mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber-material molding machine configured to place strips of a tape material (T) side by side and mold the tape material (T) into a molded shape having a curved flange portion, the tape material (T) including a continuous fiber bundle extending in a longitudinal direction, the machine comprising: - spreading means capable of increasing a width of the tape material (T) by spreading the tape material (T); and - placing means configured to place the tape material (T) which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material (T) to be placed, wherein the molded shape is a three-dimensional shape having a web portion having a curved edge and a flange portion vertically extending from the curved edge of the web portion , and wherein the spreading means continuously changes the width of the tape material (T) to avoid generation of a gap between adjacent strips of the tape material (T), the adjacent strips being adjacent to each other when the tape material (T) is placed on the surface of the molding tool , and the placing means places the strips of the tape material (T) side by side in a plurality of rows on the surface of the molding tool while placing the tape material (T) in a curved form so that incidence angles (α) of the strips of the tape material (T) from the web portion to the flange portion are equal with one another. the machine comprising: - spreading means capable of increasing a width of the tape material (T) by spreading the tape material (T); and - placing means configured to place the tape material (T) which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material (T) to be placed, - spreading means capable of increasing a width of the tape material (T) by spreading the tape material (T); and - placing means configured to place the tape material (T) which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material (T) to be placed, wherein the molded shape is a three-dimensional shape having a web portion having a curved edge and a flange portion vertically extending from the curved edge of the web portion , and wherein the spreading means continuously changes the width of the tape material (T) to avoid generation of a gap between adjacent strips of the tape material (T), the adjacent strips being adjacent to each other when the tape material (T) is placed on the surface of the molding tool , and the placing means places the strips of the tape material (T) side by side in a plurality of rows on the surface of the molding tool while placing the tape material (T) in a curved form so that incidence angles (α) of the strips of the tape material (T) from the web portion to the flange portion are equal with one another.
An underwater detection device comprising: a transmission transducer configured to transmit acoustic waves to a transmission region in water; a reception transducer configured to receive acoustic waves reflected by bubbles in the transmission region and further reflected by bubbles in a reception region ; and a bubble determination module configured to determine a state of bubbles in water based on a signal received by the reception transducer characterized in that : the reception region is different from the transmission region ; a central axis of a transmission beam of the transmission transducer and a central axis of a reception beam of the reception transducer are non-parallel; and a transmission surface of the transmission transducer and a reception surface of the reception transducer are facing in different directions. a transmission transducer configured to transmit acoustic waves to a transmission region in water; a reception transducer configured to receive acoustic waves reflected by bubbles in the transmission region and further reflected by bubbles in a reception region ; and a bubble determination module configured to determine a state of bubbles in water based on a signal received by the reception transducer characterized in that : the reception region is different from the transmission region ; a central axis of a transmission beam of the transmission transducer and a central axis of a reception beam of the reception transducer are non-parallel; and a transmission surface of the transmission transducer and a reception surface of the reception transducer are facing in different directions. the reception region is different from the transmission region ; a central axis of a transmission beam of the transmission transducer and a central axis of a reception beam of the reception transducer are non-parallel; and a transmission surface of the transmission transducer and a reception surface of the reception transducer are facing in different directions.
A method for coding an image of a video sequence, wherein the image comprises a current image block, the method comprises: obtaining initial motion information of the current image block (S401); obtaining constrained sample values of at least two candidate reference image blocks corresponding to the current image block according to the initial motion information (S402); wherein the constrained sample values are obtained by constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth (S403); wherein the constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth is performed according to the following formula: L ′ = L ^ + 1 ≪ Q − 1 ≫ Q + b − d wherein, L ' is a constrained sample value of each candidate reference image block; L̂ is a non-normalized sample value of each candidate reference image block, Q is a normalization factor of an interpolation filter; b is the bit-depth of sample values of each candidate reference image block and d is the predefined bit-depth; wherein, d is less than b; obtaining refined motion information based on constrained sample values of at least two candidate reference image blocks (S404); and determining a prediction image block of the current image block according to the refined motion information (S405). obtaining initial motion information of the current image block (S401); obtaining constrained sample values of at least two candidate reference image blocks corresponding to the current image block according to the initial motion information (S402); wherein the constrained sample values are obtained by constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth (S403); wherein the constraining a bit-depth of sample values of each candidate reference image block to a predefined bit-depth is performed according to the following formula: L ′ = L ^ + 1 ≪ Q − 1 ≫ Q + b − d wherein, L ' is a constrained sample value of each candidate reference image block; L̂ is a non-normalized sample value of each candidate reference image block, Q is a normalization factor of an interpolation filter; b is the bit-depth of sample values of each candidate reference image block and d is the predefined bit-depth; wherein, d is less than b; obtaining refined motion information based on constrained sample values of at least two candidate reference image blocks (S404); and determining a prediction image block of the current image block according to the refined motion information (S405).
A refrigerator comprising: a storage compartment surrounded by a heat insulating wall and having an opening in a front surface thereof, a heat insulating door configured to close the opening, a cooler stored on a back surface of the storage compartment , a cooling fan configured to circulate cool air generated by the cooler into the storage compartment , a duct having a flow straightener that protrudes toward the cooling fan at such a position as to face the cooling fan , and a cooling compartment through which the cool air generated by the cooler is guided to the cooling fan , wherein the flow straightener is formed in a substantially truncated conical shape having an inclined part and a plane part ; a basic plane of the duct is disposed in a substantially vertical direction; the cooling fan is disposed to be inclined with respect to the vertical direction; and the flow straightener is disposed to be inclined such that the flow straightener faces the cooling fan ; the duct is configured to separate the cooling compartment and the storage compartment and has the flow straightener at such a position as that the flow straightener faces the cooling fan ; a maximum dimension of the plane part of the flow straightener is equal to or smaller than a dimension of a motor of the cooling fan , wherein the flow straightener forms a part of an inner back surface of the storage compartment , and an angle formed by the surface of the inclined part and the surface of the plane part of the flow straightener is 10 degrees to 15 degrees. a storage compartment surrounded by a heat insulating wall and having an opening in a front surface thereof, a heat insulating door configured to close the opening, a cooler stored on a back surface of the storage compartment , a cooling fan configured to circulate cool air generated by the cooler into the storage compartment , a duct having a flow straightener that protrudes toward the cooling fan at such a position as to face the cooling fan , and a cooling compartment through which the cool air generated by the cooler is guided to the cooling fan , wherein the flow straightener is formed in a substantially truncated conical shape having an inclined part and a plane part ; a basic plane of the duct is disposed in a substantially vertical direction; the cooling fan is disposed to be inclined with respect to the vertical direction; and the flow straightener is disposed to be inclined such that the flow straightener faces the cooling fan ; the duct is configured to separate the cooling compartment and the storage compartment and has the flow straightener at such a position as that the flow straightener faces the cooling fan ; a maximum dimension of the plane part of the flow straightener is equal to or smaller than a dimension of a motor of the cooling fan , wherein the flow straightener forms a part of an inner back surface of the storage compartment , and an angle formed by the surface of the inclined part and the surface of the plane part of the flow straightener is 10 degrees to 15 degrees.
A cable winch , for example for a crane, comprising: - a frame ; - a cable drum rotatably mounted on said frame around a main axis (Y); - a motor-driven system carried by said frame , comprising a motor driving in rotation a motor shaft , and comprising a reducer provided with a reducer shaft coupled in rotation to said motor shaft via a transmission set , said reducer comprising an output flange secured in rotation to said cable drum around the main axis (Y); said cable winch being characterized in that the frame comprises a first frame element and a second frame element coupled to each other by a hinge system provided with several degrees of freedom including at least one degree of freedom in translation along the main axis (Y) and at least one degree of freedom in rotation around a secondary axis (X; Z) orthogonal to the main axis (Y), and the cable drum is interposed between the first frame element and the second frame element . - a frame ; - a cable drum rotatably mounted on said frame around a main axis (Y); - a motor-driven system carried by said frame , comprising a motor driving in rotation a motor shaft , and comprising a reducer provided with a reducer shaft coupled in rotation to said motor shaft via a transmission set , said reducer comprising an output flange secured in rotation to said cable drum around the main axis (Y);
A method for producing three-dimensional parts by means of layering technology, wherein, in a first process step, material layers of the part or parts are applied using known layering methods and are at least partially solidified, at least some of the solidified regions having pores, and, in a second process step, for further solidification, the part or parts are brought into contact with a medium containing water, using particulate material to build up the material layers, the particulate material consisting of or containing a material which solidifies by introduction of an aqueous liquid, wherein the particulate material used for building up the material layers for the first process step contains a hydraulically setting material, namely a cement or a gypsum, and wherein the water-containing medium used in the second process step is a water glass or a water-based plastics dispersion which infiltrates into the pores of the part.
A method for wireless communication, comprising: generating a physical layer convergence protocol data unit, PPDU, the PPDU including a first portion and a second portion, the first portion being decodable by a first set of devices and by a second set of devices, the second portion being decodable by the second set of devices, wherein the second portion includes an identification of one or more of the second set of devices for a multi-user transmission and includes an indication of scheduling information for the multi-user transmission, wherein the first portion indicates a network allocation vector, NAV, that extends beyond the length of the second portion for protecting the multi-user transmission; and transmitting the PPDU, wherein the first portion is transmitted at a first data rate and the second portion is transmitted at a second data rate higher than the first data rate.
A composition for use in treating, acute and chronic non-alcoholic fatty liver, or acute or chronic non-alcoholic steatohepatitis caused by abnormal accumulation of liver fat in a subject, which comprises an effective amount of mannitol as an active ingredient
Operating element for a motor vehicle, specifically a steering wheel operating element, which can be operated by pressure and by rotation, having a cylindrically shaped input element which is pivoted on a bearing block , whereby the input element transmits a rotary actuation to a code disc which interacts with a sensor , whereby the bearing block is supported on the actuating elements of a plurality of switch elements , and whereby a pressure actuation on the input element actuates at least one of the switch elements , characterised in that the bearing block forms two swivel axes which are perpendicular to the rotary axis of the input element and are supported on actuating elements of switch elements, and that the bearing block has at least one moulded-on limit stop element between the swivel axes which restricts the actuating path of the input element in the case of a pressure actuation.
Strip, comprising a preceding strip of fastening elements and a succeeding strip of fastening elements each having receiving elements and fastening elements received in the receiving elements , said fastening elements each defining a fastening direction that is the same for all fastening elements , wherein the receiving elements are arranged in at least one row, which defines a transport direction , a frontmost receiving element of the succeeding strip of fastening elements and a rearmost receiving element of the preceding strip of fastening elements, wherein the fastening direction and the transport direction enclose an acute angle, wherein the succeeding strip of fastening elements has a support element for supporting the frontmost receiving element of the succeeding strip of fastening elements counter to the fastening direction and the preceding strip of fastening elements has a counter-support element for supporting the rearmost receiving element of the preceding strip of fastening elements in the fastening direction, characterized in that the support element and the counter-support element are in engagement with each other and are supported on each other in the fastening direction .
A reciprocal quantum logic-based device (100; 400; 700) comprising: an output terminal; a first input terminal for receiving a first set of pulses via a first input Josephson transmission line (102; 402; 702); a second input terminal for receiving a second set of pulses via a second input Josephson transmission line (104; 404; 704); a first section (110; 410; 710) configured to pass a single pulse received during a single clock cycle at any of the first input terminal or the second input terminal, but to not pass two or more positive pulses received during a single clock cycle at the first input terminal and the second input terminal, wherein the first section comprises an unpowered stage comprising a first unpowered Josephson junction (112; 412; 712) coupled between the first input terminal and a third terminal, and a second unpowered Josephson junction (114; 414; 714) coupled between the second input terminal and the third terminal, wherein the unpowered stage is configured to pass pulses traveling in a first direction, wherein the first direction comprises a direction of travel of any pulses from any of the first input terminal or the second input terminal toward the output terminal and block pulses traveling in a second direction, opposite to the first direction; and a second section (120; 420; 720), coupled to the first section, wherein the second section is configured to, in response to the single pulse, generate a negative pulse after a predetermined fraction of a single clock cycle after providing a positive pulse at the output terminal. an output terminal; a first input terminal for receiving a first set of pulses via a first input Josephson transmission line (102; 402; 702); a second input terminal for receiving a second set of pulses via a second input Josephson transmission line (104; 404; 704); a first section (110; 410; 710) configured to pass a single pulse received during a single clock cycle at any of the first input terminal or the second input terminal, but to not pass two or more positive pulses received during a single clock cycle at the first input terminal and the second input terminal, wherein the first section comprises an unpowered stage comprising a first unpowered Josephson junction (112; 412; 712) coupled between the first input terminal and a third terminal, and a second unpowered Josephson junction (114; 414; 714) coupled between the second input terminal and the third terminal, wherein the unpowered stage is configured to pass pulses traveling in a first direction, wherein the first direction comprises a direction of travel of any pulses from any of the first input terminal or the second input terminal toward the output terminal and block pulses traveling in a second direction, opposite to the first direction; and a second section (120; 420; 720), coupled to the first section, wherein the second section is configured to, in response to the single pulse, generate a negative pulse after a predetermined fraction of a single clock cycle after providing a positive pulse at the output terminal.
A wheel clamp comprising a clamp body and a first arm , a second arm and a third arm , each of the arms having a radial portion and an axial portion , at least one of the arms having a return radial portion , the arms being securable at predetermined positions relative to the clamp body , characterised in that , the second and third arms each being releasably mounted to the clamp body by way of at least one mushroom-headed pin locatable in a keyhole aperture .
A co-injection nozzle comprising: a combining component for balancing shear-induced heat in each of a first melt stream of moldable material and a second melt stream of moldable material that flow through the co-injection nozzle , the combining component having an inner part with a first port for receiving the first melt stream from a first melt source and a second port for receiving the second melt stream from a second melt source, a middle subcomponent that defines an inside annular channel between a middle sleeve and a middle shell thereof, and an outer subcomponent that defines an inside annular channel between an outer sleeve and an outer shell thereof, characterised in that the first melt stream is received within the inside annular channel of the middle subcomponent and flows downstream therefrom through a plurality of apertures in a sidewall of the middle shell and into a plurality of angled grooves in an outer surface of the sidewall of the middle shell , and that the second melt stream is received within the inside annular channel of the outer subcomponent and flows downstream therefrom through a plurality of apertures in a sidewall of the outer shell and into a plurality of angled grooves in an outer surface of the sidewall of the outer shell . a combining component for balancing shear-induced heat in each of a first melt stream of moldable material and a second melt stream of moldable material that flow through the co-injection nozzle , the combining component having an inner part with a first port for receiving the first melt stream from a first melt source and a second port for receiving the second melt stream from a second melt source, a middle subcomponent that defines an inside annular channel between a middle sleeve and a middle shell thereof, and an outer subcomponent that defines an inside annular channel between an outer sleeve and an outer shell thereof, characterised in that the first melt stream is received within the inside annular channel of the middle subcomponent and flows downstream therefrom through a plurality of apertures in a sidewall of the middle shell and into a plurality of angled grooves in an outer surface of the sidewall of the middle shell , and that the second melt stream is received within the inside annular channel of the outer subcomponent and flows downstream therefrom through a plurality of apertures in a sidewall of the outer shell and into a plurality of angled grooves in an outer surface of the sidewall of the outer shell .
A pre-portioned cleaning agent, preferably a dishwashing detergent, in a water-soluble packaging having at least two compartments, comprising at least a first and a second liquid preparation, characterized in that the first liquid preparation contains alkali metal carbonate, preferably sodium carbonate, in an amount of from 20 to 60 wt.%, and further contains a magnesium-containing phyllosilicate in an amount of from 0.01 to 10 wt.%, in each case based on the total weight of the first liquid preparation.