mhurhangee/ep-ind-claims huggingface dataset:
A loudspeaker including - an enclosure having a front portion, side portions and a back portion defining an inner volume, - the front portion is formed as a waveguide surface and includes at least one driver (12, 13) in the center of the waveguide surface and is capable of radiating the main acoustic power of the loudspeaker in the direction of a first acoustic axis, and - two additional drivers attached to the enclosure, - the additional drivers are attached inside the enclosure such that two sub volumes are formed inside the inner volume, each sub volume limited by a corresponding additional driver, spacers between the corresponding additional driver and the front portion, and the front portion of the enclosure, - at least one first port is adapted to open from each sub volume to ambient volume either to the side portion or the back portion of the enclosure, characterized in that it includes - at least one resistive resonator acoustically connected to each sub volume, the resonator being tuned to at least one of unwanted resonances of the sub volume, and wherein - each sub volume has two said resistive resonators on both sides of the at least said one driver (12, 13), said two resistive resonators having different lengths for two unwanted frequencies of the sub volume. - an enclosure having a front portion, side portions and a back portion defining an inner volume, - the front portion is formed as a waveguide surface and includes at least one driver (12, 13) in the center of the waveguide surface and is capable of radiating the main acoustic power of the loudspeaker in the direction of a first acoustic axis, and - two additional drivers attached to the enclosure, - the additional drivers are attached inside the enclosure such that two sub volumes are formed inside the inner volume, each sub volume limited by a corresponding additional driver, spacers between the corresponding additional driver and the front portion, and the front portion of the enclosure, - at least one first port is adapted to open from each sub volume to ambient volume either to the side portion or the back portion of the enclosure, characterized in that it includes - at least one resistive resonator acoustically connected to each sub volume, the resonator being tuned to at least one of unwanted resonances of the sub volume, and wherein - each sub volume has two said resistive resonators on both sides of the at least said one driver (12, 13), said two resistive resonators having different lengths for two unwanted frequencies of the sub volume.
A method for checking a switching operation of an electric switch, comprising: detecting a movement of a movable switching element of the electric switch during the switching operation using a marking element, the marking element having a magnetization pattern (40; 50) comprising a plurality of magnetic markings (41, 42; 51-58), and the detecting of the movement comprising: - determining a path length of a relative movement between the marking element and a sensor, characterised in that the method comprises: detachably fastening the sensor to a fixed frame of the electric switch, wherein the sensor is fastened to the frame by a lockable movable fastening device and positioned in the vicinity of the marking element, wherein the fastening device comprises a movable arm which comprises at least one rigid element (16, 18) and at least one lockable ball joint (17, 19). detecting a movement of a movable switching element of the electric switch during the switching operation using a marking element, the marking element having a magnetization pattern (40; 50) comprising a plurality of magnetic markings (41, 42; 51-58), and the detecting of the movement comprising: - determining a path length of a relative movement between the marking element and a sensor, characterised in that the method comprises: - determining a path length of a relative movement between the marking element and a sensor, detachably fastening the sensor to a fixed frame of the electric switch, wherein the sensor is fastened to the frame by a lockable movable fastening device and positioned in the vicinity of the marking element, wherein the fastening device comprises a movable arm which comprises at least one rigid element (16, 18) and at least one lockable ball joint (17, 19).
A liposome targeting compound comprising a liposome nanoparticle displaying a glycan ligand for a sialic acid binding Ig-like lectin-1 (Siglec-1) on an antigen presenting cell, and a cytokine or an antigen incorporated by the liposome, wherein the glycan ligand is 9-N-biphenylcarboxyl-NeuAcα2-3Galβ1-4GlcNAc (3' BPC NeuAc).
An electronic or electrical device or electronic or electrical component thereof comprising a protective cross-linked polymeric coating on a surface of said device or component; wherein the protective cross-linked polymeric coating is obtainable by exposing said device or component to a plasma comprising a monomer compound and a crosslinking reagent for a period of time sufficient to allow formation of the protective cross-linked polymeric coating on a surface thereof, wherein the monomer compound has the following formula: where R 1, R 2 and R 4 are each independently selected from hydrogen, optionally substituted branched or straight chain C 1 -C 6 alkyl or halo alkyl or aryl optionally substituted by halo, and R 3 is selected from: where each X is independently selected from hydrogen, a halogen, optionally substituted branched or straight chain C 1 -C 6 alkyl, halo alkyl or aryl optionally substituted by halo; and n 1 is an integer from 1 to 27; and wherein the crosslinking reagent comprises two or more unsaturated bonds attached by means of one or more linker moieties and has a boiling point of less than 500 °C at standard pressure.
A fuel injection valve in which, in a state in which the fuel injection valve is mounted on an intake manifold (Em) of an internal combustion engine, two independent fuel spray-form beams (F1, F2) produced from injected fuel are supplied toward first and second ports (P1, P2), the fuel injection valve comprising a valve body, a valve seat member having an annular conical valve seat on which the valve body is seated in an openable and closable manner, and a nozzle that has a plurality of fuel discharge holes (11a, 11b, 11c) and is provided in a front end part of the valve seat member so as to be positioned on the downstream side of the valve seat, an inner end face of the nozzle, on which inlets of the plurality of fuel discharge holes (11 a, 11 b, 11 c) open, being a conical or spherical face that is concave and has a diameter that decreases in going toward the front of the nozzle, characterized in that the plurality of fuel discharge holes (11 a, 11 b, 11c) are arranged on the same virtual circle having an axis of the valve seat member as the center, these fuel discharge holes (11 a, 11 b, 11c) being divided into first and second fuel discharge hole groups (G1, G2) each comprising at least three fuel discharge holes (11 a, 11 b, 11 c) producing the fuel spray-form beam (F1, F2), the first and second fuel discharge hole groups (G1, G2) being positioned on opposite sides of one plane containing the axis as a boundary, the angle formed between the center line (La, Lb, Lc) of each of the fuel discharge holes (11a, 11b, 11c) and the inner end face of the nozzle is set at an obtuse angle (α) on the side closer to the outer periphery of the nozzle with respect to the center line (La, Lb, Lc) and an acute angle (β) on the side closer to the center of the nozzle with respect to the center line (La, Lb, Lc), and fuel discharge holes (11a, 11c) positioned on opposite outermost sides of each of the fuel discharge hole groups (G1, G2) are arranged so that the center lines (La, Lc) thereof intersect each other at an intersection point in front of the nozzle and toward one side, closer to the center of the nozzle, of an extension of the center line (Lb) of the fuel discharge hole positioned at the middle or the vicinity of the respective fuel discharge hole group (G1, G2).
A switch housing for capacitive switches, comprising an outer contact surface and flat electrode structures which are arranged on the inside in a position opposite the contact surface and are incorporated by two-component injection molding in recessed areas, arranged on the inside in a position opposite the contact surface, of the housing body injection molded from a first, electrically nonconductive plastic component using a second, electrically conductive plastic component, and wherein the flat electrode structures are configured with integrally molded contact tabs which are led to a contacting block (16a, 16b) integrally molded on the inner surface of the housing body, characterized in that the flat electrode structures have recessed windows and the contact surface opposite the recessed windows is light-transmissive, wherein a circuit board is provided and wherein the circuit board mounts light emitting elements, the light emitting elements illuminating symbols arranged on the contact surface of the switch housing through the recessed windows of the electrode structures and through thinned wall portions of the switch housing.
An apparatus for use within an interior of an aircraft, comprising: a seat back; an air pad affixed to the seat back, the air pad comprising: a front face; a bladder that is inflatable within the air pad; sides that support the front face of the air pad and surround the bladder, and that constrain the front face of the air pad to extend a uniform distance outward from the seat back when the bladder is inflated; and an inflator that is coupled with the air pad and is configured to inflate the bladder from an undeployed volume to a deployed volume, wherein the air pad further comprises: a gap at a location of a component accessible to a passenger and installed in the seat back; and an additional bladder at an edge of the gap which is inflated by the inflator and expands into the gap during deployment. a seat back; an air pad affixed to the seat back, the air pad comprising: a front face; a bladder that is inflatable within the air pad; sides that support the front face of the air pad and surround the bladder, and that constrain the front face of the air pad to extend a uniform distance outward from the seat back when the bladder is inflated; and an inflator that is coupled with the air pad and is configured to inflate the bladder from an undeployed volume to a deployed volume, wherein the air pad further comprises: a gap at a location of a component accessible to a passenger and installed in the seat back; and an additional bladder at an edge of the gap which is inflated by the inflator and expands into the gap during deployment. a front face; a bladder that is inflatable within the air pad; sides that support the front face of the air pad and surround the bladder, and that constrain the front face of the air pad to extend a uniform distance outward from the seat back when the bladder is inflated; and an inflator that is coupled with the air pad and is configured to inflate the bladder from an undeployed volume to a deployed volume, wherein the air pad further comprises: a gap at a location of a component accessible to a passenger and installed in the seat back; and an additional bladder at an edge of the gap which is inflated by the inflator and expands into the gap during deployment. a gap at a location of a component accessible to a passenger and installed in the seat back; and an additional bladder at an edge of the gap which is inflated by the inflator and expands into the gap during deployment.
Use of a curable composition comprising at least one aromatic epoxy resin and at least one epoxy curative composition as a curable shim for filling gaps between two assembled parts of an assembly, wherein the epoxy curative composition comprises at least a first and a second curative wherein the first curative is selected from a cyclic amine having at least one primary amino (-NH 2) group and a second curative selected from at least one polyether polyamine comprising at least one polyether unit and separated therefrom by a linking group at least one polyamine unit and further comprising at least one terminal aminoalkyl residue that is branched and comprises a primary amino group (-NH 2) and an alkyl branch in an α-, β- or γ-position to the primary amino group wherein the alkyl branch contains from 1 to 6 carbon atoms.
An apparatus, comprising: a chemical detection device including a chemical sensor mounted thereon; a valve block to fluidly couple a plurality of reagent containers (224.1... 224.k) to the chemical detection device; a heat exchanger; and a controller to control a fluid connection between the valve block and the chemical detection device, wherein the controller is configured to adjust a temperature of a selected reagent from the plurality of reagent containers, via the heat exchanger, prior to the reagent entering the chemical detection device, wherein the valve block is configured to provide the selected reagent from those stored in the plurality of reagent containers (224.1... 224.k) to the chemical detection device, characterised in that the chemical detection device comprises a heat sink, wherein the heat exchanger comprises a first passage and a second passage, the first passage is fluidly coupled to an output of the valve block and an inlet of the chemical detection device, and the second passage is fluidly coupled to the heat sink, and wherein the first and second passages are not fluidly connected to each other. a chemical detection device including a chemical sensor mounted thereon; a valve block to fluidly couple a plurality of reagent containers (224.1... 224.k) to the chemical detection device; a heat exchanger; and a controller to control a fluid connection between the valve block and the chemical detection device, wherein the controller is configured to adjust a temperature of a selected reagent from the plurality of reagent containers, via the heat exchanger, prior to the reagent entering the chemical detection device, wherein the valve block is configured to provide the selected reagent from those stored in the plurality of reagent containers (224.1... 224.k) to the chemical detection device, characterised in that the chemical detection device comprises a heat sink, wherein the heat exchanger comprises a first passage and a second passage, the first passage is fluidly coupled to an output of the valve block and an inlet of the chemical detection device, and the second passage is fluidly coupled to the heat sink, and wherein the first and second passages are not fluidly connected to each other.
A memory system, coupled to a host memory, comprising: a memory device (104, 300), comprising first memory cells and second memory cells; a memory controller, coupled to a host and the memory device (104, 300), configured to write a first data to the first memory cells and/or a second data to the second memory cells, wherein the first data comprises user data, and the second data comprises swap data from the host memory, wherein the memory controller comprising: a cache, configured to receive the first data and/or the second data; a processor, configured to, in response to a command of writing, write the first data to the first memory cells according to a first address signal, and/or write the second data to the second memory cells according to a second address signal, wherein the processor further configured to: count cycle times of the second memory cells; characterized by: when the cycle times is greater than or equal to a lifetime threshold, the operation (802, 804, 902, 904) of writing the second data to the second memory cells is prohibited. a memory device (104, 300), comprising first memory cells and second memory cells; a memory controller, coupled to a host and the memory device (104, 300), configured to write a first data to the first memory cells and/or a second data to the second memory cells, wherein the first data comprises user data, and the second data comprises swap data from the host memory, wherein the memory controller comprising: a cache, configured to receive the first data and/or the second data; a processor, configured to, in response to a command of writing, write the first data to the first memory cells according to a first address signal, and/or write the second data to the second memory cells according to a second address signal, wherein the processor further configured to: count cycle times of the second memory cells; characterized by: when the cycle times is greater than or equal to a lifetime threshold, the operation (802, 804, 902, 904) of writing the second data to the second memory cells is prohibited. a cache, configured to receive the first data and/or the second data; a processor, configured to, in response to a command of writing, write the first data to the first memory cells according to a first address signal, and/or write the second data to the second memory cells according to a second address signal, wherein the processor further configured to: count cycle times of the second memory cells; characterized by: when the cycle times is greater than or equal to a lifetime threshold, the operation (802, 804, 902, 904) of writing the second data to the second memory cells is prohibited.
Method for detecting an operating state of a rotational-speed-controllable centrifugal pump unit operated at a specifiable rotational speed ( n 0), characterised by the operating state being an abnormal operating state and a periodic excitation signal (f A (t)) of a certain frequency (f) being applied to a manipulated variable of the pump unit in such a way that a hydraulic variable ( H, Δ p) of the pump unit is modulated and that, from a mechanical and/or electrical variable (P el) of the pump unit as a system response ( X (t)) to the excitation signal (f A (t)), an evaluation signal (l(t 0), l(t)) is calculated and this is used to determine whether an abnormal operating state exists.
Method for coding at least one image (IC j), comprising the steps of: - partitioning (C1, C2) the image into a plurality of blocks (CTU 1, CTU 2,..., CTU i,..., CTU s) that are capable of containing symbols belonging to a predetermined set of symbols, the blocks being partitioned into sub-blocks: - entropy coding a current block on the basis of at least one symbol appearance probability, - predictively coding a quantification parameter associated with said current block, said coding method being characterized in that if (C39, O) the current block is the first block to be coded in a row (LE m) of consecutive blocks to be coded that is separate from the first row (LE 1), then the method involves the steps of: • determining (C40a)), during said entropy coding step, symbol appearance probabilities for said first current block, said probabilities being those that have been determined at the conclusion of the coding and then decoding of the last block in the preceding row (LE m-1), • assigning (C41a)), during said step of predictively coding a quantification parameter associated with said first current block, a quantification parameter prediction value corresponding to a quantification parameter associated with the last sub-block in the first or second block in the preceding row (LE m-1). - partitioning (C1, C2) the image into a plurality of blocks (CTU 1, CTU 2,..., CTU i,..., CTU s) that are capable of containing symbols belonging to a predetermined set of symbols, the blocks being partitioned into sub-blocks: - entropy coding a current block on the basis of at least one symbol appearance probability, - predictively coding a quantification parameter associated with said current block, said coding method being characterized in that if (C39, O) the current block is the first block to be coded in a row (LE m) of consecutive blocks to be coded that is separate from the first row (LE 1), then the method involves the steps of: • determining (C40a)), during said entropy coding step, symbol appearance probabilities for said first current block, said probabilities being those that have been determined at the conclusion of the coding and then decoding of the last block in the preceding row (LE m-1), • assigning (C41a)), during said step of predictively coding a quantification parameter associated with said first current block, a quantification parameter prediction value corresponding to a quantification parameter associated with the last sub-block in the first or second block in the preceding row (LE m-1). • determining (C40a)), during said entropy coding step, symbol appearance probabilities for said first current block, said probabilities being those that have been determined at the conclusion of the coding and then decoding of the last block in the preceding row (LE m-1), • assigning (C41a)), during said step of predictively coding a quantification parameter associated with said first current block, a quantification parameter prediction value corresponding to a quantification parameter associated with the last sub-block in the first or second block in the preceding row (LE m-1).
A cosmetic, non-therapeutic method for strengthening, thickening, and/or promoting growth of human keratin fibers comprising topically applying to skin in the area of keratin fiber follicles a composition comprising, in a physiologically acceptable vehicle, an active agent comprising a peptide consisting of from 3-6 amino acid residues, comprising the sequence YNT (SEQ ID NO: 1) or PVG (SEQ ID NO: 2).
An energy discharge device comprising: a discharge component for generating a high energy event at a predetermined interval; an energy store for supplying energy to the discharge component to generate the high energy event at the predetermined interval; and a charge controller for charging the energy store to a full charge level required to generate the high energy event,wherein the charge controller is configured to control a charge current to charge the energy store to reach the full charge level at the predetermined interval, characterized in that the charge controller is configured to control the charge current to be decreased during the predetermined interval to maintain constant power delivered to the energy store. a discharge component for generating a high energy event at a predetermined interval; an energy store for supplying energy to the discharge component to generate the high energy event at the predetermined interval; and a charge controller for charging the energy store to a full charge level required to generate the high energy event,wherein the charge controller is configured to control a charge current to charge the energy store to reach the full charge level at the predetermined interval, characterized in that the charge controller is configured to control the charge current to be decreased during the predetermined interval to maintain constant power delivered to the energy store.