mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a hand-operated jigsaw which is provided with a sensor device, sensor signals being determined via the sensor device on the basis of a predefined desired line, which sensor signals form the basis of the generation of actuating signals which adjust an actuator (13, 14) in the jigsaw, the sensor signals being subjected to a plausibility check before further processing, characterized in that the detected desired line is compared with reference values during the plausibility check and an error signal is generated if a sensor signal or a value calculated from a sensor signal is outside a defined normal range.
A vehicle door latch release device comprising an operating member for latch release that is operated by a vehicle user in order to release a latched state of a door, an electric actuator that is operated in response to the operating member for latch release being operated, a latch device that is provided on the door so as to enable latch release in response to operation of the electric actuator and mechanical input of a latch release operating force, input of a mechanical latch release operating force into the latch device being enabled in an emergency in which latch release by the electric actuator is disabled, and further comprising an emergency operating member that can be operated by a vehicle user, operating force transmission means that transmits a human power acting on the emergency operating member to the latch device as a mechanical latch release operating force, wherein the vehicle door latch release device further comprises restriction/permission switching means (48A, 48B) that switches between an operation restricted state in which operation of the emergency operating member is restricted and an operation permitted state in which operation of the emergency operating member is enabled in response to a predetermined operation by a vehicle user, characterized in that the vehicle door latch release device further comprises a handle for a vehicle user to carry out an open/close operation of the door, the handle being formed from a handle main body which is formed from a grip portion extending lengthwise in a fore-and-aft direction of the vehicle; and wherein in use gripping of the grip portion by a vehicle user can pivotingly operate the emergency operating member in a vertical direction by applying a human force to the emergency operating member.
A method of controlling an additive manufacturing process in which one or more energy beams (54, 56) are used to selectively fuse a powder contained in an additive manufacturing machine having a gas flow therein in order to form a workpiece, in the presence of one or more plumes (82, 84) generated by interaction of the one or more energy beams (54, 56) with the powder, wherein the process is controlled by an electronic controller, the method comprising: performing an initial build process to form a workpiece using a set of initial process parameters; sensing a condition of the finished workpiece, wherein the condition of the finished workpiece is at least a presence of discrete defects and/or a dimensional conformance to a pre-existing standard and/or a surface finish and/or a surface reflectivity; sensing a position of at least one plume based on a signal of at least one sensor, the signal being representative of the position of the plume; using the at least one sensor to generate a plume map in real time as the build process proceeds; changing at least one of the initial process parameters using at least one beam-plume avoidance method; using the electronic controller, comparing the condition of the finished workpiece to a predetermined standard; using the electronic controller, changing one or more of the initial process parameters to define a set of revised process parameters so as to improve the workpiece condition; and performing a subsequent build process using the revised process parameters; performing a series of iterations until the at least one process parameter results in minimal beam-plume interactions. performing an initial build process to form a workpiece using a set of initial process parameters; sensing a condition of the finished workpiece, wherein the condition of the finished workpiece is at least a presence of discrete defects and/or a dimensional conformance to a pre-existing standard and/or a surface finish and/or a surface reflectivity; sensing a position of at least one plume based on a signal of at least one sensor, the signal being representative of the position of the plume; using the at least one sensor to generate a plume map in real time as the build process proceeds; changing at least one of the initial process parameters using at least one beam-plume avoidance method; using the electronic controller, comparing the condition of the finished workpiece to a predetermined standard; using the electronic controller, changing one or more of the initial process parameters to define a set of revised process parameters so as to improve the workpiece condition; and performing a subsequent build process using the revised process parameters; performing a series of iterations until the at least one process parameter results in minimal beam-plume interactions.
An upholstery tool for use with a surface cleaning apparatus, the apparatus including a source of suction, wherein the tool includes: a body including a dirty air inlet in a tool surface which faces a surface to be cleaned in use, wherein the tool surface includes a forward edge, a rear edge, a left edge and a right edge, and the dirty air inlet includes: a first inlet section which extends across the surface and terminates in peripheral bleed air inlets (26, 28) in the left and right edges (46, 48); a second inlet section which extends across the surface and terminates in peripheral bleed air inlets (30, 32) in the left and right edges (46, 48); and a third inlet section which fluidly connects the first and second inlet sections (20, 22); and an outlet for fluid communication with the source of suction fluidly connected to the dirty air inlet, characterised in that the tool surface includes a forward portion positioned forwardly of the dirty air inlet to define a part of the first inlet section and a rearward portion positioned rearwardly of the dirty air inlet to define a part of second inlet section, and at least one or both of the forward and rearward portions (34, 36) are generally curved. a body including a dirty air inlet in a tool surface which faces a surface to be cleaned in use, wherein the tool surface includes a forward edge, a rear edge, a left edge and a right edge, and the dirty air inlet includes: a first inlet section which extends across the surface and terminates in peripheral bleed air inlets (26, 28) in the left and right edges (46, 48); a second inlet section which extends across the surface and terminates in peripheral bleed air inlets (30, 32) in the left and right edges (46, 48); and a third inlet section which fluidly connects the first and second inlet sections (20, 22); and a first inlet section which extends across the surface and terminates in peripheral bleed air inlets (26, 28) in the left and right edges (46, 48); a second inlet section which extends across the surface and terminates in peripheral bleed air inlets (30, 32) in the left and right edges (46, 48); and a third inlet section which fluidly connects the first and second inlet sections (20, 22); and an outlet for fluid communication with the source of suction fluidly connected to the dirty air inlet, characterised in that the tool surface includes a forward portion positioned forwardly of the dirty air inlet to define a part of the first inlet section and a rearward portion positioned rearwardly of the dirty air inlet to define a part of second inlet section, and at least one or both of the forward and rearward portions (34, 36) are generally curved.
A method of making a placental product comprising the steps of: a) removing trophoblasts from isolated chorionic tissue comprising trophoblasts; and b) after step a), physically or mechanically disrupting the isolated chorionic tissue to form a placental dispersion, wherein the placental dispersion comprises placental cells and one or more placental-derived factors, wherein the placental product comprises the placental dispersion. a) removing trophoblasts from isolated chorionic tissue comprising trophoblasts; and b) after step a), physically or mechanically disrupting the isolated chorionic tissue to form a placental dispersion, wherein the placental dispersion comprises placental cells and one or more placental-derived factors, wherein the placental product comprises the placental dispersion.
An image forming apparatus comprising: a body provided with an opening at a side thereof; a developing tray movably installed at the opening; a plurality of developing units mounted to the developing tray, each of the developing units including a developing housing forming an outer appearance thereof; a pair of frames forming opposite inner sides of the body; and a plurality of seating grooves provided in the frames to support lower ends of the plurality of developing units, characterised in that the developing housing includes a pair of protruding portions disposed at an upper portion of one side of the developing housing and spaced from each other; and a corresponding one of the frames includes a projection which is supported between the pair of protruding portions, so as to prevent rotation of the developing housing when seated at a corresponding seating groove. a body provided with an opening at a side thereof; a developing tray movably installed at the opening; a plurality of developing units mounted to the developing tray, each of the developing units including a developing housing forming an outer appearance thereof; a pair of frames forming opposite inner sides of the body; and a plurality of seating grooves provided in the frames to support lower ends of the plurality of developing units,
A method of generating a compensation matrix during a substrate inspection for compensating substrate warpage or distortion, the method comprising: selecting information of N1 (N1≧2) feature objects which are randomly predetermined within a field of view setting an inspection region on a substrate; generating a first compensation matrix on a basis of information of said N1 feature objects which are extracted on the substrate and reference data regarding to the FOV; comparing an offset value of each of all the feature objects with a predetermined reference value by applying all the feature objects within the FOV to the first compensation matrix to count the number of the feature objects of which the offset value of the each of all the feature objects is less than the predetermined reference value; and repeatedly performing the above steps N2 times (N2≧1), and generating a second compensation matrix using information of the feature objects which have the offset value which is less than the predetermined reference value, in case the number of the counted feature objects is the maximum. selecting information of N1 (N1≧2) feature objects which are randomly predetermined within a field of view setting an inspection region on a substrate; generating a first compensation matrix on a basis of information of said N1 feature objects which are extracted on the substrate and reference data regarding to the FOV;
A load-bearing frame assembly for a vehicle, comprising, - a first and a second frame configured to receive and support material to be transported, the first and the second frame being successively arranged in a longitudinal extension of the frame assembly and mechanically coupled to each other at a connecting area, wherein the first frame comprises at least one longitudinally extending load-bearing beam having an upper and a lower flange section interconnected by a web section, characterised in that - a portion of the at least one load-bearing beam facing the second frame is split in the longitudinal extension along the web section, thereby forming an upper and a lower beam portion (110, 120) having respective upper and lower split web sections (111, 121), - the upper and lower beam portions (110, 120) diverging in a height extension (h) of the frame assembly towards the second frame such that they form a space between each other, wherein - the upper beam portion, the lower beam portion and the second frame are mechanically coupled by a reinforcement plate. - a first and a second frame configured to receive and support material to be transported, the first and the second frame being successively arranged in a longitudinal extension of the frame assembly and mechanically coupled to each other at a connecting area, wherein the first frame comprises at least one longitudinally extending load-bearing beam having an upper and a lower flange section interconnected by a web section, characterised in that - a portion of the at least one load-bearing beam facing the second frame is split in the longitudinal extension along the web section, thereby forming an upper and a lower beam portion (110, 120) having respective upper and lower split web sections (111, 121), - the upper and lower beam portions (110, 120) diverging in a height extension (h) of the frame assembly towards the second frame such that they form a space between each other, wherein - the upper beam portion, the lower beam portion and the second frame are mechanically coupled by a reinforcement plate.
Method for positioning an impact detection device on a right-hand rod-shaped member (Fdx) and on a left-hand rod-shaped member (Fsx) of a fork of a vehicle, wherein said fork supports a wheel of the vehicle, wherein at least a first sensor unit of said impact detection device is associated with said right-hand rod-shaped member (Fdx) and a second sensor unit of said impact detection device is associated with said left-hand rod-shaped member (Fsx), characterized in that said second sensor unit is mounted inverted or rotated relative to the first sensor unit by an angle of 180 degrees around a steering axis of the wheel.
An isolated peptide, wherein the sequence of the peptide consists of SEQ ID NO:4 (EKMG), SEQ ID NO: 5 (MGRN) or SEQ ID NO: 2 (KMGRN), wherein the peptide is in free acid form, amidated at the carboxy terminus or lipidated at the amine terminus.
A boundary acoustic wave device using boundary acoustic waves propagating along the interface between a first medium layer and a second medium layer, the boundary acoustic wave device comprising: the first medium layer; the second medium layer stacked on the first medium layer; an electrode disposed in the interface between the first medium layer and the second medium layer; and a sound-absorbing layer (7/151) for attenuating modes producing spurious responses, disposed on one or both of the surfaces of the first and second medium layers opposite the interface, the sound-absorbing layer (7/151) having a lower acoustic velocity than the adjacent first or second medium layer and having an acoustic impedance characteristic that matches the acoustic impedance characteristic of the adjacent first or second medium layer. the first medium layer; the second medium layer stacked on the first medium layer; an electrode disposed in the interface between the first medium layer and the second medium layer; and a sound-absorbing layer (7/151) for attenuating modes producing spurious responses, disposed on one or both of the surfaces of the first and second medium layers opposite the interface, the sound-absorbing layer (7/151) having a lower acoustic velocity than the adjacent first or second medium layer and having an acoustic impedance characteristic that matches the acoustic impedance characteristic of the adjacent first or second medium layer.
A cooler for cooling bulk material, having - a supporting frame, which has at least a plurality of static crossmembers extending in a transverse direction of the cooler, - a plurality of static longitudinal members, which extend in a longitudinal direction of the cooler and are connected directly or indirectly to the crossmembers, - a plurality of static air admission gratings for deposition of the bulk material, wherein the air admission gratings have through openings extending in a vertical direction of the cooler for passage of a cooling gas flow, - a plurality of movable conveying elements, wherein the conveying elements each - have a drive member, which extends between in each case two of the air admission gratings in the longitudinal direction of the cooler, and - have one or more entrainment elements connected to the drive members, - a plurality of linear drives, each of which is supported, on the one hand, on one of the drive members and, on the other hand, on at least one of the longitudinal members, characterized in that the air admission gratings are arranged directly or indirectly on upper sides of the longitudinal members and are connected directly or indirectly to the longitudinal members, wherein the drive supports each extend between two of the longitudinal members in the longitudinal direction of the radiator. - a supporting frame, which has at least a plurality of static crossmembers extending in a transverse direction of the cooler, - a plurality of static longitudinal members, which extend in a longitudinal direction of the cooler and are connected directly or indirectly to the crossmembers, - a plurality of static air admission gratings for deposition of the bulk material, wherein the air admission gratings have through openings extending in a vertical direction of the cooler for passage of a cooling gas flow, - a plurality of movable conveying elements, wherein the conveying elements each - have a drive member, which extends between in each case two of the air admission gratings in the longitudinal direction of the cooler, and - have one or more entrainment elements connected to the drive members, - have a drive member, which extends between in each case two of the air admission gratings in the longitudinal direction of the cooler, and - have one or more entrainment elements connected to the drive members, - a plurality of linear drives, each of which is supported, on the one hand, on one of the drive members and, on the other hand, on at least one of the longitudinal members,
A device for establishing a blood flow conduit between a chamber in a heart of a patient and a remote location, the device comprising: a cannula (12, 102) having an outer surface, proximal and distal end portions, and a lumen extending between the proximal and distal end portions, the distal end portion including an opening communicating with the lumen of the cannula for allowing blood flow therethrough, the distal end portion and opening being configured for insertion into the chamber of the heart; and first and second anchor elements (80, 82, 122, 124) permanently fixed to the outer surface of the cannula and having respective maximum width dimensions extending radially outwardly from the outer surface of the cannula, the first anchor element being positioned more distally than the second anchor element and defining a tissue-receiving space therebetween, and the maximum width dimension of the first anchor element (80, 122) being larger than the maximum width dimension of the second anchor element (82, 124), whereby the first anchor element is configured to be positioned inside the heart chamber and the second anchor element is configured to be positioned outside the heart chamber with heart tissue held in the tissue-receiving space therebetween, wherein the first and second anchor elements (80, 82, 122, 124) are formed from a material that promotes ingrowth of tissue. a cannula (12, 102) having an outer surface, proximal and distal end portions, and a lumen extending between the proximal and distal end portions, the distal end portion including an opening communicating with the lumen of the cannula for allowing blood flow therethrough, the distal end portion and opening being configured for insertion into the chamber of the heart; and first and second anchor elements (80, 82, 122, 124) permanently fixed to the outer surface of the cannula and having respective maximum width dimensions extending radially outwardly from the outer surface of the cannula, the first anchor element being positioned more distally than the second anchor element and defining a tissue-receiving space therebetween, and the maximum width dimension of the first anchor element (80, 122) being larger than the maximum width dimension of the second anchor element (82, 124), whereby the first anchor element is configured to be positioned inside the heart chamber and the second anchor element is configured to be positioned outside the heart chamber with heart tissue held in the tissue-receiving space therebetween, wherein the first and second anchor elements (80, 82, 122, 124) are formed from a material that promotes ingrowth of tissue.
A method for manufacturing a wheel, said method comprising a step (a) of producing a carrier core during which is produced, by injection of a first polymer material in a first mold, a carrier core which extends from a radially inner wall forming a bore having a steering axis (XX'), corresponding to the axis of rotation of the wheel, up to a radially outer peripheral edge, said method then comprising a coating step (b) during which is produced, by overmolding operation on the carrier core, in a second polymer material, a coating layer in order to form a rim about the peripheral edge, in the radial over-thickness of the radially outer surface of said peripheral edge, said method being characterized in that, during step (a) of producing the carrier core, is placed in the first mold, in the position substantially centered on the steering axis (XX'), and before the injection of the first material, a preformed reinforcing ring, made of a third material called "reinforcing material" which is distinct from the first polymer material and from the second polymer material and which has a Young's modulus greater than that of the first material and than that of the second material, then is embedded, at least partially, said reinforcing ring, while injecting the first material, in the mass of said first material which forms the peripheral edge.