mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a correction in positioning of beam steering optics (121a, 121b, 121c, 121d) of a scanner (106a, 106b, 106c, 106d) of an additive manufacturing apparatus comprising a plurality of scanners, each scanner of the plurality of scanners comprising beam steering optics (121a, 121b, 121c, 121d) for directing a corresponding radiation beam (118a, 118b, 118c, 118d) to a working plane in which material is consolidated in layers, the method comprising controlling the beam steering optics (121a, 121b, 121c, 121d) of a pair of the scanners (106a, 106b, 106c, 106d) such that a first scanner (106a, 106b, 106c, 106d) of the pair directs a radiation beam (118a, 118b, 118c, 118d) to form a feature (203, 205) in the working plane and the feature (203, 205) is within a field of view (201, 204) of a position sensitive device (123a, 123b, 123c, 123d) of the second scanner (106a, 106b, 106c, 106d) of the pair, the position sensitive device (123a, 123b, 123c, 123d) for detecting radiation coming from the working plane that is collected by the beam steering optics (121a, 121b, 121c, 121d) of the second scanner (106a, 106b, 106c, 106d), recording at least one detector value with the position sensitive device (123a, 123b, 123c, 123d) of the second scanner (106a, 106b, 106c, 106d) for the field of view (201, 204), determining from the at least one detector value a position of the feature in the field of view (201, 204) and determining a correction value, map or function for correcting at least one position of the steering optics of one of the first and second scanners (106a, 106b, 106c, 106d) from a comparison of the position of the feature in the field of view (201, 204) with a nominal position as determined from a positioning of the beam steering optics (121a, 121b, 121c, 121d) of the first scanner (106a, 106b, 106c, 106d) of the pair when forming the feature, wherein the feature: i) is a radiation profile or melt pool formed by the radiation beam (118a, 118b, 118c, 118d) in the working plane; ii) is ablated into a surface or formed by consolidating material in the working plane using the radiation beam (118a, 118b, 118c, 118d); or iii) is structured light directed onto material in the working plane by the first scanner (106a, 106b, 106c, 106d). i) is a radiation profile or melt pool formed by the radiation beam (118a, 118b, 118c, 118d) in the working plane; ii) is ablated into a surface or formed by consolidating material in the working plane using the radiation beam (118a, 118b, 118c, 118d); or iii) is structured light directed onto material in the working plane by the first scanner (106a, 106b, 106c, 106d).
A method for producing a DC motor, having a permanent-magnetic inner rotor mounted rotatably about a longitudinal motor axis, and a wound stator core with pronounced inward-directed poles which in the peripheral direction are in one piece with a return ring and are separated from each other by stator slots, and having an insulating-material body which lines the stator slots and has a return ring cover formed with paraxial projections which covers an axial end face of the return ring, wherein a winding wire is wound around one pole in each case and is guided around two projections radially on the outside to the spatially adjacent pole, with each pole being assigned a projection, characterised by the following method steps: a) providing a stator core provided with an insulating-material body, and a needle winding machine; b) placing the stator core in the needle winding machine; c) attaching a winding wire to a fixed attachment point on the stator or on a tool carrier; d) guiding the winding wire radially inwards from the attachment point between two projections of the insulating-material body; e) winding a coil about a pole; f) guiding the winding wire radially outwards between two projections; g) guiding the winding wire around a tool-mounted deflection means radially outside the return ring such that the winding wire is guided around two projections radially externally to the spatially adjacent pole; h) repeating steps d to g until the stator has been wound, and attaching the winding wire to a fixed attachment point on the stator or on a tool carrier; i) withdrawing the tool-mounted deflection means; j) radially deforming the winding-wire portions running radially on the outside inwards, into a region within the return ring; k) applying contact portions of a contact unit to the exposed winding-wire portions; 1) welding the contact portions to the winding-wire portions.
An industrial vehicle comprising a frame supported by wheels and a cargo body having side walls and a rear face, and comprising an aerodynamic device, said device being located under the rear end of the cargo body wherein said device forms a parallelepiped block having a vertical longitudinal plane of symmetry P, and wherein said device comprises: - an upper surface, which is substantially flat and horizontal, and fastened under the rear portion of said cargo body, - side walls flush with the side walls of the cargo body, - a rear face flush with the rear face of the cargo body, wherein said device further comprises - a lower surface, which is convergent upwardly rearward, - only two nozzles, symmetrical with respect to the plane of symmetry P, each nozzle having an upper wall identical to the upper surface of said device, a lower wall, an inner wall, and an outer wall identical to the corresponding side wall of the device and defining a closed passageway, the said two nozzles each having an inlet positioned on the outer wall, and an outlet positioned on the rear face. - an upper surface, which is substantially flat and horizontal, and fastened under the rear portion of said cargo body, - side walls flush with the side walls of the cargo body, - a rear face flush with the rear face of the cargo body, wherein said device further comprises - a lower surface, which is convergent upwardly rearward, - only two nozzles, symmetrical with respect to the plane of symmetry P, each nozzle having an upper wall identical to the upper surface of said device, a lower wall, an inner wall, and an outer wall identical to the corresponding side wall of the device and defining a closed passageway, the said two nozzles each having an inlet positioned on the outer wall, and an outlet positioned on the rear face.
Composition for hydrophilic coating of planar articles made of hydrophobic thermoplastic materials, containing: a) 10-75% by weight alkyl or alkenyl phosphate b) 5-60% by weight hydrophobic care products c) 5-60% by weight non-ionic emulsifiers and/or hydrophilic polymers d) neutralising agents characterised in that the composition has a melting range > 30°C and, at room temperature, has a water solubility of less than 33 g substance/l water or is insoluble. a) 10-75% by weight alkyl or alkenyl phosphate b) 5-60% by weight hydrophobic care products c) 5-60% by weight non-ionic emulsifiers and/or hydrophilic polymers d) neutralising agents
A method for preparing a lithium bis(fluorosulfonyl)imide salt, the method comprising: a step of dissolving bis(chlorosulfonyl)imide in an organic solvent in a non-glass vessel to prepare a first reaction solution; a step of injecting lithium fluoride (LiF) to the first reaction solution in the non-glass vessel, and refluxing while heating to prepare a second reaction solution; a step of separating a product including a lithium bis(fluorosulfonyl)imide salt and the organic solvent from the second reaction solution; and a step of obtaining the lithium bis(fluorosulfonyl)imide salt in a solid phase from the product, wherein the organic solvent is at least one or more selected from the group consisting of ethyl acetate, butyl acetate, chloroform, dichloromethane, dichloroethane, benzene, xylene and acetonitrile, and the non-glass vessel is formed using at least one or more materials selected from the group consisting of polypropylene, polytetrafluoroethylene (PTFE), high-density polyethylene (HDPE), a perfluoroalkoxy resin, polyvinylidene difluoride (PVDF), and fluoroethylene propylene. a step of dissolving bis(chlorosulfonyl)imide in an organic solvent in a non-glass vessel to prepare a first reaction solution; a step of injecting lithium fluoride (LiF) to the first reaction solution in the non-glass vessel, and refluxing while heating to prepare a second reaction solution; a step of separating a product including a lithium bis(fluorosulfonyl)imide salt and the organic solvent from the second reaction solution; and a step of obtaining the lithium bis(fluorosulfonyl)imide salt in a solid phase from the product, wherein the organic solvent is at least one or more selected from the group consisting of ethyl acetate, butyl acetate, chloroform, dichloromethane, dichloroethane, benzene, xylene and acetonitrile, and the non-glass vessel is formed using at least one or more materials selected from the group consisting of polypropylene, polytetrafluoroethylene (PTFE), high-density polyethylene (HDPE), a perfluoroalkoxy resin, polyvinylidene difluoride (PVDF), and fluoroethylene propylene.
A method of touch detection for capacitive touch sensors in a sensing circuit including a voltage/current source generating a variable output signal, connected to the capacitive touch sensor (Csensor) through an inverted polarized diode having its cathode connected to the voltage/ current source, wherein the capacitive touch sensor (Csensor) and the inverted polarized diode form a voltage divider, wherein the voltage stored on the capacitive touch sensor (Csensor) is measured by a measuring circuit connected through a resistor to the capacitive touch sensor (Csensor), the method comprising the steps of: a) generating a variable level signal by a voltage/current source; b) starting a measurement immediately after the change of a signal level by the measuring circuit; c) storing a result of the measurement; d) repeating steps a), b) and c) a predetermined number of times; e) comparing the results obtained by the measuring circuit in order to determine a change of the measured signal indicative of a capacitance change of the capacitive touch sensor (Csensor). a) generating a variable level signal by a voltage/current source; b) starting a measurement immediately after the change of a signal level by the measuring circuit; c) storing a result of the measurement; d) repeating steps a), b) and c) a predetermined number of times; e) comparing the results obtained by the measuring circuit in order to determine a change of the measured signal indicative of a capacitance change of the capacitive touch sensor (Csensor).
An electrically conductive adhesive film, which comprises metal particles, a thermosetting resin, and a compound having Lewis acidity or a thermal acid generator, wherein the compound having Lewis acidity or the thermal acid generator is selected from: boron fluoride or a complex thereof, a protonic acid with a pKa value of -0.4 or lower, or a salt or acid obtained by combining an anion that is the same as the salt of the protonic acid with a pKa value of -0.4 or lower with hydrogen ion or any other cation, wherein the thermosetting resin contains a maleic imide resin that contains two or more units of imide groups in one molecule, and comprises structures derived from aliphatic amines of C30 or more with structures of the following formula: boron fluoride or a complex thereof, a protonic acid with a pKa value of -0.4 or lower, or a salt or acid obtained by combining an anion that is the same as the salt of the protonic acid with a pKa value of -0.4 or lower with hydrogen ion or any other cation, wherein the thermosetting resin contains a maleic imide resin that contains two or more units of imide groups in one molecule, and comprises structures derived from aliphatic amines of C30 or more with structures of the following formula:
A garbage disposal unit comprising: a cabinet; a crushing unit disposed in the cabinet to crush garbage; a housing body provided in the cabinet; an inlet port for guiding garbage discharged from the crushing unit to the housing body; an outlet port for allowing an inner space of the housing body to communicate with an outer space thereof within the cabinet, characterized by further comprising: a dehydration unit rotatably disposed in the housing body for dehydrating and agitating garbage, the dehydration unit including: a storage body disposed in the housing to receive garbage; a rotating shaft to be disposed parallel to the ground to rotatably support the storage body via the housing body; a communication hole formed through the storage body, being adapted to communicate with either the inlet port or the outlet port based on rotation of the storage body; and an agitation unit rotatably provided in the storage body, being configured to open or close the communication hole based on its relative rotation with respect to the storage body. a cabinet; a crushing unit disposed in the cabinet to crush garbage; a housing body provided in the cabinet; an inlet port for guiding garbage discharged from the crushing unit to the housing body; an outlet port for allowing an inner space of the housing body to communicate with an outer space thereof within the cabinet, a dehydration unit rotatably disposed in the housing body for dehydrating and agitating garbage, the dehydration unit including: a storage body disposed in the housing to receive garbage; a rotating shaft to be disposed parallel to the ground to rotatably support the storage body via the housing body; a communication hole formed through the storage body, being adapted to communicate with either the inlet port or the outlet port based on rotation of the storage body; and a storage body disposed in the housing to receive garbage; a rotating shaft to be disposed parallel to the ground to rotatably support the storage body via the housing body; a communication hole formed through the storage body, being adapted to communicate with either the inlet port or the outlet port based on rotation of the storage body; and an agitation unit rotatably provided in the storage body, being configured to open or close the communication hole based on its relative rotation with respect to the storage body.
A medical coupling unit for electrical signal transmission between the medical coupling unit (1, 1a, 1b) and a medical sensor (2, 2a) comprising a sensor-side connector and configured to be coupled to the medical coupling unit via the sensor-side connector, the medical coupling unit comprising: - a coupling-side connector comprising a plurality of first electrical contacts in or on a first surface and a plurality of second electrical contacts in or on a second surface opposite the first surface, - a connector interface for analyzing electrical signals available at one or more of the plurality of first and second electrical contacts (11, 13) to detect the presence of a medical sensor coupled to the medical coupling unit and the orientation of a sensor-side connector of a medical sensor coupled to the medical coupling unit by evaluating the impedance and/or voltage between predetermined electrical contacts. - a coupling-side connector comprising a plurality of first electrical contacts in or on a first surface and a plurality of second electrical contacts in or on a second surface opposite the first surface, - a connector interface for analyzing electrical signals available at one or more of the plurality of first and second electrical contacts (11, 13) to detect the presence of a medical sensor coupled to the medical coupling unit and the orientation of a sensor-side connector of a medical sensor coupled to the medical coupling unit by evaluating the impedance and/or voltage between predetermined electrical contacts.
An apparatus for controlling a thermal condition of cargo contained within a cargo container, the apparatus comprising: (a) at least one belt assembly, wherein the at least one belt assembly is configured to be received within the cargo container, wherein the at least one belt assembly comprises a plurality of pouches (110, 112, 114, 116), each pouch (110, 112, 114, 116) having a hollow interior and an opening; (b) a plurality of separate phase-changing material packs (40, 50) comprising phase-changing material, wherein each of the plurality of pouches (110, 112, 114, 116) of the at least one belt assembly are configured to receive at least one phase-changing material pack of the plurality of separate phase-changing material packs (40, 50); characterised in that the plurality of pouches (110, 112, 114, 116) are consecutively hingedly secured together in series such that each pouch (110, 112, 114, 116) is pivotable relative to the other respective pouches (110, 112, 114, 116) and in that at least one pouch of the plurality of pouches (110, 112, 114, 116) further comprises a flap that is operable to cover the respective opening of the at least one pouch to thereby prevent intentional and/or unintentional removal of a respective phase-changing material pack positioned therein. (a) at least one belt assembly, wherein the at least one belt assembly is configured to be received within the cargo container, wherein the at least one belt assembly comprises a plurality of pouches (110, 112, 114, 116), each pouch (110, 112, 114, 116) having a hollow interior and an opening; (b) a plurality of separate phase-changing material packs (40, 50) comprising phase-changing material, wherein each of the plurality of pouches (110, 112, 114, 116) of the at least one belt assembly are configured to receive at least one phase-changing material pack of the plurality of separate phase-changing material packs (40, 50); characterised in that the plurality of pouches (110, 112, 114, 116) are consecutively hingedly secured together in series such that each pouch (110, 112, 114, 116) is pivotable relative to the other respective pouches (110, 112, 114, 116) and in that at least one pouch of the plurality of pouches (110, 112, 114, 116) further comprises a flap that is operable to cover the respective opening of the at least one pouch to thereby prevent intentional and/or unintentional removal of a respective phase-changing material pack positioned therein.
A straddled vehicle comprising: a head pipe disposed at a vehicle center in a width direction; a steering apparatus pivotably supported by the head pipe; a front cover disposed in front of the head pipe; a headlamp disposed at an upper portion of the steering apparatus; a pair of front flashers including a right front flasher disposed at a right side of the vehicle center and a left front flasher disposed at a left side of the vehicle center; and a position lamp disposed at the front cover, positioned lower than the headlamp, including an LED lamp that includes an LED light source, and including a clear cover that transmits light of the LED lamp forward; and wherein the clear cover includes an exposed portion exposed from a lamp hole that opens at a front surface of the front cover, characterized in that the exposed portion is formed so that a length of the exposed portion in an up-down direction is greater than a width of the exposed portion, extends in the up-down direction at the vehicle center, and projects forward from the lamp hole, and in that the exposed portion includes an inner surface provided with a plurality of projections that extend in the up-down direction while projecting rearward and transmit the light of the LED lamp forward. a head pipe disposed at a vehicle center in a width direction; a steering apparatus pivotably supported by the head pipe; a front cover disposed in front of the head pipe; a headlamp disposed at an upper portion of the steering apparatus; a pair of front flashers including a right front flasher disposed at a right side of the vehicle center and a left front flasher disposed at a left side of the vehicle center; and a position lamp disposed at the front cover, positioned lower than the headlamp, including an LED lamp that includes an LED light source, and including a clear cover that transmits light of the LED lamp forward; and wherein the clear cover includes an exposed portion exposed from a lamp hole that opens at a front surface of the front cover, characterized in that the exposed portion is formed so that a length of the exposed portion in an up-down direction is greater than a width of the exposed portion, extends in the up-down direction at the vehicle center, and projects forward from the lamp hole, and in that the exposed portion includes an inner surface provided with a plurality of projections that extend in the up-down direction while projecting rearward and transmit the light of the LED lamp forward.
An anchoring element for engagement with a base plate for a collecting bag for human body wastes comprising - an attachment component having a proximal surface at least partly covered with skin friendly adhesive, - a flexible member having a first end extending beyond an outer periphery of the attachment component and a second end attached to the attachment component, and wherein - said first end of the flexible member comprises engagement means for engagement with the base plate, characterized in that said flexible member is primarily flexible in an axial direction defined by its first and second ends. - an attachment component having a proximal surface at least partly covered with skin friendly adhesive, - a flexible member having a first end extending beyond an outer periphery of the attachment component and a second end attached to the attachment component, and wherein - said first end of the flexible member comprises engagement means for engagement with the base plate,
A method of evaluating in-service parts, wherein a resonance inspection comprises exciting a part at a plurality of input frequencies and obtaining a frequency response of the part at said plurality of input frequencies, wherein an in-service part is a part that has been released from production and used by an end user, wherein said method comprises the steps of: performing said resonance inspection on a first in-service part; comparing said frequency response from said resonance inspection of said first in-service part with a resonance standard, wherein said resonance standard defines what should be a normal changing of said first in-service part while in service, wherein said resonance standard is based upon at least one other in-service part that corresponds with said first in-service part; and determining whether said first in-service part is changing abnormally, wherein said determining step comprises said comparing step. performing said resonance inspection on a first in-service part; comparing said frequency response from said resonance inspection of said first in-service part with a resonance standard, wherein said resonance standard defines what should be a normal changing of said first in-service part while in service, wherein said resonance standard is based upon at least one other in-service part that corresponds with said first in-service part; and determining whether said first in-service part is changing abnormally, wherein said determining step comprises said comparing step.
A system for operating a gate arm of a railroad crossing gate, the system comprising: a lever; a spring attached to an extendable gate arm (20); a cable mechanism including a cable, the lever movably coupled to the cable and the spring coupled to the cable; and a crossing mechanism, the lever coupled to the crossing mechanism and the cable coupled to the crossing mechanism, wherein the cable mechanism is configured to extend and retract the extendable gate arm (20) and the lever is configured to enable the spring to pull the extendable arm (20) out from a retracted position. a lever; a spring attached to an extendable gate arm (20); a cable mechanism including a cable, the lever movably coupled to the cable and the spring coupled to the cable; and a crossing mechanism, the lever coupled to the crossing mechanism and the cable coupled to the crossing mechanism, wherein the cable mechanism is configured to extend and retract the extendable gate arm (20) and the lever is configured to enable the spring to pull the extendable arm (20) out from a retracted position.