mhurhangee/patent-ind-claim-en huggingface dataset:
Bucket wheel excavator for continuously excavating material , in particular in open-cast mining, having a bucket wheel which can be rotated about a central axis (M) and which has a plurality of shovels arranged on the circumference, a bucket wheel width (SB) and a bucket wheel radial plane of symmetry (Y), a conveyor device with a main extension axis (F) for conveying the material excavated using the bucket wheel and with a belt system width (BB), a boom which can be pivoted about a vertical pivot axis (X) and to which the bucket wheel and the conveyor device are attached, and a chute for receiving the material from the conveyor device , wherein the main extension axis (F) of the conveyor device is skewed relative to the pivot axis (X) of the boom , wherein the main extension axis (F) has a horizontal offset (FV) relative to the pivot axis (X) of the boom , wherein the bucket wheel is arranged on the boom such that the bucket wheel , at a front-head point (P) configured as an apex, encloses an angle (α) with two side planes (S1, S2), the first side plane (S1) thereof extending from the front-head point (P) to the pivot axis (X) of the boom and the second side plane (S2) thereof extending from the front-head point (P) along the bucket wheel radial plane of symmetry (Y), characterized in that the chute is arranged under that end of the conveyor device of the boom which is opposite the bucket wheel and in the region of the pivot axis (X). a bucket wheel which can be rotated about a central axis (M) and which has a plurality of shovels arranged on the circumference, a bucket wheel width (SB) and a bucket wheel radial plane of symmetry (Y), a conveyor device with a main extension axis (F) for conveying the material excavated using the bucket wheel and with a belt system width (BB), a boom which can be pivoted about a vertical pivot axis (X) and to which the bucket wheel and the conveyor device are attached, and a chute for receiving the material from the conveyor device , wherein the main extension axis (F) of the conveyor device is skewed relative to the pivot axis (X) of the boom , wherein the main extension axis (F) has a horizontal offset (FV) relative to the pivot axis (X) of the boom , wherein the bucket wheel is arranged on the boom such that the bucket wheel , at a front-head point (P) configured as an apex, encloses an angle (α) with two side planes (S1, S2), the first side plane (S1) thereof extending from the front-head point (P) to the pivot axis (X) of the boom and the second side plane (S2) thereof extending from the front-head point (P) along the bucket wheel radial plane of symmetry (Y), characterized in that the chute is arranged under that end of the conveyor device of the boom which is opposite the bucket wheel and in the region of the pivot axis (X).
A plant extract-containing polyethylene terephthalate fiber, wherein: The plant extract-containing polyethylene terephthalate fiber consists of the following raw materials: 280-300 parts of polyethylene terephthalate pellets, 3-7 parts of calcium carbide powder, 2-6 parts of liuhuan stone powder, 2-5 parts of halloysite powder, 10-12 parts of plant extract functional additive, 8 parts of allyl glycidyl ether, 2-6 parts of organic acid salt, 0.2 parts of chromium sulfate, 4-8 parts of dispersant, 9-12 parts of surface-active phospholipid, 8 parts of plasticized starch, 10 parts of chitosan, 10 parts of wetting agent, 24 parts of CMC-Na and 12 parts of antistatic agent.
A secondary battery comprising: an electrode assembly which comprises a plurality of electrodes and a separation membrane disposed between the electrodes; a case configured to receive the electrode assembly; electrode tabs which are connected with the electrodes and protrude to an outside of the case; and a thermoelectric unit configured to at least partially cover the electrode tab, wherein the thermoelectric unit comprises: an insulator; and a thermoelectric region which includes thermoelectric elements included in the insulator or attached to the insulator, and is disposed to be overlapped with the electrode tab in a planar direction, wherein the thermoelectric unit partially covers the case together with the electrode tab in the planar direction. an electrode assembly which comprises a plurality of electrodes and a separation membrane disposed between the electrodes; a case configured to receive the electrode assembly; electrode tabs which are connected with the electrodes and protrude to an outside of the case; and a thermoelectric unit configured to at least partially cover the electrode tab, wherein the thermoelectric unit comprises: an insulator; and a thermoelectric region which includes thermoelectric elements included in the insulator or attached to the insulator, and is disposed to be overlapped with the electrode tab in a planar direction, wherein the thermoelectric unit partially covers the case together with the electrode tab in the planar direction. an insulator; and a thermoelectric region which includes thermoelectric elements included in the insulator or attached to the insulator, and is disposed to be overlapped with the electrode tab in a planar direction, wherein the thermoelectric unit partially covers the case together with the electrode tab in the planar direction.
A posture control actuator unit for a leaning vehicle , the leaning vehicle including a vehicle body frame that is configured to lean in a leaning-vehicle-leftward direction when the leaning vehicle is turning left and to lean in a leaning-vehicle-rightward direction when the leaning vehicle is turning right, the posture control actuator unit comprising: a posture control actuator configured to output posture control power to control posture of the vehicle body frame ; and an angular rate sensor configured to detect an angular rate that is an amount of change per unit time of a rotation angle of the vehicle body frame around a rotation axis, the rotation angle changing as the vehicle body frame is rotating around the rotation axis; wherein the posture control actuator unit is supportable by the vehicle body frame in such a manner as to be attachable to and detachable from the vehicle body frame , the posture control actuator and the angular rate sensor being incorporated in such a manner as not to be displaceable relative to each other, and wherein the posture control actuator is used for attachment of the angular rate sensor to the vehicle body frame or the angular rate sensor and the posture control actuator are integrated into the posture control actuator unit and the posture control actuator unit is attachable to the vehicle body frame . the posture control actuator unit comprising: a posture control actuator configured to output posture control power to control posture of the vehicle body frame ; and an angular rate sensor configured to detect an angular rate that is an amount of change per unit time of a rotation angle of the vehicle body frame around a rotation axis, the rotation angle changing as the vehicle body frame is rotating around the rotation axis; a posture control actuator configured to output posture control power to control posture of the vehicle body frame ; and an angular rate sensor configured to detect an angular rate that is an amount of change per unit time of a rotation angle of the vehicle body frame around a rotation axis, the rotation angle changing as the vehicle body frame is rotating around the rotation axis; wherein the posture control actuator unit is supportable by the vehicle body frame in such a manner as to be attachable to and detachable from the vehicle body frame , the posture control actuator and the angular rate sensor being incorporated in such a manner as not to be displaceable relative to each other, and wherein the posture control actuator is used for attachment of the angular rate sensor to the vehicle body frame or the angular rate sensor and the posture control actuator are integrated into the posture control actuator unit and the posture control actuator unit is attachable to the vehicle body frame .
An application unit for an application device, in particular an application gun, for applying gel-like and/or paste-like compositions, comprising a dispensing unit for dispensing the composition, a connection element , in particular cover, for connecting the dispensing unit to an application device main body and a closure element , wherein the closure element can be rotated about a rotation axis with respect to the connection element and the dispensing unit in order to secure the dispensing unit to the connection element and to release the dispensing unit from the connection element , wherein a lifting device is constructed and arranged in such a manner that the dispensing unit is lifted by rotating the closure element , characterized in that the closure element and connection element form a bayonet closure in order to secure the dispensing unit to the connection element , wherein the lifting device is at least partially formed by the bayonet closure , wherein a common rib is a component of both the bayonet closure and the lifting device.
A method for bandwidth resource configuration, comprising: receiving a downlink transmission from a network device in a first bandwidth part, wherein the downlink transmission comprises a first control channel and a first data channel; switching from the first bandwidth part to a third bandwidth part; receiving information about a second bandwidth part from the network device in the third bandwidth part, wherein the second bandwidth part is a bandwidth part to be switched to; and the third bandwidth part is an access bandwidth part, or the third bandwidth part is comprised in one or more candidate operating bandwidth parts; and switching to the second bandwidth part from the third bandwidth part, wherein the second bandwidth part is usable for receiving a second control channel and a second data channel; wherein the first bandwidth part is different from the third bandwidth part. receiving a downlink transmission from a network device in a first bandwidth part, wherein the downlink transmission comprises a first control channel and a first data channel; switching from the first bandwidth part to a third bandwidth part; receiving information about a second bandwidth part from the network device in the third bandwidth part, wherein the second bandwidth part is a bandwidth part to be switched to; and the third bandwidth part is an access bandwidth part, or the third bandwidth part is comprised in one or more candidate operating bandwidth parts; and switching to the second bandwidth part from the third bandwidth part, wherein the second bandwidth part is usable for receiving a second control channel and a second data channel; wherein the first bandwidth part is different from the third bandwidth part.
A terminal board for fastening electrical lines , with a first connecting element for an electrical line and with at least one threaded hole so as to fasten another connecting element of an electrical line by way of a screw that can be screwed into the threaded hole, characterized in that the terminal board comprises a cylindrical insert including the threaded hole, which is inserted into a cut-out of the terminal board and comprises an end section that projects from a surface area of the terminal board , whereby the end section is joined to the connecting element by way of plastic deformation.
A dewatering screen comprising a frame upon which is mounted a deck having a plurality of apertures therein, said frame being mounted on a base and being provided with vibration generating means for imparting vibration to said deck, delivery means being provided for delivering wet particulate material to be dewatered onto the deck, characterised in that at least one dividing wall is provided on said deck extending across a portion of the deck, said at least one dividing wall separating the deck into a material dewatering region (D) and one or more water drainage regions (W1,W2), wherein said delivery means is adapted to deliver wet particulate material to be dewatered onto said material dewatering region (D), wherein the at least one dividing wall extends from an upstream end of the deck towards a downstream end of the deck , side walls being provided on either side of the deck , and a rear wall extending between the side walls at the upstream end of the deck , said at least one dividing wall extending from said rear wall of the deck towards the downstream end of the deck , wherein the at least one dividing wall has a length less than that of the side walls of the deck , such a gap remains between a downstream end of the at least one dividing wall and the downstream end of the deck .
A method for performing in vitro mutagenesis of a targeted sequence, the method comprising: incubating a mixture comprising an isolated ribonucleotide particle (RNP), a first plasmid, an oligonucleotide, and a cell extract having enzymatic activity for editing genes, wherein the RNP comprises a crRNA and a Cas endonuclease, wherein the first plasmid comprises a nucleotide sequence of the targeted sequence, and wherein the oligonucleotide comprises a nucleotide sequence that is complementary to the targeted sequence but contains at least one mismatched nucleotide, thus generating a second, mutated plasmid; administering the second plasmid to a plurality of non-germ line cells; and selecting from the plurality of cells at least one cell wherein in vitro mutagenesis has occurred in the targeted sequence. incubating a mixture comprising an isolated ribonucleotide particle (RNP), a first plasmid, an oligonucleotide, and a cell extract having enzymatic activity for editing genes, wherein the RNP comprises a crRNA and a Cas endonuclease, wherein the first plasmid comprises a nucleotide sequence of the targeted sequence, and wherein the oligonucleotide comprises a nucleotide sequence that is complementary to the targeted sequence but contains at least one mismatched nucleotide, thus generating a second, mutated plasmid; administering the second plasmid to a plurality of non-germ line cells; and selecting from the plurality of cells at least one cell wherein in vitro mutagenesis has occurred in the targeted sequence.
A lighting device comprising a light source and/or an electronic component , and comprising a 3D-printed heat sink ; the 3D-printed heat sink comprises a stack of a core layer and at least one further layer stacked along a stack axis normal to the core layer ; wherein the core layer and the at least one further layer comprise a same polymer material , characterized in that a concentration of the thermally conductive filler in the polymer material decreases, starting from the core layer , consecutively with each of the at least one further layer for improving resistance to mechanical failure and heat conduction of said 3D-printed heat sink .
A method, comprising_an ontology application at one or more computing devices performing operations comprising: receiving a command to create a new ontology module; receiving , a selection of a first ontology module to import into the new ontology module; receiving , a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing , in a data container, the new ontology module as a dynamic ontology module, the new ontology module comprising an ontology module definition which comprises an import attribute comprising an identifier, e.g. a file path or URL, of each of the first and second ontology modules and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the first and second ontology modules that the new ontology module inherits from. receiving a command to create a new ontology module; receiving , a selection of a first ontology module to import into the new ontology module; receiving , a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing , in a data container, the new ontology module as a dynamic ontology module, the new ontology module comprising an ontology module definition which comprises an import attribute comprising an identifier, e.g. a file path or URL, of each of the first and second ontology modules and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the first and second ontology modules that the new ontology module inherits from.
A method for manufacturing a molded body , the method comprising the steps of: molding a molded body in molds , and separating a burr (B) formed around the molded body , wherein the step of separating the burr (B) from the molded body comprises, within the molds , cooling at least a part of the burr (B), and projecting a projecting member against the cooled burr (B), wherein cooling the burr (B) and projecting the projecting member are performed in a space formed between pinch portions of the molds provided between adjacent two duct portions of the molded body and a blowout hole for blowing air and a projecting rod are installed in the space , characterized in that , in the space provided between the adjacent two portions of the molded body , a projecting member is arranged at each side of the adjacent two portions . molding a molded body in molds , and separating a burr (B) formed around the molded body , wherein the step of separating the burr (B) from the molded body comprises, within the molds , cooling at least a part of the burr (B), and projecting a projecting member against the cooled burr (B), wherein cooling the burr (B) and projecting the projecting member are performed in a space formed between pinch portions of the molds provided between adjacent two duct portions of the molded body and a blowout hole for blowing air and a projecting rod are installed in the space , characterized in that , in the space provided between the adjacent two portions of the molded body , a projecting member is arranged at each side of the adjacent two portions .
A white resin composition containing: a white pigment; a surface-treated calcium carbonate in which particle surfaces of a synthetic calcium carbonate with an average particle diameter of 0. 05 to 1 μm are subjected to surface treatment with a condensed phosphoric acid so that a content of phosphorus in the surface-treated calcium carbonate falls within a range of 0.2 to 2% by mass, measured by the ICP emission spectrometric analysis method, and then with an epoxy-modified silicone oil so that an amount of the epoxy-modified silicone oil for the treatment in the surface-treated calcium carbonate is within a range of 0.1 to 10 parts by mass relative to 100 parts by mass of calcium carbonate; and a resin, wherein a content ratio between the white pigment and the surface-treated calcium carbonate is, in mass ratio white pigment to surface-treated calcium carbonate, within a range of 90:10 to 60:40, and a total content of the white pigment and the surface-treated calcium carbonate in the resin composition is within a range of 5 to 70% by mass.
A closing and opening device for doors and/or panels and/or similar components, in particular of electrical household appliances such as washing machines, dishwashers and similar electrical household appliances, said device comprising a closing and opening assembly adapted to be alternatively engaged by and disengaged from a striker element adapted to be fixed rigidly to said panel, wherein said closing and opening assembly comprises a first closing and opening element which can be switched by rotation between a first position and a second position, said closing and opening element and striker being shaped in such a way that the reciprocal pushing action of said striker element against said closing and opening assembly results or translates into a first switching of said closing and opening element from said first position to said second position, wherein said closing and opening element comprises a through opening with two opposite longitudinal edges, wherein with said closing and opening element in said first position, the reciprocal pushing of an engagement surface of said striker element against two opposite tapered surfaces extending respectively from said opposite longitudinal edges of said through opening and tightening towards the inside of said opening itself results in said closing and opening element being switched by rotation from said first position into said second position, and wherein with said closing and opening element in said second position, said striker element can be inserted at least partially into said closing and opening element through said through opening .
A method for forming an intermediate structure in the formation of an optoelectronic device, wherein the method comprises: a) obtaining a stack of layers over a substrate holder in a sputtering chamber, the stack of layers comprising: an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer , and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer , wherein the energy alignment layer comprises an exposed top surface , and b) sputtering an n-type semiconducting metal oxide layer on the exposed top surface of the energy alignment layer , wherein said sputtering is performed at a sputtering power density of at most 1 W·cm -2 and at a temperature of the stack of layers of at most 100°C. a) obtaining a stack of layers over a substrate holder in a sputtering chamber, the stack of layers comprising: an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer , and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer , wherein the energy alignment layer comprises an exposed top surface , and an active layer comprising an active material having a perovskite crystal structure, an n-type semiconducting layer comprising a fullerene over the active layer , and an energy alignment layer comprising a lithium halide, a magnesium halide, Al 2 O 3 or a metal fluoride on, and in contact with, the n-type semiconducting layer , wherein the energy alignment layer comprises an exposed top surface , and b) sputtering an n-type semiconducting metal oxide layer on the exposed top surface of the energy alignment layer , wherein said sputtering is performed at a sputtering power density of at most 1 W·cm -2 and at a temperature of the stack of layers of at most 100°C.