mhurhangee/patent-ind-claim-en huggingface dataset:
A combustion chamber comprising: a first surface and a second surface interconnected by a wall forming said chamber ; the first surface defining a plurality of first openings each first opening of the plurality of first openings having an outer diameter and an inner diameter smaller than the outer diameter, and wherein air is configured to pass from the outer diameter through the inner diameter into the chamber; and the second surface defining a plurality of second openings configured to receive fuel, wherein air from the first openings of the plurality of first openings and fuel from the second openings of the plurality of second openings oppose each other to create a vortex of product proximal to the second surface , wherein the chamber having a central axis (A), the first surface defining at least one outlet opening configured to allow exhaust products to exit the chamber and the second surface defining at least one inlet opening , and each of the at least one outlet opening and the at least one inlet opening are axially aligned along the central axis (A), wherein the plurality of first openings and the plurality of second openings are arranged on a circumference around the central axis (A). a first surface and a second surface interconnected by a wall forming said chamber ; the first surface defining a plurality of first openings each first opening of the plurality of first openings having an outer diameter and an inner diameter smaller than the outer diameter, and wherein air is configured to pass from the outer diameter through the inner diameter into the chamber; and the second surface defining a plurality of second openings configured to receive fuel, wherein air from the first openings of the plurality of first openings and fuel from the second openings of the plurality of second openings oppose each other to create a vortex of product proximal to the second surface , wherein the chamber having a central axis (A), the first surface defining at least one outlet opening configured to allow exhaust products to exit the chamber and the second surface defining at least one inlet opening , and each of the at least one outlet opening and the at least one inlet opening are axially aligned along the central axis (A), wherein the plurality of first openings and the plurality of second openings are arranged on a circumference around the central axis (A).
An outer seal assembly for a thrust bearing assembly , the outer seal assembly comprising: a flexible outer annular ring extending between a first outer end and a second outer end and having a radially inward-opening C-shaped cross section comprising: (a) an anchor leg extending radially inward proximate the first outer end , the anchor leg being configured to secure the outer annular ring to an outer receiving area (731G1, 731G1') of a rotatable thrust plate of the thrust bearing assembly ; (b) a flexible neck extending between the first outer end and the second outer end ; and (c) a sealing leg extending radially inward proximate the second outer end ; and a sliding ring having a pocket formed therein, the sealing leg being secured in the pocket , the sliding ring comprising a lubricious material and being configured to slide in a groove (1100G1, 1100G1') of a stationary thrust plate of the thrust bearing assembly and at least one of the sealing leg and the pocket tapers to improve retention of the sealing leg within the groove (1100G1, 1100G1') during rotation of the sliding ring within the stationary thrust plate . a flexible outer annular ring extending between a first outer end and a second outer end and having a radially inward-opening C-shaped cross section comprising: (a) an anchor leg extending radially inward proximate the first outer end , the anchor leg being configured to secure the outer annular ring to an outer receiving area (731G1, 731G1') of a rotatable thrust plate of the thrust bearing assembly ; (b) a flexible neck extending between the first outer end and the second outer end ; and (c) a sealing leg extending radially inward proximate the second outer end ; and (a) an anchor leg extending radially inward proximate the first outer end , the anchor leg being configured to secure the outer annular ring to an outer receiving area (731G1, 731G1') of a rotatable thrust plate of the thrust bearing assembly ; (b) a flexible neck extending between the first outer end and the second outer end ; and (c) a sealing leg extending radially inward proximate the second outer end ; and a sliding ring having a pocket formed therein, the sealing leg being secured in the pocket , the sliding ring comprising a lubricious material and being configured to slide in a groove (1100G1, 1100G1') of a stationary thrust plate of the thrust bearing assembly and at least one of the sealing leg and the pocket tapers to improve retention of the sealing leg within the groove (1100G1, 1100G1') during rotation of the sliding ring within the stationary thrust plate .
Handle for a hand-held power tool , comprising a grip portion which can be gripped by a user, a securing portion by means of which the handle can be secured to the hand-held power tool , and a vibration-decoupling device which is designed to decouple vibrations acting on the securing portion from the grip portion , the vibration-decoupling device having a spring element with an adjustable spring stiffness, the vibration-decoupling device having an adjustment element for adjusting the spring stiffness of the spring element , the spring element having an accommodating region extending in a longitudinal direction (L19) of the spring element , in which region the adjustment element is at least partly accommodated, characterized in that a plurality of accommodating regions and a plurality of adjustment elements which are distributed around a circumference of the spring element so as to be mutually uniformly spaced.
A bacterial strain ART24 (NCIMB Accession No. 43088) that is a member of the operational group B. amyloliquefaciens.
A method performed by a remote unit , comprising: generating a preamble sequence to establish a random access channel procedure for an uplink transmission, wherein the preamble sequence comprises indication information; transmitting the preamble sequence; and transmitting uplink information separate from the preamble sequence and based on the indication information in the preamble sequence; wherein the uplink information comprises control information, wherein the indication information indicates one or more of a transmission resource assignment, a new data indicator, a transmit power control command, a modulation and coding scheme reference signal, configuration information, an acknowledgement and non-acknowledgement resource assignment, a multiple access code, and a scrambled code; and wherein the control information comprises one or more of a remote unit identification, a buffer status report, and a hybrid automatic repeat request process number. generating a preamble sequence to establish a random access channel procedure for an uplink transmission, wherein the preamble sequence comprises indication information; transmitting the preamble sequence; and transmitting uplink information separate from the preamble sequence and based on the indication information in the preamble sequence; wherein the uplink information comprises control information, wherein the indication information indicates one or more of a transmission resource assignment, a new data indicator, a transmit power control command, a modulation and coding scheme reference signal, configuration information, an acknowledgement and non-acknowledgement resource assignment, a multiple access code, and a scrambled code; and wherein the control information comprises one or more of a remote unit identification, a buffer status report, and a hybrid automatic repeat request process number.
A method comprising the following steps performed by a test system : obtaining, via the test system , data from one or more tests of a mobile network having at least one antenna, wherein the data includes a stream of Radio Frequency, RF, samples captured over-the-air or from a Common Public Radio Interface, CPRI, or an enhanced CPRI, eCPRI, link; processing (S1-S2) the data to detect peaks; performing (S3-S4) an analysis of any detected peaks to identify any issues on the mobile network, said analysis including determining a relative power of said detected peaks, the determining a relative power including obtaining (S3) a baseline power of a subset of said data and comparing (S4) an absolute power of said peaks to said baseline power, said relative power being used to assign a severity estimation; and causing (S5) display of a user interface that includes a reporting of said relative power and the severity estimation with the user interface. obtaining, via the test system , data from one or more tests of a mobile network having at least one antenna, wherein the data includes a stream of Radio Frequency, RF, samples captured over-the-air or from a Common Public Radio Interface, CPRI, or an enhanced CPRI, eCPRI, link; processing (S1-S2) the data to detect peaks; performing (S3-S4) an analysis of any detected peaks to identify any issues on the mobile network, said analysis including determining a relative power of said detected peaks, the determining a relative power including obtaining (S3) a baseline power of a subset of said data and comparing (S4) an absolute power of said peaks to said baseline power, said relative power being used to assign a severity estimation; and causing (S5) display of a user interface that includes a reporting of said relative power and the severity estimation with the user interface.
A waveguide system in the form of a MEMS chip, comprising at least two silicon wafer substrates bonded together and forming a structure comprising: a waveguide structure comprising a waveguide having at least one opening port , said waveguide structure being made substantially from a silicon substrate where at least one metal pattern and a ground plane of the system are provided on said silicon substrate, wherein the metal pattern is configured to constitute a signal routing and/or provide a planar RF transmission line that is separated from the ground plane of the system by an isolating gap in the metal pattern , where the RF transmission line is adapted to carry the signal through the opening port into a cavity of the waveguide , which cavity faces away from the RF transmission line , the waveguide system further comprising a metallized electric probe structured in the wafer material, protruding from the ground plane of the system, and coupled to the signal routing and/or the transmission line , such that the resulting structure is adapted to act as an antenna inside the waveguide , thereby enabling an efficient transition of the signal between the planar RF transmission line and the waveguide , where the ground plane of the system is in a substrate plane that is configured to support the metal pattern .
A portable data carrier (1; 10) that is configured to receive energy and/or data in a contactless manner, comprising: - a data carrier body ; - an antenna device which is arranged on the data carrier body and has an antenna loop , wherein the antenna device is configured to couple in a contactless manner to an external field by means of the antenna loop for the transmission of energy and/or data; and - a microcontroller which is arranged on the data carrier body and has a processor and a storage device that is configured to store data received via the antenna device and is connected to the antenna device to receive an operating voltage; wherein - the antenna loop has a loop section made of an electrically conductive material which is transparent in the wavelength range of visible light; and - the portable data carrier (1; 10) is a data carrier selected from the following group: contactless chip card, value or security document or identification document, characterized in that the data carrier body has multiple optically transparent windows that are separated from one another and the loop section runs through the transparent windows. - a data carrier body ; - an antenna device which is arranged on the data carrier body and has an antenna loop , wherein the antenna device is configured to couple in a contactless manner to an external field by means of the antenna loop for the transmission of energy and/or data; and - a microcontroller which is arranged on the data carrier body and has a processor and a storage device that is configured to store data received via the antenna device and is connected to the antenna device to receive an operating voltage; - the antenna loop has a loop section made of an electrically conductive material which is transparent in the wavelength range of visible light; and - the portable data carrier (1; 10) is a data carrier selected from the following group: contactless chip card, value or security document or identification document,
Atomizer device, comprising a container with a liquid chamber for receiving a liquid for atomizing, wherein the liquid chamber comprises an outlet to which a spray nozzle , which is able and configured to form a mist from the liquid under an increased operating pressure, is coupled downstream, wherein the liquid chamber comprises upstream a plunger which is received movably therein and is able and configured to expel during an axial displacement at least a part of the liquid from the liquid chamber, and wherein the container can at least be coupled to actuator means intended and configured to impart an axial displacement to the plunger when actuated, characterized in that provided between the plunger of the liquid chamber and the spray nozzle is an air bubble barrier which, from a side thereof facing toward the plunger, is at least substantially unbridgeable to possible air bubbles in the liquid, but which comprises a passage for the purpose of allowing at least substantially free passage of the liquid.
A sprayable solution which comprises a nonsteroidal anti-inflammatory drug (NSAID); lauryl lactate; lactic acid; glyceryl monolaurate; ethanol; and water, wherein the NSAID is a) a propionic acid derivative selected from the group consisting of ketoprofen, ibuprofen, naproxen, and pharmaceutically acceptable salts thereof; or b) an acetic acid derivative selected from the group consisting of diclofenac, indomethacin, etodolac, and pharmaceutically acceptable salts thereof. a) a propionic acid derivative selected from the group consisting of ketoprofen, ibuprofen, naproxen, and pharmaceutically acceptable salts thereof; or b) an acetic acid derivative selected from the group consisting of diclofenac, indomethacin, etodolac, and pharmaceutically acceptable salts thereof.
A polyamide molding compound (I) comprising the components (A) to (B) and optionally (C) or consisting of these components: (A) 50 to 90 wt% of a mixture consisting of the polyamides (A1) and (A2); wherein (A1) is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and (A2) is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; where the sum of (A1) and (A2) adds up to 100 wt% (A); (B) 10 to 45 wt% of at least one particulate filler and/or fibrous reinforcement; (C) 0 to 5 wt% of at least one additive; wherein the weight proportions of the components (A) to (C) add up to 100 wt%. (A) 50 to 90 wt% of a mixture consisting of the polyamides (A1) and (A2); wherein (A1) is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and (A2) is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; where the sum of (A1) and (A2) adds up to 100 wt% (A); (A1) is 35 to 95 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of 9 to 11.5; and (A2) is 5 to 65 wt% of at least one semicrystalline aliphatic polyamide having a C to N ratio of at least 12 selected from the group consisting of PA1016, PA12, PA717, PA718, PA816, PA817, PA818, PA915, PA916, PA917, PA918, PA1014, PA1015, PA1017, PA1018, PA1113, PA1114, PA1115, PA1116, PA1117, PA1118, PA1212, PA1213, PA1214, PA1215, PA1216, PA1217, PA1218, PA1311, PA1312, PA1313, PA1314, PA1315, PA1316, PA1317, PA1318, PA1410, PA1411, PA1412, PA1413, PA1414, PA1415, PA1416, PA1417, PA1418, and mixtures thereof; (B) 10 to 45 wt% of at least one particulate filler and/or fibrous reinforcement; (C) 0 to 5 wt% of at least one additive;
An atomizing element for an electronic cigarette, comprising: a porous body comprising an atomizing surface and a liquid absorbing surface; and a porous heating film formed on the atomizing surface by vapor deposition; characterized in that the porous body is provided with a plurality of micropores having a diameter greater than a thickness of the porous heating film. a porous body comprising an atomizing surface and a liquid absorbing surface; and a porous heating film formed on the atomizing surface by vapor deposition; characterized in that the porous body is provided with a plurality of micropores having a diameter greater than a thickness of the porous heating film.
Device for evaluating visual refraction correction of an individual, said device being of subjective type and comprising a support , said support comprising an optometry measuring scale , wherein that said optometry measuring scale comprises: • a plurality of processed optotypes associated with a plurality of visual refraction corrections wherein each processed optotype results from applying to a source optotype a determined image processing associated with a defined visual refraction correction, wherein said determined image processing comprises applying a deconvolution algorithm to a source optotype image by a complex amplitude function representative of spherical and/or cylindrical phase error for a predefined display distance, wherein said spherical error is function of an optical power (P) and said cylindrical error is function of cylinder and axis values, said deconvolution algorithm being applied for a plurality of optical power (P) values and/or cylinder and axis values, and • an identification system for determining each defined visual refraction correction associated with each processed optotype as a function of said predefined display distance and as a function of said plurality of optical power (P) values and/or cylinder and axis values. • a plurality of processed optotypes associated with a plurality of visual refraction corrections wherein each processed optotype results from applying to a source optotype a determined image processing associated with a defined visual refraction correction, wherein said determined image processing comprises applying a deconvolution algorithm to a source optotype image by a complex amplitude function representative of spherical and/or cylindrical phase error for a predefined display distance, wherein said spherical error is function of an optical power (P) and said cylindrical error is function of cylinder and axis values, said deconvolution algorithm being applied for a plurality of optical power (P) values and/or cylinder and axis values, and • an identification system for determining each defined visual refraction correction associated with each processed optotype as a function of said predefined display distance and as a function of said plurality of optical power (P) values and/or cylinder and axis values.
A fibrous composite having a dynamic storage modulus of at least 0.8 GPa (8.0 x 10 9 dyn/cm 2 ) as measured at 25°C (77°F), said composite comprising a plurality of adjoined fiber layers, each fiber layer comprising fibers having surfaces that are at least partially covered with a polymeric material, wherein said fibers are predominantly free of a fiber surface finish such that said polymeric material is predominantly in direct contact with the fiber surfaces; characterised in that said polymeric material is an aliphatic, polyether-based polyurethane dispersion and said fibers are polyethylene fibers.
A method for controlling an active power in a wind farm comprising at least two wind turbines, the power output of which is controlled by means of one wind turbine controller in each case, wherein a set value of the active power (P set , P set,global ) to be output by the wind farm is applied to a wind farm model , which generates a modeled active power set value (P' set ) of the wind farm that is applied, together with an actual value of the active power (P act ) output by the wind farm, to a subtraction element, which provides a control deviation (e) for a power controller , which generates a controller manipulated variable (u reg ) to which a pre-control manipulated variable (u ff ), which is determined irrespective of operating states of the wind turbines of the wind farm and their actual values, is added to give a total manipulated variable (u), wherein the modeled active power set value (P' set ) of the wind farm is determined from the sum of modeled active power set values (p simO,1 , p simO,2 , p simO,n ), wherein the active power set value of the wind farm is divided between models of the wind turbines contained in the wind farm and the models of the wind turbines each determine a modeled active power set value of the relevant wind turbine (p simO,1 , p simO,2 , p simO,n ) depending on a proportion of the active power set value (p simI,1 , p simI,2 , p simI,n ) allotted to the relevant model.
Voltage converter for converting between a DC voltage at a DC voltage gate and a single-phase or multiphase AC voltage at an AC voltage gate as a result of temporal clocking of an electronic switching mechanism via which each phase (3a-3c) of the AC voltage gate can be selectively connected to the positive pole or to the negative pole of the DC voltage gate , wherein the positive pole and/or the negative pole of the DC voltage gate are/is connected to an earth terminal via at least one capacitor , wherein the earth terminal can be connected to an external earth , and wherein the connection between the capacitor and the earth terminal is routed via at least one switching element , wherein diagnosis means that are designed to detect the correct function and/or the actual switching state of at least one switching element are provided, characterized in that the diagnosis means comprise a voltage source that is connected to that side of at least one switching element that is facing away from the earth terminal and means for monitoring the potential on this side of the switching element . diagnosis means that are designed to detect the correct function and/or the actual switching state of at least one switching element are provided, characterized in that the diagnosis means comprise a voltage source that is connected to that side of at least one switching element that is facing away from the earth terminal and means for monitoring the potential on this side of the switching element .