mhurhangee/ep-ind-claims huggingface dataset:
An air separation module (34; 62; 72) for positioning within an aircraft that includes a turbine engine and a compressor with a bleed system connected to the casing inlet of the air separation module, comprising: a casing (36; 64; 74), including a casing inlet and a casing outlet; a plurality of fibers (44; 66; 76) located within the casing; a membrane defining an exterior of each of the plurality of fibers (44; 66; 76), thereby forming an interior passage along a length of each of the plurality of fibers (44; 66; 76), the membrane being configured to permeate a gas through the membrane; and at least one perforated canister (46; 68; 78) is placed between the plurality of fibers (44; 66; 76), wherein the at least one perforated canister (46; 68; 78) is configured to collect a permeated gas from the plurality of fibers (44; 66; 76), and characterized by said at least one perforated canister having a star-shaped cross section. a casing (36; 64; 74), including a casing inlet and a casing outlet; a plurality of fibers (44; 66; 76) located within the casing; a membrane defining an exterior of each of the plurality of fibers (44; 66; 76), thereby forming an interior passage along a length of each of the plurality of fibers (44; 66; 76), the membrane being configured to permeate a gas through the membrane; and at least one perforated canister (46; 68; 78) is placed between the plurality of fibers (44; 66; 76), wherein the at least one perforated canister (46; 68; 78) is configured to collect a permeated gas from the plurality of fibers (44; 66; 76), and characterized by said at least one perforated canister having a star-shaped cross section.
A vertical printer apparatus comprising: a base; a printhead unit support frame extending substantially vertically above the base; a frame actuator configured to move the printhead unit support frame relative to the base along a longitudinal axis; a printhead unit mounted to the printhead unit support frame; a printhead unit actuator configured to move the printhead unit relative to the printhead unit support frame along a vertical axis that is substantially perpendicular to the longitudinal axis; and a workpiece support frame fixedly mounted to the base and configured to support a removable workpiece so that the normal of the workpiece is substantially perpendicular to the longitudinal and vertical axes (8, 14), wherein the workpiece support frame comprises at least one mounting unit for temporarily fixing the removable workpiece to the workpiece support frame, and a bottom support for supporting a bottom edge of the removable workpiece; characterised in that the bottom support includes a plurality of rollers. a base; a printhead unit support frame extending substantially vertically above the base; a frame actuator configured to move the printhead unit support frame relative to the base along a longitudinal axis; a printhead unit mounted to the printhead unit support frame; a printhead unit actuator configured to move the printhead unit relative to the printhead unit support frame along a vertical axis that is substantially perpendicular to the longitudinal axis; and a workpiece support frame fixedly mounted to the base and configured to support a removable workpiece so that the normal of the workpiece is substantially perpendicular to the longitudinal and vertical axes (8, 14), wherein the workpiece support frame comprises at least one mounting unit for temporarily fixing the removable workpiece to the workpiece support frame, and a bottom support for supporting a bottom edge of the removable workpiece; characterised in that the bottom support includes a plurality of rollers.
A piezoelectric ceramic electronic component comprising a piezoelectric ceramic base formed by at least one internal electrode (3a, 3b, 3c, 3d, 3e, 3f, 3g) and at least one piezoelectric ceramic layer and having at least one external electrode (2a, 2b) formed on its surface, wherein the at least one piezoelectric ceramic layer is formed of a piezoelectric porcelain composition comprising a main ingredient represented by a general formula (1 - x) (K 1-a-b Na a Li b) (Nb 1-c Ta c) O 3 -xM2M4O 3, wherein M2 represents at least one kind selected from Ca, Ba and Sr, M4 represents at least one kind selected from Zr, Sn and Hf, x, a, b, and c respectively satisfy 0.005 ≤ x ≤ 0.1, 0 ≤ a ≤ 0.9, 0 ≤ b ≤ 0.1, 0 ≤ a + b ≤ 0.9, and 0 ≤ c ≤ 0.3, wherein Mn is contained in an amount ranging from 2 to 15 mol, relative to 100 mol of the main ingredient, and the M4 is contained in an amount ranging from 0.1 to 5.0 mol, relative to 100 mol of the main ingredient, characterized in that the at least one internal electrode (3a, 3b, 3c, 3d, 3e, 3f, 3g) and the at least one piezoelectric ceramic layer are stacked alternately and followed by sintering, and that the at least one internal electrode (3a, 3b, 3c, 3d, 3e, 3f, 3g) contains Ni as its main ingredient, and that the piezoelectric porcelain composition has the property of being co-sinterable with Ni electrode in reducing atmosphere.
A method for controlling actuator elements via a wireless communication in the short-distance radio range by means of mobile terminals, characterized in that data (IMSI) which identify the user of the mobile terminal in the mobile radio network are communicated to at least one actuator element via a communication connection in the short-distance radio range between the at least one actuator element and a mobile terminal which is operable in cellular mobile radio networks and an authorization for controlling the at least one actuator element will be determined on the base of the data (IMSI) identifying the user of the mobile terminal in the mobile radio network by means of at least one comparison of the data (IMSI) identifying the user of the mobile terminal in the mobile radio network which have been communicated to the at least one actuator element with data which authorize the control of the at least one actuator element and which are gathered in a data base which can be connected to the at least one actuator element via a communication connection of the mobile radio network.
Method of regulating the activity of an electrochemical device comprising an anode and a cathode immersed in an electrolyte that is respectively placed in a separate anode compartment and a cathode compartment that are separated by at least one membrane or connected to one another by a salt bridge, wherein the device optionally comprises a reference electrode, and wherein a potential difference is applied between the anode and the cathode, or between the anode and the reference electrode, characterized in that the electrolyte of the anode compartment as well as the electrolyte of the cathode compartment each contain microorganisms in suspension or in the form of biofilm(s), wherein the electrodes are respectively referred to as bioanode and biocathode, and wherein the operation of the device is controlled by a double regulation: - a first regulation, called the priority regulation, of the potential difference between the bioanode and the biocathode or between the bioanode and the reference electrode, between a minimum limit value allowing the development of an electroactive biofilm at the bioanode and a maximum limit value lower than the oxidation potential of said biofilm, and - a second regulation, called the secondary regulation, set up during the first regulation to optimize the faradic yield of the biocathode. - a first regulation, called the priority regulation, of the potential difference between the bioanode and the biocathode or between the bioanode and the reference electrode, between a minimum limit value allowing the development of an electroactive biofilm at the bioanode and a maximum limit value lower than the oxidation potential of said biofilm, and - a second regulation, called the secondary regulation, set up during the first regulation to optimize the faradic yield of the biocathode.
A control method for a solid-state imaging element including a photodetecting region having M×N (M is an integer not less than 3, N is an integer not less than 2) pixels each including a photodiode and a readout switch connected at one end to the photodiode that are arrayed two-dimensionally in M rows and N columns, of selectively reading out, in each of L times, wherein L is an integer not less than 2, of imaging frames, charges accumulated in the pixels contained in one or a plurality of rows, hereinafter referred to as readout object rows, that form a partial region of the photodetecting region, and in each of the L times of imaging frames, performing a removing processing of charges accumulated in the pixels contained in only a part of the two or more other rows than the readout object rows, said two or more other rows than the readout object rows, hereinafter, referred to as non-readout object rows, characterized in that the removing processing is performed at least once in a period of the L times of imaging frames for each of the pixels of the non-readout object rows.
A heat-shielding laminated glass laminate, consisting of at least one film A containing a polyvinyl acetal PA and optionally at least one plasticiser WA and at least one film B containing a polyvinyl acetal PB and at least one plasticiser WB between two glass panes, characterised that in each case prior to lamination - a proportion of plasticiser WA of less than 16 % by weight is dispersed in film A, - a proportion of plasticiser WB of at least 16 % by weight is dispersed in film B, and - heat-shielding particles are dispersed in film A. - a proportion of plasticiser WA of less than 16 % by weight is dispersed in film A, - a proportion of plasticiser WB of at least 16 % by weight is dispersed in film B, and - heat-shielding particles are dispersed in film A.
An enclosed switchboard comprising a housing which includes: - a circuit breaker compartment which contains circuit breakers stacked in upper and lower stages; - a busbar compartment which contains busbars connected to each of the circuit breakers; and - upper stage and lower stage cable compartments (34a, 34b) each of which contains cables connected to each of the circuit breakers, - wherein the busbar compartment and the upper stage and lower stage cable compartments (34a, 34b) are arranged behind the circuit breaker compartment, characterized in that: - the housing is arranged in a plurality of rows and includes air heat insulation layers (39, 35, 36, 38, 37) formed between two adjacent plates or boards for shielding heat, each of the air heat insulation layers (39, 35, 36, 38, 37) being provided: - - between both adjacent side walls of the housings disposed in parallel; - - on a ceiling portion of the circuit breaker compartment; - - on a partition portion between the circuit breakers stacked in stages; - - on a partition portion between the upper stage cable compartment and the lower stage cable compartment; and - - on a back wall portion of the circuit breaker compartment, the back wall portion coming into contact with the busbar compartment and either one or both of the upper stage and lower stage cable compartments (34a, 34b). - a circuit breaker compartment which contains circuit breakers stacked in upper and lower stages; - a busbar compartment which contains busbars connected to each of the circuit breakers; and - upper stage and lower stage cable compartments (34a, 34b) each of which contains cables connected to each of the circuit breakers, - wherein the busbar compartment and the upper stage and lower stage cable compartments (34a, 34b) are arranged behind the circuit breaker compartment, - the housing is arranged in a plurality of rows and includes air heat insulation layers (39, 35, 36, 38, 37) formed between two adjacent plates or boards for shielding heat, each of the air heat insulation layers (39, 35, 36, 38, 37) being provided: - - between both adjacent side walls of the housings disposed in parallel; - - on a ceiling portion of the circuit breaker compartment; - - on a partition portion between the circuit breakers stacked in stages; - - on a partition portion between the upper stage cable compartment and the lower stage cable compartment; and - - on a back wall portion of the circuit breaker compartment, the back wall portion coming into contact with the busbar compartment and either one or both of the upper stage and lower stage cable compartments (34a, 34b). - - between both adjacent side walls of the housings disposed in parallel; - - on a ceiling portion of the circuit breaker compartment; - - on a partition portion between the circuit breakers stacked in stages; - - on a partition portion between the upper stage cable compartment and the lower stage cable compartment; and - - on a back wall portion of the circuit breaker compartment, the back wall portion coming into contact with the busbar compartment and either one or both of the upper stage and lower stage cable compartments (34a, 34b).
Rotary rake comprising a frame extending in the direction of travel, which can be coupled via an attachment point at the front to an agricultural traction and driving machine and has a chassis for supporting it on the ground, with a first rotary rake and a second rotary rake being arranged on either side of the frame in the transverse direction, wherein a central axis of the first rotary rake is arranged, in the longitudinal direction of the frame, between the attachment point and a central axis of the second rotary rake, wherein the first rotary rake via a first support arm and the second rotary rake via a second support arm, with each arm being pivotable about a respective support arm pivot axis (S1, S2), are mounted on the frame, wherein the rotary rakes (14, 16) are each operatively connected to a drivetrain for driving the rotary rakes (14, 16), which drivetrain is adapted to be connected via a power take-off connection point to an output of the traction and driving machine by means of a driving cardan shaft, which drivetrain has a connecting cardan shaft which connects a first transfer gearbox to a second transfer gearbox, which are mounted on the frame at a location above the rotary rakes (14, 16), and wherein the first transfer gearbox is connected to the first rotary rake via a first rotary rake cardan shaft and the second transfer gearbox is connected to the second rotary rake via a second rotary rake cardan shaft, characterized in that the second transfer gearbox is arranged in the longitudinal direction of the frame between the attachment point and the first transfer gearbox, and the PTO connection point is connected to the second transfer gearbox via a connecting cardan shaft arrangement.
A quick coupling for fluid under pressure, comprising a hollow valve body, an obturator stem slidable along an axis (L') of the valve body in contrast and by the action of elastic means configured and arranged to automatically arrange said obturator stem in a closing position of said valve body, and hydraulic sealing means between the valve body and a cylindrical terminal of the obturator stem, said hydraulic sealing means comprising at least one hollow plain bearing for reducing friction having an internal cylindrical surface mateable with the terminal of the obturator stem, characterized in that said hydraulic sealing means comprise a plurality of elastic elements independent from one another configured and arranged to strain the bearing with a radial compression force for the uniform hydraulic seal against the terminal, said elastic elements being distributed at least mainly along the extension of the bearing in the direction of said axis (L').
A container assembly for storing a camera, the container assembly comprising: a container which defines an internal compartment and includes first connectors arranged to define a plurality of possible divider positions within the compartment; one or more dividers, each divider being arranged to be positioned within the compartment in one of the divider positions to partition the compartment into a plurality of sub-compartments, the one or more dividers each including second connectors; characterised by: a plurality of retaining elements, wherein the first and second connectors each include an engagement surface and the container assembly is arranged such that, when one of the dividers is positioned at one of the dividing positions within the compartment, a plurality of the second connectors each overlaps a respective first connector in an engagement axis to form an engagement pair, the engagement surfaces of connectors within an engagement pair defining a space between them that reduces in size as the divider is moved from the dividing position and is sized to receive one of the retaining elements to inhibit movement of the divider from the dividing position. a container which defines an internal compartment and includes first connectors arranged to define a plurality of possible divider positions within the compartment; one or more dividers, each divider being arranged to be positioned within the compartment in one of the divider positions to partition the compartment into a plurality of sub-compartments, the one or more dividers each including second connectors; a plurality of retaining elements, wherein the first and second connectors each include an engagement surface and the container assembly is arranged such that, when one of the dividers is positioned at one of the dividing positions within the compartment, a plurality of the second connectors each overlaps a respective first connector in an engagement axis to form an engagement pair, the engagement surfaces of connectors within an engagement pair defining a space between them that reduces in size as the divider is moved from the dividing position and is sized to receive one of the retaining elements to inhibit movement of the divider from the dividing position.
A method of manufacturing a microfluidic architecture comprising at least one channel disposed therein, the method comprising: pouring an uncured polymeric material into a mould to produce a first layer; at least partially curing the first layer; and forming the at least one channel by: disposing a support material on the first layer; pouring an uncured polymeric material onto the first layer to form a second layer to thereby encapsulate the support material; and at least partially curing the second layer such that the first layer and second layer together form the microfluidic architecture; wherein the support material does not undergo a phase change during the process of forming the at least one channel, and the support material is retained between the first and second layers. pouring an uncured polymeric material into a mould to produce a first layer; at least partially curing the first layer; and forming the at least one channel by: disposing a support material on the first layer; pouring an uncured polymeric material onto the first layer to form a second layer to thereby encapsulate the support material; and disposing a support material on the first layer; pouring an uncured polymeric material onto the first layer to form a second layer to thereby encapsulate the support material; and at least partially curing the second layer such that the first layer and second layer together form the microfluidic architecture; wherein the support material does not undergo a phase change during the process of forming the at least one channel, and the support material is retained between the first and second layers.
An injection molding machine, comprising: a cylinder which heats a molding material supplied from a supplyport to the inner portion of the cylinder; a screw which is movable forward and backward and is rotatable in the cylinder; a drive source which moves the screw forward and backward; a controller which controls the drive source; a check valve which is provided on a front end portion of the screw and prevents backflow of the molding material from the front side of the screw; and a liquid pressure detector which detects a liquid pressure of a melted molding material on the rear side of the check valve and the front side of the supply port, characterized in that the controller is configured to control the drive source on the basis of the liquid pressure which is detected by the liquid pressure detector such that the detected value of the liquid pressure detector is the same as a set value of the liquid pressure detector. a cylinder which heats a molding material supplied from a supplyport to the inner portion of the cylinder; a screw which is movable forward and backward and is rotatable in the cylinder; a drive source which moves the screw forward and backward; a controller which controls the drive source; a check valve which is provided on a front end portion of the screw and prevents backflow of the molding material from the front side of the screw; and a liquid pressure detector which detects a liquid pressure of a melted molding material on the rear side of the check valve and the front side of the supply port, characterized in that the controller is configured to control the drive source on the basis of the liquid pressure which is detected by the liquid pressure detector such that the detected value of the liquid pressure detector is the same as a set value of the liquid pressure detector.
Support for supporting a base in respect to an area located below, whereby the support consists of an underlying foot part, a vertical part protruding upwards from this and a carrying part mounted thereon, whereby the lower end of the vertical part is designed as a head (2.2), which is broader in respect to the underlying shaft (2.1) of the vertical part, whereby the vertical part is located with the bottom of its head part (2.2) on the foot part, whereby the head part (2.2) is retained against translational motion in respect to the foot part by further parts (1.1, 1.2), which extend around the lateral area of the head part (2.2) and onto the ring-shaped area on the top of the head part (2.2), whereby the vertical part is rotatable around its vertical axis relative to the foot part, whereby the vertical part is mounted on the foot part, in such way that it can be displaced at the foot part normal to its vertical longitudinal axis via a side opening (1.3) in relation to the longitudinal axis into the enclosure via the parts (1.1, 1.2), whereby during the displacement pressure from the vertical part causes an elastically deformable part of the foot part, which constricts the opening (1.3) laterally, to deform elastically, so that it temporarily releases the opening (1.3), whereby the opening (1.3)-restricting, elastically deformable part of the foot part with mounted vertical part turns such a surface to the vertical part, which, upon the elastic deformation of the elastically deformable part serving to release the opening (1.3), moves predominantly normal to itself and not predominantly parallel to itself, characterised in that the elastic deformation of the elastically deformable part is a displacement movement of parts of this part, which is oriented normal to the longitudinal axis of the vertical part and away from the centre of the opening (1.3).