mhurhangee/ep-ind-claims huggingface dataset:
A filter apparatus for filtering a liquid, with a housing which has at least one inlet (4a, 4b, 4c, 4d, 4i) for admitting the liquid to be filtered, and at least one outlet for discharging the liquid to be filtered, at least two substantially cylindrical filter elements (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) which can be inserted into the housing, which have a large number of openings through which the liquid can flow, and in that case particles are filtered out of the liquid, at least in each case one filter cleaning element (28a, 28d) which can be introduced into a filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i), and in each case a cleaning device (18a, 18b, 18c, 18d, 18e, 18f, 18g, 18h, 18i), which comprises the filter cleaning element (28a, 28d), for cleaning the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i), which device is arranged on an end of a filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i), which end is located opposite the inlet (22a, 22b, 22c, 22d, 22i), wherein the cleaning device (18a, 18b, 18c, 18d, 18e, 18f, 18g, 18h, 18i) has a stroke device (24a, 24b, 24c, 24d) and a stroke bar (26a, 26d) and the filter cleaning element (28a, 28d) is arranged on the stroke bar (26a, 26d), wherein the stroke device (24a, 24b, 24c, 24d) is adapted to introduce the filter cleaning element (28a, 28d) axially into the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) by means of the stroke bar (26a, 26d) such that a cleaning gap is formed between an inner wall of the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) and the filter cleaning element (28a, 28d), so that in a region of an inner surface of the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) a flow rate of the liquid to be filtered is increased and in so doing substances located on an inner surface of the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) are flushed away, characterised by a closable backwashing outlet (30a, 30b, 30c, 30d) at an end, located opposite the inlet (22a, 22b, 22c, 22d, 22i), of a filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) for selectively discharging liquid used for cleaning the filter element (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i), the filter elements (20a, 20b, 20c, 20d, 20f, 20g, 20h, 20i) being arranged connected in parallel in the filter apparatus, and the cleaning device (18a, 18b, 18c, 18d, 18e, 18f, 18g, 18h, 18i) having a brush element which is arranged on the stroke bar (26a, 26d) and has a contacting effect.
An integrated tapered diode laser arrangement, comprising - an injector region and - a region which is optically coupled to the injector region, amplifies and expands in a cross section, - in which at least one of the regions, comprising the injector region and the expanding region, comprises an active region having a plurality of semiconductor materials, wherein the semiconductor materials are intermixed at least in one region, so that the intermixed region has a larger electronic band gap than a non-intermixed region, characterized in that - a free propagation region with reduced amplification by comparison with the expanding region is formed as intermixed region, and - the free propagation region is arranged between the injector region and the expanding region. - an injector region and - a region which is optically coupled to the injector region, amplifies and expands in a cross section, - in which at least one of the regions, comprising the injector region and the expanding region, comprises an active region having a plurality of semiconductor materials, wherein the semiconductor materials are intermixed at least in one region, so that the intermixed region has a larger electronic band gap than a non-intermixed region, - a free propagation region with reduced amplification by comparison with the expanding region is formed as intermixed region, and - the free propagation region is arranged between the injector region and the expanding region.
A process for building tyres involving use of a plurality of forming drums (2a, 2b, 2c, 2d), each designed to carry a tyre being processed and at least one work station intended for carrying out at least one respective process working on the tyre being processed, wherein transfer of at least one first and one second forming drum (2a, 2b, 2c, 2d) close to said at least one work station involves: - picking up the second forming drum from an entry location, which drum is to be submitted to one of said process workings in a first working location being part of the work station itself; - picking up the first forming drum from the first working location, which drum has been submitted to said process working in the first working location itself; - engaging the second forming drum in the first working location; - transferring the first forming drum to an exit location; wherein at least one of said second forming drum and first forming drum is transferred to an intermediate transfer location before being engaged in the first working location or transferred to the exit location, respectively. - picking up the second forming drum from an entry location, which drum is to be submitted to one of said process workings in a first working location being part of the work station itself; - picking up the first forming drum from the first working location, which drum has been submitted to said process working in the first working location itself; - engaging the second forming drum in the first working location; - transferring the first forming drum to an exit location;
A composition based on polydeoxyribonucleotides, extracted from natural sources, for use by intra-articular administration in the therapeutical treatment and/or as therapeutical co-adjuvant in the treatment of a degenerative or post-traumatic condition of the joints, wherein said polydeoxyribonucleotides have molecular weights of between 70 kDalton and 240 kDalton.
A vented twin-screw kneading extrusion method for discharging organic volatile matter contained in molten resin, the molten resin being obtained by melting and kneading a synthetic resin raw material that is supplied through a raw material supply port on an upstream side of a cylinder constituted by a multiple segment cylinders (1a to 1g), to the outside through a vent port (4a, 4b) in the cylinder assembly, and extruding the molten resin from a die provided on a downstream end of the cylinder assembly, whereas a devolatilization agent, which is injected through a downstream end devolatilization agent injection nozzle provided on a downstream end segment cylinder constituted by a segment cylinder positioned on a downstream end of the cylinder, is dispersed in the molten resin in the downstream end segment cylinder and kneaded by a downstream end kneading portion such that the molten resin is foamed by the devolatilization agent and then extruded, characterized in that the synthetic resin raw material is formed from synthetic rubber or from two or more types of polymer including synthetic rubber.
A method performed by a second base station in a wireless communication system, the method comprising: receiving, from a user equipment, UE, a random access preamble; transmitting, to the UE, a response message to the random access preamble; receiving, from the UE, a radio resource control, RRC, connection request message including an existing first ID, the first ID being identification information on the UE allocated by a first base station; determining whether the second base station has UE context corresponding to the first ID received from the UE; when the second base station fails to discover the UE context, allocating a second ID to the UE as part of new UE context instead of the first ID; transmitting, to the UE, an RRC connection setup message including the second ID; receiving, from the UE, an RRC connection setup complete message including a non-access stratum, NAS, service request message, in response to the RRC connection setup message; transmitting, to a mobility management, MM, entity an initial UE message including the first ID and the second ID of the UE, the first ID indicating that the UE context corresponding to the first ID is stored in the first base station, and the second ID indicating that the new UE context is stored in the second base station. receiving, from a user equipment, UE, a random access preamble; transmitting, to the UE, a response message to the random access preamble; receiving, from the UE, a radio resource control, RRC, connection request message including an existing first ID, the first ID being identification information on the UE allocated by a first base station; determining whether the second base station has UE context corresponding to the first ID received from the UE; when the second base station fails to discover the UE context, allocating a second ID to the UE as part of new UE context instead of the first ID; transmitting, to the UE, an RRC connection setup message including the second ID; receiving, from the UE, an RRC connection setup complete message including a non-access stratum, NAS, service request message, in response to the RRC connection setup message; transmitting, to a mobility management, MM, entity an initial UE message including the first ID and the second ID of the UE, the first ID indicating that the UE context corresponding to the first ID is stored in the first base station, and the second ID indicating that the new UE context is stored in the second base station.
Ball bearing having a plurality of bearing balls which are guided in a cage which defines a bearing axis and has a side ring and a plurality of web sections which are arranged on the side ring and form snap-action pockets, in which in each case one of the bearing balls is arranged and is held captively via a positively locking connection, a lubricant duct being formed in each snap-action pocket in a region between the side ring and the ball centre track of the balls between the ball and the adjoining web section, which lubricant duct connects the radial outer side and the radial inner side of the cage in flow terms, an outer block section being integrally formed on the web sections on the radial outer side, which outer block section projects in the radial direction in relation to the bearing axis with respect to the side ring and forms an edge which runs in the axial direction, faces the adjoining snap-action pocket, and is adjoined by an accumulating face for lubricant, which accumulating face faces the adjoining snap-action pocket, characterized in that a lubricant collecting space is formed between the accumulating face and the ball, which lubricant collecting space is connected to the lubricant duct in flow terms and is delimited in the axial direction by way of the side ring, in the circumferential direction by way of the accumulating face, and in the radial direction by way of a bottom section, the bottom section being offset inwards in the radial direction with respect to the upper side of the side ring, with the result that an outflow of the lubricant is possible via the side ring and at the same time via the lubricant duct, the outer block section reducing the available rolling body space between two adjoining balls.
A seat heater, comprising: a first warming heater that warms a seat section of a seat; a second warming heater that warms a back section of the seat; an overheating-prevention unit that prevents overheating of the first warming heater and the second warming heater; and a heating unit that heats the overheating-prevention unit, characterized in that: the overheating-prevention unit is configured by a non-return type temperature switch; the first warming heater and the second warming heater are connected in parallel by a parallel circuit; the overheating-prevention unit is connected to the parallel circuit via a branch point of the parallel circuit; the heating unit includes: a first heating heater that is electrically connected to the first warming heater, and a second heating heater that is electrically connected to the second warming heater; and a calorific value of the second heating heater is higher than a calorific value of the first heating heater. a first warming heater that warms a seat section of a seat; a second warming heater that warms a back section of the seat; an overheating-prevention unit that prevents overheating of the first warming heater and the second warming heater; and a heating unit that heats the overheating-prevention unit, the overheating-prevention unit is configured by a non-return type temperature switch; the first warming heater and the second warming heater are connected in parallel by a parallel circuit; the overheating-prevention unit is connected to the parallel circuit via a branch point of the parallel circuit; the heating unit includes: a first heating heater that is electrically connected to the first warming heater, and a second heating heater that is electrically connected to the second warming heater; and a first heating heater that is electrically connected to the first warming heater, and a second heating heater that is electrically connected to the second warming heater; and a calorific value of the second heating heater is higher than a calorific value of the first heating heater.
A method of manufacturing an induction motor rotor assembly, the method comprising the steps of: providing a rotor; machining a plurality of re-entrant slots axially along an outer surface of the rotor; and positioning a sleeve concentrically over the outer surface of the rotor; characterised in that the method comprises the further steps of: applying a friction stir welding process to the sleeve along each re-entrant slot axially along the outer surface of the rotor to cause the sleeve material to plasticise and flow into the axial re-entrant slot to form an axial re-entrant slot bar, with each axial re-entrant slot bar being integral with the sleeve; and providing an electrical connection (162, 164) at each of the opposing axial ends (116:118) of the rotor between respective ones of opposing ends (142:144) of each of the axial re-entrant slot bars to thereby form the induction motor rotor assembly. providing a rotor; machining a plurality of re-entrant slots axially along an outer surface of the rotor; and positioning a sleeve concentrically over the outer surface of the rotor; characterised in that the method comprises the further steps of: applying a friction stir welding process to the sleeve along each re-entrant slot axially along the outer surface of the rotor to cause the sleeve material to plasticise and flow into the axial re-entrant slot to form an axial re-entrant slot bar, with each axial re-entrant slot bar being integral with the sleeve; and providing an electrical connection (162, 164) at each of the opposing axial ends (116:118) of the rotor between respective ones of opposing ends (142:144) of each of the axial re-entrant slot bars to thereby form the induction motor rotor assembly. applying a friction stir welding process to the sleeve along each re-entrant slot axially along the outer surface of the rotor to cause the sleeve material to plasticise and flow into the axial re-entrant slot to form an axial re-entrant slot bar, with each axial re-entrant slot bar being integral with the sleeve; and providing an electrical connection (162, 164) at each of the opposing axial ends (116:118) of the rotor between respective ones of opposing ends (142:144) of each of the axial re-entrant slot bars to thereby form the induction motor rotor assembly.
A method for screening a substance that inhibits protein-protein interactions, the method comprising the steps of: (a) manufacturing a protein chip having immobilized thereon spots comprising a mixture of a sol-gel material and a protein; (b) allowing the protein chip to react with a protein, which has the ability to bind to the protein immobilized on the chip, in the presence of a candidate substance that inhibits the binding between the proteins, wherein the candidate substance is selected from the group consisting of natural substances, compounds and aptamers; and (c) measuring the binding between the protein immobilized on the chip and the protein having the ability to bind to the immobilized protein, and selecting the candidate substance as a substance inhibiting protein-protein interactions, if the binding between the proteins was determined to be inhibited compared to a case in which the candidate substance is not present.
A warning and preparatory system of a mobile device comprising: a component cover with a detection portion; a sensor adapted to detect the detection portion of the component cover; and a processor able to receive information from the sensor and configured, in response to receiving information from the sensor indicating removal of the component cover, to access an operating system to prepare the mobile device for power loss by determining active applications executing on the mobile device and pausing, closing or ignoring such applications depending on their power consumption and criticalness to a user. a component cover with a detection portion; a sensor adapted to detect the detection portion of the component cover; and a processor able to receive information from the sensor and configured, in response to receiving information from the sensor indicating removal of the component cover, to access an operating system to prepare the mobile device for power loss by determining active applications executing on the mobile device and pausing, closing or ignoring such applications depending on their power consumption and criticalness to a user.
A battery pack comprising: a cell group obtained by stacking a plurality of unit cells (110, 210, 310) in a thickness direction, the unit cells each including a cell body having a power generation element and a flat shape, and an electrode tab (113, 313) protruding out from the cell body, and the electrode tabs having distal end portions (113d, 213d, 313d) bent in a stacking direction of the unit cells; and a flat plate shape bus bar connecting the distal end portions of the electrode tabs of the unit cells while facing the distal end portions, and electrically connecting the electrode tabs of at least two of the unit cells with each other, wherein the surface of the bus bar facing the unit cells is joined to the distal end portions of the at least two of the unit cells that are electrically connected by means of the bus bar, characterized in that the distal end portions are aligned in one direction, and the cell group comprises a spacer (121, 221, 321) disposed between the electrode tabs of the stacked unit cells, the spacer being provided with a supporting portion (121j, 221j, 321j) which abuts the electrode tab from the opposite side of the bus bar and supports the distal end portion of the electrode tab. a cell group obtained by stacking a plurality of unit cells (110, 210, 310) in a thickness direction, the unit cells each including a cell body having a power generation element and a flat shape, and an electrode tab (113, 313) protruding out from the cell body, and the electrode tabs having distal end portions (113d, 213d, 313d) bent in a stacking direction of the unit cells; and a flat plate shape bus bar connecting the distal end portions of the electrode tabs of the unit cells while facing the distal end portions, and electrically connecting the electrode tabs of at least two of the unit cells with each other, wherein the surface of the bus bar facing the unit cells is joined to the distal end portions of the at least two of the unit cells that are electrically connected by means of the bus bar, characterized in that the distal end portions are aligned in one direction, and the cell group comprises a spacer (121, 221, 321) disposed between the electrode tabs of the stacked unit cells, the spacer being provided with a supporting portion (121j, 221j, 321j) which abuts the electrode tab from the opposite side of the bus bar and supports the distal end portion of the electrode tab.
A planographic printing plate precursor comprising, in the following order: a support; and an image recording layer, wherein the image recording layer contains polymer particles containing an addition polymerization type resin, the addition polymerization type resin contains a polymerizable group and a hydrophilic structure, and the polymerizable group is an ethylenically unsaturated group, and the ethylenically unsaturated group is a (meth)acryloxy group, characterized in that a coefficient of variation in particle diameter of the polymer particles, determined as defined in the description, is 100% or less. a support; and an image recording layer, wherein the image recording layer contains polymer particles containing an addition polymerization type resin, the addition polymerization type resin contains a polymerizable group and a hydrophilic structure, and the polymerizable group is an ethylenically unsaturated group, and the ethylenically unsaturated group is a (meth)acryloxy group, characterized in that a coefficient of variation in particle diameter of the polymer particles, determined as defined in the description, is 100% or less.
A household appliance comprising a moisture sensor operative to sense moisture by measuring the resistivity of a product to dry and a water level sensor in a water recovery tank, the moisture sensor being electrically supplied by supply means that are galvanically isolated from the electrical supply of the household appliance and being connected to an input of a microcontroller of said household appliance, characterized in that the water level sensor is connected electrically to said galvanically isolated supply means, and in that said water level sensor is mounted in parallel with said moisture sensor, said water level sensor being connected to said input of the microcontroller.
A stacked patch radiating element (200, 300), comprising: a dielectric substrate (212, 312) having first and second opposed surfaces; a ground plane on the first surface of the dielectric substrate (212, 312); a patch radiator (230, 330) on the second surface of the dielectric substrate (212, 312); a feed (234, 334) that is configured to connect the patch radiator (230, 330) to a transmission line (218, 318); characterised by a solder layer on the patch radiator (230, 330) opposite the dielectric substrate (212, 312); and a parasitic radiating element (250, 350) on the solder layer opposite the patch radiator (230, 330), the parasitic radiating element (250, 350) including: a metal layer on the solder; a parasitic radiator dielectric substrate (242, 342) on the metal layer opposite the solder; and a parasitic radiator (260, 360) on the parasitic radiator dielectric substrate (242, 342) opposite the metal layer. a dielectric substrate (212, 312) having first and second opposed surfaces; a ground plane on the first surface of the dielectric substrate (212, 312); a patch radiator (230, 330) on the second surface of the dielectric substrate (212, 312); a feed (234, 334) that is configured to connect the patch radiator (230, 330) to a transmission line (218, 318); characterised by a solder layer on the patch radiator (230, 330) opposite the dielectric substrate (212, 312); and a parasitic radiating element (250, 350) on the solder layer opposite the patch radiator (230, 330), the parasitic radiating element (250, 350) including: a metal layer on the solder; a parasitic radiator dielectric substrate (242, 342) on the metal layer opposite the solder; and a parasitic radiator (260, 360) on the parasitic radiator dielectric substrate (242, 342) opposite the metal layer. a metal layer on the solder; a parasitic radiator dielectric substrate (242, 342) on the metal layer opposite the solder; and a parasitic radiator (260, 360) on the parasitic radiator dielectric substrate (242, 342) opposite the metal layer.
A monoclonal antibody directed against human CD47 that blocks the interaction of CD47 with SIRPα, for use in the treatment of human acute myeloid leukemia by stimulating phagocytosis of AML leukemic stem cells by macrophages, wherein the antibody directed against human CD47 is used in combination with one or more additional monoclonal antibodies directed against IL1RAP.