mhurhangee/ep-ind-claims huggingface dataset:
Integrated current sensor system, comprising - a printed circuit board with an magnetic field sensor and with a sensor interface being coupled to the sensor, the printed circuit board having a first main surface defining a first side, and a second main surface being opposite to the first main surface and defining a second side; - a first current conductor, which is, isolated from the printed circuit board, arranged on the first side in a plane being parallel to the printed circuit board and connected to a first current terminal, wherein a longitudinal edge of a portion of the first current conductor is arranged proximate to a sensitive area of the sensor; and - a second current conductor which is, isolated from the printed circuit board, arranged on the second side in a plane being parallel to the printed circuit board and connected to a second current terminal, wherein a longitudinal edge of a portion of the second current conductor is arranged proximate to the sensitive area of the sensor; - wherein the first current conductor and the second current conductor are electrically connected by means of at least one conductive via through the printed circuit board such that a current path is formed between the first current terminal and the second current terminal. - a printed circuit board with an magnetic field sensor and with a sensor interface being coupled to the sensor, the printed circuit board having a first main surface defining a first side, and a second main surface being opposite to the first main surface and defining a second side; - a first current conductor, which is, isolated from the printed circuit board, arranged on the first side in a plane being parallel to the printed circuit board and connected to a first current terminal, wherein a longitudinal edge of a portion of the first current conductor is arranged proximate to a sensitive area of the sensor; and - a second current conductor which is, isolated from the printed circuit board, arranged on the second side in a plane being parallel to the printed circuit board and connected to a second current terminal, wherein a longitudinal edge of a portion of the second current conductor is arranged proximate to the sensitive area of the sensor; - wherein the first current conductor and the second current conductor are electrically connected by means of at least one conductive via through the printed circuit board such that a current path is formed between the first current terminal and the second current terminal.
Fixing system for vertical traffic sign elements and the like comprising a post for a traffic sign; the fixing system further comprising an anchoring part which, in the assembly position of the system, is inserted in a concrete block arranged in the ground, the anchoring part comprising a vertical axial cavity and an upper end from which there protrudes a perimetric rim resting on the surface of the ground, fixing means for fixing the post to the anchoring part and immobilization means for immobilizing the fixing means in the anchoring part, the fixing means being a flange element with a lower plate that can be screwed to the perimetric rim of the anchoring part and a clamp comprising an attachment part and two clamping arms (6d, 6e), the vertical axial cavity has a cross section complementary to the cross section of the lower end part of the post for housing the lower end part of the post of a traffic sign fixed in the vertical axial cavity by the fixing means, the attachment part is integral with the lower plate, the clamping arms (6d, 6e) extend overhanging from the attachment part towards one another from the attachment part, the lower plate has a lower through hole that can surround a section of the lower end part of the post and there being defined between said clamping arms (6d, 6e) a tightening passage in which the post is bound when a clamping screw is tightened, the lower through hole and said tightening passage having respective cross sections complementary to outer cross sections of respective sections of the post that they surround when the lower end part of the post is inserted in the vertical axial cavity of the anchoring part, characterized in that said post comprises a weakened area, and in that the attachment part is located, when the lower end part of the post is inserted in the inner cavity of the anchoring element, in a position corresponding to the weakened area in the lower end part of the post, the position of said weakened area being selected from a position where the weakened area is surrounded by the attachment part of the flange element, and a position where the weakened area is located in a section immediately above the attachment part of the flange element.
A polyester film roll obtained by winding a biaxially oriented polyester film around a core, the polyester film roll satisfying following requirements to: an average winding hardness on a surface of the polyester film roll, measured in accordance with the description, is in a range of 500 or more and 700 or less; a variation rate of a winding hardness on a surface of the polyester film roll in a film transverse direction, measured in accordance with the description, is 1% or more and 5% or less; and a variation rate of an average winding hardness from a surface of the polyester film roll to the core, measured in accordance with the description, is 3% or more and 10% or less. an average winding hardness on a surface of the polyester film roll, measured in accordance with the description, is in a range of 500 or more and 700 or less; a variation rate of a winding hardness on a surface of the polyester film roll in a film transverse direction, measured in accordance with the description, is 1% or more and 5% or less; and a variation rate of an average winding hardness from a surface of the polyester film roll to the core, measured in accordance with the description, is 3% or more and 10% or less.
A computer-implemented method for surface manipulation in dental prosthesis design, comprising: providing a computer-based interface for modifying a surface of a model of a dental prosthesis; receiving via the computer-based interface a set of areas where an operator would like to perform a limited manipulation of the surface of the model; and manipulating portions of the surface up to a limit associated with the limited manipulation of the surface based on the set of areas, irrespective of overlap in the areas received from the operator; wherein manipulating portions of the surface comprises manipulating portions of the surface using one or more computer processors. providing a computer-based interface for modifying a surface of a model of a dental prosthesis; receiving via the computer-based interface a set of areas where an operator would like to perform a limited manipulation of the surface of the model; and manipulating portions of the surface up to a limit associated with the limited manipulation of the surface based on the set of areas, irrespective of overlap in the areas received from the operator; wherein manipulating portions of the surface comprises manipulating portions of the surface using one or more computer processors.
Method for machining material using laser radiation, wherein the unfocused laser radiation is focused through a focusing optics to a smaller beam cross-section, the optical axis of the focused laser radiation, called beam axis, is directed at the material surface, the beam waist, which results from the focusing operation, of the focused laser radiation is held in the region of the evolving interaction surface of laser radiation and material, the laser radiation is partially absorbed on the interaction surface such that due to induced material removal or induced material displacement the interaction surface and thus also the laser radiation penetrate into the material, wherein the spacing of the beam waist from the upper or lower side of the interaction surface in axial direction corresponds at most to three times the value of the penetration depth of the interaction surface into the material, characterized in that the focusing operation is carried out such that components of the laser radiation are made divergent in a region viewed in the propagation direction beginning already before the beam waist up to a region after the beam waist and are thus directed away from the beam axis, and that said components and angles of divergence are greater than those of the effects of imaging errors, which are inadvertently produced using standard optics and are accepted, wherein the greater divergent angles of the beam components are used for reducing their incident angles on the interaction surface and thus for increasing the absorption of the radiation components on the interaction surface and for reducing the change in the absorption at fluctuations in the incident angles, and that the greater divergent angles of the radiation components are generated laser-internal or laser-external using at least one beam-shaping optics, and that the greater divergent angles of the radiation components are generated by increasing the amount of aberration in the beam-shaping optics.
Use of a fatty phosphite for reducing the operating temperature of an industrial gearbox, said use comprising the steps of: adding to an industrial gear oil lubricant comprising (a) an oil of lubricating viscosity, and (b) an industrial gear lubricant additive package, (c) a fatty phosphite such that the lubricant contains at least 1.0 percent by weight fatty phosphite, and operating the industrial gearbox while supplying the industrial gear oil lubricant to the industrial gearbox, wherein (b) the industrial gear lubricant additive package comprises one or more antiwear additives and/or extreme pressure agents, one or more rust and/or corrosion inhibitors, one or more foam inhibitors, one or more demulsifiers, or any combination thereof. (a) an oil of lubricating viscosity, and (b) an industrial gear lubricant additive package, (c) a fatty phosphite such that the lubricant contains at least 1.0 percent by weight fatty phosphite, and operating the industrial gearbox while supplying the industrial gear oil lubricant to the industrial gearbox, wherein (b) the industrial gear lubricant additive package comprises one or more antiwear additives and/or extreme pressure agents, one or more rust and/or corrosion inhibitors, one or more foam inhibitors, one or more demulsifiers, or any combination thereof.
System for the 6D position determination of an object which is movable with 6 degrees of freedom in space, having one or more markers which is/are intended to be applied to the object and is/are applied to the object in a stationary manner for 6D position determination, wherein the marker(s) each has/have a surface which is subdivided into a plurality of individual fields, wherein the fields each have a statistical noise pattern, also having an image capture unit which is remote from the object and is arranged to capture an image of the marker(s), wherein the image capture unit has a plurality of cameras which observe the marker(s) at different viewing angles, and having an image evaluation unit which stores a reference image of the noise patterns and is designed to locate at least one of the fields in the currently captured image of the marker(s) by comparison with the reference image in order to determine a current position of the marker(s) in space, wherein the image evaluation unit is designed to coarsely determine the position of the marker(s) currently captured by the image capture unit by detecting corners and/or edges of the marker(s) and/or of the fields of the marker(s).
Electronically commutated motor comprising: a rotor; a stator which electromagnetically interacts with the rotor and is provided with a stator winding (202, 204, 206); a power stage for controlling the currents flowing in the stator winding (202, 204, 206) during operation; at least one current measuring element (242, 244) for detecting a measured value for the currents (I_UPPER, I_LOWER) flowing in the power stage; and an overcurrent measuring element (152, 162) for evaluating an associated measured value and for detecting a current of which the absolute value exceeds a predetermined limit value (I_MAX_UPPER, I_MAX_LOWER); a holding element (154, 164) which is associated with the overcurrent measuring element (152, 162) and designed to, in the event of an overcurrent in the associated current measuring element (242, 244), generate an overcurrent signal (OC_UPPER, OC_LOWER), store said signal for a predetermined time period, and deliver a corresponding signal to the power stage in order to counteract the overcurrent at that point, wherein a control circuit is provided which is controlled by the holding element (154, 164) and designed to switch off the power stage in the event of an overcurrent, in order to prevent damage to the motor and the motor electronics by the detected overcurrent, and wherein a reset element (270, 290) is provided and designed to reset the holding element (154, 164) after the predetermined time period. a rotor; a stator which electromagnetically interacts with the rotor and is provided with a stator winding (202, 204, 206); a power stage for controlling the currents flowing in the stator winding (202, 204, 206) during operation; at least one current measuring element (242, 244) for detecting a measured value for the currents (I_UPPER, I_LOWER) flowing in the power stage; and an overcurrent measuring element (152, 162) for evaluating an associated measured value and for detecting a current of which the absolute value exceeds a predetermined limit value (I_MAX_UPPER, I_MAX_LOWER); a holding element (154, 164) which is associated with the overcurrent measuring element (152, 162) and designed to, in the event of an overcurrent in the associated current measuring element (242, 244), generate an overcurrent signal (OC_UPPER, OC_LOWER), store said signal for a predetermined time period, and deliver a corresponding signal to the power stage in order to counteract the overcurrent at that point, wherein a control circuit is provided which is controlled by the holding element (154, 164) and designed to switch off the power stage in the event of an overcurrent, in order to prevent damage to the motor and the motor electronics by the detected overcurrent, and wherein a reset element (270, 290) is provided and designed to reset the holding element (154, 164) after the predetermined time period.
A non-aqueous electrolyte solution, comprising: an electrolyte salt; an organic solvent; and a HF indicator, wherein the HF indicator comprises pyrocatechol violet, and wherein the HF indicator is included in an amount of 0.1 wt% to 0.4 wt% based on a total weight of the non-aqueous electrolyte solution. an electrolyte salt; an organic solvent; and a HF indicator, wherein the HF indicator comprises pyrocatechol violet, and wherein the HF indicator is included in an amount of 0.1 wt% to 0.4 wt% based on a total weight of the non-aqueous electrolyte solution.
A blind mating and floating RF connector assembly with low intermodulation, comprising: a first connecting device comprising a first guide portion; a second connecting device comprising a second guide portion adapted for mating with the first guide portion; wherein the first connecting device and the second connecting device can be guided by the first guide portion in cooperation with the second guide portion so as to be connected with each other; wherein the first connecting device is provided, at an end, with a slotted boss projecting radially outwards; characterized in that the second connecting device is provided with a corresponding inner engaging groove being capable of radially abutting the boss; and in that the second connecting device comprises a fixed mount unit and a floating unit, the fixed mount unit comprising a floating unit housing having a flange for fixing the second connecting device to a panel, the floating unit being mounted in the fixed mount unit to be movable radially and axially relative to the fixed mount unit. a first connecting device comprising a first guide portion; a second connecting device comprising a second guide portion adapted for mating with the first guide portion; wherein the first connecting device and the second connecting device can be guided by the first guide portion in cooperation with the second guide portion so as to be connected with each other; wherein the first connecting device is provided, at an end, with a slotted boss projecting radially outwards; characterized in that the second connecting device is provided with a corresponding inner engaging groove being capable of radially abutting the boss; and in that the second connecting device comprises a fixed mount unit and a floating unit, the fixed mount unit comprising a floating unit housing having a flange for fixing the second connecting device to a panel, the floating unit being mounted in the fixed mount unit to be movable radially and axially relative to the fixed mount unit.
A method for transferring a transport unit (Tn) of a long stator linear motor at a transfer position from a first transport section (Am), having a number of driving coils (7, 8) arranged on a guide structure one behind the other in the direction of movement of the transport unit (Tn) in the region of the transfer position, to a second transport section (An), having a number of driving coils (7, 8) arranged on a guide structure one behind the other in the direction of movement of the transport unit (Tn) in the region of the transfer position, wherein on both sides of the transport unit (Tn) excitation magnets (4, 5) are arranged which interact with driving coils (7, 8) in the region of the transport unit (Tn), wherein in the region of the transfer position on both sides of the transport unit (Tn) driving coils (7, 8) are provided that can interact with the excitation magnets (4, 5) on both sides of the transport unit (Tn), and the second transport section (An), at an exit from the transfer position, is implemented single-sided with driving coils (7, 8) on only one side, that can interact with excitation magnets (4, 5) at this side, and wherein in the region of the transfer position excitation-magnetic lateral forces (F PMS1, F PMS2) act on the transport unit (Tn) on both sides of the transport unit (Tn) due to the co-operation of the excitation magnets (4, 5) with ferromagnetic components of the guide structure, characterized in that in a transfer region of the transfer position on at least one side of the transport unit (Tn) a stator current (i A1, i A2) is supplied in at least one driving coil (7, 8), which stator current (i A1, i A2) generates an electromagnetic lateral force (F EMS1, F EMS2) on the transport unit (Tn) and in that the resulting lateral forces (F 1, F 2) on both sides of the transport unit (Tn), in each case as sum of the acting excitation-magnetic lateral forces (F PMS1, F PMS2) and electromagnetic lateral force (F EMS1, F EMS2), are different in magnitude for production of a steering effect, wherein the steering effect guides the transport unit (Tn) in the transfer position along the second transport section (Am).
Sealing device, in particular a sealing jaw, comprising at least one, in particular exchangeable, sealing unit (12a; 12b) for creating a sealing seam, at least one heating unit (14a; 14b) for heating the sealing unit (12a; 12b), at least one bearing element (16a; 16b, 18a; 18b) which is provided for movably supporting the at least one heating unit (14a; 14b), and at least one decoupling unit (20a; 20b) which is provided for at least partially decoupling the at least one heating unit (14a; 14b) from at least one process force and/or connecting force acting on the sealing unit (12a; 12b), characterized in that the at least one bearing element (16a; 16b, 18a; 18b) is provided to apply a pressing force to the at least one heating unit (14a; 14b) against the sealing unit (12a; 12b).
An apparatus, comprising: a night vision imaging system test fixture configured to be arranged between an enclosure and a display screen, wherein the enclosure houses a flight simulator flight deck that includes a pilot seat, and wherein the pilot seat and the display screen define a sight line, wherein said night vision imaging system test fixture comprises: a support structure; a visual target holder attached to the support structure and supporting a visual target a mounting plate supporting a mirror and attached to the support structure, wherein the mounting plate is arranged such that the mirror intersects the sight line, wherein at least one of the mounting plate and the visual target holder is adjustable to direct a reflected image of the visual target from the mirror to the pilot seat in a direction of said sight line, and wherein at least one of the mounting plate and the visual target holder is adjustable to change the distance from the mirror to the visual target, wherein a sum of a distance from the pilot seat to the mirror and a distance from the mirror to the visual target is equal to a target distance; and a starlight generator attached to the support structure and arranged to output starlight on the visual target supported by the visual target holder. a support structure; a visual target holder attached to the support structure and supporting a visual target a mounting plate supporting a mirror and attached to the support structure, wherein the mounting plate is arranged such that the mirror intersects the sight line, wherein at least one of the mounting plate and the visual target holder is adjustable to direct a reflected image of the visual target from the mirror to the pilot seat in a direction of said sight line, and wherein at least one of the mounting plate and the visual target holder is adjustable to change the distance from the mirror to the visual target, wherein a sum of a distance from the pilot seat to the mirror and a distance from the mirror to the visual target is equal to a target distance; and a starlight generator attached to the support structure and arranged to output starlight on the visual target supported by the visual target holder.