mhurhangee/ep-ind-claims huggingface dataset:
A field device assembly (42, 42', 42") for use in an industrial process facility, the assembly comprising: a housing body; a first circuitry subassembly mounted to the housing body and positioned at least partially within the housing body; a first cover chassis having a shoulder at a perimeter thereof; a flame path restricting structure positioned on the first cover chassis adjacent to the shoulder; a mating flame path restricting structure positioned on the housing body, wherein the flame path restricting structure on the first cover chassis engages the mating flame path restricting structure on the housing body; a first threaded collar configured to fit about the first cover chassis and to permit rotation relative to the first cover chassis, wherein the first threaded collar is threadably engaged with the housing body, and wherein the first threaded collar includes an engagement structure engaged with the shoulder of the first cover chassis to secure the first cover chassis to the housing body; and a second circuitry subassembly secured to the first cover chassis, the second circuitry subassembly including an electrical connector configured for linear insertion engagement with a mating electrical connector within the housing body to form an electrical connection between the first and second circuitry subassemblies. a housing body; a first circuitry subassembly mounted to the housing body and positioned at least partially within the housing body; a first cover chassis having a shoulder at a perimeter thereof; a flame path restricting structure positioned on the first cover chassis adjacent to the shoulder; a mating flame path restricting structure positioned on the housing body, wherein the flame path restricting structure on the first cover chassis engages the mating flame path restricting structure on the housing body; a first threaded collar configured to fit about the first cover chassis and to permit rotation relative to the first cover chassis, wherein the first threaded collar is threadably engaged with the housing body, and wherein the first threaded collar includes an engagement structure engaged with the shoulder of the first cover chassis to secure the first cover chassis to the housing body; and a second circuitry subassembly secured to the first cover chassis, the second circuitry subassembly including an electrical connector configured for linear insertion engagement with a mating electrical connector within the housing body to form an electrical connection between the first and second circuitry subassemblies.
Method for determining a vehicle pose of a vehicle, wherein the vehicle pose is estimated by means of integration based on sensor data from at least acceleration sensors and angular rate sensors, and a known initial pose, wherein the estimated vehicle pose is corrected by means of at least one reference vehicle pose, wherein time intervals between the corrections are established taking into account a current driving situation of the vehicle. wherein the vehicle pose is estimated by means of integration based on sensor data from at least acceleration sensors and angular rate sensors, and a known initial pose, wherein the estimated vehicle pose is corrected by means of at least one reference vehicle pose, wherein time intervals between the corrections are established taking into account a current driving situation of the vehicle.
Rod-shaped hotmelt adhesive body, in particular for use in hotmelt glue guns, wherein the hot melt adhesive body has at least a first section comprising or consisting of at least one reactive hot melt adhesive and at least a second section comprising or consisting of at least one cleaning agent (rinsing agent), wherein the reactive hot melt adhesive is selected from the group of (i) reactive, moisture-crosslinking isocyanate group-functionalized and/or isocyanate group-containing polyurethanes, (ii) reactive, moisture-crosslinking silane group-functionalized and/or silane group-containing polyolefins, and combinations thereof, wherein the second section and/or the cleaning agent contains at least one additive inactivating the chemically reactive groups of the reactive hot melt adhesive, said additive having a functional group reacting with the chemically reactive groups of the reactive hot melt adhesive, wherein the additive is monofunctional, and wherein the first section and/or the reactive hotmelt adhesive on the one hand and the second section and/or the cleaning agent on the other hand are formed optically and/or visually different from each other, namely different in color from each other, wherein the second section and/or the cleaning agent is formed colored, wherein the cleaning agent comprises at least one color-imparting ingredient (dye). wherein the hot melt adhesive body has at least a first section comprising or consisting of at least one reactive hot melt adhesive and at least a second section comprising or consisting of at least one cleaning agent (rinsing agent), wherein the reactive hot melt adhesive is selected from the group of (i) reactive, moisture-crosslinking isocyanate group-functionalized and/or isocyanate group-containing polyurethanes, (ii) reactive, moisture-crosslinking silane group-functionalized and/or silane group-containing polyolefins, and combinations thereof, wherein the second section and/or the cleaning agent contains at least one additive inactivating the chemically reactive groups of the reactive hot melt adhesive, said additive having a functional group reacting with the chemically reactive groups of the reactive hot melt adhesive, wherein the additive is monofunctional, and wherein the first section and/or the reactive hotmelt adhesive on the one hand and the second section and/or the cleaning agent on the other hand are formed optically and/or visually different from each other, namely different in color from each other, wherein the second section and/or the cleaning agent is formed colored, wherein the cleaning agent comprises at least one color-imparting ingredient (dye).
Process for preparing a tris-cyclometalated iridium complex by reacting an iridium compound with a bidentate ligand or with a hexadentate tripodal ligand, which has three bidentate sub-ligands, wherein the bidentate ligands or the bidentate sub-ligands coordinate to the iridium with cyclometalation, characterized in that the process is carried out in aqueous medium with addition of a surfactant, wherein the anionic surfactant is selected from the group consisting of alkyl carboxylates of the formula R'-COO -, wherein R' is a saturated or unsaturated alkyl radical having 5 to 25 carbon atoms, alcohol ether carboxylates of the formula C n H 2n+1 -(O-C 2 H 4) m -COO -, wherein n is an integer from 5 to 25 and m is an integer from 5 to 25, alkylbenzenesulfonates of the formula C n H 2n+1 -C 6 H 5 -SO 3 -, wherein n is an integer from 5 to 25, alkylsulfonates of the formula C n H 2n+1 -SO 3 -, wherein n is an integer from 5 to 25, alkyl ether sulfates of the formula C n H 2n+1 -(O-C 2 H 4) m -O-SO 3 -, wherein n is an integer from 5 to 25 and m is an integer from 5 to 25, and/or alcohol sulfates of the formula C n H 2n+1 -O-SO 3 -, wherein n is an integer from 5 to 25.
A package structure comprising an agent for skin external application adhering to a skin surface in use and having a film shape or a sheet shape, wherein the package structure is configured such that the agent for skin external application is interposed between a film-type or sheet-type base material and a film-type or sheet-type cover material, the package structure is folded while employing the cover material as a folding surface, and the package structure is closed by thermally bonding a four-layer overlap material including the base material -the cover material -the cover material -the base material provided at a peripheral portion of the package structure, wherein a seal strength between the cover material - the cover material is greater than a seal strength between the base material - the cover material in the four-layer overlap material closed through the thermal bonding, and wherein the material constituting the base material is different from the material constituting the cover material.
Process comprising the process steps of: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of acetic acid, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: d) addition of acetic acid, e) feeding in CO, f) heating the reaction mixture such that the diisobutene is converted to the compound P1:
An exhaust gas heat transfer device with a housing, in which a tube bundle with multiple tubes is held via tube bottoms (5, 6), wherein a first flow path for exhaust gas runs in the tubes and a second flow path for coolant runs between the tubes and the housing and wherein the individual tubes of the tube bundle with a first longitudinal end are incorporated in the first tube bottom in a fixed manner, in particular welded or soldered, wherein the individual tubes of the tube bundle are held captive axially moveably in the region of a second longitudinal end in a second tube bottom that is formed as a sliding seat bottom and a third tube bottom is provided, in which the individual tubes with their second longitudinal ends are axially moveably captive in apertures (11 "), characterized in that on the side of the second tube bottom facing away from the first tube bottom a seal for sealing the individual tubes against the second tube bottom is arranged, wherein the seal is clamped in between the second tube bottom and the third tube bottom and the second and third tube bottom (6, 10) are connected to one another.
A rolling apparatus comprising: a plurality of rolling stands each including a pair of work rolls and an imaging unit provided between adjacent rolling stands, the imaging unit being configured to image a steel sheet entering the pair of work rolls of the rolling stand from an upstream side of the rolling stand located on a downstream side in a rolling direction, characterized in that the imaging unit is disposed so as to satisfy the following equations and, on the upstream side in the rolling direction of the rolling stand located on the downstream side in the rolling direction, in a central portion in the width direction of the steel sheet in an area in which the steel sheet is able to be conveyed: 2 × L × tan α / 2 > W max H = L × tanθ wherein L represents a distance in the rolling direction between the rolling stand located on the downstream side in the rolling direction and the imaging unit, α represents a horizontal viewing angle of the imaging unit, W max represents a width of the steel sheet in the area in which the steel sheet is able to be conveyed, H represents a height of the imaging unit from the position where the steel sheet is conveyed, and θ represents a tilt angle of the imaging unit with respect to the rolling direction of the steel sheet, the tilt angle θ being smaller than or equal to 20°. a plurality of rolling stands each including a pair of work rolls and an imaging unit provided between adjacent rolling stands, the imaging unit being configured to image a steel sheet entering the pair of work rolls of the rolling stand from an upstream side of the rolling stand located on a downstream side in a rolling direction, characterized in that the imaging unit is disposed so as to satisfy the following equations and, on the upstream side in the rolling direction of the rolling stand located on the downstream side in the rolling direction, in a central portion in the width direction of the steel sheet in an area in which the steel sheet is able to be conveyed: 2 × L × tan α / 2 > W max H = L × tanθ wherein L represents a distance in the rolling direction between the rolling stand located on the downstream side in the rolling direction and the imaging unit, α represents a horizontal viewing angle of the imaging unit, W max represents a width of the steel sheet in the area in which the steel sheet is able to be conveyed, H represents a height of the imaging unit from the position where the steel sheet is conveyed, and θ represents a tilt angle of the imaging unit with respect to the rolling direction of the steel sheet, the tilt angle θ being smaller than or equal to 20°.
A system comprising: a first hanger configured to be secured to a frame element of an aircraft; a second hanger configured to be secured to another frame element of the aircraft; and a section of aircraft sidewall comprising multiple fittings along a fore side secured to the first hanger, and multiple fittings along an aft side secured to the second hanger; each of the hangers comprising: an elongated vertical member configured to attach to the frame element of the aircraft; and a set of keyholes that is arranged in a vertical pattern along the member and that is configured to support the section of sidewall, wherein each keyhole includes a receptacle dimensioned to receive one of the fittings, and a slot dimensioned to slidably accept the fitting via the receptacle to secure the fitting in place, and wherein slot sizes of keyholes in the set vary from one end of the vertical pattern to another end of the vertical pattern. a first hanger configured to be secured to a frame element of an aircraft; a second hanger configured to be secured to another frame element of the aircraft; and a section of aircraft sidewall comprising multiple fittings along a fore side secured to the first hanger, and multiple fittings along an aft side secured to the second hanger; each of the hangers comprising: an elongated vertical member configured to attach to the frame element of the aircraft; and a set of keyholes that is arranged in a vertical pattern along the member and that is configured to support the section of sidewall, wherein each keyhole includes a receptacle dimensioned to receive one of the fittings, and a slot dimensioned to slidably accept the fitting via the receptacle to secure the fitting in place, and wherein slot sizes of keyholes in the set vary from one end of the vertical pattern to another end of the vertical pattern. an elongated vertical member configured to attach to the frame element of the aircraft; and a set of keyholes that is arranged in a vertical pattern along the member and that is configured to support the section of sidewall, wherein each keyhole includes a receptacle dimensioned to receive one of the fittings, and a slot dimensioned to slidably accept the fitting via the receptacle to secure the fitting in place, and wherein slot sizes of keyholes in the set vary from one end of the vertical pattern to another end of the vertical pattern.
A pneumatic tire comprising: first and second laterally spaced sides (102, 104); and a tread interposed between the first and second sides (102, 104), the tread including a tread surface having at least one groove (114, 116, 122, 124, 140, 142, 144) therein, the at least one groove including facing, first and second sidewalls separated by a groove bottom surface, and ribs extending over at least a portion of each of the first and second sidewalls and the ribs on both of the first and second sidewalls extend at a non-perpendicular angle relative to the tread surface, wherein the ribs on the first and second sidewalls of the groove are opposed to each other, characterized in that the ribs on the first sidewall are at a positive angle and the ribs on the second sidewall are at a negative angle when measured relative to a plane that is perpendicular to the groove bottom surface and perpendicular to the surface of each of the sidewalls. first and second laterally spaced sides (102, 104); and a tread interposed between the first and second sides (102, 104), the tread including a tread surface having at least one groove (114, 116, 122, 124, 140, 142, 144) therein, the at least one groove including facing, first and second sidewalls separated by a groove bottom surface, and ribs extending over at least a portion of each of the first and second sidewalls and the ribs on both of the first and second sidewalls extend at a non-perpendicular angle relative to the tread surface, wherein the ribs on the first and second sidewalls of the groove are opposed to each other, characterized in that the ribs on the first sidewall are at a positive angle and the ribs on the second sidewall are at a negative angle when measured relative to a plane that is perpendicular to the groove bottom surface and perpendicular to the surface of each of the sidewalls.
A device for transfer of equipment for a wireline operation in a well connected to a drilling derrick via a top drive, wherein the device comprises a beam (14A, 14B, 14C, 14C', 14D) structured for releasable connection to said top drive; - wherein the beam (14A, 14B, 14C, 14C', 14D) is structured in a manner allowing it to extend, when in its position of use, transversely relative to a centre line between the top drive and the well; and - wherein the beam (14A, 14B, 14C, 14C', 14D) is provided with at least one hoisting device (34, 34a, 34b, 36) with a lifting line (38, 38a, 38b, 40) for vertical movement of said equipment, characterized in that a support point (58, 60; 86) for the lifting line (38, 38a, 38b, 40) is connected to the beam (14A, 14B, 14C, 14C', 14D) and is structured so as to be movable in the longitudinal direction of the beam (14A, 14B, 14C, 14C', 14D), whereby said equipment may be moved horizontally relative to said centre line; and - wherein said hoisting device (34, 34a, 34b, 36) and support point (58, 60; 86) are structured for remote-controlled operation. - wherein the beam (14A, 14B, 14C, 14C', 14D) is structured in a manner allowing it to extend, when in its position of use, transversely relative to a centre line between the top drive and the well; and - wherein the beam (14A, 14B, 14C, 14C', 14D) is provided with at least one hoisting device (34, 34a, 34b, 36) with a lifting line (38, 38a, 38b, 40) for vertical movement of said equipment, characterized in that a support point (58, 60; 86) for the lifting line (38, 38a, 38b, 40) is connected to the beam (14A, 14B, 14C, 14C', 14D) and is structured so as to be movable in the longitudinal direction of the beam (14A, 14B, 14C, 14C', 14D), whereby said equipment may be moved horizontally relative to said centre line; and - wherein said hoisting device (34, 34a, 34b, 36) and support point (58, 60; 86) are structured for remote-controlled operation.
A processing apparatus for packaging machines, in particular for labeling and/or printing packages, comprising at least one upper processing unit for processing upper package sides and at least one lower processing unit for processing lower package sides; and a common adjustment axle for the processing units along which the processing units are adjustable manually or by means of a drive in an adjustment direction which extends in parallel with a direction of transport of the packaging machine, characterized in that the processing units (17, 19) can be coupled to the adjustment axle and can be decoupled from the adjustment axle independently of one another. a common adjustment axle for the processing units along which the processing units are adjustable manually or by means of a drive in an adjustment direction which extends in parallel with a direction of transport of the packaging machine, characterized in that the processing units (17, 19) can be coupled to the adjustment axle and can be decoupled from the adjustment axle independently of one another.
An optical assembly, comprising: a first layer; a plurality of light sources disposed over the first layer and emitting light in a direction parallel to the first layer; a second layer that is disposed above the first layer and covering the plurality of light sources, wherein the second layer is formed with a light transmissive material; at least one reflection layer between the first layer and the second layer; wherein the reflection layer includes at least a first region (a1, 242) and a second region (a2, 243) having different reflectances and arranged in-between light sources adjacent in the light emission direction; said light sources adjacent in the light emission direction comprising a first light source emitting light in the light emission direction towards a second light source; wherein the first region is disposed more adjacent to the first light source; wherein the surface roughness of the second region of the reflection layer is higher than that of the first region of the reflection layer; and characterized in that a plurality of patterns is disposed on the reflection layer in-between light sources adjacent in the light emission direction, each pattern includes a plurality of protrusions or recesses to scatter or refract the light, wherein each pattern is formed on the second region, and not in the first region, and the width of the area where each pattern is formed increases in the light emission direction, the width being the dimension measured perpendicular to the light emitting direction. a first layer; a plurality of light sources disposed over the first layer and emitting light in a direction parallel to the first layer; a second layer that is disposed above the first layer and covering the plurality of light sources, wherein the second layer is formed with a light transmissive material; at least one reflection layer between the first layer and the second layer; wherein the reflection layer includes at least a first region (a1, 242) and a second region (a2, 243) having different reflectances and arranged in-between light sources adjacent in the light emission direction; said light sources adjacent in the light emission direction comprising a first light source emitting light in the light emission direction towards a second light source; wherein the first region is disposed more adjacent to the first light source; wherein the surface roughness of the second region of the reflection layer is higher than that of the first region of the reflection layer; and characterized in that a plurality of patterns is disposed on the reflection layer in-between light sources adjacent in the light emission direction, each pattern includes a plurality of protrusions or recesses to scatter or refract the light, wherein each pattern is formed on the second region, and not in the first region, and the width of the area where each pattern is formed increases in the light emission direction, the width being the dimension measured perpendicular to the light emitting direction.
A device for removing labels from objects, preferably objects made of plastic, in particular bottles, wherein the device comprises at least one container with at least one inlet opening for introducing the objects, in particular the bottles, and wherein the device comprises means for removing labels, wherein the container comprises a rotation device, wherein the rotation device is arranged vertically in the container, characterized in that means for removing labels, in particular rotor blades, are arranged such that they are rotated by an angle of about 90° along their edges (21, 21a) relative to other means for removing labels, in particular stator blades.