mhurhangee/patent-ind-claim-en huggingface dataset:
Radiator for directed energy, comprising a device for feeding in beams from at least one beam generator and a beam combination device which brings the beams together to form combined beams, wherein the beam combination device has a telescope optical system, comprising a collimation mirror by means of which radiation can be orientated onto a target object, and a secondary mirror , and the device is configured to receive directed beams from a plurality of light guide devices from the at least one beam generator , wherein the radiator comprises a plurality of mirrors movable about two axes and a facetted mirror , the mirrors being configured to deflect beams from the light guide devices towards the facetted mirror , and the facetted mirror being configured to deflect beams towards the secondary mirror , and the radiator comprises a camera for orientating the radiator towards the target object, and the radiator comprises at least one position-sensitive detector and an illuminating laser for high-precision orientation of the beams onto the target object, the illuminating laser being set up to illuminate the target object with laser light, wherein the laser light reflected from the target object is collected by way of the collimation mirror and imaged onto the at least one position-sensitive detector by way of the secondary mirror , the facetted mirror and the mirrors , and wherein the radiator comprises a regulation device set up to determine relative angular offsets in beam paths on the basis of data from the at least one position-sensitive detector and the camera and to correct them by means of the corresponding mirror and/or the secondary mirror . wherein the beam combination device has a telescope optical system, comprising a collimation mirror by means of which radiation can be orientated onto a target object, and a secondary mirror , and the device is configured to receive directed beams from a plurality of light guide devices from the at least one beam generator , wherein the radiator comprises a plurality of mirrors movable about two axes and a facetted mirror , the mirrors being configured to deflect beams from the light guide devices towards the facetted mirror , and the facetted mirror being configured to deflect beams towards the secondary mirror , and the radiator comprises a camera for orientating the radiator towards the target object, and the radiator comprises at least one position-sensitive detector and an illuminating laser for high-precision orientation of the beams onto the target object, the illuminating laser being set up to illuminate the target object with laser light, wherein the laser light reflected from the target object is collected by way of the collimation mirror and imaged onto the at least one position-sensitive detector by way of the secondary mirror , the facetted mirror and the mirrors , and wherein the radiator comprises a regulation device set up to determine relative angular offsets in beam paths on the basis of data from the at least one position-sensitive detector and the camera and to correct them by means of the corresponding mirror and/or the secondary mirror .
A floor treatment system, comprising a mobile floor treatment apparatus and a docking station therefor, wherein the floor treatment apparatus has at least one liquid container with a container wall and a container interior , characterized in that the floor treatment apparatus has at least one liquid conduit for providing a liquid for the container interior , wherein the docking station comprises a supply conduit which, in a docked position of the floor treatment apparatus on the docking station , is in fluidic connection with the at least one liquid conduit , wherein the floor treatment system comprises an opening device by way of which a wall portion of the container wall is movable, for clearing at least one container opening of the at least one liquid container , into an open position, and in the docked position of the floor treatment apparatus the liquid can exit from the container interior through the container opening .
A biparatopic antibody comprising two antigen-binding moieties, wherein the first antigen-binding moiety binds to propeller domain 1 of LRP6 and the second antigen-binding moiety binds to propeller domain 3 of LRP6, wherein said biparatopic antibody inhibits both propeller 1- and propeller 3-mediated LRP6 signalling and does not potentiate Wnt1 and Wnt3 signalling, for use in a method of treating an LRP6-expressing cancer.
A method for determining an accurate amount of consumable in a higher yield print cartridge for use in a printing device , wherein the higher yield print cartridge has a cartridge identification associated therewith and the higher yield print cartridge has an expected print yield that is different than an expected print yield of a corresponding lower yield cartridge manufactured for use in the printing device , the method comprising: determining that a higher yield print cartridge installed in a printing device has an identifier associated therewith; and characterized by : determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage. determining that a higher yield print cartridge installed in a printing device has an identifier associated therewith; and characterized by : determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage. determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage.
A high-strength seamless stainless steel pipe for oil country tubular goods having a yield strength of 862 MPa or more, the high-strength seamless stainless steel pipe having a composition that comprises, in mass%, C :0.05% or less, Si: 0.5% or less, Mn: 0.15 to 1.0%, P :0.030% or less, S :0.005% or less, Cr: 14.5 to 17.5%, Ni: 3.0 to 6.0%, Mo: 3.0 to 5.0%, Cu: 0.3 to 4.0%, W :1.0 to 2.5%, V: 0.02 to 0.20%, Al: 0.10% or less, N: 0.15% or less, optionally at least one selected from Nb: 0.02 to 0.50%, Ti: 0.02 to 0.16%, Zr: 0.02 to 0.50%, and B: 0.0005 to 0.0030%, optionally at least one selected from REM: 0.001 to 0.05%, Ca: 0.001 to 0.005%, Sn: 0.05 to 0.20%, and Mg: 0.0002 to 0.01%, optionally at least one selected from Ta: 0.01 to 0.1%, Co: 0.01 to 1.0%, and Sb:0.01 to 1.0% and the balance being Fe and unavoidable impurities, wherein, as an unavoidable impurity, an O (oxygen) content of 0.01% or less is acceptable and in which the C, Si, Mn, Cr, Ni, Mo, Cu, and N satisfy the formula below, and the Cu, Mo, W, Cr, and Ni satisfy the formula below, the high-strength seamless stainless steel pipe having a structure consisting of more than 45% martensite phase by volume as a primary phase, and 10 to 45% ferrite phase and 30% or less retained austenite phase by volume as a secondary phase, wherein the total amount of precipitated Cr, precipitated Mo, and precipitated W is 0.75 mass% or less, − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 where C, Si, Mn, Cr, Ni, Mo, Cu, and N represent the contents of corresponding elements (mass%), respectively, Cu + Mo + W + Cr + 2 Ni ≤ 34.5 where Cu, Mo, W, Cr, and Ni represent the contents of corresponding elements (mass%), respectively, wherein the yield strength, the volume fraction of the martensite phase, the ferrite phase and the retained austenite phase and the total amount of precipitated Cr, precipitated Mo and precipitated W are determined in accordance with the specifics given in the description. the high-strength seamless stainless steel pipe having a structure consisting of more than 45% martensite phase by volume as a primary phase, and 10 to 45% ferrite phase and 30% or less retained austenite phase by volume as a secondary phase, wherein the total amount of precipitated Cr, precipitated Mo, and precipitated W is 0.75 mass% or less, − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 where C, Si, Mn, Cr, Ni, Mo, Cu, and N represent the contents of corresponding elements (mass%), respectively, Cu + Mo + W + Cr + 2 Ni ≤ 34.5 where Cu, Mo, W, Cr, and Ni represent the contents of corresponding elements (mass%), respectively,
A permanent magnet rotor for a generator of a wind turbine having a stator and a rotor and an air gap arranged between the rotor and the stator, the rotor comprising a rotor body configured for rotating around a central rotational axis, the rotor body comprising a rotor rim and a plurality of rotor modules attached to the rotor rim , wherein the modules comprise a base and a first and a second permanent magnet arranged on the base ; wherein the base is made of a magnetic material and comprises an upper portion with a substantially triangular cross-section and rectangular through-holes, wherein the permanent magnets are contained in the rectangular through-holes and arranged along the sides of the triangular cross-section, in such a way that permanent magnets are inserted in the magnetic material and a magnetic flux between a permanent magnet of a first rotor module and a permanent magnet of another rotor module is concentrated towards the stator; and the magnets are substantially rectangular in axial cross-section and have an inner end and an outer end , the outer end of the magnet being arranged in the proximity of the air gap at the circumference of the rotor delimiting the air gap, and the outer end of each permanent magnet extend between a first and a second corner , characterized in that at least a portion of the outer end of the permanent magnets is not covered by the magnetic material, such that there is no magnetic material bridging the first and the second corners at the outer ends of the permanent magnets in order to prevent a magnetic outer bridge between the first and the second corners ; and in that the rotor body comprises a non-magnetic material covering at least a portion of the outer end of the permanent magnets , wherein both the permanent magnets and the non-magnetic material are retained inside the rotor body by projections/protrusions of the magnetic material of the base at the first corner and/or at the second corner ; and in that the inner ends of the magnets are supported to the rotor body by a wedging element , wherein the wedging element is a wedge, a spring or a material featuring analogous elastic properties.
An electronic apparatus comprising: a display ; a communication circuit ; and a processor configured to: in response to receiving a request from an external apparatus through the communication circuit, to transmit content included in a screen of the display from the electronic apparatus to the external apparatus, identify whether the screen currently displayed includes a plurality of pieces of content or a single piece of content, based on the identifying that the screen includes the plurality of pieces of content, provide a content selection option to the external apparatus, and in response to receiving a signal from the external apparatus, the signal indicating the content selected using the content selection option, transmit data of the content indicated by the signal, to the external apparatus through the communication circuit , and based on the identifying that the screen includes the single piece of content, transmit data of the single piece of content to the external apparatus through the communication circuit. a display ; a communication circuit ; and a processor configured to: in response to receiving a request from an external apparatus through the communication circuit, to transmit content included in a screen of the display from the electronic apparatus to the external apparatus, identify whether the screen currently displayed includes a plurality of pieces of content or a single piece of content, based on the identifying that the screen includes the plurality of pieces of content, provide a content selection option to the external apparatus, and in response to receiving a signal from the external apparatus, the signal indicating the content selected using the content selection option, transmit data of the content indicated by the signal, to the external apparatus through the communication circuit , and based on the identifying that the screen includes the single piece of content, transmit data of the single piece of content to the external apparatus through the communication circuit. in response to receiving a request from an external apparatus through the communication circuit, to transmit content included in a screen of the display from the electronic apparatus to the external apparatus, identify whether the screen currently displayed includes a plurality of pieces of content or a single piece of content, based on the identifying that the screen includes the plurality of pieces of content, provide a content selection option to the external apparatus, and in response to receiving a signal from the external apparatus, the signal indicating the content selected using the content selection option, transmit data of the content indicated by the signal, to the external apparatus through the communication circuit , and based on the identifying that the screen includes the single piece of content, transmit data of the single piece of content to the external apparatus through the communication circuit.
A method of communication at a base station, comprising: allocating , in a downlink carrier comprising a plurality of resource blocks over a plurality of subframes, a first set of resource elements for cell-specific reference signals, CRS, associated with communication with one or more communication devices of a first type; allocating resources of a resource block of the plurality of resource blocks to a narrow-band physical channel for communication with one or more communication devices of a second type, the allocated resources being rate-matched around the first set of resource elements and a second set of resource elements allocated to narrow-band CRS, NB-CRS, associated with communication with the one or more communication devices of the second type, wherein determining to rate-match is based on an in-band deployment mode of the narrow-band physical channel; and transmitting information to the one or more communication devices of the second type mapped to a subset of the allocated resources of the narrow-band physical channel, wherein the transmitting is based in part on a transmit diversity that is based in part on a space frequency block coding, SFBC, scheme that is common to both a narrowband physical downlink control channel, NB-PDCCH, and narrowband physical downlink shared channel, NB-PDSCH. allocating , in a downlink carrier comprising a plurality of resource blocks over a plurality of subframes, a first set of resource elements for cell-specific reference signals, CRS, associated with communication with one or more communication devices of a first type; allocating resources of a resource block of the plurality of resource blocks to a narrow-band physical channel for communication with one or more communication devices of a second type, the allocated resources being rate-matched around the first set of resource elements and a second set of resource elements allocated to narrow-band CRS, NB-CRS, associated with communication with the one or more communication devices of the second type, wherein determining to rate-match is based on an in-band deployment mode of the narrow-band physical channel; and transmitting information to the one or more communication devices of the second type mapped to a subset of the allocated resources of the narrow-band physical channel, wherein the transmitting is based in part on a transmit diversity that is based in part on a space frequency block coding, SFBC, scheme that is common to both a narrowband physical downlink control channel, NB-PDCCH, and narrowband physical downlink shared channel, NB-PDSCH.
Process for hydrothermal carbonization (HTC) and digestion of sewage sludge, characterized in that a device for hydrothermal carbonization of sewage sludge is alternately connected upstream and downstream of a device for digestion of sewage sludge, so that the device for hydrothermal carbonization and the device for digestion are flowed through by the sewage sludge in alternating sequence; wherein the plant technology for hydrothermal carbonization is operated alternately in an HTC mode and in a thermo-pressure hydrolysis (TDH) mode and is connected correspondingly differently to the sewage sludge digestion; wherein in the HTC mode the plant technology for hydrothermal carbonization is operated after the digestion and in the TDH mode the plant technology for hydrothermal carbonization is operated before the digestion.
A method of wireless communication, comprising: establishing a codebook for use in sparse code multiple access, SCMA, communication, the codebook used for mapping input bits for transmission to a codeword including: setting the codebook for at least one layer to include: a constellation of points having a first grouping of constellation points located at first radial distance from an origin in a complex plane; and a second grouping of constellation points located at a second radial distance from the origin; wherein each constellation point represents a predetermined binary value characterized in that : binary values for corresponding constellation points between a first non-zero entry and a second non-zero entry for the at least one layer are Gray coded. a constellation of points having a first grouping of constellation points located at first radial distance from an origin in a complex plane; and a second grouping of constellation points located at a second radial distance from the origin; wherein each constellation point represents a predetermined binary value characterized in that :
System for producing three-dimensional structures which contain two or more different materials, having a 3D print head which has a first material feed for feeding a quasi-endless fiber material and at least one second material feed for feeding a matrix material, which open into a common mixing chamber of the 3D print head , the mixing chamber being designed to form a material mixture of the fiber material and the matrix material, and wherein an extrusion channel extends from the mixing chamber in the direction of an extrusion opening , through which the material mixture is transported in an extrusion direction from the mixing chamber to the extrusion opening , in order to print the material mixture from the extrusion opening for producing the three-dimensional structure, and with an automatic movement device, on which the 3D print head is arranged as an end effector and which is designed to move the 3D print head in a moving direction (R v ), the system being designed in such a way that during the extrusion of the material mixture by the 3D print head , an extrusion angle between the extrusion direction in the extrusion channel of the 3D print head and the substrate plane is set and/or adjustable to less than 90° in the direction of travel (R v ) of the 3D print head , the system having a control unit for controlling the automatic movement machine for controlling the movement of the 3D print head during the production of the three-dimensional structure, characterized in that the control unit is set up at the end of a partial structure of the three-dimensional structure formed by the extrusion of a material mixture, to incline the 3D print head by means of the automatic movement unit against a direction of travel (R v ) of the 3D print head such that an extrusion angle greater than 90° is set and that at least one radially inwardly projecting tear-off edge is provided in the extrusion channel such that this interacts with the material mixture at a set extrusion angle greater than 90° to tear off the fiber material of the material mixture in a controlled manner.
A method for protectively lining a part, the method comprising: a) preparing a mold that is defined on at least a bottom side by the part; b) casting a self-curing potting sealant compound into the mold; and c) levelling the sealant or letting the sealant self-level and letting the sealant cure in the mold, characterized in that d) step b) comprises casting of a self-curing potting sealant compound that includes fibers or fiber material pieces; and/or e) a fiber ply is being placed into the mold as a reinforcement layer . a) preparing a mold that is defined on at least a bottom side by the part; b) casting a self-curing potting sealant compound into the mold; and c) levelling the sealant or letting the sealant self-level and letting the sealant cure in the mold, characterized in that d) step b) comprises casting of a self-curing potting sealant compound that includes fibers or fiber material pieces; and/or e) a fiber ply is being placed into the mold as a reinforcement layer .