second surface of the anode to the first end of the evacuated housing and the first end of the evacuated housing to the first end of the outer housing serves to minimize a distance between the focal spot portion and the first end of the outer housing.
A tubular knitted fabric (5, 10), which is seamlessly made with a flatbed knitting machine, provided with at least a front and a back needle bed, wherein the fabric includes a portion in which a tubular knitted area, formed by knitting courses with the front and back needle beds and by connecting the courses between the front and back needle beds, is sandwiched between C-letter knitted areas (2, 4) in which courses (2C, 4C) are folded back and reciprocate repeatedly from one side to another side of a wale direction (2W, 4W); wherein a course on an end portion of the other side of the one side C-letter knitted area, and a portion of a course (3a, 3b) on an end portion of the one side of the tubular knitted area, are continuous to each other with respect to their wale directions (2W, 3W); and wherein with respect to a stitch row of an opening portion formed of end stitches resulting from the folded back courses of the one side C-letter knitted area, and a portion of the course (3a, 3b) on the end portion of the one side of the tubular knitted area, the course direction of the one side C-letter knitted area and the wale direction of the tubular knitted area are continuous to each other; and a course on an end portion of the one side of the other side C-letter knitted area, and a portion of a course (3c, 3d) on an end portion of the other side of the tubular knitted area, are continuous to each other with respect to their wale directions (3W, 4W); and wherein with respect to a stitch row of an opening portion formed of end stitches, resulting from the folded back courses of the other side C-letter knitted area, and a portion of the course (3c, 3d) on the end portion of the other side of the tubular knitted area, the course direction of the other side C-letter knitted area and the wale direction of the tubular knitted area are continuous to each other; and the stitch rows (2b, 4b) of the opening portions of the one side and the other side C-letter knitted areas (2, 4) have a positional relationship of being opposed to each other sandwiching the tubular knitted area, characterized in that the wale direction of the tubular knitted area is orthogonal to the wale directions (2W, 4W) of the one side C-letter knitted area and the other side C-letter knitted area at a joining position where the wale direction of the tubular knitted area is continuous to the course directions of the one side C-letter knitted area and the other side C-letter knitted area, respectively.