mhurhangee/ep-ind-claims huggingface dataset:
A water treatment device for sanitizing pool water comprising: a first coupling; an inlet; a main body; an outlet; a second coupling; the first coupling being terminally and concentrically connected to the inlet, opposite the main body; the inlet being terminally and concentrically connected to the main body; the outlet being terminally and concentrically connected to the main body, opposite the inlet; the second coupling being terminally and concentrically connected to the outlet, opposite the first coupling; the main body comprising a hydraulic harmonic nozzle, a reaction chamber, a metal catalyst, and a catalyst retainer plate; the hydraulic harmonic nozzle being positioned within the reaction chamber adjacent to the inlet; the catalyst retainer plate being concentrically positioned within the reaction chamber adjacent to the outlet, opposite the hydraulic harmonic nozzle; and the metal catalyst being positioned between the hydraulic harmonic nozzle and the catalyst retainer plate; the hydraulic harmonic nozzle comprising a circular disk and a plurality of chamfered holes; the circular disk being concentrically positioned within the reaction chamber; the plurality of chamfered holes being distributed across the circular disk; each of the plurality of chamfered holes comprising a chamfer; the chamfer of each of the plurality of chamfered holes being positioned adjacent to the inlet; and the chamfer of each of the plurality of chamfered holes being a 45 degree chamfer. a first coupling; an inlet; a main body; an outlet; a second coupling; the first coupling being terminally and concentrically connected to the inlet, opposite the main body; the inlet being terminally and concentrically connected to the main body; the outlet being terminally and concentrically connected to the main body, opposite the inlet; the second coupling being terminally and concentrically connected to the outlet, opposite the first coupling; the main body comprising a hydraulic harmonic nozzle, a reaction chamber, a metal catalyst, and a catalyst retainer plate; the hydraulic harmonic nozzle being positioned within the reaction chamber adjacent to the inlet; the catalyst retainer plate being concentrically positioned within the reaction chamber adjacent to the outlet, opposite the hydraulic harmonic nozzle; and the metal catalyst being positioned between the hydraulic harmonic nozzle and the catalyst retainer plate; the hydraulic harmonic nozzle comprising a circular disk and a plurality of chamfered holes; the circular disk being concentrically positioned within the reaction chamber; the plurality of chamfered holes being distributed across the circular disk; each of the plurality of chamfered holes comprising a chamfer; the chamfer of each of the plurality of chamfered holes being positioned adjacent to the inlet; and
Method of identifying an effective composition of antigens for a tumor vaccine, comprising the steps of: - determination of antibodies that have been produced by at least 10 patients after vaccination with an autologous vaccine, the vaccine having been obtained by tumor material having been gathered from the patients, the tumor cells having been separated from accompanying tissue, the tumor cells having been inactivated and having been provided in a form suitable for administration as autologous vaccine, the autologous vaccine having been applied to the patients, the tumor specific antibodies produced by the patients having been isolated, - determination of the antibodies that are shared by at least 80% of the patients, and - identifying the antigens corresponding to the determined antibodies. - determination of antibodies that have been produced by at least 10 patients after vaccination with an autologous vaccine, the vaccine having been obtained by tumor material having been gathered from the patients, the tumor cells having been separated from accompanying tissue, the tumor cells having been inactivated and having been provided in a form suitable for administration as autologous vaccine, the autologous vaccine having been applied to the patients, the tumor specific antibodies produced by the patients having been isolated, - determination of the antibodies that are shared by at least 80% of the patients, and - identifying the antigens corresponding to the determined antibodies.
A damper for reducing pulsation from a compressor, the damper comprising: an outer chamber defining an outer cavity therein, the outer chamber being arranged to pass flow from a first inlet to a first outlet thereof, an inner chamber arranged within the outer cavity and defining an inner cavity therein, the inner chamber being arranged to pass flow from a second inlet to a second outlet thereof, and a number of partitions dividing the outer chamber into sections, the number of partitions each extending between the outer chamber and the inner chamber; wherein the sections are connected with each other near the second inlet to form an inlet manifold, are connected with each other near the second outlet to form an outlet manifold, and extend between the inlet manifold and the outlet manifold to define respective flow paths between the first inlet and first outlet, and wherein a housing forms at least a portion of the outer chamber, the housing including a body and a cap fastened to the body to define at least a portion of the outer cavity, wherein the second inlet of the inner chamber is connected with the inlet manifold and the second outlet of the inner chamber is connected with the outlet manifold, wherein the body forms a base portion of each of the number of partitions, wherein the cap forms a head portion of each of the number of partitions, wherein the damper further comprises a damper plate arranged between the base portion and the head portion of each of the number of partitions. an outer chamber defining an outer cavity therein, the outer chamber being arranged to pass flow from a first inlet to a first outlet thereof, an inner chamber arranged within the outer cavity and defining an inner cavity therein, the inner chamber being arranged to pass flow from a second inlet to a second outlet thereof, and a number of partitions dividing the outer chamber into sections, the number of partitions each extending between the outer chamber and the inner chamber; wherein the sections are connected with each other near the second inlet to form an inlet manifold, are connected with each other near the second outlet to form an outlet manifold, and extend between the inlet manifold and the outlet manifold to define respective flow paths between the first inlet and first outlet, and wherein a housing forms at least a portion of the outer chamber, the housing including a body and a cap fastened to the body to define at least a portion of the outer cavity, wherein the second inlet of the inner chamber is connected with the inlet manifold and the second outlet of the inner chamber is connected with the outlet manifold, wherein the body forms a base portion of each of the number of partitions, wherein the cap forms a head portion of each of the number of partitions, wherein the damper further comprises a damper plate arranged between the base portion and the head portion of each of the number of partitions.
A housing suitable for containing one or more electronic components, the housing having a connection aperture formed in a wall thereof to allow connection of a cable to the wall, wherein the connection aperture is provided with a pair of tabs (11, 12) positioned on opposing sides thereof, the tabs (11, 12) being configured to hold firmly in place a connector which is inserted into the connection aperture, each tab (11, 12) being generally elongate and having a free end, characterised in that each tab (11, 12) is cut out from the wall of the housing, and attached to the wall of the housing at an attachment region (13, 14), each tab (11, 12) being deflected with respect to the wall and extending inwardly into the interior of the housing at an angle to the plane of the wall, so the free end of each tab (11, 12) lies within the housing, and wherein each tab (11, 12) has a first region, which is near or adjacent the wall, which extends at a first angle with respect to the plane of the wall, and a second region, which is further from the wall that the first region, which extends at a second angle with respect to the plane of the wall, the second angle being less than the first angle.
An implantable medical device comprising: operational circuitry for the implantable medical device including a first plurality of electrical components; and a metal canister (10, 12) shaped for housing the operational circuitry, wherein a dampening layer is selectively molded onto and attached to the first plurality of electrical components, the dampening layer providing electrical isolation to the first plurality of electrical components and configured to reduce susceptibility to vibration of the first plurality of electrical components wherein the operational circuitry includes at least one second electrical component, and the dampening layer is not disposed over the at least one second electrical component, wherein the operational circuitry includes a printed circuit board assembly, and the dampening layer provides mechanical fixation of one or more of batteries, capacitors, dump shields, speakers, telemetry components, and recharging coils to the printed circuit board assembly. operational circuitry for the implantable medical device including a first plurality of electrical components; and a metal canister (10, 12) shaped for housing the operational circuitry, wherein a dampening layer is selectively molded onto and attached to the first plurality of electrical components, the dampening layer providing electrical isolation to the first plurality of electrical components and configured to reduce susceptibility to vibration of the first plurality of electrical components wherein the operational circuitry includes at least one second electrical component, and the dampening layer is not disposed over the at least one second electrical component, wherein the operational circuitry includes a printed circuit board assembly, and the dampening layer provides mechanical fixation of one or more of batteries, capacitors, dump shields, speakers, telemetry components, and recharging coils to the printed circuit board assembly.
A marine diesel cylinder lubricating oil composition comprising (a) a major amount of one or more Group II basestocks, and (b) a detergent composition comprising (i) 0.1 to 35 wt. % on an actives basis of one or more alkaline earth metal salts of an alkyl-substituted hydroxyaromatic carboxylic acid having a total base number greater than 250, based on the total weight of the marine diesel cylinder lubricating oil composition, and (ii) 0.1 to 34 wt. % on an actives basis of one or more high overbased alkyl aromatic sulfonic acids or salts thereof, based on the total weight of the marine diesel cylinder lubricating oil composition; wherein the aromatic moiety of the alkyl aromatic sulfonic acids or salts thereof contains no hydroxyl groups; wherein the marine diesel cylinder lubricating oil composition has a TBN of 5 to 120; wherein the one or more high overbased alkyl aromatic sulfonic acids or salts thereof have a TBN of greater than 250; and wherein TBN is measured in accordance with ASTM Standard No. D2896 or an equivalent procedure. (a) a major amount of one or more Group II basestocks, and (b) a detergent composition comprising (i) 0.1 to 35 wt. % on an actives basis of one or more alkaline earth metal salts of an alkyl-substituted hydroxyaromatic carboxylic acid having a total base number greater than 250, based on the total weight of the marine diesel cylinder lubricating oil composition, and (ii) 0.1 to 34 wt. % on an actives basis of one or more high overbased alkyl aromatic sulfonic acids or salts thereof, based on the total weight of the marine diesel cylinder lubricating oil composition; wherein the aromatic moiety of the alkyl aromatic sulfonic acids or salts thereof contains no hydroxyl groups; (i) 0.1 to 35 wt. % on an actives basis of one or more alkaline earth metal salts of an alkyl-substituted hydroxyaromatic carboxylic acid having a total base number greater than 250, based on the total weight of the marine diesel cylinder lubricating oil composition, and (ii) 0.1 to 34 wt. % on an actives basis of one or more high overbased alkyl aromatic sulfonic acids or salts thereof, based on the total weight of the marine diesel cylinder lubricating oil composition; wherein the aromatic moiety of the alkyl aromatic sulfonic acids or salts thereof contains no hydroxyl groups;
Container handling installation, comprising at least one handling element (17, 18; 26, 27; 36 to 39; 162) for treating at least one container, a lifting curve (14; 24; 34; 54; 64) for adjusting the at least one a handling element (17, 18; 26, 27; 36 to 39; 162) and / or the at least one container relative to one another, characterized by a detecting means for selectively detecting the running properties of a single roller on the lifting curve (14; 24; 34; 54; 64), wherein the detecting means comprises a detection path coupling a first lifting curve region and a second lifting curve region, in which a sensor of the detecting means is positioned to detect vibrations which are injected by a roller in the detection path, and wherein the first lifting curve region and a second lifting curve region are decoupled from each other by a recess except for the detection path.
A seat for a vehicle designed for public transport, which defines a support for a passenger of said vehicle, said seat comprising acoustic insulation means configured to acquire incoming sounds towards said seat, and to consequently emit sounds configured to at least partially cancel said sounds acquired in a space located about said seat,,said acoustic insulation means being incorporated in said seat and comprise acquisition means for the incoming sounds towards said seat, sound emitting means around said seat and electronic control means electrically connected to said acquisition and emitting means (9, 10) and configured to control said emitting means on the basis of signals acquired by said acquisition means so as to emit sounds to at least partially cancel said sounds acquired in said space, characterized in that said acoustic insulation means comprise selection means, electrically connected to said control means and configured to select the type of sound, or the absence of sound, in said space.
A controller configured to control a ventilator to provide variable volume VV with average volume assured pressure support AVAPS, comprising: a memory; a processor coupled to the memory, wherein the processor is further configured to: produce a VV target volume using a VV distribution function; produce a volume error Verror that is the difference between the VV target volume and a measured volume of the previous breath; scale the volume error Verror; produce a VV target difference as the difference between VV target volume and the VV target volume of the previous breath; produce a modified volume error by adding the VV target difference to the scaled volume error Verror; produce a delta pressure support ΔPS based upon the modified volume error and a dynamic compliance; and produce a current pressure support value based upon the delta pressure support Δ PS and the pressure support value of the previous breath. a memory; a processor coupled to the memory, wherein the processor is further configured to: produce a VV target volume using a VV distribution function; produce a volume error Verror that is the difference between the VV target volume and a measured volume of the previous breath; scale the volume error Verror; produce a VV target difference as the difference between VV target volume and the VV target volume of the previous breath; produce a modified volume error by adding the VV target difference to the scaled volume error Verror; produce a delta pressure support ΔPS based upon the modified volume error and a dynamic compliance; and produce a current pressure support value based upon the delta pressure support Δ PS and the pressure support value of the previous breath. produce a VV target volume using a VV distribution function; produce a volume error Verror that is the difference between the VV target volume and a measured volume of the previous breath; scale the volume error Verror; produce a VV target difference as the difference between VV target volume and the VV target volume of the previous breath; produce a modified volume error by adding the VV target difference to the scaled volume error Verror; produce a delta pressure support ΔPS based upon the modified volume error and a dynamic compliance; and produce a current pressure support value based upon the delta pressure support Δ PS and the pressure support value of the previous breath.
A star macromolecule represented by Formula X: Formula X [ q1 - q2] t -Core-[ q3] r wherein: Core represents a crosslinked polymeric segment; P1 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophobic monomers; P2 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; P3 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; q1 represents the number of repeat units in P1 and has a value between 1 and 50; q2 represents the number of repeat units in P2 and has a value between 30 and 500; q3 represents the number of repeat units in P3 and has a value between 30 and 500; r represents the number of homopolymeric arms covalently attached to the Core; t represents the number of copolymeric arms covalently attached to the Core; and wherein the molar ratio of r to t is in the range of between 20:1 and 2:1. Core represents a crosslinked polymeric segment; P1 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophobic monomers; P2 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; P3 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; q1 represents the number of repeat units in P1 and has a value between 1 and 50; q2 represents the number of repeat units in P2 and has a value between 30 and 500; q3 represents the number of repeat units in P3 and has a value between 30 and 500; r represents the number of homopolymeric arms covalently attached to the Core; t represents the number of copolymeric arms covalently attached to the Core; and
A safety razor comprising; a handle comprising a grip portion and a connection portion secured to the grip portion, the connection portion rotating with respect to the grip portion about a rotational axis; a blade unit being mounted to the connection portion by a connection member; and an ejector button, characterized in that the ejector button has a first position locking the connection portion with respect to the grip portion preventing the connection portion from rotating with respect to the grip portion, a second position allowing the connection portion to rotate with respect to the grip portion, and a third position for ejecting the blade unit from the connection portion.
A microneedle patch applicator housing, the housing (111, 301) being formed from a single sheet or film having a top surface and an undersurface, the housing (111, 301) comprising a flat peripheral base part (112, 302) and a raised part (113, 303) surrounded by the peripheral base part (112, 302) and bulging vertically, with respect to the peripheral base part (112, 302), from the undersurface toward the top surface, an undersurface portion of the raised part forming a surface supporting a microneedle patch, characterized in that the raised part (113, 303) includes a plurality of concavely bent parts (126, 315, 316, 317), the concavely bent parts (126, 315, 316, 317) each having a concave bottom (127, 318, 319, 320) extending radially, when viewed from above, from corners of the raised part (113, 303) towards corners of a center region (124, 313) of the raised part (113, 303). the housing (111, 301) being formed from a single sheet or film having a top surface and an undersurface, the housing (111, 301) comprising a flat peripheral base part (112, 302) and a raised part (113, 303) surrounded by the peripheral base part (112, 302) and bulging vertically, with respect to the peripheral base part (112, 302), from the undersurface toward the top surface, an undersurface portion of the raised part forming a surface supporting a microneedle patch, characterized in that the raised part (113, 303) includes a plurality of concavely bent parts (126, 315, 316, 317), the concavely bent parts (126, 315, 316, 317) each having a concave bottom (127, 318, 319, 320) extending radially, when viewed from above, from corners of the raised part (113, 303) towards corners of a center region (124, 313) of the raised part (113, 303).
An oral and/or buccal composition in the form of a thin film of a pharmaceutically active ingredient which has low solubility in water and gastrointestinal tract fluids, comprising particles of said active ingredient dispersed in a film-forming polymer, at least 50% by weight of the total weight of active ingredient having a particle size distribution such that at least 90% of said particles have a size of less than 1000 nm, preferably less than 800 nm and even more preferentially less than 600 nm, said composition having a final water content of from 1% to 5% (w/w), preferably less than 4.5% (w/w), and even more preferentially less than 4% (w/w).
A method supporting a hybrid automatic repeat request, H-ARQ, by a subscriber station in a broadband wireless access communication system, the method characterized by comprising the steps of: receiving, from a base station, an uplink MAP message in a K-th frame containing information of at least one H-ARQ enabled uplink burst; transmitting, to the base station, the at least one H-ARQ enabled uplink burst on a uplink subframe in the K-th frame; receiving, from the base station, a bitmap included in an uplink MAP message on a downlink subframe in a K+1-th frame in response to the at least one H-ARQ enabled uplink burst; and identifying, by the subscriber station, an acknowledgment, ACK, or a negative acknowledgment, NACK, based on the bitmap as feedback information corresponding to the at least one H-ARQ enabled uplink burst, wherein the bitmap includes an Information Element, IE, comprising a first field representing at least one of the ACK or the NACK, and a second field representing a length of the bitmap. receiving, from a base station, an uplink MAP message in a K-th frame containing information of at least one H-ARQ enabled uplink burst; transmitting, to the base station, the at least one H-ARQ enabled uplink burst on a uplink subframe in the K-th frame; receiving, from the base station, a bitmap included in an uplink MAP message on a downlink subframe in a K+1-th frame in response to the at least one H-ARQ enabled uplink burst; and identifying, by the subscriber station, an acknowledgment, ACK, or a negative acknowledgment, NACK, based on the bitmap as feedback information corresponding to the at least one H-ARQ enabled uplink burst, wherein the bitmap includes an Information Element, IE, comprising a first field representing at least one of the ACK or the NACK, and a second field representing a length of the bitmap.