mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100, 200, 400, 500, 600) including a stack (110, 310) of a plurality of connected tie web sheets (106, 306), wherein each tie web sheet (106, 306) includes a plurality of twist ties (104, 304), each twist tie (104, 304) having a proximal end and a distal end, each twist tie (104, 304) being removably attached to the stack (110, 310) at its proximal end; the apparatus (100, 200, 400, 500, 600) characterized by an image disposed on each of the tie web sheets (106, 306), wherein the image is the same on each tie web sheet (106, 306) and is disposed in overlay registration from sheet (106, 306) to sheet (106, 306). the apparatus (100, 200, 400, 500, 600) characterized by an image disposed on each of the tie web sheets (106, 306), wherein the image is the same on each tie web sheet (106, 306) and is disposed in overlay registration from sheet (106, 306) to sheet (106, 306).
A solid-state imaging device comprising: a substrate having a first charge accumulation region including a first conductivity type region formed in the substrate; an on-chip lens; and a photoelectric conversion region configured to generate signal charges to be accumulated in the first conductivity type region of the first charge accumulation region, the photoelectric conversion region being provided on the substrate and in direct contact with the first charge accumulation region, wherein the photoelectric conversion region consists of a material that comprises a compound semiconductor having a chalcopyrite structure, characterized in that a second charge accumulation region is provided between the on-chip lens and the substrate, the second charge accumulation region is a transparent electrode, the photoelectric conversion region is provided between the first charge accumulation region and the second charge accumulation region, and the material absorbs visible light collected onto the photoelectric conversion region by the on-chip lens such that the material is not transparent to the visible light. a substrate having a first charge accumulation region including a first conductivity type region formed in the substrate; an on-chip lens; and a photoelectric conversion region configured to generate signal charges to be accumulated in the first conductivity type region of the first charge accumulation region, the photoelectric conversion region being provided on the substrate and in direct contact with the first charge accumulation region, wherein the photoelectric conversion region consists of a material that comprises a compound semiconductor having a chalcopyrite structure,
A wind turbine blade aerodynamic appendix, wherein the blade comprises an outer portion with an airfoil having a leading edge, a trailing edge, a pressure side, and a suction side; a substantially cylindrical inner portion; and an intermediate portion between the outer portion and the inner portion and shaped to form a transition between the airfoil and the substantially cylindrical inner portion; the aerodynamic appendix being configured to be located at the inner portion and the intermediate portion, and comprising a further trailing edge, a further pressure side, a further suction side, and being characterized by comprising at least one duct connecting the further pressure side fluidically to the further suction side.
A light comprising - a light head having a light source arranged therein, - a holding element, wherein the light head is mounted rotatably about an axis of rotation on the holding element, wherein the light head has a pivot pin and the holding element has two receiving jaws (4, 5) which are arranged to encompass the pivot pin so that the pivot pin is arranged so as to be rotationally movable about the axis of rotation relative to the receiving jaws (4, 5), characterized in that the light furthermore has a spring element which is arranged to encompass the two receiving jaws (4, 5) in such a way that it compresses the receiving jaws (4, 5) in order to inhibit the rotational mobility of the pivot pin. - a light head having a light source arranged therein, - a holding element, wherein the light head is mounted rotatably about an axis of rotation on the holding element,
A sheet stacker, comprising: - a sheet conveyor arrangement, configured for feeding a plurality of sheets and having a sheet discharge end; - a stacking bay, wherein sheets delivered by the sheet conveyor arrangement are formed into stacks and comprised of a stack conveyor movable in a conveyor direction parallel to a sheet feeding direction, according to which the sheets are fed from the sheet discharge end onto the stack conveyor; wherein the sheet discharge end is configured and controlled such that it is gradually lifted during sheet stacking, in order to accommodate a growing stack of sheets being formed on the stack conveyor; wherein a stop plate is positioned in the stacking bay above the stack conveyor and in front of the sheet discharge end of the sheet conveyor arrangement; and wherein the stop plate is configured and controlled to be gradually lifted from the stack conveyor as the sheet stack grows, to be withdrawn upon completion of the stack, thus allowing removal of the stack in an evacuation direction (fE) substantially parallel to the conveyor direction, away from the sheet discharge end of the sheet conveyor arrangement, and to be lowered towards the stack conveyor again; characterized in that: the sheet conveyor arrangement is supported by a stationary supporting structure comprised of uprights (7, 9), said stationary supporting structure further including uprights and a cross member surrounding the stacking bay; a carriage is slidingly mounted along the cross member; and the stop plate is supported by the carriage. - a sheet conveyor arrangement, configured for feeding a plurality of sheets and having a sheet discharge end; - a stacking bay, wherein sheets delivered by the sheet conveyor arrangement are formed into stacks and comprised of a stack conveyor movable in a conveyor direction parallel to a sheet feeding direction, according to which the sheets are fed from the sheet discharge end onto the stack conveyor;
An antenna system (100,200) comprising: a first reflective surface (102,202); a second reflective surface (104,204); and an intercostal ring (106, 206, 122,124)configured to connect the first reflective surface and the second reflective surface; characterized in that a baffle (110,212) is disposed between the intercostal ring and a path of an electromagnetic wave, wherein the baffle is configured to redirect the electromagnetic wave away from the intercostal ring. a first reflective surface (102,202); a second reflective surface (104,204); and an intercostal ring (106, 206, 122,124)configured to connect the first reflective surface and the second reflective surface; characterized in that a baffle (110,212) is disposed between the intercostal ring and a path of an electromagnetic wave, wherein the baffle is configured to redirect the electromagnetic wave away from the intercostal ring.
Crane for lifting and transporting loads, comprising: - a base frame, capable of transferring the loads of the crane onto a support surface by means of contact means arranged in contact with said surface, such as wheels; - a sliding element which is constrained to the base frame in a sliding manner; - an arm, for moving the loads hinged to the sliding element; the crane being characterized in that it further comprises: - a connection element having a first end, which is hinged to the sliding element, and a second end, which is constrained to the base frame in a mobile manner; - a pair of rod elements, each rod element being hinged to said base frame and to said connection element so as to form an articulated quadrilateral; - a first linear actuator, hinged to the base frame and to the connection element and capable of causing the sliding movement of the sliding element relative to the base frame; - a second linear actuator, hinged to the sliding element and to the arm capable of causing the mutual rotation movement between the arm and the sliding element. - a base frame, capable of transferring the loads of the crane onto a support surface by means of contact means arranged in contact with said surface, such as wheels; - a sliding element which is constrained to the base frame in a sliding manner; - an arm, for moving the loads hinged to the sliding element; the crane being characterized in that it further comprises: - a connection element having a first end, which is hinged to the sliding element, and a second end, which is constrained to the base frame in a mobile manner; - a pair of rod elements, each rod element being hinged to said base frame and to said connection element so as to form an articulated quadrilateral; - a first linear actuator, hinged to the base frame and to the connection element and capable of causing the sliding movement of the sliding element relative to the base frame; - a second linear actuator, hinged to the sliding element and to the arm capable of causing the mutual rotation movement between the arm and the sliding element. - a connection element having a first end, which is hinged to the sliding element, and a second end, which is constrained to the base frame in a mobile manner; - a pair of rod elements, each rod element being hinged to said base frame and to said connection element so as to form an articulated quadrilateral; - a first linear actuator, hinged to the base frame and to the connection element and capable of causing the sliding movement of the sliding element relative to the base frame; - a second linear actuator, hinged to the sliding element and to the arm capable of causing the mutual rotation movement between the arm and the sliding element.
A system, comprising: a first power module (130, 230) configured to be electrically coupled to a plurality of serially coupled battery cells (110, 210) that produce a first amount of voltage when no failure is detected in a first operational state and a second amount of voltage less than the first amount of voltage when in a second operational state in which a failure is detected, the first power module (130, 230) configured to provide a third amount of voltage to a load device by electrically coupling the plurality of serially coupled battery cells (110, 210) to the load device when the plurality of serially coupled battery cells (110, 210) returns to the first operational state, the third amount of voltage is substantially equal to the first amount of voltage; and a second power module (140, 240) including a voltage boost circuit being coupled with an individual diode to each connection between the plurality of serially coupled battery cells (110, 210), the voltage boost circuit being configured to provide a fourth amount of voltage to the load when the plurality of battery cells (110, 210) is in the second operational state, the fourth amount of voltage is substantially equal to the first amount of voltage.
An Ni-based alloy pipe or tube for nuclear power having a wall thickness of 15 to 55 mm, having a chemical composition of, in mass %: 0.010 to 0.025 % C; 0.10 to 0.50 % Si; 0.01 to 0.50 % Mn; up to 0.030 % P; up to 0.002 % S; 52.5 to 65.0 % Ni; 20.0 to 35.0 % Cr; 0.03 to 0.30 % Mo; up to 0.018 % Co; up to 0.015 % Sn; 0.005 to 0.050 % N; 0 to 0.300 % Ti; 0 to 0.200 % Nb; 0 to 0.300 % Ta; 0 % or more and less than 0.03 % Zr; and the balance being Fe and impurities, wherein the Ni-based alloy pipe or tube has a microstructure being an austenite single phase, and the chemical composition satisfies the following equation, Eq.: − 0.0020 ≤ N / 14 − Ti / 47.9 + Nb / 92.9 + Ta / 180.9 + Zr / 91.2 ≤ 0.0015 wherein, for the element symbols in Eq., the contents of the corresponding elements in mass % are substituted. 0.010 to 0.025 % C; 0.10 to 0.50 % Si; 0.01 to 0.50 % Mn; up to 0.030 % P; up to 0.002 % S; 52.5 to 65.0 % Ni; 20.0 to 35.0 % Cr; 0.03 to 0.30 % Mo; up to 0.018 % Co; up to 0.015 % Sn; 0.005 to 0.050 % N; 0 to 0.300 % Ti; 0 to 0.200 % Nb; 0 to 0.300 % Ta; 0 % or more and less than 0.03 % Zr; and the balance being Fe and impurities,
A cell module for a battery of a motor vehicle, with a plurality of battery cells for storing electrical energy, and with a module frame which comprises at least two pressure elements (4, 5) between which the battery cells are arranged, and at least one tension rod (6, 7) which is under tensile stress and is formed from a material, by means of which tension rod the pressure elements (4, 5) are clamped against each other, with the mediation of the battery cells, as a result of which the battery cells are compressed, characterised in that the pressure plates (4, 5) are clamped against each other by means of the tension rod (6, 7) such that a yield point or the 0.2% offset yield strength of the material of the tension rod (6, 7) is attained in the fully charged state of the battery cells.
A method for waking up a Microcontroller Unit MCU, the method comprising: determining whether a second MCU is in a deep sleep state, when a first MCU triggers a communication event of transmitting data to the second MCU; and if the second MCU is in a deep sleep state, sending (102, 202, 303, 403) a wake-up signal to the second MCU via a wake-up pin connected between the first MCU and the second MCU, so as to wake up the second MCU; said method being characterized in that determining whether a second MCU is in a deep sleep state comprises: detecting (2011, 301) a pre-stored state parameter of the second MCU, in which the pre-stored state parameter of the second MCU is determined according to a first state updating message sent by the second MCU; and if the pre-stored state parameter of the second MCU indicates a deep sleep state, determining (2012, 302) that the second MCU is in the deep sleep state; or sending (2013, 401) a detecting message to the second MCU via a communication interface between the first MCU and the second MCU; and if no response message returned from the second MCU is received within a preset period, determining (2014, 402) that the second MCU is in a deep sleep state. determining whether a second MCU is in a deep sleep state, when a first MCU triggers a communication event of transmitting data to the second MCU; and if the second MCU is in a deep sleep state, sending (102, 202, 303, 403) a wake-up signal to the second MCU via a wake-up pin connected between the first MCU and the second MCU, so as to wake up the second MCU; said method being characterized in that determining whether a second MCU is in a deep sleep state comprises: detecting (2011, 301) a pre-stored state parameter of the second MCU, in which the pre-stored state parameter of the second MCU is determined according to a first state updating message sent by the second MCU; and if the pre-stored state parameter of the second MCU indicates a deep sleep state, determining (2012, 302) that the second MCU is in the deep sleep state; or sending (2013, 401) a detecting message to the second MCU via a communication interface between the first MCU and the second MCU; and if no response message returned from the second MCU is received within a preset period, determining (2014, 402) that the second MCU is in a deep sleep state. detecting (2011, 301) a pre-stored state parameter of the second MCU, in which the pre-stored state parameter of the second MCU is determined according to a first state updating message sent by the second MCU; and if the pre-stored state parameter of the second MCU indicates a deep sleep state, determining (2012, 302) that the second MCU is in the deep sleep state; or sending (2013, 401) a detecting message to the second MCU via a communication interface between the first MCU and the second MCU; and if no response message returned from the second MCU is received within a preset period, determining (2014, 402) that the second MCU is in a deep sleep state.
A data processing method, characterized by comprising: when a terminal connects to a remote virtual desktop, obtaining (ski 01) a capability type of the terminal; obtaining (S 102) a service data packet, and recognizing a type of the service data packet; and when the type of the service data packet matches the capability type of the terminal, sending the service data packet to the terminal; and when the type of the service data packet does not match the capability type of the terminal, sending the service data packet to the remote virtual desktop. when a terminal connects to a remote virtual desktop, obtaining (ski 01) a capability type of the terminal; obtaining (S 102) a service data packet, and recognizing a type of the service data packet; and when the type of the service data packet matches the capability type of the terminal, sending the service data packet to the terminal; and when the type of the service data packet does not match the capability type of the terminal, sending the service data packet to the remote virtual desktop.
An injection-moulding tool configured for being mounted in an injection-moulding apparatus for automated moulding of work pieces in plastics, said injection-moulding tool, in its closed position, comprises at least two separate mould parts forming a set of mould cavities, and where the separate mould parts comprises an inlet mould part having a mould inlet and a sprue channel for injection of liquid plastics from the injection-moulding apparatus, and a second mould part, and where the mould parts (2, 3) has abutting side faces facing a common mould separation plane, and where the abutting side faces forms at least one main runner channel extending between the sprue channel and a runner branch where it branches into two or more branched runner channels leading to the mould cavities, and where at least the main runner channel downstream from the sprue channel comprises two flow channels being mutually joined at a runner junction downstream from the sprue channel, characterized in, that in the two flow channels until the runner junction are straight and extending parallel to each other, and being completely or partly separated by a straight separating wall.
A system for the production of glued plant particles, in particular from annual plants, for the production of panels, for example, fiberboard or chipboard, having at least one comminution device for comminuting plant starting material into plant particles that can be spread and having a gluing device for gluing the plant particles, characterized in that at least one first sifting device for separating silicate particles having a diameter of less than 50 μm from the plant particles is arranged between the comminution device and the gluing device.
A movement-limiting device for a turbine engine, comprising: a first fitting including a retention member which comprises a support ledge, a ramp portion extending to the support ledge, and a detent between the ramp portion and the support ledge, the first fitting being configured to be engaged with a fancase surrounding a turbine engine fan blade system; and a second fitting configured to be engaged with a fancowl disposed radially outward of the fancase, the second fitting including a constraint member arranged to be received by the retention member of the first fitting, the retention member being arranged to limit radially outward movement of the fancowl via engagement with the constraint member, and the constraint member comprising: a laterally-extending shaft having opposed ends (320, 325) and a flange (330, 335) engaged with one or more of the opposed ends (320, 325), the shaft being arranged to be received by the support ledge and the flange (330, 335) being arranged to limit lateral movement between the shaft and the support ledge. a first fitting including a retention member which comprises a support ledge, a ramp portion extending to the support ledge, and a detent between the ramp portion and the support ledge, the first fitting being configured to be engaged with a fancase surrounding a turbine engine fan blade system; and a second fitting configured to be engaged with a fancowl disposed radially outward of the fancase, the second fitting including a constraint member arranged to be received by the retention member of the first fitting, the retention member being arranged to limit radially outward movement of the fancowl via engagement with the constraint member, and the constraint member comprising: a laterally-extending shaft having opposed ends (320, 325) and a flange (330, 335) engaged with one or more of the opposed ends (320, 325), the shaft being arranged to be received by the support ledge and the flange (330, 335) being arranged to limit lateral movement between the shaft and the support ledge.
A separator for continuously receiving a pressurized fluid comprising a pressurized gas, the pressurized fluid containing at least one divided solid material and one liquid, the separator being of the type comprising: - a pressurized vessel for separating the pressurized fluid into a flow rich in solid material, and into at least one pressurized flow poor in solid material, the pressurized vessel comprising a pressurized fluid injection inlet, a lower discharge outlet for the pressurized flow rich in solid material, the separator comprising: - at least one first and one second tank (64A, 64B) for depressurizing a pressurized flow rich in solid material, each tank (64A, 64B) defining a closed inner space emerging through an inlet for introducing the pressurized flow rich in solid material and through a depressurization outlet, provided with a depressurization valve; - a distribution manifold, connecting the lower discharge outlet of the vessel and the introduction inlet of each depressurization tank, the distribution manifold being movable between a first configuration for distributing the pressurized flow rich in solid material to at least the first tank and depressurizing at least the second tank, in which the first tank is connected to the pressurized vessel, and the second tank is isolated from the pressurized vessel, and a second configuration for distributing the pressurized flow rich in solid material toward at least the second tank and depressurizing at least the first tank, in which the second tank is connected to the pressurized vessel and the first tank is isolated from the pressurized vessel, characterized in that the pressurized vessel comprises at least one discharge outlet (88, 90) of the or each pressurized flow poor in solid material, the pressurized vessel comprising an upper outlet for discharging a flow rich in pressurized gas. - a pressurized vessel for separating the pressurized fluid into a flow rich in solid material, and into at least one pressurized flow poor in solid material, the pressurized vessel comprising a pressurized fluid injection inlet, a lower discharge outlet for the pressurized flow rich in solid material, - at least one first and one second tank (64A, 64B) for depressurizing a pressurized flow rich in solid material, each tank (64A, 64B) defining a closed inner space emerging through an inlet for introducing the pressurized flow rich in solid material and through a depressurization outlet, provided with a depressurization valve; - a distribution manifold, connecting the lower discharge outlet of the vessel and the introduction inlet of each depressurization tank,