mhurhangee/ep-ind-claims huggingface dataset:
A bioreactor for the aerobic treatment of wastewater, comprising: - a reactor vessel comprising a liquid inlet and a gas outlet, the reactor vessel having a lower part which is below half of the effective height of the reactor vessel; - means for upward moving of reactor content including one or more aeration means located in the lower part of the reactor vessel; - a solids separation device for separating solids from liquid, located in the lower part of the reactor vessel, comprising a liquid inlet, a liquid outlet and a solids outlet; • the liquid inlet of the solids separation device being located at a height of less than 75% of the effective height of the reactor vessel, • the liquid outlet of the solids separation device being connected to a liquid outlet line exiting the reactor vessel, and • the solids outlet of the solids separation device being connected to a solids outlet line ending above the means for upward moving of reactor content, wherein the effective height of the reactor vessel is the maximum reactor (water) level. - a reactor vessel comprising a liquid inlet and a gas outlet, the reactor vessel having a lower part which is below half of the effective height of the reactor vessel; - means for upward moving of reactor content including one or more aeration means located in the lower part of the reactor vessel; - a solids separation device for separating solids from liquid, located in the lower part of the reactor vessel, comprising a liquid inlet, a liquid outlet and a solids outlet; • the liquid inlet of the solids separation device being located at a height of less than 75% of the effective height of the reactor vessel, • the liquid outlet of the solids separation device being connected to a liquid outlet line exiting the reactor vessel, and • the solids outlet of the solids separation device being connected to a solids outlet line ending above the means for upward moving of reactor content, • the liquid inlet of the solids separation device being located at a height of less than 75% of the effective height of the reactor vessel, • the liquid outlet of the solids separation device being connected to a liquid outlet line exiting the reactor vessel, and • the solids outlet of the solids separation device being connected to a solids outlet line ending above the means for upward moving of reactor content,
A display device for a vehicle mounted in an indoor space of a vehicle and configured to change an area of a display, the display device comprising: a first frame of which one end is coupled to an interior member of the vehicle; a second frame of which one end is coupled to an opposite end of the first frame, the second frame being configured to be rotatable about the one end of the second frame with respect to the first frame; a flexible display disposed on one surface of the first frame and one surface of the second frame, characterized in that the flexible display Z is being configured to be foldable in a direction in which an opposite surface of the first frame, being opposite to the one surface of the first frame, and an opposite surface of the second frame, being opposite to the one surface of the second frame, overlap each other; and the display device further comprising an elastic part configured to apply tension to the flexible display in a direction oriented toward an inside of the interior member when the flexible display is unfolded. a first frame of which one end is coupled to an interior member of the vehicle; a second frame of which one end is coupled to an opposite end of the first frame, the second frame being configured to be rotatable about the one end of the second frame with respect to the first frame; a flexible display disposed on one surface of the first frame and one surface of the second frame, characterized in that the flexible display Z is being configured to be foldable in a direction in which an opposite surface of the first frame, being opposite to the one surface of the first frame, and an opposite surface of the second frame, being opposite to the one surface of the second frame, overlap each other; and the display device further comprising an elastic part configured to apply tension to the flexible display in a direction oriented toward an inside of the interior member when the flexible display is unfolded.
Sensor for measuring a periodic signal comprising several harmonics wherein the first harmonic has a λ spatial period, said sensor comprising an electrical circuit of G resistive groups arranged in a current loop circuit and having a geometrical barycentre spaced by λ/G + kλ, k being an integer, from each other, each of said groups comprising at least one set of p resistive elements connected in series and having a geometrical barycentre spaced by λ/pn + iλ, i being an integer, from each other, n being different from G, in order to filter at least harmonics n modulo 2n of the signal, said sensor comprising determination means adapted for determining at least one output which is representative of the signal, said output comprising a combination of at least some voltages V G across the G resistive groups.
System for deploying and recovering an autonomous underwater craft by a recovery vehicle towed by a surface ship, the system including the ship and the recovery vehicle, the towing being ensured by a towing cable connecting the recovery vehicle to the ship, the system being configured so that when not in use the underwater craft is stored in a housing of the recovery vehicle and the recovery vehicle is stored out of water in the ship, the recovery vehicle having, along its length, two opposite ends, including an end for receiving the autonomous underwater craft, providing access to the housing, the system being configured to allow the deployment to be performed in two stages, a first stage of submersing the recovery vehicle with the underwater craft stored in said recovery vehicle, a second stage of releasing the underwater craft by bringing the latter out of the housing of the submersed recovery vehicle once the towed recovery vehicle at a determined distance away from the ship, the system being configured to allow the recovery to be made in two phases, a first phase of entry of the underwater craft, through the receiving end, into the housing of the submersed towed recovery vehicle, a second phase of loading the towed recovery vehicle on board the ship, with the underwater craft stored in said recovery vehicle, the ship comprising a launch ramp, which is tilting, and the system being configured to store the recovery vehicle on the launch ramp, the launch ramp having a longitudinal extent and two longitudinal ends, a front end on the ship bow side and a rear end on the ship stern side, said tilting launch ramp being able to take at least two positions: a raised position in which the stored recovery vehicle is out of water, said raised launch ramp being above the waterline of the ship, and an inclined position in which the rear end of the launch ramp is immersed, the system including a translational device enabling the recovery vehicle, in the inclined position of the launch ramp, to move along the launch ramp to be submersed and be able to move away from the ship while being towed by the latter during the deployment and to be raised along the launch ramp during the recovery, and in that the rear end of the launch ramp comprises buoyancy means allowing said launch ramp in the inclined position to beat as a function of the water height at the buoyancy means, characterized in that the ship is a catamaran whose shell has two parallel lateral hulls (2a, 2b), separated by an intermediate link area located above the waterline, and in that the system is further configured so that, in the raised position, the launch ramp is out of water and forms part of the intermediate link area, and in that the launch ramp comprises at least one beat damper intended to damp the beats due to the wave impact on the inclined launch ramp, the lower face of the launch ramp comprising a material that damps the wave impact on the inclined launch ramp, said material being a porous double-skin absorbing the wave impact.
A casing assembly for a gas turbine engine, comprising a case including: an outer case wall extending around a central axis; an inner case wall radially offset from the outer case wall; and one or more hydraulic fluid passages (86, 88) embedded in the case between the outer case wall and the inner case wall; characterized by: a hydraulic cylinder for a linear actuator embedded in the case between the outer case wall and the inner case wall, the one or more hydraulic fluid passages (86, 88) in fluid communication with the hydraulic cylinder. an outer case wall extending around a central axis; an inner case wall radially offset from the outer case wall; and one or more hydraulic fluid passages (86, 88) embedded in the case between the outer case wall and the inner case wall;
A negative electrode material for a non-aqueous electrolyte secondary battery, comprising: negative electrode active material particles containing a silicon compound expressed by SiO x, where 0.5≤x≤1.6, the silicon compound containing in its interior at least Li 2 SiO 3 as a lithium compound; and one or more ions selected from Group 1 metal ions, Group 2 metal ions, and substitutable ammonium ions, wherein the ion has a concentration ranging from 1×10 -3 mass% to 2 mass% in terms of a metal ion or an ammonium ion with respect to a total mass of the negative electrode material. negative electrode active material particles containing a silicon compound expressed by SiO x, where 0.5≤x≤1.6, the silicon compound containing in its interior at least Li 2 SiO 3 as a lithium compound; and one or more ions selected from Group 1 metal ions, Group 2 metal ions, and substitutable ammonium ions, wherein the ion has a concentration ranging from 1×10 -3 mass% to 2 mass% in terms of a metal ion or an ammonium ion with respect to a total mass of the negative electrode material.
A cleaning system for cleaning a transparent surface of a vehicle, comprising at least one air flow generator, a plurality of nozzles or one curved, wide nozzle, and a system of pipes and/or tubes to distribute the air flow to the nozzles, the system configured such that air jets are ejected by the nozzles and distributed over the surface, characterized in that the cleaning system further comprises a controller configured to control an application of a liquid, a mixing of a hydrophobic liquid into the air jet, and the air flow of the air jet.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one groove, in which groove a longitudinal strip of the carrier element is disposed, said windscreen wiper device comprising a connecting device for pivotally connecting an oscillating arm to said connecting device about a pivot axis near one end thereof, wherein said connecting device comprises a first part connected to said windscreen wiper device, as well as a second part configured to be interposed between said first part and said oscillating arm, characterized in that said second part is pivotally connected to said first part optionally around a first pivot axis or around a second pivot axis, in order to shorten or enlarge an effective length of said oscillating arm by pivotally mounting said second part onto said first part at the location of said first pivot axis in use facing towards a mounting head for said oscillating arm or at the location of said second pivot axis in use facing away from said mounting head, seen relative to a middle transverse plane of the connecting device in vertical direction, wherein said first part comprises at the location of one of said pivot axes two opposing protrusions extending laterally outwardly engaging into correspondingly shaped recesses in said second part or wherein said second part comprises at the location of one of pivot axes two opposing protrusions extending laterally inwardly engaging into correspondingly shaped recesses in said first part.
A linear ceiling panel mounting system (33, 50, 55, 83, 85) comprising a carrier (1, 31, 69, 70, 72) for mounting linear panels on a ceiling, the carrier extending in a longitudinal direction and having at least one recess (11, 13, 15, 17, 12, 14, 16, 18, 57, 59, 61, 63, 65, 67, 52, 54, 56, 58, 70, 72) formed therein, the recess being for receiving a linear ceiling panel (35, 47, 71, 86, 91), the recess extending through the cross-section of the carrier, the recess being defined by a surface comprising at least a first wall portion and a second wall portion, the recess separating the first wall portion from the second wall portion, and the second wall portion defining a flange which extends at least partially into the recess, thereby providing the recess with a neck portion and a main portion, and wherein the neck portion has, at its narrowest point, a distance d1 separating the first wall portion from the second wall portion, and wherein the linear ceiling panel mounting system further comprises a linear ceiling panel (35, 47, 71, 86, 91) having a flexible, resilient flange (43, 45, 49, 79, 81, 87, 88, 92, 93) which extends along the whole or part of an edge of the panel, the flange being configured to slot into the recess of the carrier and be retained therein to thereby attach the linear ceiling panel to the carrier, and wherein the distance d1 is less than 9mm and/or the distance d1 is approximately three-quarters to two times the combined thickness of the flange and that part of the panel adjacent the flange, and characterized in that the flange of the linear ceiling panel is formed from a thermoformable, non-woven fibrous material.
A method for reconfiguring a clipping machine for producing sausage-shaped products (S1, S2) from a first clipping mode to a second clipping mode, the method comprising the steps of: providing an input to a control unit of the clipping machine indicative of the reconfiguration of the clipping machine from the first clipping mode to the second clipping mode; characterized by changing a number of closure means, such as closure clips, supplied to a closing unit of the clipping machine from a first number of closure means associated with the first clipping mode, to a second number of closure means associated with the second clipping mode; wherein the first number of closure means is different from the second number of closure means. providing an input to a control unit of the clipping machine indicative of the reconfiguration of the clipping machine from the first clipping mode to the second clipping mode; characterized by changing a number of closure means, such as closure clips, supplied to a closing unit of the clipping machine from a first number of closure means associated with the first clipping mode, to a second number of closure means associated with the second clipping mode; wherein the first number of closure means is different from the second number of closure means.
An oscillator assembly, comprising: a first eccentrically weighted rotor having a first eccentric weight configured to rotate about an axis; a second eccentrically weighted rotor having a second eccentric weight configured to rotate about the axis, wherein rotation of the second eccentrically weighted rotor is coupled to rotation of the first eccentrically weighted rotor; and an actuator operatively associated with the second eccentrically weighted rotor and being configured to vary an angular separation between the first eccentric weight and the second eccentric weight; and a coupling shaft that couples the first eccentrically weighted rotor and the second eccentrically weighted rotor, wherein the coupling shaft couples rotation of the first eccentrically weighted rotor to the second eccentrically weighted rotor, characterised in that the coupling shaft includes a straight-splined portion and a helically-splined portion. a first eccentrically weighted rotor having a first eccentric weight configured to rotate about an axis; a second eccentrically weighted rotor having a second eccentric weight configured to rotate about the axis, wherein rotation of the second eccentrically weighted rotor is coupled to rotation of the first eccentrically weighted rotor; and an actuator operatively associated with the second eccentrically weighted rotor and being configured to vary an angular separation between the first eccentric weight and the second eccentric weight; and a coupling shaft that couples the first eccentrically weighted rotor and the second eccentrically weighted rotor, wherein the coupling shaft couples rotation of the first eccentrically weighted rotor to the second eccentrically weighted rotor, characterised in that the coupling shaft includes a straight-splined portion and a helically-splined portion.
Process for producing a composition comprising polycarbodiimides, which comprises the step of reacting a reaction mixture comprising an aromatic polyisocyanate and a carbodiimidization catalyst, characterized in that before the reaction, the aromatic polyisocyanate is treated at a temperature of from ≥ 80°C to ≤ 150°C and a pressure of from ≥ 1 mbar to ≤ 500 mbar by means of passing an inert gas through it, and/or during the reaction, the reaction mixture is treated at a temperature of from ≥ 80°C to ≤ 150°C and a pressure of from ≥ 1 mbar to ≤ 500 mbar by means of passing an inert gas through it, with, in addition, the content of hydrolyzable chlorine in the reaction mixture being ≤ 10 ppm.
Device for determining the permeation rate of a barrier element, in which a barrier element, at least in sections, forms a separation with a permeable cross-sectional area A B between a test gas space and a measurement chamber, the test gas space containing a gas, to be permeated, at constant partial pressure, and on the measurement chamber, at least one hollow conducting element with a permeate sink are arranged or formed thereon, wherein the hollow conducting element has a cross-sectional area A G, modified compared to the cross-sectional area A B, at at least one position, with the permeate concentration being measurable in a non-invasive fashion using at least one detector (8, 8.1, 8.2) at at least one known position along the measurement chamber and/or the hollow conducting element characterized in that at least one hollow conducting element with a permeate sink is arranged or formed on the measurement chamber in such a way that a flow-free diffusion path, through which a permeate can diffuse, is formed starting from the barrier element, through the hollow conducting element, up to the permeate sink,
An electric machine system (400; 800) comprising: a first electric machine (410; 810) configured to drive a load, the first electric machine (410; 810) having a plurality of first rotors (102; 802), wherein the first electric machine (410; 810) has a first common stator (122; 822) and one or more first windings (108; 808) circumferentially spaced apart on the first common stator (122; 822), the first rotors (102; 802) configured to be driven using electric power having a single first phase, characterized in that the electric machine system (400; 800) further comprises: a second electric machine (410'; 810') configured to drive the load, the second electric machine (410'; 810') having a plurality of second rotors (102'; 802'), wherein the second electric machine (410'; 810') has a second common stator (122; 822) and one or more second windings (108; 808) circumferentially spaced apart on the second common stator (122; 822), the second rotors (102'; 802') configured to be driven using electric power having a single second phase, the second phase different from the first phase; and a plurality of shafts (416; 816), each shaft (416; 816) connecting one of the first rotors (102; 802) with one of the second rotors (102'; 802'), the one of the first rotors (102; 802) being coaxial with and axially spaced apart from the one of the second rotors (102'; 802'). a first electric machine (410; 810) configured to drive a load, the first electric machine (410; 810) having a plurality of first rotors (102; 802), wherein the first electric machine (410; 810) has a first common stator (122; 822) and one or more first windings (108; 808) circumferentially spaced apart on the first common stator (122; 822), the first rotors (102; 802) configured to be driven using electric power having a single first phase, characterized in that the electric machine system (400; 800) further comprises: a second electric machine (410'; 810') configured to drive the load, the second electric machine (410'; 810') having a plurality of second rotors (102'; 802'), wherein the second electric machine (410'; 810') has a second common stator (122; 822) and one or more second windings (108; 808) circumferentially spaced apart on the second common stator (122; 822), the second rotors (102'; 802') configured to be driven using electric power having a single second phase, the second phase different from the first phase; and a plurality of shafts (416; 816), each shaft (416; 816) connecting one of the first rotors (102; 802) with one of the second rotors (102'; 802'), the one of the first rotors (102; 802) being coaxial with and axially spaced apart from the one of the second rotors (102'; 802').
An apparatus comprising: • receiving means to receive broadcast information in order that the broadcast information is used to detect a local breakout service; • selecting means for selecting at a terminal device and in response to detected availability of the local breakout service an identification of a gateway functionality co-located at an access device of a radio access network, for use in a local breakout to a packet data network; • address configuration means for configuring a network layer address for said terminal device in said local breakout; and • message generating means for generating a connectivity request indicating said identification, to be transmitted to said radio access network in order that the local breakout for the terminal device is provided by the gateway functionality. • receiving means to receive broadcast information in order that the broadcast information is used to detect a local breakout service; • selecting means for selecting at a terminal device and in response to detected availability of the local breakout service an identification of a gateway functionality co-located at an access device of a radio access network, for use in a local breakout to a packet data network; • address configuration means for configuring a network layer address for said terminal device in said local breakout; and • message generating means for generating a connectivity request indicating said identification, to be transmitted to said radio access network in order that the local breakout for the terminal device is provided by the gateway functionality. • selecting means for selecting at a terminal device and in response to detected availability of the local breakout service an identification of a gateway functionality co-located at an access device of a radio access network, for use in a local breakout to a packet data network; • address configuration means for configuring a network layer address for said terminal device in said local breakout; and • message generating means for generating a connectivity request indicating said identification, to be transmitted to said radio access network in order that the local breakout for the terminal device is provided by the gateway functionality.