mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a batch of metal parts, characterised in that it comprises the following steps: a. obtaining a substrate having an electrically conductive upper face; b. structuring a layer of photosensitive resin deposited onto the substrate so as to manufacture a mould having cavities, the upper face of the substrate forming the base thereof; c. filling the cavities of the mould with metal by electrodeposition so as to form a batch of metal parts integrated in the mould, the mould and the metal parts forming a structure comprising a lower surface adhered to the upper face of the substrate, and an upper surface; d. releasing the structure from the substrate; e. with the upper surface of the structure having previously been made level during a first mechanical machining step, fixing the structure upside-down on a support such that it is the upper surface of the structure which faces the support and the lower surface which is exposed; f. shaping the lower surface of the structure during a second mechanical machining step before releasing the structure from the support; g. releasing the metal parts from the mould. a. obtaining a substrate having an electrically conductive upper face; b. structuring a layer of photosensitive resin deposited onto the substrate so as to manufacture a mould having cavities, the upper face of the substrate forming the base thereof; c. filling the cavities of the mould with metal by electrodeposition so as to form a batch of metal parts integrated in the mould, the mould and the metal parts forming a structure comprising a lower surface adhered to the upper face of the substrate, and an upper surface; d. releasing the structure from the substrate; e. with the upper surface of the structure having previously been made level during a first mechanical machining step, fixing the structure upside-down on a support such that it is the upper surface of the structure which faces the support and the lower surface which is exposed; f. shaping the lower surface of the structure during a second mechanical machining step before releasing the structure from the support; g. releasing the metal parts from the mould.
A method, performed by a base station, for transmitting data in a wireless communication system supporting spatial multiplexing through channels of a plurality of carriers, the method comprising: determining a user equipment, UE, candidate group set based on channel state information for the channels of the plurality of carriers; determining an offset used to adjust a number of UEs of the UE candidate group set, based on frequency selectivity information between a representative channel selected from among the channels of the plurality of carriers and other channels of the plurality of carriers; determining a plurality of UEs to which the data is to be transmitted, based on the offset; and transmitting the data to the determined plurality of UEs. determining a user equipment, UE, candidate group set based on channel state information for the channels of the plurality of carriers; determining an offset used to adjust a number of UEs of the UE candidate group set, based on frequency selectivity information between a representative channel selected from among the channels of the plurality of carriers and other channels of the plurality of carriers; determining a plurality of UEs to which the data is to be transmitted, based on the offset; and transmitting the data to the determined plurality of UEs.
An infrared window assembly 10 mounted in an aperture provided in a housing for apparatus subjected to infrared inspection, the assembly 10 comprising: - a frame 25 mounted in the aperture in the housing; - a viewing pane 11 mounted in the frame 25 and formed from an infrared transmitting material, the pane 11 having two generally opposed surfaces 14; and - a first protective grille 12 providing mechanical support to the pane 11 and lying against one of said opposed surfaces 14 and having an array of holes 20 formed therethrough that permit infrared inspection through the pane 11 from the outside of the housing of the apparatus within the housing, characterized by a second grille 13, which is substantially the same as the first grille 12, and is lying against the other of the opposed faces 14. - a frame 25 mounted in the aperture in the housing; - a viewing pane 11 mounted in the frame 25 and formed from an infrared transmitting material, the pane 11 having two generally opposed surfaces 14; and - a first protective grille 12 providing mechanical support to the pane 11 and lying against one of said opposed surfaces 14 and having an array of holes 20 formed therethrough that permit infrared inspection through the pane 11 from the outside of the housing of the apparatus within the housing, characterized by a second grille 13, which is substantially the same as the first grille 12, and is lying against the other of the opposed faces 14.
Method for operating at least one wind turbine, the wind turbine being electrically coupled to a power-to-gas converter and an electric grid, wherein a control unit determines a power level for the power generated by at least one generator of the at least one wind turbine and at least partially feeds the generated power to the power-to-gas converter when the determined power level reaches or exceeds a given lower threshold value, characterized in that the amount of power fed to the power-to-gas converter is kept constant when the determined power level reaches or exceeds a given upper threshold value.
A display device comprising: a bendable display panel including a substrate and a plurality of pad portions on the substrate, the display panel including a display area for displaying an image and a non-display area adjacent to the display area, the plurality of pad portions being arranged along a first direction in the non-display area, wherein the substrate includes a cutout, the cutout being located between adjacent pad portions of the plurality of pad portions, the display panel includes a bending area between the display area and the pad portions, and the bending area is bendable with respect to a bending axis extending in the first direction, characterized in that the display panel includes a plurality of wiring fan-outs between the pad portions and the bending area, a separation between adjacent wiring fan-outs of the plurality of wiring fan-outs becomes gradually narrower from the pad portions toward the display area of the display panel, and the cutout extends to a region between adjacent wiring fan-outs. a bendable display panel including a substrate and a plurality of pad portions on the substrate, the display panel including a display area for displaying an image and a non-display area adjacent to the display area, the plurality of pad portions being arranged along a first direction in the non-display area, wherein the substrate includes a cutout, the cutout being located between adjacent pad portions of the plurality of pad portions, the display panel includes a bending area between the display area and the pad portions, and the bending area is bendable with respect to a bending axis extending in the first direction, characterized in that the display panel includes a plurality of wiring fan-outs between the pad portions and the bending area, a separation between adjacent wiring fan-outs of the plurality of wiring fan-outs becomes gradually narrower from the pad portions toward the display area of the display panel, and the cutout extends to a region between adjacent wiring fan-outs.
A battery module, which includes at least one battery cell and a module case for packaging the at least one battery cell, wherein the module case includes: a top cover configured to cover an upper side of the at least one battery cell; and a side plate configured to cover all of both side surfaces of the top cover and both side surfaces of the at least one battery cell and coupled to the top cover by fitting, wherein at least one fitting rib fitted with the side plate is formed at both side surfaces of the top cover; and wherein the fitting rib is provided in plural, and wherein the plurality of fitting ribs are disposed to be spaced apart from each other by a predetermined distance to form a predetermined gap therebetween. a top cover configured to cover an upper side of the at least one battery cell; and a side plate configured to cover all of both side surfaces of the top cover and both side surfaces of the at least one battery cell and coupled to the top cover by fitting, wherein at least one fitting rib fitted with the side plate is formed at both side surfaces of the top cover; and
A method for carrying out an automatic brake test on a train, which comprises a number of carriages (a, b, c) provided with pneumatic-mechanical brakes, wherein the pneumatic-mechanical brakes have a brake control valve controlled by a main air pipe and a pneumatically operated brake cylinder, the brake cylinder pressure of which being controlled by the brake control valve, wherein the brake cylinder transfers the brake cylinder pressure via mechanical components of the brake such as, e.g., a brake leverage, onto a brake pad, in particular a brake block or brake shoes, and in this way generates the brake power of the brake, wherein each carriage is equipped with an evaluation unit, wherein the brake cylinder pressure is measured at each carriage, evaluated by the evaluation unit and transferred to a central device, characterized in that at each carriage the brake power caused by the brake cylinder pressure is measured, evaluated by the evaluation unit and transferred to the central device and that the evaluation units and the central device communicate with one another via a local radio network through communication devices arranged at the carriage, wherein the communication between the central device and the evaluation units is limited to the evaluation units of those carriages (a, b, c), which are contained in a carriage list (WL a, b, c) defining the train.
A system for attaching a gutter profile and a rod for a greenhouse to each other, comprising a gutter profile made of extruded aluminium and provided with a through-hole in a wall thereof, a rod made of extruded aluminium which is mountable to the gutter profile such that in a mounted condition the rod is supported by the gutter profile and extends transversely with respect to the gutter profile, a rigid locking element for interlocking the rod and the gutter profile in longitudinal direction of the gutter profile, wherein the locking element comprises a protruding portion which fits in said through-hole and a fixation portion which is attachable to an end portion of the rod, and wherein in the mounted condition the protruding portion extends through said through-hole, characterized in that the fixation portion is slidably mountable to the rod in a direction which is transversely with respect to the longitudinal direction of the gutter profile in the mounted condition.
A layered photonic integrated circuit (300a, 300b), comprising: a substrate including a buried oxide layer, the buried oxide layer having a top surface that defines a plane extending in a lateral direction; a first waveguide (302a, 302b) positioned on a top side of the plane, wherein the first waveguide is included in a first device having a first thermal operating condition; a first region positioned below the first waveguide (302a, 302b), the first region being aligned with the first waveguide (302a, 302b) in a direction perpendicular to the lateral direction and having a first thermal conductivity, wherein the first region extends fully through the buried oxide layer to the plane; a second waveguide (304a, 304b) positioned on the top side of the plane and laterally offset from the first waveguide (302a, 302b), wherein the second waveguide is included in a second device having a second thermal operating condition different from the first thermal operating condition; and a second region positioned below the second waveguide (304a, 304b), the second region being aligned with the second waveguide (304a, 304b) in a direction perpendicular to the lateral direction and having a second thermal conductivity different from the first thermal conductivity, wherein the second region extends either only partially through the buried oxide layer toward the plane or fully through the buried oxide layer to the plane. a substrate including a buried oxide layer, the buried oxide layer having a top surface that defines a plane extending in a lateral direction; a first waveguide (302a, 302b) positioned on a top side of the plane, wherein the first waveguide is included in a first device having a first thermal operating condition; a first region positioned below the first waveguide (302a, 302b), the first region being aligned with the first waveguide (302a, 302b) in a direction perpendicular to the lateral direction and having a first thermal conductivity, wherein the first region extends fully through the buried oxide layer to the plane; a second waveguide (304a, 304b) positioned on the top side of the plane and laterally offset from the first waveguide (302a, 302b), wherein the second waveguide is included in a second device having a second thermal operating condition different from the first thermal operating condition; and a second region positioned below the second waveguide (304a, 304b), the second region being aligned with the second waveguide (304a, 304b) in a direction perpendicular to the lateral direction and having a second thermal conductivity different from the first thermal conductivity, wherein the second region extends either only partially through the buried oxide layer toward the plane or fully through the buried oxide layer to the plane.
A device for communicating with one or more Wi-Fi devices based on an availability schedule, the device comprising storage and processing circuitry configured to: announce a first availability schedule to a second device that indicates one or more time slots during which communication with the device is allowed; identify a second availability schedule received from the second device; determine that the second availability schedule indicates a first availability window and a second availability window, wherein the second device is available for communication with the device during the first availability window and is not available for communication with the device during the second availability window; identify a third availability schedule received from the second device after announcing the first availability schedule and after receiving the second availability schedule, wherein the third availability schedule is an adjusted communication schedule based at least in part on the first availability schedule; determine that the third availability schedule indicates a third availability window and a fourth availability window, wherein the second device is available for communication with the device during the third availability window and is not available for communication with the device during the fourth availability window; and cause to send one or more frames to the second device during the third availability window. announce a first availability schedule to a second device that indicates one or more time slots during which communication with the device is allowed; identify a second availability schedule received from the second device; determine that the second availability schedule indicates a first availability window and a second availability window, wherein the second device is available for communication with the device during the first availability window and is not available for communication with the device during the second availability window; identify a third availability schedule received from the second device after announcing the first availability schedule and after receiving the second availability schedule, wherein the third availability schedule is an adjusted communication schedule based at least in part on the first availability schedule; determine that the third availability schedule indicates a third availability window and a fourth availability window, wherein the second device is available for communication with the device during the third availability window and is not available for communication with the device during the fourth availability window; and cause to send one or more frames to the second device during the third availability window.
A process comprising: distilling a crude acetone mixture containing hydrocarbons and water so as to form a bottoms fraction containing cumene and/or α-methyl styrene in an organic phase, and an aqueous phase; contacting at least a part of said bottoms fraction with an aqueous metal hydroxide solution so as to provide a concentration of 0.1 to 5wt% MOH, where M is an alkali metal, in the aqueous phase; separating the aqueous phase and the organic phase; contacting at least a part the organic phase from step with an aqueous metal hydroxide solution so as to provide a concentration of 6 to 20 wt% MOH, where M is an alkali metal, in the aqueous phase; separating the organic phase and aqueous phase formed in step; washing at least a part of the organic phase of step with water. distilling a crude acetone mixture containing hydrocarbons and water so as to form a bottoms fraction containing cumene and/or α-methyl styrene in an organic phase, and an aqueous phase; contacting at least a part of said bottoms fraction with an aqueous metal hydroxide solution so as to provide a concentration of 0.1 to 5wt% MOH, where M is an alkali metal, in the aqueous phase; separating the aqueous phase and the organic phase; contacting at least a part the organic phase from step with an aqueous metal hydroxide solution so as to provide a concentration of 6 to 20 wt% MOH, where M is an alkali metal, in the aqueous phase; separating the organic phase and aqueous phase formed in step; washing at least a part of the organic phase of step with water.
An aerosol-generating system having a mouth end and a distal end, the system comprising: a liquid storage portion suitable for containing an aerosol-generating substrate; a heating element configured to heat an aerosol-generating substrate; a cover disposed over at least the liquid storage portion; and one or more airflow channels between the cover and the liquid storage portion, wherein the system defines an aerosol flow path that extends at least from the heating element to the mouth end of the system, and system further defines an airflow path through the one or more channels extending from at least the liquid storage portion to the mouth end of the system. a liquid storage portion suitable for containing an aerosol-generating substrate; a heating element configured to heat an aerosol-generating substrate; a cover disposed over at least the liquid storage portion; and one or more airflow channels between the cover and the liquid storage portion, wherein the system defines an aerosol flow path that extends at least from the heating element to the mouth end of the system, and system further defines an airflow path through the one or more channels extending from at least the liquid storage portion to the mouth end of the system.
A deterioration diagnosis apparatus of a battery, the deterioration diagnosis apparatus comprising one or more processors configured to: execute discharging of each of a plurality of cells included in an assembled battery while measuring a voltage of each of the cells; estimate a deterioration degree of each of the cells included in the assembled battery using voltage data indicating a transition of the voltage of each of the cells included in the assembled battery from a discharging start voltage to a predetermined discharging end voltage (V end), the predetermined discharging end voltage (V end) being a cell voltage at which a change degree of the cell voltage per unit discharging amount starts to sharply rise while the cell voltage is dropping due to the discharging; and end the discharging when voltages of all the cells included in the assembled battery reach the predetermined discharging end voltage (V end). execute discharging of each of a plurality of cells included in an assembled battery while measuring a voltage of each of the cells; estimate a deterioration degree of each of the cells included in the assembled battery using voltage data indicating a transition of the voltage of each of the cells included in the assembled battery from a discharging start voltage to a predetermined discharging end voltage (V end), the predetermined discharging end voltage (V end) being a cell voltage at which a change degree of the cell voltage per unit discharging amount starts to sharply rise while the cell voltage is dropping due to the discharging; and end the discharging when voltages of all the cells included in the assembled battery reach the predetermined discharging end voltage (V end).
A transgenic plant comprising DNA encoding and expressing a Cryl Da insecticidal protein and DNA encoding and expressing a Cryl Be insecticidal protein.
Heat-sealing coated flexible textile, for producing a fire barrier zone on roofs, characterized in that it consists of a glass-fibre textile mesh coated on its two faces with a polymeric material having a softening range, measured by the Kofler bench method, of between 100°C and 250°C, said polymeric material being coated at a weight of between 12 and 25 g/m 2 per face and comprising: - firstly, a polyurethane prepared and used in the solvent phase and not comprising an ionic function, and secondly, - a fire retardant consisting of a phosphorus-containing compound, and/or - a mineral filler chosen from zinc salts or aluminium salts, alone or as a mixture. - firstly, a polyurethane prepared and used in the solvent phase and not comprising an ionic function, and secondly, - a fire retardant consisting of a phosphorus-containing compound, and/or - a mineral filler chosen from zinc salts or aluminium salts, alone or as a mixture.
A method of facilitating optimization of a multimodal radiation therapy plan employing a combined photon beam and electron beam radiation treatment, the method being performed by a radiation treatment system and comprising: obtaining information related to a set of candidate beam types for the combined photon beam and electron beam radiation treatment, each candidate beam type of the set of candidate beam types including one or more beam type parameters; comparing the set of candidate beam types against a selection criterion to establish a subset of beam types from the candidate beam types, wherein the selection criterion imposes a requirement such that only a limited number of beam types qualify as the subset of beam types for subsequent utilization in the combined photon beam and electron beam radiation treatment plan; generating the combined photon beam and electron beam radiation treatment plan utilizing only the established subset of beam types; and concurrently optimizing a dose delivery from a photon therapy device and an electron therapy device applying the generated combined photon beam and electron beam radiation treatment plan. obtaining information related to a set of candidate beam types for the combined photon beam and electron beam radiation treatment, each candidate beam type of the set of candidate beam types including one or more beam type parameters; comparing the set of candidate beam types against a selection criterion to establish a subset of beam types from the candidate beam types, wherein the selection criterion imposes a requirement such that only a limited number of beam types qualify as the subset of beam types for subsequent utilization in the combined photon beam and electron beam radiation treatment plan; generating the combined photon beam and electron beam radiation treatment plan utilizing only the established subset of beam types; and concurrently optimizing a dose delivery from a photon therapy device and an electron therapy device applying the generated combined photon beam and electron beam radiation treatment plan.