mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a power tool, in particular an underfloor circular-saw bench, with a motor drive, with a support for a workpiece and with a tool insert that is designed for removing material in a circumferential annular area and in the working mode rotates, in which the tool insert and the support are adjustable with respect to one another in the vertical direction extending transversely in relation to the support and in which the tool insert has in its working position, in which it accesses the workpiece, a working area that extends beyond the support, wherein, in the working mode, the tool insert and the support are adjustable with respect to one another in a motorized manner under sensor control in the vertical direction in dependence on the respective height of the workpiece in the access area of the tool insert and can be set in relation to one another to a position that corresponds virtually to the respective height of the workpiece in the access area of the tool insert, characterized in that the part of the working area that extends beyond the workpiece has a radial height that makes up a fraction of the radial height of the annular area.
A functionalized macromolecule comprising a polymeric core and at least two functionalized side chains, characterized in that the polymeric core comprises a synthetic polymer selected from the group consisting of polyallylamine and polyethyleneimine, the at least two functionalized side chains are linked to the polymeric core by a linker group A selected from the group consisting of a secondary or tertiary amine, an ether, a thioether, a carboxylic acid ester, an amide, and a thioester, and that the at least two functionalized side chains comprise a photoreactive group, wherein said photoreactive group is
A full-length antibody of human IgG1 isotype, comprising a heavy chain and a light chain, wherein the heavy chain comprises a human variable heavy chain acceptor framework having the variable heavy chain framework of SEQ ID NO: 1; and wherein the light chain comprises a human variable light chain acceptor framework having the variable light chain framework of SEQ ID NO: 2; wherein the heavy chain CDRs and the light chain CDRs comprise the heavy and light chain CDRs from a donor antigen binding protein, wherein the donor antigen binding protein is rituximab, wherein the CDR1, CDR2 and CDR3 of the heavy chain comprises amino acids 26-33, 51-58, and 97-110 of SEQ ID NO:4, respectively, and wherein the CDR1, CDR2 and CDR3 of the light chain comprises amino acids 148-152, 170-172 and 208-216 of SEQ ID NO:4, respectively; wherein the antibody retains the binding properties of rituximab; and wherein the antibody is capable of crossing the blood brain barrier. wherein the heavy chain CDRs and the light chain CDRs comprise the heavy and light chain CDRs from a donor antigen binding protein, wherein the donor antigen binding protein is rituximab, wherein the CDR1, CDR2 and CDR3 of the heavy chain comprises amino acids 26-33, 51-58, and 97-110 of SEQ ID NO:4, respectively, and wherein the CDR1, CDR2 and CDR3 of the light chain comprises amino acids 148-152, 170-172 and 208-216 of SEQ ID NO:4, respectively; wherein the antibody retains the binding properties of rituximab; and wherein the antibody is capable of crossing the blood brain barrier.
Apparatus for producing cartons that are suitable for top load filling with products, comprising: - a first magazine for a first cardboard blank of an outer carton, - a second magazine for an additional cardboard blank of an insert for the outer carton, - at least one conveying device (3, 4) for transporting the first carboard blank of the outer carton and the additional cardboard blank for the insert, - at least one adhesive device (5, 6) for attaching adhesive points to parts of the outer carton and/or of the insert, - an erecting means for producing a pre-folded outer carton, - an additional erecting means for producing a pre-folded insert, - a timed belt for receiving and further transporting the pre-folded outer carton, - a holding device for holding the pre-folded insert, - a lifting device, connected to the holding device, for placing the pre-folded insert precisely into the pre-folded outer carton, characterised in that movable clamping jaws are provided on the lifting device, which clamping jaws press the side parts (53, 54) of the insert, which is placed into the outer carton, against the side walls (41, 42) of the outer carton and/or press the side walls (41, 42) of the outer carton against the side parts (53, 54) of the insert. - a first magazine for a first cardboard blank of an outer carton, - a second magazine for an additional cardboard blank of an insert for the outer carton, - at least one conveying device (3, 4) for transporting the first carboard blank of the outer carton and the additional cardboard blank for the insert, - at least one adhesive device (5, 6) for attaching adhesive points to parts of the outer carton and/or of the insert, - an erecting means for producing a pre-folded outer carton, - an additional erecting means for producing a pre-folded insert, - a timed belt for receiving and further transporting the pre-folded outer carton, - a holding device for holding the pre-folded insert, - a lifting device, connected to the holding device, for placing the pre-folded insert precisely into the pre-folded outer carton, characterised in that movable clamping jaws are provided on the lifting device, which clamping jaws press the side parts (53, 54) of the insert, which is placed into the outer carton, against the side walls (41, 42) of the outer carton and/or press the side walls (41, 42) of the outer carton against the side parts (53, 54) of the insert.
A client device for authorized access, which comprises a circuitry (210, 220, 230) and a memory, the circuitry being configured to: generate a request for authorized access to protected resources and send the request to a server device; record the request in a public database which is a decentralized distributed database and in which records cannot be modified; verify a record of response information sent by the server device in response to the request, in the public database, utilizing a server public key, and perform corresponding operations for accessing the protected resources utilizing the response information, according to a result of the verifying. generate a request for authorized access to protected resources and send the request to a server device; record the request in a public database which is a decentralized distributed database and in which records cannot be modified; verify a record of response information sent by the server device in response to the request, in the public database, utilizing a server public key, and perform corresponding operations for accessing the protected resources utilizing the response information, according to a result of the verifying.
A roller ball assembly comprising: a primary roller ball having an outer engagement surface; a cup defining a cavity; at least one support element having an opposing engagement surface and comprising a superhard material, wherein the superhard material comprises polycrystalline diamond; wherein the at least one support element is positioned within the cavity and coupled with the cup; and wherein the primary roller ball is positioned within the cup and supported on the at least one support element such that the outer engagement surface is in sliding contact with the opposing engagement surface comprising the superhard material. a primary roller ball having an outer engagement surface; a cup defining a cavity; at least one support element having an opposing engagement surface and comprising a superhard material, wherein the superhard material comprises polycrystalline diamond; wherein the at least one support element is positioned within the cavity and coupled with the cup; and wherein the primary roller ball is positioned within the cup and supported on the at least one support element such that the outer engagement surface is in sliding contact with the opposing engagement surface comprising the superhard material.
An edge anti-false-touch method, comprising: obtaining, by a mobile terminal, a face direction of a user of the mobile terminal, and obtaining orientation data of the mobile terminal, wherein the face direction comprises a first included angle between a human face direction in a current image and a first coordinate axis in a coordinate system where the mobile terminal is located; characterized in that the method further comprises: determining, by the mobile terminal according to the face direction and the orientation data, a screen display state of the mobile terminal; the screen display state of the mobile terminal is a landscape state or a portrait state; and adjusting, by the mobile terminal based on the screen display state, a size of an anti-false-touch region of the mobile terminal to trigger an anti-false-touch response of the anti-false-touch region. obtaining, by a mobile terminal, a face direction of a user of the mobile terminal, and obtaining orientation data of the mobile terminal, wherein the face direction comprises a first included angle between a human face direction in a current image and a first coordinate axis in a coordinate system where the mobile terminal is located; characterized in that the method further comprises: determining, by the mobile terminal according to the face direction and the orientation data, a screen display state of the mobile terminal; the screen display state of the mobile terminal is a landscape state or a portrait state; and adjusting, by the mobile terminal based on the screen display state, a size of an anti-false-touch region of the mobile terminal to trigger an anti-false-touch response of the anti-false-touch region. determining, by the mobile terminal according to the face direction and the orientation data, a screen display state of the mobile terminal; the screen display state of the mobile terminal is a landscape state or a portrait state; and adjusting, by the mobile terminal based on the screen display state, a size of an anti-false-touch region of the mobile terminal to trigger an anti-false-touch response of the anti-false-touch region.
Shoe for a roller-skating system, having a three-point fastening system for fastening the shoe to a rail, comprising three fastening devices (101-1, 101-2, 101-3) formed in a hard shell, wherein: the first fastening device is located at a center in the heel area of the shoe; the second fastening device is located at an outer side in the ball area of the shoe; and the third fastening device is located at an inner side in the ball area of the shoe, and the second fastening device is located offset from the third fastening device in the longitudinal direction of the shoe; and the front fastening devices and protrude from the sole of the hard shell, so that a roller can be arranged in the space between the fastening devices and. the first fastening device is located at a center in the heel area of the shoe; the second fastening device is located at an outer side in the ball area of the shoe; and the third fastening device is located at an inner side in the ball area of the shoe, and the second fastening device is located offset from the third fastening device in the longitudinal direction of the shoe; and the front fastening devices and protrude from the sole of the hard shell, so that a roller can be arranged in the space between the fastening devices and.
A working vehicle, comprising: an engine; a fuel tank for storing fuel supplied to the engine; a fuel sensor for detecting a stored amount of fuel stored in the fuel tank; and an informing device for informing the stored amount detected by the fuel sensor, by changing an informing pattern in response to this stored amount; characterized in that the informing device has an informing switch provided in the vicinity of a fuel filler opening of the fuel tank, the informing being performed when the informing switch is turned on, wherein the informing switch is placed outside the operator cabin; the informing device receives electrical power from a vehicle battery to inform the stored amount, wherein the power supply is switched on and off by the informing switch; and the informing device is placed in the vicinity of the fuel filler opening of the fuel tank. an engine; a fuel tank for storing fuel supplied to the engine; a fuel sensor for detecting a stored amount of fuel stored in the fuel tank; and an informing device for informing the stored amount detected by the fuel sensor, by changing an informing pattern in response to this stored amount; characterized in that the informing device has an informing switch provided in the vicinity of a fuel filler opening of the fuel tank, the informing being performed when the informing switch is turned on, wherein the informing switch is placed outside the operator cabin; the informing device receives electrical power from a vehicle battery to inform the stored amount, wherein the power supply is switched on and off by the informing switch; and the informing device is placed in the vicinity of the fuel filler opening of the fuel tank.
An electrical cable comprising at least one conductive wire surrounded by an insulation, wherein the insulation is of a thermoplastic material comprising - at least 0.01 % by weight of component A selected from oligomeric hindered amines of the HALS type having a molecular weight of from 500 to 3400; - at least 0.01 % by weight of component B selected from UV stabilizers comprising at least one sebacate moiety substituted with at least one R 1 and optionally R 2, where R 1 means 1,2,2,6,6-pentamethyl-4-piperidinyl or 2,2,6,6-tetramethyl-4-piperidinyl and R 2 means methyl or 1,2,2,6,6-pentamethyl-4-piperidinyl; - at least 0.01 % by weight of component C selected from hindered phenolics comprising a benzotriazole moiety and having a molecular weight of from about 200 to about 500 and - at least 0.1 % by weight of a calcium carbonate source. - at least 0.01 % by weight of component A selected from oligomeric hindered amines of the HALS type having a molecular weight of from 500 to 3400; - at least 0.01 % by weight of component B selected from UV stabilizers comprising at least one sebacate moiety substituted with at least one R 1 and optionally R 2, where R 1 means 1,2,2,6,6-pentamethyl-4-piperidinyl or 2,2,6,6-tetramethyl-4-piperidinyl and R 2 means methyl or 1,2,2,6,6-pentamethyl-4-piperidinyl; - at least 0.01 % by weight of component C selected from hindered phenolics comprising a benzotriazole moiety and having a molecular weight of from about 200 to about 500 and - at least 0.1 % by weight of a calcium carbonate source.
A lawn mower robot being operated in a work area defined by a boundary indication unit including a boundary wire; and comprising: a main body configured to move within the work area defined by the boundary wire, wherein the main body includes: sensing units configured to sense voltage values induced by the boundary wire; and a controller configured to determine a distance between the main body and the boundary wire from the voltage values sensed by the sensing units, wherein: each sensing unit includes at least two coils differently installed; and the two coils respectively are configured to sense voltage values within the same area defined by the boundary wire; and the sensing units are installed at each of the left and right sides of the main body; and the controller is configured to determine the distance between the boundary wire and the main body by selecting the voltage values sensed by the sensing unit relatively close to the boundary wire among the sensing units installed at the left and right sides of the main body. a main body configured to move within the work area defined by the boundary wire, wherein the main body includes: sensing units configured to sense voltage values induced by the boundary wire; and a controller configured to determine a distance between the main body and the boundary wire from the voltage values sensed by the sensing units, wherein: each sensing unit includes at least two coils differently installed; and the two coils respectively are configured to sense voltage values within the same area defined by the boundary wire; and sensing units configured to sense voltage values induced by the boundary wire; and a controller configured to determine a distance between the main body and the boundary wire from the voltage values sensed by the sensing units, wherein: each sensing unit includes at least two coils differently installed; and the two coils respectively are configured to sense voltage values within the same area defined by the boundary wire; and each sensing unit includes at least two coils differently installed; and the two coils respectively are configured to sense voltage values within the same area defined by the boundary wire; and the sensing units are installed at each of the left and right sides of the main body; and the controller is configured to determine the distance between the boundary wire and the main body by selecting the voltage values sensed by the sensing unit relatively close to the boundary wire among the sensing units installed at the left and right sides of the main body.
A MEMS shutter comprising: - a substrate of semiconductor material traversed by a main aperture; - a first semiconductor layer, arranged on top of the substrate; - a second semiconductor layer, arranged on top of the first semiconductor layer and forming, together with the first semiconductor layer, a supporting structure (28, 71) fixed to the substrate; - a plurality of deformable structures (29, 59, 69), each of which is formed by a corresponding portion of at least one of the first semiconductor layer and the second semiconductor layer; - a plurality of actuators (36; 96); and - a plurality of shielding structures (33; 35; 333; 335; 433), each of which is formed by a corresponding portion of at least one of the first and second semiconductor layers, the shielding structures being arranged angularly around the underlying main aperture so as to form a shielding of the main aperture, each shielding structure being further mechanically coupled to the supporting structure via a corresponding deformable structure; and wherein each actuator is electrically controllable so as to cause a rotation of a corresponding shielding structure between a respective first position and a respective second position, thereby varying the shielding of the main aperture; and wherein said first and second positions of the shielding structures are such that, in at least one operating condition of the MEMS shutter, pairs of adjacent shielding structures at least partially overlap one another. - a substrate of semiconductor material traversed by a main aperture; - a first semiconductor layer, arranged on top of the substrate; - a second semiconductor layer, arranged on top of the first semiconductor layer and forming, together with the first semiconductor layer, a supporting structure (28, 71) fixed to the substrate; - a plurality of deformable structures (29, 59, 69), each of which is formed by a corresponding portion of at least one of the first semiconductor layer and the second semiconductor layer; - a plurality of actuators (36; 96); and - a plurality of shielding structures (33; 35; 333; 335; 433), each of which is formed by a corresponding portion of at least one of the first and second semiconductor layers, the shielding structures being arranged angularly around the underlying main aperture so as to form a shielding of the main aperture, each shielding structure being further mechanically coupled to the supporting structure via a corresponding deformable structure;
A honeycomb sandwich structure, comprising: - face skin materials made of fiber reinforced plastics; and - a honeycomb core bonded to the face skin materials through intermediation of adhesive layers, wherein each of the adhesive layers has embedded therein an optical fiber sensor structure comprising: - an optical fiber in which at least one sensor portion for detecting a temperature is formed; and - a tube for covering the optical fiber, wherein said at least one sensor portion is prevented from being covered with a coating, whereas the portion of the optical fiber in which the at least one sensor portion is not located is covered with the coating, wherein the portion of the optical fiber that is covered with the coating is not held in direct contact with the tube, and the portion of the optical fiber that is not covered with the coating is held in direct contact with the tube. - face skin materials made of fiber reinforced plastics; and - a honeycomb core bonded to the face skin materials through intermediation of adhesive layers, wherein each of the adhesive layers has embedded therein an optical fiber sensor structure comprising: - an optical fiber in which at least one sensor portion for detecting a temperature is formed; and - a honeycomb core bonded to the face skin materials through intermediation of adhesive layers, - an optical fiber in which at least one sensor portion for detecting a temperature is formed; and - a tube for covering the optical fiber, wherein said at least one sensor portion is prevented from being covered with a coating, whereas the portion of the optical fiber in which the at least one sensor portion is not located is covered with the coating, wherein the portion of the optical fiber that is covered with the coating is not held in direct contact with the tube, and the portion of the optical fiber that is not covered with the coating is held in direct contact with the tube.
A method for determining a triplet of parameters defining a ground plane in a three-dimensional reference on the basis of a depth image taken in a sequence of images, characterised in that it comprises: ▪ a step of selecting valid points in the current depth image, said valid points being the points of the image, the distance of which to a point of origin of the three-dimensional reference is within a predetermined minimum distance and a predetermined maximum distance; ▪ a step of determining an indicator R 3d for the current depth image, said indicator being a function of the number of valid points in the current depth image and of the total number of points in this image; ▪ a step of selecting a set of points of interest in the current depth image, each point of interest being selected if a distance between said point of interest and the ground plane determined for a previous image of the sequence is lower than a threshold d sel; ▪ a step of determining a triplet of spatially filtered parameters on the basis of points of interest; and ▪ a step of determining a triplet of temporally filtered parameters as a function of the indicator R 3d determined for the current depth image or for a previous image of the sequence. ▪ a step of selecting valid points in the current depth image, said valid points being the points of the image, the distance of which to a point of origin of the three-dimensional reference is within a predetermined minimum distance and a predetermined maximum distance; ▪ a step of determining an indicator R 3d for the current depth image, said indicator being a function of the number of valid points in the current depth image and of the total number of points in this image; ▪ a step of selecting a set of points of interest in the current depth image, each point of interest being selected if a distance between said point of interest and the ground plane determined for a previous image of the sequence is lower than a threshold d sel; ▪ a step of determining a triplet of spatially filtered parameters on the basis of points of interest; and ▪ a step of determining a triplet of temporally filtered parameters as a function of the indicator R 3d determined for the current depth image or for a previous image of the sequence.