mhurhangee/ep-ind-claims huggingface dataset:
An imaging apparatus comprising: an imaging device comprising a CCD sensor that images an imaging subject, pixels of the imaging device being arrayed in two dimensions and the imaging device being equipped with a pixel addition function that performs pixel addition of a plurality of pixels in a horizontal direction, output from a horizontal transfer path; characterized by control means that control a pulse width of horizontal synchronization signals outputted to the imaging device, such that a feed-through period (T F) and a signal period (T S), in a case in which pixel addition in the horizontal direction is performed at the imaging device and imaging signals are outputted, are longer than a feed-through period (T F) and a signal period (T S), respectively, in a case in which pixel addition in the horizontal direction is not performed at the imaging device; noise reduction processing means (86, 92, 94) that execute noise reduction processing, to reduce effects of noise produced in the imaging signals; wherein the noise reduction processing means (86, 92, 94) comprise multiple sampling means that performs multiple sampling in the longer feed-through period (T F) and the longer signal period (T S) in a case in which pixel addition of a plurality of pixels in the horizontal direction is performed, and pixel value calculation means that calculate a pixel value on the basis of a plurality of first signals multiply sampled in the feed-through period, and a plurality of second signals multiply sampled in the signal period. an imaging device comprising a CCD sensor that images an imaging subject, pixels of the imaging device being arrayed in two dimensions and the imaging device being equipped with a pixel addition function that performs pixel addition of a plurality of pixels in a horizontal direction, output from a horizontal transfer path; characterized by control means that control a pulse width of horizontal synchronization signals outputted to the imaging device, such that a feed-through period (T F) and a signal period (T S), in a case in which pixel addition in the horizontal direction is performed at the imaging device and imaging signals are outputted, are longer than a feed-through period (T F) and a signal period (T S), respectively, in a case in which pixel addition in the horizontal direction is not performed at the imaging device; noise reduction processing means (86, 92, 94) that execute noise reduction processing, to reduce effects of noise produced in the imaging signals; wherein the noise reduction processing means (86, 92, 94) comprise multiple sampling means that performs multiple sampling in the longer feed-through period (T F) and the longer signal period (T S) in a case in which pixel addition of a plurality of pixels in the horizontal direction is performed, and pixel value calculation means that calculate a pixel value on the basis of a plurality of first signals multiply sampled in the feed-through period, and a plurality of second signals multiply sampled in the signal period.
A control system adapted to control a power conversion system connected to an AC power grid, wherein said control system is adapted to receive an externally provided reactive power reference and the control system comprises a controller adapted to control the reactive power fed to the AC grid by said power conversion system and to produce a reactive current reference (Ir_ref), an active current reference (Ia_ref), a total current limiter for producing limited active and reactive current references (Ia_ref_lim, Ir_ref_lim), wherein the total current limiter is adapted to operate in reactive current priority limiting the active current reference when the total current composed of reactive current reference and active current reference exceeds a set limit and means adapted to produce a capacity signal indicating the current capacity of the power conversion system, the capacity signal having a limit value (CS_L), wherein the control system further comprises a minimum reactive power reference tracker adapted to receive the externally provided reactive power reference and the capacity signal, and further adapted to generate an internally generated reactive power reference (Uref2) based on the externally provided reactive power reference, the capacity signal and the limit value set for the capacity signal, which internally generated reactive power reference (Uref2) is adapted to be fed to the controller adapted to control the reactive power fed by the power conversion system to the AC grid, wherein the minimum reactive power reference tracker is adapted to control the internally generated reactive power reference (Uref2) to a value with which the active current reference is not limited.
A low-pressure casting multi-sprue process for an aluminum alloy wheel, characterized in that the casting process adopts a multi-sprue casting method, and a plurality of sprues are arranged at the end of the inner rim of a wheel, so that molten aluminum enters the inner rim first, and then enters from a center sprue after a mold cavity at the rim is full of the molten aluminum, characterized in that during cooling, starting from the outer rim of the wheel filled with the molten aluminum last, side mold ring water coolers are started, and the water coolers are close to the thick portions of the junctions of the spokes of the outer rim and the rim; top mold coolers are also ring water coolers, the water coolers are located on a top mold above the spokes, and a center water cooler is adopted in the center of the top mold to cool the center sprue, wherein by controlling the cooling time and the flow rate, the molten aluminum in the cavity crystallizes in sequence with the cooling of the mold, wherein the crystallization progresses from the outer rim to the rim and the spokes at the same time until the inner rim and the center of the wheel are finally solidified, completing the entire casting process, wherein the side mold ring water coolers and the top mold ring water coolers are 15-40 mm away from the surface of the casting, the flow rate of cooling water is 150-400 L/hr, and the side mold ring water coolers need to be started immediately after the mold cavity is full of the molten aluminum.
Method for producing composite floors, in which timber elements are placed directly adjacent to one another on supports and are connected to one another, wherein a composite floor is produced by applying a concrete layer, and wherein connecting elements are fastened to the timber elements and then reinforcing elements are placed on the connecting elements, characterised in that the reinforcing elements are connected to the connecting elements without play, and in that a connecting element is used in each case for connecting two directly adjacent timber elements and in that a connecting element is inserted into a groove which is formed between two directly adjacent timber elements.
A dispenser comprising: a replaceable cartridge containing a product to be dispensed, the cartridge having a cartridge surface that is marked with a first marking; and a housing configured to removably receive the cartridge, the housing having a housing surface; characterized in that the housing surface is marked with a second marking; and the housing is configured so that, when the cartridge is received by the housing, the first marking and the second marking together form a machine readable code. a replaceable cartridge containing a product to be dispensed, the cartridge having a cartridge surface that is marked with a first marking; and a housing configured to removably receive the cartridge, the housing having a housing surface; characterized in that the housing surface is marked with a second marking; and the housing is configured so that, when the cartridge is received by the housing, the first marking and the second marking together form a machine readable code.
Method of producing a rigid polyurethane-polyisocyanurate foam C from an isocyanate-reactive composition A and an isocyanate component B, wherein said isocyanate-reactive composition A comprises: (i) an aromatic polyester polyol A1 having a hydroxyl number of ≥ 100 mg KOH/g to 350 mg KOH/g, an average OH functionality of ≥ 1.8 to ≤ 6.5, (ii) an aliphatic polyether polyol A2a having a hydroxyl number of ≥ 150 mg KOH/g to ≤ 500 mg KOH/g, an average OH functionality of ≥ 1.5 to ≤ 5.5 and an ethylene oxide content of ≥ 0% by mass to ≤ 50% by mass, based on the overall mass of A2a, and a further aliphatic polyether polyol A2b having a hydroxyl number of ≥ 15 mg KOH/g to ≤ 150 mg KOH/g, an average OH functionality of ≥ 1.5 to ≤ 5.5 and an ethylene oxide content of ≥ 0% by mass to ≤ 50% by mass, based on the overall mass of A2b, (iii)a blowing agent component A3 comprising water in a proportion of ≥ 90% by mass to ≤ 100% by mass, based on the overall mass of A3, (iv) a catalyst component A4 comprising a catalyst A4a to catalyze polyurethane formation and a catalyst A4b to catalyze polyisocyanurate formation, with a proportion of the catalyst A4a of ≥ 5% by mass to ≤ 50% by mass and a proportion of catalyst A4b of ≥ 50% by mass to ≤ 95% by mass based on the total mass of A4, and (v) a chain extender or crosslinker A5 having an average functionality of ≥ 2 to ≤ 4 and a hydroxyl number of ≥ 600 mg KOH/g to ≤ 2000 mg KOH/g. (i) an aromatic polyester polyol A1 having a hydroxyl number of ≥ 100 mg KOH/g to 350 mg KOH/g, an average OH functionality of ≥ 1.8 to ≤ 6.5, (ii) an aliphatic polyether polyol A2a having a hydroxyl number of ≥ 150 mg KOH/g to ≤ 500 mg KOH/g, an average OH functionality of ≥ 1.5 to ≤ 5.5 and an ethylene oxide content of ≥ 0% by mass to ≤ 50% by mass, based on the overall mass of A2a, and a further aliphatic polyether polyol A2b having a hydroxyl number of ≥ 15 mg KOH/g to ≤ 150 mg KOH/g, an average OH functionality of ≥ 1.5 to ≤ 5.5 and an ethylene oxide content of ≥ 0% by mass to ≤ 50% by mass, based on the overall mass of A2b, (iii)a blowing agent component A3 comprising water in a proportion of ≥ 90% by mass to ≤ 100% by mass, based on the overall mass of A3, (iv) a catalyst component A4 comprising a catalyst A4a to catalyze polyurethane formation and a catalyst A4b to catalyze polyisocyanurate formation, with a proportion of the catalyst A4a of ≥ 5% by mass to ≤ 50% by mass and a proportion of catalyst A4b of ≥ 50% by mass to ≤ 95% by mass based on the total mass of A4, and (v) a chain extender or crosslinker A5 having an average functionality of ≥ 2 to ≤ 4 and a hydroxyl number of ≥ 600 mg KOH/g to ≤ 2000 mg KOH/g.
A method of forming a composite part contoured along its length and having at least one leg, comprising: forming a stack of fiber reinforced, pre-preg plies (52, 54, 76) by laying down individual segments (55, 74) of unidirectional fibers in each ply, including placing each of the segments in a preselected orientation related to the contour of the part; placing the stack on a upper flat surface of a forming mandrel such that an outer edge of the stack extends past a curved edge of the forming mandrel and is supported by a layup shelf; subsequently moving the layup shelf such that it no longer supports the outer edge of the stack; and forming the at least one leg (38, 40) by bending the outer edge of the stack over the forming mandrel. forming a stack of fiber reinforced, pre-preg plies (52, 54, 76) by laying down individual segments (55, 74) of unidirectional fibers in each ply, including placing each of the segments in a preselected orientation related to the contour of the part; placing the stack on a upper flat surface of a forming mandrel such that an outer edge of the stack extends past a curved edge of the forming mandrel and is supported by a layup shelf; subsequently moving the layup shelf such that it no longer supports the outer edge of the stack; and forming the at least one leg (38, 40) by bending the outer edge of the stack over the forming mandrel.
A network for maintaining communication, comprising: a plurality of nodes, each node being one of a base transceiver station (fig. 8B: 1-8) and a mobile station and being configured to communicate with other nodes of the plurality of nodes; a plurality of radio modules associated with each node, each radio module being configured to establish a link with a radio module associated with another one of the plurality of nodes; a mobility controller associated with each node, each mobility controller being configured to control the radio modules associated with that node; and a plurality of directional antennas (fig. 4A: 1-8) associated with each node, each directional antenna being configured to maintain one of the links concurrent to another of the antennas to maintain another link, wherein the links are between any combination of base transceiver stations and mobile stations. a plurality of nodes, each node being one of a base transceiver station (fig. 8B: 1-8) and a mobile station and being configured to communicate with other nodes of the plurality of nodes; a plurality of radio modules associated with each node, each radio module being configured to establish a link with a radio module associated with another one of the plurality of nodes; a mobility controller associated with each node, each mobility controller being configured to control the radio modules associated with that node; and a plurality of directional antennas (fig. 4A: 1-8) associated with each node, each directional antenna being configured to maintain one of the links concurrent to another of the antennas to maintain another link, wherein the links are between any combination of base transceiver stations and mobile stations.
An infusion set system comprising; a base (102, 190, 326, 374, 396, 398, 402, 406, 408, 420, 440, 506, 600) attachable on a distal side thereof to a patient at an infusion site, the base comprising: a base post extending proximally from a surface of the base, the base post comprising; a latching portion (113, 333, 381); and a base latch (114, 208, 328, 376, 616) extending proximally from the latching portion; wherein the latching portion has a smaller lateral width than the base latch, and the base post has a plurality of substantially flat side surfaces; and a fluid connector (338, 360, 394) removably coupleable to the base, the fluid connector comprising: a fluid path portion (339, 430), comprising: a cannula (353, 372) extending from a top interior surface of the fluid path portion; and a plurality of internal sidewalls corresponding to at least two of the plurality of the flat side surfaces of the base post, thereby facilitating connection between the base and the fluid connector (338, 360, 394) in a plurality of discrete rotational connecting positions; wherein when the fluid connector(338, 360, 394) is locked to the base, the at least one connector latch engages the latching portion of the base post and restricts proximal displacement of the fluid connector relative to the base characterized in that the fluid connector(338, 360, 394) further comprises: at least one connector latch (342, 386) displaceably connected to the fluid path portion (339, 430), and displaceable relative to the internal sidewalls to a latching position in which at least a portion of the connector latch extends into the fluid path portion (339, 430). a base post extending proximally from a surface of the base, the base post comprising; a latching portion (113, 333, 381); and a base latch (114, 208, 328, 376, 616) extending proximally from the latching portion; a latching portion (113, 333, 381); and a base latch (114, 208, 328, 376, 616) extending proximally from the latching portion; wherein the latching portion has a smaller lateral width than the base latch, and the base post has a plurality of substantially flat side surfaces; and a fluid path portion (339, 430), comprising: a cannula (353, 372) extending from a top interior surface of the fluid path portion; and a plurality of internal sidewalls corresponding to at least two of the plurality of the flat side surfaces of the base post, thereby facilitating connection between the base and the fluid connector (338, 360, 394) in a plurality of discrete rotational connecting positions; a cannula (353, 372) extending from a top interior surface of the fluid path portion; and a plurality of internal sidewalls corresponding to at least two of the plurality of the flat side surfaces of the base post, thereby facilitating connection between the base and the fluid connector (338, 360, 394) in a plurality of discrete rotational connecting positions; at least one connector latch (342, 386) displaceably connected to the fluid path portion (339, 430), and displaceable relative to the internal sidewalls to a latching position in which at least a portion of the connector latch extends into the fluid path portion (339, 430).
A prefabricated column assembly comprising; a hollow tubular column having a longitudinal axis; and a gusset plate assembly comprising a plurality of gusset plates connected to the column and extending laterally outward from the column in planes generally parallel to the longitudinal axis of the column, the gusset plate assembly defining a space for receiving an end portion of a first beam for mounting the first beam to the gusset plate assembly, the gusset plate assembly sandwiching the column and the first beam when the first beam is mounted to the gusset plate assembly, the gusset plate assembly defining a space for receiving an end portion of a second beam for mounting the second beam to the gusset plate assembly, the gusset plate assembly including a plurality of gusset plate subassemblies separately welded to the hollow tubular column, the gusset plate subassemblies defining a first pair of gusset plates sandwiching the column and the first beam when the first beam is mounted on the first pair of gusset plates, and a second pair of the gusset plates extending laterally outward from the column along a second axis that is nonparallel and non-coincident with the first axis, the first and second pairs of gusset plates each intersecting a single plane perpendicular to the longitudinal axis of the column to provide a bi-axial joint connection. a hollow tubular column having a longitudinal axis; and a gusset plate assembly comprising a plurality of gusset plates connected to the column and extending laterally outward from the column in planes generally parallel to the longitudinal axis of the column, the gusset plate assembly defining a space for receiving an end portion of a first beam for mounting the first beam to the gusset plate assembly, the gusset plate assembly sandwiching the column and the first beam when the first beam is mounted to the gusset plate assembly, the gusset plate assembly defining a space for receiving an end portion of a second beam for mounting the second beam to the gusset plate assembly, the gusset plate assembly including a plurality of gusset plate subassemblies separately welded to the hollow tubular column, the gusset plate subassemblies defining a first pair of gusset plates sandwiching the column and the first beam when the first beam is mounted on the first pair of gusset plates, and a second pair of the gusset plates extending laterally outward from the column along a second axis that is nonparallel and non-coincident with the first axis, the first and second pairs of gusset plates each intersecting a single plane perpendicular to the longitudinal axis of the column to provide a bi-axial joint connection.
A method for treating a contaminated fluid; the method comprising the steps of: transporting a contaminated fluid and treating agents into a processing tank by way of at least one pump-mixer; and wherein said treating agents include a coagulant, an adsorbent and at least one oxidant or disinfectant which are introduced one by one into the contaminated fluid prior to the pump mixer, and wherein said pump-mixer causes rapid and vigorous mixing of said contaminated fluid and said treating agents (312, 313, 314) thereby forming a uniform dispersion of the treating agents in the contaminated fluid; wherein said uniform dispersion enters an integrated processing tank, wherein treatment processes of coagulation, adsorption and oxidation/disinfection are completed in parallel and separating process residuals in form of sludge in said processing tank, and extracting said sludge from the treated fluid from said dual function separation and processing tank. transporting a contaminated fluid and treating agents into a processing tank by way of at least one pump-mixer; and wherein said treating agents include a coagulant, an adsorbent and at least one oxidant or disinfectant which are introduced one by one into the contaminated fluid prior to the pump mixer, and wherein said pump-mixer causes rapid and vigorous mixing of said contaminated fluid and said treating agents (312, 313, 314) thereby forming a uniform dispersion of the treating agents in the contaminated fluid; wherein said uniform dispersion enters an integrated processing tank, wherein treatment processes of coagulation, adsorption and oxidation/disinfection are completed in parallel and separating process residuals in form of sludge in said processing tank, and
A pump liner for a centrifugal pump comprising two side parts (26, 28) which can be fitted together so that the pump liner comprises: a main pumping chamber having an inner peripheral surface; an inlet to the main pumping chamber; a discharge outlet extending from the main pumping chamber, the discharge outlet having an inner peripheral surface; and a transition portion arranged at a transition between the main pumping chamber and the discharge outlet, said transition portion having: a transition surface between the inner peripheral surfaces (37, 39) of said pumping chamber and said discharge outlet; and a cutwater; wherein each of said side parts (26, 28) comprises a part of the main pumping chamber, the discharge outlet and the transition portion; characterised in that: each part of said transition portion has reinforcement associated therewith provided in the region of the cutwater, said reinforcement including a projection on one of the parts of the transition portion and a co-operating recess on the other of the parts of the transition portion, the projection being receivable within the recess when the side parts are fitted together. a main pumping chamber having an inner peripheral surface; an inlet to the main pumping chamber; a discharge outlet extending from the main pumping chamber, the discharge outlet having an inner peripheral surface; and a transition portion arranged at a transition between the main pumping chamber and the discharge outlet, said transition portion having: a transition surface between the inner peripheral surfaces (37, 39) of said pumping chamber and said discharge outlet; and a cutwater; a transition surface between the inner peripheral surfaces (37, 39) of said pumping chamber and said discharge outlet; and a cutwater;