mhurhangee/ep-ind-claims huggingface dataset:
Contact terminal for the reception of contact pins, comprising: a pin reception member having a box-shape made from a single piece of sheet other metal, wherein two opposite walls (31, 33) comprise each a contact front portion (38, 38') which is inwardly bent such that the respective wall has essentially a hook-shaped cross-section, and one wall of the pin reception member comprises at least one aperture and another wall comprises at least one locking tongue, which in the assembled condition of the pin reception member is arranged at least partially in said aperture, characterized in that two other opposite walls (32, 34) comprise each at least one cut-out contact tongue (37, 37') being inwardly bent into the interior of the box-shape, and extending from a base portion integrally formed with the respective wall and the free ends thereof point toward a pin reception opening wherein the inwardly bent contact front portions (38, 38') and the inwardly bent cut-out contact tongues (37, 37') are adapted to provide contact surfaces for a contact pin. a pin reception member having a box-shape made from a single piece of sheet other metal, wherein two opposite walls (31, 33) comprise each a contact front portion (38, 38') which is inwardly bent such that the respective wall has essentially a hook-shaped cross-section, and one wall of the pin reception member comprises at least one aperture and another wall comprises at least one locking tongue, which in the assembled condition of the pin reception member is arranged at least partially in said aperture, characterized in that two other opposite walls (32, 34) comprise each at least one cut-out contact tongue (37, 37') being inwardly bent into the interior of the box-shape, and extending from a base portion integrally formed with the respective wall and the free ends thereof point toward a pin reception opening wherein the inwardly bent contact front portions (38, 38') and the inwardly bent cut-out contact tongues (37, 37') are adapted to provide contact surfaces for a contact pin.
A fluid sampling device requiring no power source and comprising a frame a housing arranged to be freely rotatable relative to said frame which incorporates a sampling medium, under the influence of a fluid and comprising a channel having an opening for channeling the fluid through the housing such that the fluid contacts a particular portion of the sampling medium contained therein, said portion corresponding to a particular relative angular position of the housing, and characterized by the channel extending from the opening to an exit, from which exit the fluid is exhausted after contacting the sampling medium.
A circuit for charging an electric battery by means of a photovoltaic module, comprising: first (I+) and second (I-) input terminals intended to be respectively coupled to fist (M+) and second (M-) terminals of the photovoltaic module; first (O+) and second (O-) output terminals intended to be respectively coupled to first (B+) and second (B-) terminals of the battery; a switched-mode power converter comprising first (ci+) and second (ci-) input terminals respectively coupled to the first (I+) and second (I-) input terminals of the charging circuit and first (co+) and second (co-) output terminals respectively coupled to the first (O+) and second (O-) output terminals of the charging circuit; a circuit for controlling the switched-mode power converter comprising first (s+) and second (s-) power supply terminals respectively coupled to the first (O+) and second (O-) output terminals of the charging circuit; a protection switch coupling the first output terminal (co+) of the switched-mode power converter to the first output terminal (O+) of the charging circuit; and characterized by an overvoltage detection circuit configured to, when the voltage between the first (O+) and second (O-) output terminals of the charging circuit exceeds a threshold, send an order to turn off the protection switch and stop the switched-mode power converter for a predetermined inhibition period. first (I+) and second (I-) input terminals intended to be respectively coupled to fist (M+) and second (M-) terminals of the photovoltaic module; first (O+) and second (O-) output terminals intended to be respectively coupled to first (B+) and second (B-) terminals of the battery; a switched-mode power converter comprising first (ci+) and second (ci-) input terminals respectively coupled to the first (I+) and second (I-) input terminals of the charging circuit and first (co+) and second (co-) output terminals respectively coupled to the first (O+) and second (O-) output terminals of the charging circuit; a circuit for controlling the switched-mode power converter comprising first (s+) and second (s-) power supply terminals respectively coupled to the first (O+) and second (O-) output terminals of the charging circuit; a protection switch coupling the first output terminal (co+) of the switched-mode power converter to the first output terminal (O+) of the charging circuit; and characterized by an overvoltage detection circuit configured to, when the voltage between the first (O+) and second (O-) output terminals of the charging circuit exceeds a threshold, send an order to turn off the protection switch and stop the switched-mode power converter for a predetermined inhibition period.
A frame structure for a construction machine including a lower travelling body and an upper rotating body which is mounted on the lower travelling body such that the upper rotating body is rotatable, wherein the frame structure comprises a rotating frame disposable in a lower section of the upper rotating body and including a bottom plate, a front attachment provided in a front section of the rotating frame, a reinforcing rib which stands upright on the bottom plate of the rotating frame and extends in a front-rear direction, wherein the rotating frame and the reinforcing rib are formed integrally with each other by casting, and a hydraulic pump and a control valve disposed on the rotating frame at opposite sides of the reinforcing rib in a width direction of the rotating frame, the hydraulic pump ejecting working oil, the control valve being connected to the hydraulic pump by a hydraulic tube and controlling an operation of supplying the working oil ejected from the hydraulic pump, characterized in that a tube insertion hole through which the hydraulic tube extends is provided in a base portion of the reinforcing rib in a standing direction thereof such that the tube insertion hole extends through the base portion of the reinforcing rib in a thickness direction thereof, and a communication hole which communicates with the tube insertion hole is provided in the bottom plate of the rotating frame such that the communication hole extends through the bottom plate of the rotating frame in a thickness direction thereof at a position corresponding to the tube insertion hole, wherein the frame structure further comprises: a swing cylinder which swings the front attachment in a left-right direction; and a swing cylinder bracket which supports a base end portion of the swing cylinder such that the base end portion of the swing cylinder is rotatable, wherein the swing cylinder bracket is positioned above the bottom plate of the rotating frame with a gap provided between the swing cylinder bracket and the bottom plate and is formed integrally with the rotating frame by casting, the hydraulic tube extending through the gap, and wherein a through hole which communicates with the gap is provided in the bottom plate of the rotating frame such that the through hole extends through the bottom plate of the rotating frame in the thickness direction thereof at a position corresponding to the gap. a swing cylinder which swings the front attachment in a left-right direction; and a swing cylinder bracket which supports a base end portion of the swing cylinder such that the base end portion of the swing cylinder is rotatable, wherein the swing cylinder bracket is positioned above the bottom plate of the rotating frame with a gap provided between the swing cylinder bracket and the bottom plate and is formed integrally with the rotating frame by casting, the hydraulic tube extending through the gap, and wherein a through hole which communicates with the gap is provided in the bottom plate of the rotating frame such that the through hole extends through the bottom plate of the rotating frame in the thickness direction thereof at a position corresponding to the gap.
Connection of belt connectors which are configured as wire hooks to an end of a belt, wherein the respective wire hook has legs (2, 3) which are disposed on both sides of the belt, and hook ends which adjoin said legs (2, 3) and are press-fitted into the belt, and a coupling eyelet connecting the two legs (2, 3), furthermore having a planar cover element on both sides of the belt which extends across the width of the belt for the hook assembly, wherein the cover element for fastening the cover element to the belt has a carrier material and a layer of a thermoplastic material or an adhesive, in particular a hot-melt adhesive or an elastic adhesive, which is applied to that side of the carrier material that faces the belt, characterized in that the belt is configured as a filter belt and the applied layer on both sides of the belt penetrates cavities of the belt, wherein the applied layer in those regions of the applied layer that are disposed on both sides of the belt is interconnected in the region of the cavities.
A traffic light detection device comprising: an image pickup unit that is mounted on a vehicle to acquire images by taking images of surroundings of the vehicle; a synchronized pixel extraction unit that extracts synchronized pixels, whose brightness changes in synchronization with an alternating current period of electric power supplied to a traffic light, from the images; and a traffic light detection unit that detects the traffic light from the synchronized pixels, wherein the traffic light detection unit includes a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value. an image pickup unit that is mounted on a vehicle to acquire images by taking images of surroundings of the vehicle; a synchronized pixel extraction unit that extracts synchronized pixels, whose brightness changes in synchronization with an alternating current period of electric power supplied to a traffic light, from the images; and a traffic light detection unit that detects the traffic light from the synchronized pixels, wherein the traffic light detection unit includes a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value. a positional variation calculation unit that calculates positional variation amounts in image coordinates of continuously extracted positions of the synchronized pixels in an image sequence, and a signal lamp determination unit that determines, as a signal lamp candidate, the synchronized pixels whose positional variation amount is equal to or smaller than a threshold value.
A process for producing an aqueous suspension of precipitated calcium carbonate comprising the steps of: i) providing a calcium oxide containing material, ii) providing at least one cationic polymer comprising monomer units being a quaternized ammonium compound, iii) preparing a milk of lime by mixing water, the calcium oxide containing material of step i), and the at least one cationic polymer of step ii) to obtain a milk of lime, wherein the calcium oxide containing material and the water are mixed in a weight ratio from 1:1 to 1:12, and iv) carbonating the milk of lime obtained in step iii) to form an aqueous suspension of precipitated calcium carbonate. i) providing a calcium oxide containing material, ii) providing at least one cationic polymer comprising monomer units being a quaternized ammonium compound, iii) preparing a milk of lime by mixing water, the calcium oxide containing material of step i), and the at least one cationic polymer of step ii) to obtain a milk of lime, wherein the calcium oxide containing material and the water are mixed in a weight ratio from 1:1 to 1:12, and iv) carbonating the milk of lime obtained in step iii) to form an aqueous suspension of precipitated calcium carbonate.
Door frame arrangement of a wind turbine tower, - whereby at least a segment of a wind turbine tower comprises a tower wall of a certain predetermined thickness, - whereby the tower wall comprises a through-going hole in the wall of the wind turbine tower as a door opening to allow the entrance into the tower, - whereby the tower comprises a door frame that limits the clearance of the door opening, - whereby the door frame leads along the edge of the hole in the tower wall to reinforce the tower and to compensate the loss of stability resulting from the opening in the tower wall, characterized in that - the door frame comprises a first part and a second part connected to the first part, whereby the first part of the door frame abuts on the edge of the tower wall, and the second part limits the clearance of the door opening, - whereby the thickness of the second part of the door frame is bigger than the thickness of the first part of the door frame, and the thickness of the first part of the frame is bigger than the thickness of the tower wall, whereby the thickness of the material is measured in a radial direction along the radius of the wind turbine tower, and - the thickness of the door frame changes in a stepwise manner from the first part to the second part. - whereby at least a segment of a wind turbine tower comprises a tower wall of a certain predetermined thickness, - whereby the tower wall comprises a through-going hole in the wall of the wind turbine tower as a door opening to allow the entrance into the tower, - whereby the tower comprises a door frame that limits the clearance of the door opening, - whereby the door frame leads along the edge of the hole in the tower wall to reinforce the tower and to compensate the loss of stability resulting from the opening in the tower wall, characterized in that - the door frame comprises a first part and a second part connected to the first part, whereby the first part of the door frame abuts on the edge of the tower wall, and the second part limits the clearance of the door opening, - whereby the thickness of the second part of the door frame is bigger than the thickness of the first part of the door frame, and the thickness of the first part of the frame is bigger than the thickness of the tower wall, whereby the thickness of the material is measured in a radial direction along the radius of the wind turbine tower, and - the thickness of the door frame changes in a stepwise manner from the first part to the second part.
A Compound of Formula II wherein (i) L is S, SO or SO 2; (ii) R 1 is H or C 1-4 alkyl; (iii) R 2 is H and R 3 and R 4 together form a di-, tri- or tetramethylene bridge optionally wherein the R 3 and R 4 together have the cis configuration, e.g., where the carbons carrying R 3 and R 4 have the R and S configurations, respectively; (iv) R 5 is a) -D-E-F, wherein: D is methylene E is phenylene; or F is heteroaryl; wherein D, E and F are independently and optionally substituted with one or more halo, C 1-4 alkyl, or haloC 1-4 alkyl, b) attached to one of the nitrogens on the pyrazolo portion of Formula II and is a moiety of Formula A wherein X, Y and Z are C, and R 8, R 9, R 11 and R 12 are H and R 10 is heteroaryl, wherein said heteroaryl is optionally substituted with one or more halo; (v) R 6 is C 1-4 alkyl, aryl, or heteroaryl wherein the aryl or heteroaryl is optionally substituted with one or more halo, hydroxy or C 1-6 alkoxy, in free, or salt forms, wherein alkyl is saturated or unsaturated. (i) L is S, SO or SO 2; (ii) R 1 is H or C 1-4 alkyl; (iii) R 2 is H and R 3 and R 4 together form a di-, tri- or tetramethylene bridge optionally wherein the R 3 and R 4 together have the cis configuration, e.g., where the carbons carrying R 3 and R 4 have the R and S configurations, respectively; (iv) R 5 is a) -D-E-F, wherein: D is methylene E is phenylene; or F is heteroaryl; wherein D, E and F are independently and optionally substituted with one or more halo, C 1-4 alkyl, or haloC 1-4 alkyl, b) attached to one of the nitrogens on the pyrazolo portion of Formula II and is a moiety of Formula A wherein X, Y and Z are C, and R 8, R 9, R 11 and R 12 are H and R 10 is heteroaryl, wherein said heteroaryl is optionally substituted with one or more halo; a) -D-E-F, wherein: D is methylene E is phenylene; or F is heteroaryl; wherein D, E and F are independently and optionally substituted with one or more halo, C 1-4 alkyl, or haloC 1-4 alkyl, D is methylene E is phenylene; or F is heteroaryl; wherein D, E and F are independently and optionally substituted with one or more halo, C 1-4 alkyl, or haloC 1-4 alkyl, halo, C 1-4 alkyl, or haloC 1-4 alkyl, b) attached to one of the nitrogens on the pyrazolo portion of Formula II and is a moiety of Formula A wherein X, Y and Z are C, and R 8, R 9, R 11 and R 12 are H and R 10 is heteroaryl, wherein said heteroaryl is optionally substituted with one or more halo; (v) R 6 is C 1-4 alkyl, aryl, or heteroaryl wherein the aryl or heteroaryl is optionally substituted with one or more halo, hydroxy or C 1-6 alkoxy, aryl, or heteroaryl wherein the aryl or heteroaryl is optionally substituted with one or more halo, hydroxy or C 1-6 alkoxy,
A method of controlling a lighting system which comprises a plurality of lighting channels with light sources having different color points, comprising: a first step of receiving color point information comprising nominal color point information in respect of the light sources; a second step of adjusting the color point information in dependence on a currently up to date temperature estimate; a third step of further adjusting the color point information in dependence on a currently up to date current drive level for the respective lighting channel, wherein the second and third steps may be performed in either order; a fourth step of using the further adjusted color point information to determine a flux contribution of each lighting channel to achieve a desired combined color point and combined light output flux from the plurality of lighting channels; a fifth step of updating the current drive levels for the plurality of lighting channels to create updated current drive levels to achieve the flux contribution of each lighting channel; a sixth step of updating the temperature estimate to create an updated temperature estimate based on the updated current drive levels; and repeating the second to sixth steps until (i) the temperature estimate converges to a value which deviates, when being updated, by less than a threshold, and/or (ii) the current drive levels converge to values which deviate, when being updated, by less than a threshold. a first step of receiving color point information comprising nominal color point information in respect of the light sources; a second step of adjusting the color point information in dependence on a currently up to date temperature estimate; a third step of further adjusting the color point information in dependence on a currently up to date current drive level for the respective lighting channel, wherein the second and third steps may be performed in either order; a fourth step of using the further adjusted color point information to determine a flux contribution of each lighting channel to achieve a desired combined color point and combined light output flux from the plurality of lighting channels; a fifth step of updating the current drive levels for the plurality of lighting channels to create updated current drive levels to achieve the flux contribution of each lighting channel; a sixth step of updating the temperature estimate to create an updated temperature estimate based on the updated current drive levels; and repeating the second to sixth steps until (i) the temperature estimate converges to a value which deviates, when being updated, by less than a threshold, and/or (ii) the current drive levels converge to values which deviate, when being updated, by less than a threshold.
Multilayer tube for guiding fuel fluid or brake fluid, comprising - an outer protection layer, - a barrier layer radially within the outer protection layer, - an intermediate layer radially within the barrier layer, and - an inner layer radially within the intermediate layer, wherein at least two of the layers are co-extruded layers, wherein the barrier layer comprises a partially aromatic polyamide and wherein the inner layer comprises PA-MXD6, which is a partially aromatic crystalline polyamide resin, wherein the intermediate layer and the barrier layer are directly adjacent to each other, and wherein the intermediate layer and the inner layer are directly adjacent to each other. - an outer protection layer, - a barrier layer radially within the outer protection layer, - an intermediate layer radially within the barrier layer, and - an inner layer radially within the intermediate layer, wherein at least two of the layers are co-extruded layers, wherein the barrier layer comprises a partially aromatic polyamide and wherein the inner layer comprises PA-MXD6, which is a partially aromatic crystalline polyamide resin, wherein the intermediate layer and the barrier layer are directly adjacent to each other, and wherein the intermediate layer and the inner layer are directly adjacent to each other. wherein at least two of the layers are co-extruded layers, wherein the barrier layer comprises a partially aromatic polyamide and wherein the inner layer comprises PA-MXD6, which is a partially aromatic crystalline polyamide resin, wherein the intermediate layer and the barrier layer are directly adjacent to each other, and wherein the intermediate layer and the inner layer are directly adjacent to each other.