mhurhangee/ep-ind-claims huggingface dataset:
A flowmeter comprising: a fluid collection chamber for receiving a fluid flow; an adjustable collection tube disposed within the fluid collection chamber, wherein the adjustable collection tube is configured to receive a portion of the fluid flow to generate one or more first measured parameters of a plurality of measured parameters of the fluid flow; a sampling chamber in fluid communication with the fluid collection chamber through multiple openings to receive, through the multiple openings, the fluid flow from the fluid collection chamber, wherein the sampling chamber is configured to measure samples of the fluid flow to generate one or more second measured parameters of the plurality of measured parameters of the fluid flow; and a control module in signal communication with the adjustable collection tube and the sampling chamber and comprising one or more processors by which the control module is configured to automatically perform operations comprising: determining a plurality of output parameters of the fluid flow based on the plurality of measured parameters and a plurality of input parameters, and controlling a size of the adjustable collection tube based on a property of the fluid flow. a fluid collection chamber for receiving a fluid flow; an adjustable collection tube disposed within the fluid collection chamber, wherein the adjustable collection tube is configured to receive a portion of the fluid flow to generate one or more first measured parameters of a plurality of measured parameters of the fluid flow; a sampling chamber in fluid communication with the fluid collection chamber through multiple openings to receive, through the multiple openings, the fluid flow from the fluid collection chamber, wherein the sampling chamber is configured to measure samples of the fluid flow to generate one or more second measured parameters of the plurality of measured parameters of the fluid flow; and a control module in signal communication with the adjustable collection tube and the sampling chamber and comprising one or more processors by which the control module is configured to automatically perform operations comprising: determining a plurality of output parameters of the fluid flow based on the plurality of measured parameters and a plurality of input parameters, and controlling a size of the adjustable collection tube based on a property of the fluid flow. determining a plurality of output parameters of the fluid flow based on the plurality of measured parameters and a plurality of input parameters, and controlling a size of the adjustable collection tube based on a property of the fluid flow.
A door assembly having a flexible door panel wound and unwound on a drum or the like to selectively block or permit access through an opening, the flexible door panel having a stiffness, a width, and a length to permit and prohibit access through the opening, the door assembly comprising: side columns (12, 14) disposed on opposite sides of the opening, the side columns (12, 14) extending vertically a distance along a portion of the opening and engaging a marginal edge of the flexible door panel to guide the flexible door panel during vertical movement as the flexible door panel opens and closes the opening; a bottom bar attached to a leading edge of the flexible door panel, the bottom bar having a greater stiffness than the flexible door panel and a narrower width than a distance between the side columns (12, 14); characterized by bottom bar guides (26, 28) being disposed proximate a lower portion of the opening, the bottom bar guides (26, 28) being configured to engage a portion of the bottom bar only when the flexible door panel is located in at least a partially closed position. side columns (12, 14) disposed on opposite sides of the opening, the side columns (12, 14) extending vertically a distance along a portion of the opening and engaging a marginal edge of the flexible door panel to guide the flexible door panel during vertical movement as the flexible door panel opens and closes the opening; a bottom bar attached to a leading edge of the flexible door panel, the bottom bar having a greater stiffness than the flexible door panel and a narrower width than a distance between the side columns (12, 14); characterized by bottom bar guides (26, 28) being disposed proximate a lower portion of the opening, the bottom bar guides (26, 28) being configured to engage a portion of the bottom bar only when the flexible door panel is located in at least a partially closed position.
A turbine blade or vane having a showerhead cooling hole layout (400; 600; 700; 800) disposed on a leading edge thereof, comprising: a pressure side row of radially disposed showerhead cooling holes, wherein a breakout of the pressure side row of radially disposed showerhead cooling holes comprise a greater deflection in a γ direction than in a δ direction, where γ and δ are lateral directions; a second row of radially disposed showerhead cooling holes, wherein a breakout of the second row of radially disposed showerhead cooling holes comprise about 0 to 5 degrees of deflection in the γ direction and the δ direction; and a suction side row of radially disposed showerhead cooling holes, wherein a breakout of the suction side row of radially disposed showerhead cooling holes comprise a greater deflection in the δ direction than in the γ direction; and characterised by further comprising a third row of radially disposed showerhead cooling holes, wherein the breakout of the third row of radially disposed showerhead cooling holes comprise about 0 to 5 degrees of deflection in the γ direction and the δ direction. a pressure side row of radially disposed showerhead cooling holes, wherein a breakout of the pressure side row of radially disposed showerhead cooling holes comprise a greater deflection in a γ direction than in a δ direction, where γ and δ are lateral directions; a second row of radially disposed showerhead cooling holes, wherein a breakout of the second row of radially disposed showerhead cooling holes comprise about 0 to 5 degrees of deflection in the γ direction and the δ direction; and a suction side row of radially disposed showerhead cooling holes, wherein a breakout of the suction side row of radially disposed showerhead cooling holes comprise a greater deflection in the δ direction than in the γ direction; and characterised by further comprising a third row of radially disposed showerhead cooling holes, wherein the breakout of the third row of radially disposed showerhead cooling holes comprise about 0 to 5 degrees of deflection in the γ direction and the δ direction.
A charged particle energy analyser for simultaneous detection of charged particles within a range of energies, the analyser comprising: inner and outer cylindrically symmetric electrodes (11, 12) arranged coaxially on a longitudinal axis (Z-Z), the inner cylindrically symmetric electrode having a circumference of radius R1, biasing means for supplying voltage to the inner and outer cylindrically symmetric electrodes (11, 12) to create an electrostatic focusing field between the electrodes (11,12), a charged particle source for introducing charged particles into the electrostatic focusing field for analysis, and a detector (17, 50) for detecting charged particles focused by the electrostatic focusing field, wherein the detector (17, 50) is substantially parallel to the longitudinal axis (Z-Z), characterised in that the detector (17, 50) has a charged particle-receiving detection surface located off-axis, at a radial spacing from the longitudinal axis (Z-Z) less than said radius R1, wherein said radial spacing from the longitudinal axis (Z-Z) is in the range from 0.1R1 to 0.8R1. inner and outer cylindrically symmetric electrodes (11, 12) arranged coaxially on a longitudinal axis (Z-Z), the inner cylindrically symmetric electrode having a circumference of radius R1, biasing means for supplying voltage to the inner and outer cylindrically symmetric electrodes (11, 12) to create an electrostatic focusing field between the electrodes (11,12), a charged particle source for introducing charged particles into the electrostatic focusing field for analysis, and a detector (17, 50) for detecting charged particles focused by the electrostatic focusing field, wherein the detector (17, 50) is substantially parallel to the longitudinal axis (Z-Z), characterised in that the detector (17, 50) has a charged particle-receiving detection surface located off-axis, at a radial spacing from the longitudinal axis (Z-Z) less than said radius R1, wherein said radial spacing from the longitudinal axis (Z-Z) is in the range from 0.1R1 to 0.8R1.
Single- or double-sided adhesive tape comprising curable adhesive composition for encapsulation of an electronic or optoelectronic arrangement against permeants, composed of the following components: 20% to 99.9% by weight (based on the entirety of the curable adhesive composition) of a (co)polymer functionalized with epoxy groups and having a weight-average molar mass in the region of at least 5000 g/mol, determined by GPC by test method C, based on more than 30% to 100% by weight, preferably 50% to 100% by weight, (based on the entirety of the parent monomers of the epoxy-functionalized (co)polymer) of at least one type of (meth)acrylic (co)monomer (a) functionalized with an epoxy group, 0.1% to 5% by weight (based on the entirety of the curable adhesive composition) of at least one curing agent that can induce the curing - especially cationic curing - of the (co)polymer with reaction of its epoxy groups by thermal means and/or by supply of UV radiation, optionally 0% to 79.9% by weight of further constituents. 20% to 99.9% by weight (based on the entirety of the curable adhesive composition) of a (co)polymer functionalized with epoxy groups and having a weight-average molar mass in the region of at least 5000 g/mol, determined by GPC by test method C, based on more than 30% to 100% by weight, preferably 50% to 100% by weight, (based on the entirety of the parent monomers of the epoxy-functionalized (co)polymer) of at least one type of (meth)acrylic (co)monomer (a) functionalized with an epoxy group, 0.1% to 5% by weight (based on the entirety of the curable adhesive composition) of at least one curing agent that can induce the curing - especially cationic curing - of the (co)polymer with reaction of its epoxy groups by thermal means and/or by supply of UV radiation, optionally 0% to 79.9% by weight of further constituents.
A method comprising: a downstream controller of a security system transmitting an advertisement of a service type of the downstream controller on a sub-network; a first gateway controller of the security system detecting the advertisement and authenticating the downstream controller as being part of a service group corresponding to the service type; the first gateway controller sending a connection request to the downstream controller; the first gateway controller and the downstream controller establishing an L4 connection based upon the connection request; the first gateway controller and the downstream controller establishing an L5 session channel through the L4 connection; the first gateway controller saving identifying characteristics of the downstream controller contained in the advertisement in a system map table and a service status table associated with the service group; the downstream controller saving data regarding the L4 connection in a gateway status file of a memory of the downstream controller, wherein the data regarding the L4 connection includes at least a first MAC address of the first gateway controller; and the downstream controller rejecting a second connection from a second gateway controller when a second MAC address of the second gateway controller received by the downstream controller does not match the first MAC address of the first gateway controller stored in the gateway status file. a downstream controller of a security system transmitting an advertisement of a service type of the downstream controller on a sub-network; a first gateway controller of the security system detecting the advertisement and authenticating the downstream controller as being part of a service group corresponding to the service type; the first gateway controller sending a connection request to the downstream controller; the first gateway controller and the downstream controller establishing an L4 connection based upon the connection request; the first gateway controller and the downstream controller establishing an L5 session channel through the L4 connection; the first gateway controller saving identifying characteristics of the downstream controller contained in the advertisement in a system map table and a service status table associated with the service group; the downstream controller saving data regarding the L4 connection in a gateway status file of a memory of the downstream controller, wherein the data regarding the L4 connection includes at least a first MAC address of the first gateway controller; and the downstream controller rejecting a second connection from a second gateway controller when a second MAC address of the second gateway controller received by the downstream controller does not match the first MAC address of the first gateway controller stored in the gateway status file.
A uniaxially oriented film comprising: (a) a first layer comprising a polyolefin plastomer having a density of 0.865 to 0.908 g/cm 3 and a melt index (I 2) of 0.5-6 g/10 minutes, and at least one of a single-site catalyzed linear low density polyethylene having a density of 0.912 g/cm 3 to 0.935 g/cm 3 and a melt index (I 2) of 0.5 to 6 g/10 minutes, or a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; (b) a second layer comprising a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; and (c) at least one inner layer between the first layer and the second layer comprising at least one polyolefin, wherein the film is oriented in the machine direction at a draw ratio of between 4:1 and 10:1, and wherein the film exhibits a machine direction 2% secant modulus of 586 MPa (85,000 psi) or more when measured as per ASTM D882. (a) a first layer comprising a polyolefin plastomer having a density of 0.865 to 0.908 g/cm 3 and a melt index (I 2) of 0.5-6 g/10 minutes, and at least one of a single-site catalyzed linear low density polyethylene having a density of 0.912 g/cm 3 to 0.935 g/cm 3 and a melt index (I 2) of 0.5 to 6 g/10 minutes, or a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; (b) a second layer comprising a Ziegler-Natta catalyzed ultra low density polyethylene having a density of 0.880 g/cm 3 to 0.912 g/cm 3, a melt index (I 2) of 0.5 to 6 g/10 minutes, and a MWD of 6.0 or less; and (c) at least one inner layer between the first layer and the second layer comprising at least one polyolefin, wherein the film is oriented in the machine direction at a draw ratio of between 4:1 and 10:1, and wherein the film exhibits a machine direction 2% secant modulus of 586 MPa (85,000 psi) or more when measured as per ASTM D882.
Pretreatment installation for carrying out pretreatments of workpieces for surface treatments, with a pretreatment chamber for receiving the workpieces during the pretreatment, and a distributor unit for distributing the pretreatment media in the pretreatment chamber, wherein the distributor unit comprises a distribution line for distributing the pretreatment media in the horizontal direction (X, Y), wherein the distribution line comprises a plurality of dispensing devices for dispensing the pretreatment media into a pretreatment region inside the pretreatment chamber, wherein the flow path for the liquid media of the distribution line has a constant drop towards the emptying device for emptying the distribution line, characterised in that the distributor unit can be moved vertically in the pretreatment chamber wherein the distributor unit is arranged in a ring around the pretreatment region.
Sheet folding machine with waste paper ejection, comprising a sheet feeder which generates a stream of sheets, a first folding station and a further station, the first folding station comprising at least one buckle plate and at least two folding rollers for folding the sheets, and a monitoring device, a control device and an ejection device, wherein the monitoring device monitors the stream for errors and the control device activates the ejection device to eject waste material if an error is detected, characterized in that the control device is arranged at the infeed area of the buckle plate and controls the stream in the buckle plate, and in that the ejection device is arranged after the first folding station and before the further station. a sheet feeder which generates a stream of sheets, a first folding station and a further station, the first folding station comprising at least one buckle plate and at least two folding rollers for folding the sheets, and a monitoring device, a control device and an ejection device, wherein the monitoring device monitors the stream for errors and the control device activates the ejection device to eject waste material if an error is detected, characterized in that the control device is arranged at the infeed area of the buckle plate and controls the stream in the buckle plate, and in that the ejection device is arranged after the first folding station and before the further station.
A check valve comprising: a valve housing defining a pair of valve openings; a pair of flapper elements pivotably mounted to at least one hinge pin for rotation relative to the housing between an open position in which they permit fluid flow through the respective valve openings and a closed position in which they prevent fluid flow through the valve openings; and at least one hinge pin receiving post (30, 30', 30") extending upwardly from the valve housing; wherein the at least one hinge pin receiving post (30, 30', 30") comprises a first, lower end portion having an opening for receiving the at least one hinge pin, a second, upper end portion and a flexible portion intermediate the end portions (32, 34); characterized in that the flexible portion is serpentine. a valve housing defining a pair of valve openings; a pair of flapper elements pivotably mounted to at least one hinge pin for rotation relative to the housing between an open position in which they permit fluid flow through the respective valve openings and a closed position in which they prevent fluid flow through the valve openings; and at least one hinge pin receiving post (30, 30', 30") extending upwardly from the valve housing; wherein the at least one hinge pin receiving post (30, 30', 30") comprises a first, lower end portion having an opening for receiving the at least one hinge pin, a second, upper end portion and a flexible portion intermediate the end portions (32, 34); characterized in that the flexible portion is serpentine.
A mobile communication system with multiple transmission and reception antennas, the system comprising a base station and a mobile station, wherein the base station with at least one transmission antenna is arranged to restore long-term information and short-term information from a feedback signal received from the mobile station, to spatially process dedicated physical channel (DPCH) signals using basis information generated from the restored long-term information and short-term information, and to transmit the results of adding pilot channel (PICH) signals to the spatially processed results to the mobile station, and the mobile station with at least one reception antenna is arranged to determine a first characteristic corresponding to the channel downlink characteristic for each of the transmission and reception antennas, from the PICH signals transmitted from the base station, to determine the long-term information and short-term information reflecting the first characteristic, to convert the determined long-term information and short-term information to the feedback signal, and to transmit the feedback signal to the base station, wherein the long-term information includes effective long-term eigenvectors characterised in that: the long-term information includes effective long-term eigenvalues, the short-term information includes effective short-term eigenvectors and effective short-term eigenvalues.
A method of generating and transmitting an Automatic Identification System, AIS, signal comprising an e-Navigation message, the method comprising: generating a binary payload; forward error correction, FEC, encoding the binary payload; and encapsulating the FEC encoded binary payload in a message wrapper (420A, 420B) to produce the e-Navigation message. generating a binary payload; forward error correction, FEC, encoding the binary payload; and encapsulating the FEC encoded binary payload in a message wrapper (420A, 420B) to produce the e-Navigation message.
A hydrogel shredding device comprising: a first barrel body in which a first transfer space for transferring a hydrogel is formed, and extending in a first direction; a first transfer unit installed in the first barrel body and transferring the hydrogel in the first transfer space; a second barrel body installed on a lateral side of the first barrel body, and in which a second transfer space connected to the first transfer space extends in a second direction traversing the first direction; a second transfer unit installed in the second barrel body and transferring the hydrogel in the second transfer space; a cutter member installed in the second barrel body and pulverizing the hydrogel transferred by the second transfer unit; and a porous plate for discharging hydrogel particles pulverized by the cutter member to an outside of the second barrel body, characterized in that the second barrel body is rotatably installed on the first barrel body by a driving operation of a driver. a first barrel body in which a first transfer space for transferring a hydrogel is formed, and extending in a first direction; a first transfer unit installed in the first barrel body and transferring the hydrogel in the first transfer space; a second barrel body installed on a lateral side of the first barrel body, and in which a second transfer space connected to the first transfer space extends in a second direction traversing the first direction; a second transfer unit installed in the second barrel body and transferring the hydrogel in the second transfer space; a cutter member installed in the second barrel body and pulverizing the hydrogel transferred by the second transfer unit; and a porous plate for discharging hydrogel particles pulverized by the cutter member to an outside of the second barrel body, characterized in that the second barrel body is rotatably installed on the first barrel body by a driving operation of a driver.