mhurhangee/ep-ind-claims huggingface dataset:
A slat for roller shutters, defined by the coupling of two elongated bodies (10, 20) both extending along a longitudinal direction of the slat, wherein a first elongated body is made of a first material and defines a first face of the slat intended in use to be facing towards the outside of a compartment, and wherein a second elongated body is made of a second material having a coefficient of thermal conductivity lower than that of the first material and defines a second face of the slat intended in use to be facing towards the inside of said compartment, said slat comprising a coupling appendage, made at an upper longitudinal edge of the slat, and a coupling cavity, made at a lower longitudinal edge of the slat, said coupling appendage being entirely defined by said first elongated body, wherein said coupling cavity is delimited in part by said first elongated body and in part by said second elongated body wherein said first elongated body and said second elongated body are coupled to each other by means of snap-fit coupling means made on respective coupling faces (13, 23) of said two elongated bodies (10, 20) wherein said snap-fit coupling means are configured to define two distinct connection zones between the two elongated bodies (10; 20), and wherein preferably a first connection zone is defined in proximity to the coupling appendage, and a second connection zone is defined in proximity to the coupling cavity characterised in that the first elongated body and the second elongated body are mutually shaped at respective coupling surfaces (13; 23) so as to come into contact only at portions defining the aforesaid snap-fit coupling means, in such a way that once coupled by means of the aforesaid snap-fitting means, an inner gap (47, 74) is formed between the two bodies, which distances the two bodies from each other in the intermediate portion of the slat comprised between the two connection zones defined by the snap-fitting means. wherein said snap-fit coupling means are configured to define two distinct connection zones between the two elongated bodies (10; 20), and wherein preferably a first connection zone is defined in proximity to the coupling appendage, and a second connection zone is defined in proximity to the coupling cavity characterised in that the first elongated body and the second elongated body are mutually shaped at respective coupling surfaces (13; 23) so as to come into contact only at portions defining the aforesaid snap-fit coupling means, in such a way that once coupled by means of the aforesaid snap-fitting means, an inner gap (47, 74) is formed between the two bodies, which distances the two bodies from each other in the intermediate portion of the slat comprised between the two connection zones defined by the snap-fitting means.
A motorcycle comprising: a head pipe; a body frame including a main frame that extends obliquely downward and rearward from the head pipe, a left seat frame that extends obliquely upward and rearward from the main frame, and a right seat frame that extends obliquely upward and rearward from the main frame and is located rightward of the left seat frame; a seat located above the right seat frame and the left seat frame; a first engagement portion disposed at an underside of the seat; a housing box located below the seat and supported by the right seat frame and the left seat frame; a key cylinder attached to a lower surface of the housing box and including a key insertion hole opening downward; and a seat lock disposed between the lower surface of the housing box and the seat and including a second engagement portion that is engageable with the first engagement portion; characterized in that the key cylinder is configured so as to be brought into direct contact with the seat lock to cause the seat lock to slide by rotation of a key inserted into the key insertion hole, thus an engagement between the first engagement portion and the second engagement portion being releasable. a head pipe; a body frame including a main frame that extends obliquely downward and rearward from the head pipe, a left seat frame that extends obliquely upward and rearward from the main frame, and a right seat frame that extends obliquely upward and rearward from the main frame and is located rightward of the left seat frame; a seat located above the right seat frame and the left seat frame; a first engagement portion disposed at an underside of the seat; a housing box located below the seat and supported by the right seat frame and the left seat frame; a key cylinder attached to a lower surface of the housing box and including a key insertion hole opening downward; and a seat lock disposed between the lower surface of the housing box and the seat and including a second engagement portion that is engageable with the first engagement portion; characterized in that the key cylinder is configured so as to be brought into direct contact with the seat lock to cause the seat lock to slide by rotation of a key inserted into the key insertion hole, thus an engagement between the first engagement portion and the second engagement portion being releasable.
An electric power wrench for fastening and loosening joints, which power wrench comprises: - a main shaft for delivering a torque to a joint, - an electric motor that is arranged to selectively drive the main shaft in two opposed rotational directions, - a control unit for controlling the drive of the electric motor, and - a transmission that connects the electric motor to the main shaft, characterized in that the control unit has a first drive mode in which it is adapted to control the electric motor such that it delivers a continuous torque when driven in a forward direction, and such that it delivers torque pulses when driven in in an opposite backward direction, wherein the transmission includes an inherent play and wherein the torque pulses are produced within said play. - a main shaft for delivering a torque to a joint, - an electric motor that is arranged to selectively drive the main shaft in two opposed rotational directions, - a control unit for controlling the drive of the electric motor, and - a transmission that connects the electric motor to the main shaft,
A railway braking system including a body delimiting a service brake pressure chamber and/or a parking brake pressure chamber, a parking brake movable relative to said body, a part for unlocking said parking brake connected to said parking brake pressure chamber and accessible from outside said body, and a parking brake indicator device, characterised in that said indicator device is configured to receive a first piece of information representative of a position of said unlocking part, via a state line configured to be connected to said unlocking part, and at least one second piece of information representative of the supply and/or emptying of said service brake pressure chamber and/or of said parking brake pressure chamber, via at least one other state line (53, 54) configured to be connected to a service brake and/or parking brake line, said first piece of information being processed in combination with said at least one second piece of information so as to detect and indicate an engaged state or a released state of said parking brake.
Fan wheel to be driven in only one rotational direction, having a central drive unit, having a hub which is coaxial with the drive unit, having radial fan blades which are mounted in the hub and at the foot engage between two drive tracks (6, 7) which are positionally fixed relative to the drive unit and in the direction of the rotation axis of the fan wheel are coaxially opposite each other, and in terms of the blade angle of said fan blades, by driving in each case by way of one of the drive tracks (6 or 7, respectively), via a switchover plane perpendicular to the revolving plane, are able to be switched about the blade axes of said fan blades to opposite conveying directions, wherein the hub by way of a respective axial load is displaceable axially relative to the drive unit and, corresponding to the axial adjustment of the hub, the rotary position of the fan blades in the region of a switching window encompassing the switchover plane is able to be switched to opposite conveying directions.
A mechanical pipe expander for the step-by-step widening of pipes, particularly for widening thick-walled pipes with a diameter below 50.8 cm (20"), comprising a tie rod, a hollow pressure beam, in which the tie rod is arranged in an axially displaceable manner with respect to the pressure beam, a tool head, which comprises a key, which is operatively connected to the tie rod and expanding segments that are arranged on the key, axially supported on the pressure beam and can be displaced radially with respect to the pressure beam by means of an axial movement of the key, and also a drive that axially displaces the tie rod with respect to the pressure beam, wherein the expanding segments can be expanded radially further than the diameter of the pressure beam, wherein the length of the pressure beam and the tie rod are at least five-times the diameter of the pressure beam and/or wherein key-side segment guides are provided on the key and pressure-beam-side segment guides are provided on the pressure beam, characterised in that the tie rod and the key can be connected to one another by means of a connection, which cannot be separated in a destruction-free manner, or in one-piece.
A method for treating sunflower extraction meal, in particular for recovering proteins, wherein the particles of skin core parts and adhering proteins of the extraction meal are separated from one another by means of screening, characterised by the following method steps: shredding the meal by impacting in impact mills and/or corrugating rolls, screening the produced mixture of coarse and fine parts, separating the plant skins (fibres) and proteins by using water, drying the components and pressing the woody components into pellets as a firing means for energy production, wherein at least two shredding steps are carried out in an impact mill and/or a corrugating roll followed by screening before water separation and wherein the respective mixture in the impact mills is subjected to an impact duration of 5 to 30 seconds, wherein a separation of the plant skins (fibres) and proteins is made by introducing into a water separator and removing the swimming parts and the settling parts. shredding the meal by impacting in impact mills and/or corrugating rolls, screening the produced mixture of coarse and fine parts, separating the plant skins (fibres) and proteins by using water, drying the components and pressing the woody components into pellets as a firing means for energy production, wherein at least two shredding steps are carried out in an impact mill and/or a corrugating roll followed by screening before water separation and wherein the respective mixture in the impact mills is subjected to an impact duration of 5 to 30 seconds, wherein a separation of the plant skins (fibres) and proteins is made by introducing into a water separator and removing the swimming parts and the settling parts.
Measuring body (1a... 1c) for measuring forces, comprising - two spaced apart base parts (2a, 2b), each comprising at least one assembly surface for introducing the forces to be measured, - four identical, mutually spaced apart webs (A... D, A'... D') that are aligned along a longitudinal axis (z) and arranged in a square, said webs being attached to the two base parts (2a, 2b) at connection areas that are spaced apart along the longitudinal axis, characterized in that the measuring body (1a... 1c) has an integral embodiment, wherein the webs (A... D) are embodied as prisms that are aligned parallel to the longitudinal axis (z), wherein the prisms/webs (A... D) have a rectangular cross-section and wherein the measuring body (1a... 1c) comprises force sensors (3a, 3b, 3A... 3D) at each one of the aforementioned webs (A... D, A'... D'), wherein the force sensors (3a, 3b, 3A... 3D) at each of the aforementioned webs (A... D, A'... D') are formed by a group of individual sensors (11, 12, 21, 22, 31... 34) in each case, wherein the individual sensors (11, 12, 21, 22, 31... 34) each measure a force in one direction, and in that the measuring body (1a... 1c) only comprises such force sensors (3a, 3b, 3A... 3D). - two spaced apart base parts (2a, 2b), each comprising at least one assembly surface for introducing the forces to be measured, - four identical, mutually spaced apart webs (A... D, A'... D') that are aligned along a longitudinal axis (z) and arranged in a square, said webs being attached to the two base parts (2a, 2b) at connection areas that are spaced apart along the longitudinal axis, characterized in that the measuring body (1a... 1c) has an integral embodiment, wherein the webs (A... D) are embodied as prisms that are aligned parallel to the longitudinal axis (z), wherein the prisms/webs (A... D) have a rectangular cross-section and wherein the measuring body (1a... 1c) comprises force sensors (3a, 3b, 3A... 3D) at each one of the aforementioned webs (A... D, A'... D'), wherein the force sensors (3a, 3b, 3A... 3D) at each of the aforementioned webs (A... D, A'... D') are formed by a group of individual sensors (11, 12, 21, 22, 31... 34) in each case, wherein the individual sensors (11, 12, 21, 22, 31... 34) each measure a force in one direction, and in that the measuring body (1a... 1c) only comprises such force sensors (3a, 3b, 3A... 3D).
A photocleavable compound of the formula wherein A is -CH 2 -, -CH 2 -CH 2 -, -CH(CH 3)- or -CH(CH 3)-CH 2 -, R3 is H, a methyl group or an ethyl group, O-R2 is a phosphoramidite, H-phosphonate, phosphate diester or phosphate triester, wherein, when O-R2 is a phosphate diester of the formula -O-P - -, R4 is an alkyl or a nucleoside or an oligonucleotide, and wherein, when O-R2 is a phosphate triester of the formula -O-P - -, R4 and R5 each is alkyl or a nucleoside or an oligonucleotide or together form an internucleotide moiety of an oligonucleotide, R1 is a phenylcarboxylic amide, and wherein a functional group selected from the group consisting of 4,4'-dimethoxytrityl-oxy-alkyl-, trifluroacetyl-amino-alkyl-, alkylamido-biotin and hapten is bound via the amino group to the phenylcarboxylic amide. wherein A is -CH 2 -, -CH 2 -CH 2 -, -CH(CH 3)- or -CH(CH 3)-CH 2 -, R3 is H, a methyl group or an ethyl group, O-R2 is a phosphoramidite, H-phosphonate, phosphate diester or phosphate triester, wherein, when O-R2 is a phosphate diester of the formula -O-P - -, R4 is an alkyl or a nucleoside or an oligonucleotide, and wherein, when O-R2 is a phosphate triester of the formula -O-P - -, R4 and R5 each is alkyl or a nucleoside or an oligonucleotide or together form an internucleotide moiety of an oligonucleotide, R1 is a phenylcarboxylic amide, and wherein a functional group selected from the group consisting of 4,4'-dimethoxytrityl-oxy-alkyl-, trifluroacetyl-amino-alkyl-, alkylamido-biotin and hapten is bound via the amino group to the phenylcarboxylic amide.
A nail magazine for a power nailer having a nail driving element, said magazine comprising an elongated housing including a pair of parallel side walls (44a, 44b); said side walls having a discharge end; and means for urging a strip of nails positioned between said side walls towards said discharge end, said urging means including a relatively flat plate received between said side walls and biasing means for biasing said plate against a nail strip and towards said discharge end, characterized by said side walls having a plurality of opposed elongated channels (48a, 48b, 48c) formed therein cooperating to define a plurality of guide tracks for the heads of a strip of nails; said side walls having bottom longitudinal edges and said plate extending past said edges; and said plate including means engaging one of said bottom longitudinal edges for guiding the plate in longitudinal movement and preventing upward movement of the plate relative to said edges.
A shaft seal device for partitioning a space between a rotor (2A, 4A) and a stator (2B, 4B) into a high-pressure side and a low-pressure side in use, the shaft seal device comprising: a seal body that includes a plurality of thin-plate seal pieces extending toward the rotor (2A, 4A) from the stator (2B, 4B) and laminated in a circumferential direction of the rotor (2A, 4A); and a housing that is adapted to be fixed to the stator (2B, 4B) and holds the seal body so as to surround the seal body from the outside in a radial direction, and includes a first facing surface for facing a high-pressure-side edge of the seal body and a second facing surface for facing a low-pressure-side edge of the seal body, wherein a high-pressure-side clearance between the seal body and the first facing surface is set to be smaller than a low-pressure-side clearance between the seal body and the second facing surface; characterized in that a slope part, which gradually slopes to the high-pressure side toward a tip close to the rotor (2A, 4A), is formed at the low-pressure-side edge of each thin-plate seal piece of the seal body; and an end portion of the second facing surface close to the rotor (2A, 4A) slopes along the slope part. a seal body that includes a plurality of thin-plate seal pieces extending toward the rotor (2A, 4A) from the stator (2B, 4B) and laminated in a circumferential direction of the rotor (2A, 4A); and a housing that is adapted to be fixed to the stator (2B, 4B) and holds the seal body so as to surround the seal body from the outside in a radial direction, and includes a first facing surface for facing a high-pressure-side edge of the seal body and a second facing surface for facing a low-pressure-side edge of the seal body, wherein a high-pressure-side clearance between the seal body and the first facing surface is set to be smaller than a low-pressure-side clearance between the seal body and the second facing surface; characterized in that a slope part, which gradually slopes to the high-pressure side toward a tip close to the rotor (2A, 4A), is formed at the low-pressure-side edge of each thin-plate seal piece of the seal body; and an end portion of the second facing surface close to the rotor (2A, 4A) slopes along the slope part.
Method for embossing structures having dimensions in the micrometres or nanometres range for embossed end products into a transparent lacquer layer, wherein the transparent lacquer layer is applied to one side of a film web and is curable by means of ultraviolet radiation, wherein the film web, in the conveying direction, firstly by the side on which the not yet cured transparent lacquer layer is situated, is pressed against an embossing cylinder, on the surface of which the structures in the micrometres or nanometres range that are to be embossed are situated, by an impression cylinder in such a way that the structures in the micrometres or nanometres range are impressed into the transparent lacquer layer, and the transparent lacquer layer is subsequently cured by ultraviolet radiation from a source for ultraviolet radiation, characterized in that additional structures or microstructures are introduced at least partly, preferably over the whole area, on the surface of a vellum region at the margin of the embossing cylinder, in which no structures in the micrometres or nanometres range that are to be embossed for the embossed end products are situated, wherein the additional structures or microstructures make the inherently unrecognizable lacquer edge of the transparent lacquer recognizable, i.e. the edge of the lacquer layer on the film web at the outer left-hand or right-hand margin of the lacquer layer, by virtue of their leading to an increase in the scattering or absorption or to a recognizable change in the reflection of the light (18.1, 19.1) incident on the lacquer layer, wherein that part of the lacquer layer on the film web which is embossed through the vellum region is a reject and is cut off and disposed of, with the result that structures or microstructures in this region have no influence on the later end products.
A method for monitoring mobility levels of an individual animal, the method comprising: obtaining a video recording of an animal moving through a space, the video recording captured by a two-dimensional imaging device from an overhead angle; extracting, from the video recording using an image processing device, a set of reference points (410_1 - 410_n), each reference point (410_1 - 410_n) being associated with a body part location of the animal, wherein the step of extracting comprising: segmenting the video recording into a set of individual frames (400_1- 400_n), detecting, in each frame (400_1-400_n), an instance representing the shape of the animal body; identifying, on the detected instance in each individual frame (400_1-400_n), the set of reference points, and extracting corresponding x and y coordinate values for each reference point, the x and y coordinate values being indicative of a position of each refence point in an individual frame; and determining, by means of a trained neural network, a mobility score for the animal based on at least the relative position of the reference points (410_1 - 410_n) between individual frames (400_1-400_n), wherein the mobility score is indicative of the mobility level of the animal. obtaining a video recording of an animal moving through a space, the video recording captured by a two-dimensional imaging device from an overhead angle; extracting, from the video recording using an image processing device, a set of reference points (410_1 - 410_n), each reference point (410_1 - 410_n) being associated with a body part location of the animal, wherein the step of extracting comprising: segmenting the video recording into a set of individual frames (400_1- 400_n), detecting, in each frame (400_1-400_n), an instance representing the shape of the animal body; identifying, on the detected instance in each individual frame (400_1-400_n), the set of reference points, and extracting corresponding x and y coordinate values for each reference point, the x and y coordinate values being indicative of a position of each refence point in an individual frame; and segmenting the video recording into a set of individual frames (400_1- 400_n), detecting, in each frame (400_1-400_n), an instance representing the shape of the animal body; identifying, on the detected instance in each individual frame (400_1-400_n), the set of reference points, and extracting corresponding x and y coordinate values for each reference point, the x and y coordinate values being indicative of a position of each refence point in an individual frame; and determining, by means of a trained neural network, a mobility score for the animal based on at least the relative position of the reference points (410_1 - 410_n) between individual frames (400_1-400_n), wherein the mobility score is indicative of the mobility level of the animal.