mhurhangee/ep-ind-claims huggingface dataset:
Camera external housing for use in transport technology comprising at least one viewing window for monitoring the traffic space and/or the environment and designed to be mounted to the front, roof or side wall of the outer shell of vehicles, the camera housing front surface being characterized in that the camera external housing front surface from top front to bottom rear is designed to slope in the direction of travel in an angular range between +15° to +60° relative to the vertical, the surface normal of the upper part of the camera external housing front surface is designed to tilt forwards in an angular range between +10 to -20° relative to the direction of travel. the surface normal of the lower rear part of the camera external housing front surface with the viewing window is formed to tilt rearwards in an angular range between 0° to +30° relative to the direction of travel, the camera external housing front surface is largely enclosed towards the exterior by a baffle ridge projecting in the direction of travel, and the camera external housing front surface in the area of the viewing window tapers in a funnel shape towards the airflow side.
A method for controlling a vector processor for jointly processing signals to be transmitted over, or received from, a group of vectored lines, and configured with a current set of vectoring coefficients, the method comprising: - selecting one or more symbol positions out of the available symbol positions; - temporarily configuring the vector processor with a new set of vectoring coefficients during the one or more selected symbol positions; - restoring the current set of vectoring coefficients outside the one or more selected symbol positions; characterized by - obtaining at least one error measure over respectively at least one line of the group of vectored lines during the one or more selected symbol positions; and - determining a suitability indication for the new set of vectoring coefficients based on the obtained at least one error measure. - selecting one or more symbol positions out of the available symbol positions; - temporarily configuring the vector processor with a new set of vectoring coefficients during the one or more selected symbol positions; - restoring the current set of vectoring coefficients outside the one or more selected symbol positions; characterized by - obtaining at least one error measure over respectively at least one line of the group of vectored lines during the one or more selected symbol positions; and - determining a suitability indication for the new set of vectoring coefficients based on the obtained at least one error measure.
A rigid sensor stopper adapted for a drug delivery device, comprising: a sensor; a power source; and at least one seal, wherein the at least one seal is elastomeric, characterised in that the rigid sensor stopper further comprises a sealed rigid casing, wherein the casing is formed from at least one of: injection molding, machining, or forged casing, wherein the sensor and the power source are inserted prior to the sealing of the rigid casing, the sensor comprises a transducer coupled to emit ultrasonic signals along the length of, and through a fluid in, the drug delivery device when the stopper is positioned in the drug delivery device, wherein the ultrasonic signals are reflected back toward the stopper by a dispensing end of the drug delivery device. a sensor; a power source; and at least one seal, wherein the at least one seal is elastomeric, characterised in that the rigid sensor stopper further comprises a sealed rigid casing, wherein the casing is formed from at least one of: injection molding, machining, or forged casing, wherein the sensor and the power source are inserted prior to the sealing of the rigid casing, the sensor comprises a transducer coupled to emit ultrasonic signals along the length of, and through a fluid in, the drug delivery device when the stopper is positioned in the drug delivery device, wherein the ultrasonic signals are reflected back toward the stopper by a dispensing end of the drug delivery device. and at least one seal, wherein the at least one seal is elastomeric, characterised in that the rigid sensor stopper further comprises a sealed rigid casing, wherein the casing is formed from at least one of: injection molding, machining, or forged casing, injection molding, machining, or forged casing, wherein the sensor and the power source are inserted prior to the sealing of the rigid casing, the sensor comprises a transducer coupled to emit ultrasonic signals along the length of, and through a fluid in, the drug delivery device when the stopper is positioned in the drug delivery device, wherein the ultrasonic signals are reflected back toward the stopper by a dispensing end of the drug delivery device.
A high-manganese hot-dip aluminum-coated steel sheet comprising: a base steel sheet consisting of, by weight, 5 to 35% of Mn, 0.3 to 6% of Al, 0.1 to 1.2% of Si, optionally further including one or more selected from the group consisting of, by weight, 0.3 to 0.9% of C, 0.01 to 0.5% of Ti, 0.05 to 0.5% of V, 0.0005 to 0.0050% of B, 0.01 to 0.5% of Cr, 0.01 to 0.5% of Mo, 0.01 to 0.05% of Nb, and 0.01 to 0.1% of Sn, a balance of Fe and inevitable impurities; a hot-dip aluminum-coated layer formed on a surface of the base steel sheet and consisting of, by weight, 3 to 12% of Si, optionally further including, by weight, 0.1 to 10% of Mg, optionally further including, by weight, 0.001 to 5 wt% of Ca, 0.005 to 2 wt % of Sr, 0.01 to 2 wt% of Mn, 0.01 to 2 wt% of Cr, 0.01 to 2 wt% of Mo, and 0.1 to 10 wt% of Sn, a balance of Al, and inevitable impurities; and an alloy layer including an Fe-Al-Si-Mn-based alloy phase and having a thickness of 0.1 to 10 μm and included on an interface between the base steel sheet and the hot-dip aluminum-coated layer, wherein the alloy layer consists of, by weight, 40 to 70% of Al, 2 to 13% of Si, 3 to 9% of Mn, optionally further including, by weight, 0.1% to 1% of Mg, a balance of Fe and inevitable impurities. a base steel sheet consisting of, by weight, 5 to 35% of Mn, 0.3 to 6% of Al, 0.1 to 1.2% of Si, optionally further including one or more selected from the group consisting of, by weight, 0.3 to 0.9% of C, 0.01 to 0.5% of Ti, 0.05 to 0.5% of V, 0.0005 to 0.0050% of B, 0.01 to 0.5% of Cr, 0.01 to 0.5% of Mo, 0.01 to 0.05% of Nb, and 0.01 to 0.1% of Sn, a balance of Fe and inevitable impurities; a hot-dip aluminum-coated layer formed on a surface of the base steel sheet and consisting of, by weight, 3 to 12% of Si, optionally further including, by weight, 0.1 to 10% of Mg, optionally further including, by weight, 0.001 to 5 wt% of Ca, 0.005 to 2 wt % of Sr, 0.01 to 2 wt% of Mn, 0.01 to 2 wt% of Cr, 0.01 to 2 wt% of Mo, and 0.1 to 10 wt% of Sn, a balance of Al, and inevitable impurities; and an alloy layer including an Fe-Al-Si-Mn-based alloy phase and having a thickness of 0.1 to 10 μm and included on an interface between the base steel sheet and the hot-dip aluminum-coated layer, wherein the alloy layer consists of, by weight, 40 to 70% of Al, 2 to 13% of Si, 3 to 9% of Mn, optionally further including, by weight, 0.1% to 1% of Mg, a balance of Fe and inevitable impurities.
An X-ray standard reference object (100,200,400) for calibrating a scanning electron beam in an additive manufacturing apparatus by measuring X-ray signals generated by scanning the electron beam onto the reference object, the reference object comprises: a lower (16,49) and an upper plate being essentially in parallel and attached spaced apart from each other, the upper plate comprises a plurality of holes (20,40,45), wherein a predetermined hollow pattern (22, 42) is provided inside the holes; wherein the upper plate comprises a first (10,25,48) and a second (12,46) plate, the first plate comprises the holes, the second plate comprises the predetermined hollow pattern and wherein the second plate faces towards the lower plate, wherein the hollow pattern is made of a material having a higher atomic number than the first and/or lower plate.
Method for producing a beam guide grid produced from a molded body which is provided with a grid of through-channels and wall regions surrounding said channels and is made of a mixture of radiation-absorbing metal powder and binder, in particular tungsten powder and binder, the molded body being produced by means of injection molding, in which the homogenized mixture, as an injection molding compound which has been prepared so as to be flowable, is filled into a mold which molds the molded body by means of an injection molding machine, characterized in that movable mold cores are introduced into the mold before the filling of the injection molding compound, and in that, during the molding process, in order to ensure that the axes of the through-channels are directed to a common focus point at an acute angle to one another, the mold cores are arranged and formed in the mold in accordance with the orientation, the grid and the shape of the through-channels, which mold cores are held outside a wall portion of the mold on a storage unit and are removed from the through-channels after filling and pre-solidification of the injection molding compound and before ejection of the molded body. characterized in that movable mold cores are introduced into the mold before the filling of the injection molding compound, and in that, during the molding process, in order to ensure that the axes of the through-channels are directed to a common focus point at an acute angle to one another, the mold cores are arranged and formed in the mold in accordance with the orientation, the grid and the shape of the through-channels, which mold cores are held outside a wall portion of the mold on a storage unit and are removed from the through-channels after filling and pre-solidification of the injection molding compound and before ejection of the molded body.
A steel sheet for an automotive muffler, comprising: 0.01 % by weight or less of C; 0.1 to 0.3% by weight of Si; 0.3 to 0.5% by weight of Mn; 0.015% by weight or less of P; 0.015% or less by weight of S; 0.02 to 0.05% by weight of Al; 0.004% or less of N; 0.2 to 0.6% by weight of Cu; 0.01 to 0.04% by weight of Co; optionally 0.2 to 0.4% by weight of Ni, 0.1 to 0.3% by weight of Cr and/or 0.05 to 0.2% by weight of Mo; and a remainder of Fe and unavoidable impurities; satisfying the following equation: 60-280*C(%)-15*Si(%)-20*Mn(%)-12*Cu(%)-10*Co(%)≥35. 0.01 % by weight or less of C; 0.1 to 0.3% by weight of Si; 0.3 to 0.5% by weight of Mn; 0.015% by weight or less of P; 0.015% or less by weight of S; 0.02 to 0.05% by weight of Al; 0.004% or less of N; 0.2 to 0.6% by weight of Cu; 0.01 to 0.04% by weight of Co; optionally 0.2 to 0.4% by weight of Ni, 0.1 to 0.3% by weight of Cr and/or 0.05 to 0.2% by weight of Mo; and a remainder of Fe and unavoidable impurities; satisfying the following equation: 60-280*C(%)-15*Si(%)-20*Mn(%)-12*Cu(%)-10*Co(%)≥35. 60-280*C(%)-15*Si(%)-20*Mn(%)-12*Cu(%)-10*Co(%)≥35.
Calliper body for disk brake suitable for being positioned astride a brake disk, wherein the brake disk has two braking surfaces (18, 19) and defines a rotation axis as well as' an axial direction X-X parallel to the rotation axis, an orthogonal radial direction R-R and a circumferential direction T-T orthogonal to the axial direction, said calliper body having two elongated elements (5 and 6) suitable for being positioned on opposite sides of the disk and facing said braking surfaces (18, 19), each of said elongated bodies (5 and 6) comprising a thrust seat for housing thrust means suitable for pressing a pad (13, 14), against one of the braking surfaces (18, 19), each of the thrust seats having a rim of a substantially complementary shape to the shape of a pad rim of the pad (13, 14), each elongated body (5, 6) having a radially outer portion (21, 22); said calliper body having a connection bridge which connects the elongated elements (5, 6), characterised in that said rim of the thrust seat comprises an upper rim which separates the thrust seat from the radially outer portion (21, 22) - said calliper body comprises a reinforcement element (41,42,43 44) which, connects said radially outer portion (21, 22) to said connection bridge, - said radially outer portion (21, 22) and said reinforcement element (41, 42, 43, 44) define a through radial aperture having a maximum length in a circumferential direction and a maximum width in an axial direction, wherein: - the reinforcement element (41,42,43,44) is radially external to the upper rim; - the reinforcement element (41,42,43,44) comprises a reinforcement wall having a radial thickness less than the radial thickness of said connection bridge. - said calliper body comprises a reinforcement element (41,42,43 44) which, connects said radially outer portion (21, 22) to said connection bridge, - said radially outer portion (21, 22) and said reinforcement element (41, 42, 43, 44) define a through radial aperture having a maximum length in a circumferential direction and a maximum width in an axial direction, wherein: - the reinforcement element (41,42,43,44) is radially external to the upper rim; - the reinforcement element (41,42,43,44) comprises a reinforcement wall having a radial thickness less than the radial thickness of said connection bridge.
A support for hydrocracking catalyst of hydrocarbon oil, which comprises a modified zeolite obtained by incorporating titanium into a faujasite-type zeolite, wherein the modified zeolite satisfies the followings (a) to (e): (a) the modified zeolite has a titanium content of 1-17% by mass in terms of metal oxide amount, (b) the modified zeolite contains aluminum and silicon in an Al/Si atomic ratio of 0.14-0.35, (c) the modified zeolite has a lattice constant of 24.36-24.48 Å, (d) the modified zeolite has a degree of crystallinity of 30-95%, and (e) the modified zeolite has a specific surface area of 500-850 m 2 /g. (a) the modified zeolite has a titanium content of 1-17% by mass in terms of metal oxide amount, (b) the modified zeolite contains aluminum and silicon in an Al/Si atomic ratio of 0.14-0.35, (c) the modified zeolite has a lattice constant of 24.36-24.48 Å, (d) the modified zeolite has a degree of crystallinity of 30-95%, and (e) the modified zeolite has a specific surface area of 500-850 m 2 /g.
An ionic conductor comprising lithium (Li), borohydride (BH 4 -), phosphorus, and sulfur, wherein, in X-ray diffraction (CuKα: λ = 1.5405Å), the ionic conductor has diffraction peaks, at least, at 2θ = 14.4 ± 1.0 deg, 15.0 ± 1.0 deg, 24.9 ± 1.0 deg, 29.2 ± 1.5 deg, 30.3 ± 1.5 deg, 51.1 ± 2.5 deg and 53.5 ± 2.5 deg.
An assembly for use in an internal combustion engine comprising: a cylinder (110, 115) having a bore diameter; a piston disposed within the cylinder (110, 115), the piston having a top land having a top land height and a top ring groove; the top land and the cylinder (110, 115) having a tight top land clearance; and wherein the ratio of the top land height to the bore diameter is less than or equal to 0.025 characterised in that: the tight top land clearance is between 0 microns and 35 microns when the internal combustion engine operates at rated temperatures, wherein the piston is either made of steel and the tight top land clearance is less than 0.29% of the bore diameter at room temperature for a lean burn engine, and less than 0.33% of the bore diameter at room temperature for a stoichiometric burn engine or wherein the piston is made of aluminum and the tight top land clearance is less than 0.46% of the bore diameter at room temperature for a lean burn engine and less than 0.53% of the bore diameter for a stoichiometric burn engine. a cylinder (110, 115) having a bore diameter; a piston disposed within the cylinder (110, 115), the piston having a top land having a top land height and a top ring groove; the top land and the cylinder (110, 115) having a tight top land clearance; and wherein the ratio of the top land height to the bore diameter is less than or equal to 0.025 characterised in that: the tight top land clearance is between 0 microns and 35 microns when the internal combustion engine operates at rated temperatures, wherein the piston is either made of steel and the tight top land clearance is less than 0.29% of the bore diameter at room temperature for a lean burn engine, and less than 0.33% of the bore diameter at room temperature for a stoichiometric burn engine or wherein the piston is made of aluminum and the tight top land clearance is less than 0.46% of the bore diameter at room temperature for a lean burn engine and less than 0.53% of the bore diameter for a stoichiometric burn engine. the tight top land clearance is between 0 microns and 35 microns when the internal combustion engine operates at rated temperatures, wherein the piston is either made of steel and the tight top land clearance is less than 0.29% of the bore diameter at room temperature for a lean burn engine, and less than 0.33% of the bore diameter at room temperature for a stoichiometric burn engine or wherein the piston is made of aluminum and the tight top land clearance is less than 0.46% of the bore diameter at room temperature for a lean burn engine and less than 0.53% of the bore diameter for a stoichiometric burn engine.
A medical device (100; 200) comprising: a needle member (102; 202); a handle (106; 206) coupled to the needle member (102; 202), the handle (106; 206) defining a track portion (111; 112); and a pusher member (104; 204) including a sheath (107; 207) disposed around a portion of the needle member (102; 202) and an extension member (108; 208) being movably coupled to the track portion (111; 211) of the handle (106; 206) such that the pusher member (104; 204) is configured to move from a first position to a second position during a surgical procedure, the pusher member (104; 204) being removable from the handle (106; 206), characterised in that the sheath defines a slot along an entire length of the sheath (107; 207), the needle member (102; 202) being removable from the pusher member (104; 204) through the slot. a needle member (102; 202); a handle (106; 206) coupled to the needle member (102; 202), the handle (106; 206) defining a track portion (111; 112); and a pusher member (104; 204) including a sheath (107; 207) disposed around a portion of the needle member (102; 202) and an extension member (108; 208) being movably coupled to the track portion (111; 211) of the handle (106; 206) such that the pusher member (104; 204) is configured to move from a first position to a second position during a surgical procedure, the pusher member (104; 204) being removable from the handle (106; 206), characterised in that the sheath defines a slot along an entire length of the sheath (107; 207), the needle member (102; 202) being removable from the pusher member (104; 204) through the slot.
Arrangement for controlling a demand-based obstacle beaconing system of a wind turbine, with - a switch cabinet, which has a switch-cabinet housing; - a first antenna device, which is arranged on the switch-cabinet housing; - a first receiving device, which is associated with the first antenna device, is arranged in the switch-cabinet housing, and is configured to receive transponder signals via the first antenna device; - a first control device (40; 53), which is connected to the first receiving device and is configured to receive the transponder signals from the first receiving device and, as a function of the same, to provide first control signals for an obstacle beaconing system of a wind turbine and to deliver them to a switch device (42; 52) of the obstacle beaconing system with which a first signalling device (41, 50, 51) of the obstacle beaconing system is switched as a function of the control signals; - a second antenna device; and - a transceiver device, which is associated with the second antenna device, is arranged in the switch-cabinet housing, and is configured to transmit and receive, separately from the transponder signals, data communication signals via the second antenna device; characterized in that - the switch cabinet is configured to be arranged in the outside area on a nacelle of the wind turbine, and the switch-cabinet housing is usable in the outside area; and - the second antenna device is arranged on the switch-cabinet housing. - a switch cabinet, which has a switch-cabinet housing; - a first antenna device, which is arranged on the switch-cabinet housing; - a first receiving device, which is associated with the first antenna device, is arranged in the switch-cabinet housing, and is configured to receive transponder signals via the first antenna device; - a first control device (40; 53), which is connected to the first receiving device and is configured to receive the transponder signals from the first receiving device and, as a function of the same, to provide first control signals for an obstacle beaconing system of a wind turbine and to deliver them to a switch device (42; 52) of the obstacle beaconing system with which a first signalling device (41, 50, 51) of the obstacle beaconing system is switched as a function of the control signals; - a second antenna device; and - a transceiver device, which is associated with the second antenna device, is arranged in the switch-cabinet housing, and is configured to transmit and receive, separately from the transponder signals, data communication signals via the second antenna device; characterized in that - the switch cabinet is configured to be arranged in the outside area on a nacelle of the wind turbine, and the switch-cabinet housing is usable in the outside area; and - the second antenna device is arranged on the switch-cabinet housing.
A pressure controlled safety switch (128,528,628) comprising: an electrical switch (330,530,630) disposed in a cavity (323,523) of a mandrel (304,504); and a bellows assembly (331,531,631) operably engaged with the electrical switch (330,530,630), the bellows assembly (331,531,631) in fluid communication with a fluid surrounding the mandrel (304,504) such that a pressure in the fluid no less than a predetermined pressure causes the bellows to activate the electrical switch (330,530,630), and a pressure in the fluid less than the predetermined pressure causes the bellows to deactivate the electrical switch (330,530,630). an electrical switch (330,530,630) disposed in a cavity (323,523) of a mandrel (304,504); and a bellows assembly (331,531,631) operably engaged with the electrical switch (330,530,630), the bellows assembly (331,531,631) in fluid communication with a fluid surrounding the mandrel (304,504) such that a pressure in the fluid no less than a predetermined pressure causes the bellows to activate the electrical switch (330,530,630), and a pressure in the fluid less than the predetermined pressure causes the bellows to deactivate the electrical switch (330,530,630).
Method for dressing a grinding worm or grinding wheel which rotates about an axis of rotation and is intended for grinding a gear or gear-like workpiece having a tooth-shaped profile, which grinding worm or grinding wheel consists at least in part of a dressable abrasive material, in which method, for dressing, a cutting edge is moved towards the flanks of the tooth-shaped profile of the grinding worm, the grinding worm is dressed, and after dressing the cutting edge is moved away from the grinding worm, characterised in that, after the dressing process, in order to strip the grinding worm, a stripping ruler is arranged at an angle φ not equal to zero to the axis of rotation of the grinding worm and the rotating grinding worm is moved relative to the stripping ruler upon contact with the stripping ruler.