mhurhangee/patent-ind-claim-en huggingface dataset:
Water filter device , comprising: a housing , said housing having at a first end of the same an inlet port for unfiltered water and an outlet port for filtered water, at a second end of the same a drain port accommodating a valve , a flow chamber extending between the first end of the housing and the second end of the housing ; a sieve unit positioned with the flow chamber , said sieve unit separating the flow chamber in a first sub-chamber for the unfiltered water and a second sub-chamber for the filtered water, the sieve unit having a basic body with a middle portion carrying a sieve mesh , a first end portion being positioned proximate to the first end of the housing and second end portion being positioned proximate to the second end of the housing , characterized in that the first end portion of the basic body of the sieve unit comprises first water flow guiding blades being inclined relative to a longitudinal axis of the sieve unit , said first water flow guiding blades being positioned within the first sub-chamber for the unfiltered water, the drain port accommodates in addition to the valve a guide element , said guide element having second water flow guiding blades . a housing , said housing having at a first end of the same an inlet port for unfiltered water and an outlet port for filtered water, at a second end of the same a drain port accommodating a valve , a flow chamber extending between the first end of the housing and the second end of the housing ; at a first end of the same an inlet port for unfiltered water and an outlet port for filtered water, at a second end of the same a drain port accommodating a valve , a flow chamber extending between the first end of the housing and the second end of the housing ; a sieve unit positioned with the flow chamber , said sieve unit separating the flow chamber in a first sub-chamber for the unfiltered water and a second sub-chamber for the filtered water, the sieve unit having a basic body with a middle portion carrying a sieve mesh , a first end portion being positioned proximate to the first end of the housing and second end portion being positioned proximate to the second end of the housing , characterized in that the first end portion of the basic body of the sieve unit comprises first water flow guiding blades being inclined relative to a longitudinal axis of the sieve unit , said first water flow guiding blades being positioned within the first sub-chamber for the unfiltered water, the drain port accommodates in addition to the valve a guide element , said guide element having second water flow guiding blades .
A resin composition for a laminated glass interlayer used for forming a laminated glass interlayer, the resin composition comprising: an ionomer (A) of an ethylene-unsaturated carboxylic acid-based copolymer; and an inorganic filler (B), wherein a volume-based cumulative 10% diameter (D 10 ) of the inorganic filler (B) as measured by a laser diffraction scattering method is equal to or more than 0.1 μm and equal to or less than 10 μm, wherein a metal ion constituting the ionomer (A) of the ethylene-unsaturated carboxylic acid-based copolymer includes one or more selected from the group of lithium ion, potassium ion, calcium ion, magnesium ion, zinc ion, aluminum ion, and barium ion and the inorganic filler (B) is calcium carbonate. an ionomer (A) of an ethylene-unsaturated carboxylic acid-based copolymer; and an inorganic filler (B), wherein a volume-based cumulative 10% diameter (D 10 ) of the inorganic filler (B) as measured by a laser diffraction scattering method is equal to or more than 0.1 μm and equal to or less than 10 μm, wherein a metal ion constituting the ionomer (A) of the ethylene-unsaturated carboxylic acid-based copolymer includes one or more selected from the group of lithium ion, potassium ion, calcium ion, magnesium ion, zinc ion, aluminum ion, and barium ion and the inorganic filler (B) is calcium carbonate.
A supporting device for a distance optical sensor comprising: a plate (15; 115; 215) having an upper face (15a; 215a) and a lower face (15b; 215b) and provided with a centering structure (16; 116; 216) configured to couple to a margin of a standard can for industrial fluids; an optical window (25; 221) formed in the plate and arranged so that a distance optical sensor (11; 211) housed on the plate in a position corresponding to the optical window (25; 221) is accessible by light radiation through the optical window (25; 221); a dome and a seat configured to receive a distance optical sensor in a calibrated operative position with respect to the plate (15; 115), wherein the dome is coupled to the plate around the optical window ; wherein the centering structure (16; 116) is conformal to a portion of the margin of the standard can and the optical window (25; 221) is arranged, with respect to the centering structure (16; 116), so as to be in a position corresponding to a hole of the standard can when the centering structure (16; 116) is coupled to the margin of the standard can ; characterized by a fan housed inside the dome . a plate (15; 115; 215) having an upper face (15a; 215a) and a lower face (15b; 215b) and provided with a centering structure (16; 116; 216) configured to couple to a margin of a standard can for industrial fluids; an optical window (25; 221) formed in the plate and arranged so that a distance optical sensor (11; 211) housed on the plate in a position corresponding to the optical window (25; 221) is accessible by light radiation through the optical window (25; 221); a dome and a seat configured to receive a distance optical sensor in a calibrated operative position with respect to the plate (15; 115), wherein the dome is coupled to the plate around the optical window ; wherein the centering structure (16; 116) is conformal to a portion of the margin of the standard can and the optical window (25; 221) is arranged, with respect to the centering structure (16; 116), so as to be in a position corresponding to a hole of the standard can when the centering structure (16; 116) is coupled to the margin of the standard can ; characterized by a fan housed inside the dome .
A film that comprises a thermoplastic composition that contains a continuous phase that includes a matrix polymer, wherein the film is biaxially stretched in a machine direction and cross-machine direction to form a porous network in the composition, wherein the composition contains a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains, and wherein the porous network contains nanopores having an axial dimension and a cross-sectional dimension, wherein the maximum cross-sectional dimension of the nanopores is about 800 nanometers or less, and further wherein at least a portion of the nanopores are oriented in the cross-machine direction so that the axial dimension generally extends in the cross-machine direction and the cross-sectional dimension generally extends in the machine direction, characterised in that the matrix polymer is a polyolefin.
A single cylinder internal combustion engine, in which a plug hole is provided striding between a cylinder head and a head cover joined to the cylinder head , and an intake side camshaft and an exhaust side camshaft are disposed at positions that sandwich the plug hole therebetween, the intake side camshaft and the exhaust side camshaft being sandwiched between the cylinder head and a cam holder joined to the cylinder head . characterized in that a long hole portion is formed as a part of the plug hole , the long hole portion being formed long in a direction orthogonal to axes of the intake side camshaft and the exhaust side camshaft , and a part of a plurality of cam holder attaching bolts (62-69) are disposed within the long hole portion of the plug hole , the plurality of cam holder attaching bolts (62-68) being used for fastening the cam holder to the cylinder head , and a breather chamber is formed between a breather plate and the head cover , the breather chamber being disposed around the long hole portion the breather plate being attached to the head cover .
A food article slicing machine , comprising: a) a slicing head section comprising a1) a knife blade a2) a housing , and a3) a knife blade drive driving the knife blade along a cutting path in a cutting plane ; b) a food article feed apparatus supporting one or more food articles for movement along food article paths intersecting the cutting path; and c) an onboard information carrier system , wherein c1) the onboard information carrier system comprises a data carrier embedded in the knife blade of the food article slicing machine , c2) the data carrier is adapted for reading data from the data carrier , and c3) the data carrier is adapted for writing data onto the data carrier , d) wherein the food article slicing machine comprises a read/write head for reading data from the data carrier and for writing data onto the data carrier , e) wherein the read/write head is mounted to a top wall of the housing , f) further comprising a machine control (C), and g) a controller or an interface for communicating between the read/write head and the machine control (C), wherein the controller or the interface is located within the housing of the slicing head section . a) a slicing head section comprising a1) a knife blade a2) a housing , and a3) a knife blade drive driving the knife blade along a cutting path in a cutting plane ; a1) a knife blade a2) a housing , and a3) a knife blade drive driving the knife blade along a cutting path in a cutting plane ; b) a food article feed apparatus supporting one or more food articles for movement along food article paths intersecting the cutting path; and c) an onboard information carrier system , wherein c1) the onboard information carrier system comprises a data carrier embedded in the knife blade of the food article slicing machine , c2) the data carrier is adapted for reading data from the data carrier , and c3) the data carrier is adapted for writing data onto the data carrier , c1) the onboard information carrier system comprises a data carrier embedded in the knife blade of the food article slicing machine , c2) the data carrier is adapted for reading data from the data carrier , and c3) the data carrier is adapted for writing data onto the data carrier , d) wherein the food article slicing machine comprises a read/write head for reading data from the data carrier and for writing data onto the data carrier , e) wherein the read/write head is mounted to a top wall of the housing , f) further comprising a machine control (C), and g) a controller or an interface for communicating between the read/write head and the machine control (C), wherein the controller or the interface is located within the housing of the slicing head section .
Automatic door, in particular an automatic lift door, comprising - at least one door leaf arrangement , which is mounted such that it can move between a closed position and an open position of the door and can be driven by means of an electric motor, - a drive device , which is housed in a housing at least in part, and comprises a controllable electric motor as the drive means for the door leaf arrangement , and - a control device for controlling the electric motor , - it being possible for the electric motor to be actuated by means of the control device in order to exert a closing holding force on the door leaf arrangement when said door leaf arrangement is in its closed position, characterised by at least one temperature sensor for recording the temperature at a reference point in the region of and/or in the area around the automatic door and for outputting the measured temperature information thereof to the control device , the control device being designed to control the electrical power that is to be provided in order to generate the closing holding force of the electric motor on the basis of the particular temperature information from the temperature sensor such that the electrical power of the electric motor increases as the temperature measured by the temperature sensor decreases, at least once the measured temperature has fallen below a specific measured temperature, and the electrical power of the electric motor decreases again when the measured temperature increases again. - at least one door leaf arrangement , which is mounted such that it can move between a closed position and an open position of the door and can be driven by means of an electric motor, - a drive device , which is housed in a housing at least in part, and comprises a controllable electric motor as the drive means for the door leaf arrangement , and - a control device for controlling the electric motor , - it being possible for the electric motor to be actuated by means of the control device in order to exert a closing holding force on the door leaf arrangement when said door leaf arrangement is in its closed position,
A method for providing a Fine Timing Measurement, FTM, response message in an FTM session with a wireless transceiver system , comprising: receiving an FTM request from an initiating station , wherein the FTM request includes a minimum delta FTM value indicating a minimum time between consecutive fine timing measurement frames, a number of bursts exponents value indicating how many bursts are requested, and a As Soon As Possible, ASAP, value indicating the initiating station's request to start a first burst of the FTM session as soon as possible; determining if the wireless transceiver system is capable of meeting the minimum delta FTM value and the number of bursts exponents value; sending a first FTM response message indicating the FTM session is terminated if the wireless transceiver system is incapable of meeting the minimum delta FTM value and the number of bursts exponents value; and sending a second FTM response message including a status value based on the ASAP value in the FTM request if the wireless transceiver system is capable of meeting the minimum delta FTM value and the number of bursts exponents value. receiving an FTM request from an initiating station , wherein the FTM request includes a minimum delta FTM value indicating a minimum time between consecutive fine timing measurement frames, a number of bursts exponents value indicating how many bursts are requested, and a As Soon As Possible, ASAP, value indicating the initiating station's request to start a first burst of the FTM session as soon as possible; determining if the wireless transceiver system is capable of meeting the minimum delta FTM value and the number of bursts exponents value; sending a first FTM response message indicating the FTM session is terminated if the wireless transceiver system is incapable of meeting the minimum delta FTM value and the number of bursts exponents value; and sending a second FTM response message including a status value based on the ASAP value in the FTM request if the wireless transceiver system is capable of meeting the minimum delta FTM value and the number of bursts exponents value.
A sensor unit comprising a housing containing a power source , at least one microprocessor , non-volatile memory , a transceiver , a clock and a sensor that is adapted to detect changes (Δ) in fringe capacitance (A) and that comprises an un-grounded conductive substrate and a pair of spaced electrically conductive conductors (12; 14) including un-grounded parallel conductors , one or both of which may be electrically charged, each comprising an edge about which a fringe field is caused to be generated, which field extends both between and above the conductors, and is determined by: i) the selection of each conductor material, it's width (w) and thickness; (t) ii) the distance (d) between the conductors; and iii) the charge exerted upon the conductors, and, which is tuned to detect or identify a targeted pest when the pest interferes with the fringe field, which is made directional by i the un-grounded parallel conductors and the shielding from the un-grounded conductive substrate which is electrically isolated , and wherein a connector operatively connecting the sensor and the microprocessor , which is programmed to continuously recalibrate a baseline capacitance, in a time dependant manner, such that false positive events can be discriminated. i) the selection of each conductor material, it's width (w) and thickness; (t) ii) the distance (d) between the conductors; and iii) the charge exerted upon the conductors, and, which is tuned to detect or identify a targeted pest when the pest interferes with the fringe field, which is made directional by i the un-grounded parallel conductors and the shielding from the un-grounded conductive substrate which is electrically isolated , and wherein a connector operatively connecting the sensor and the microprocessor , which is programmed to continuously recalibrate a baseline capacitance, in a time dependant manner, such that false positive events can be discriminated.
Method for assigning the inductance or admittance to the rotor position of a synchronous machine, comprising a stator and a rotor with or without permanent magnets, the synchronous machine being driven by means of clocked terminal voltages and the inductance or admittance being calculated from these and the measured current response, the course of the inductance or admittance over the rotor rotation under the boundary condition of an unchanged, at least two-dimensional current vector in stator coordinates as key information for position assignment, characterized in that the isotropic component of the admittance ( Y Σ ) or inductance is used for position estimation exclusively at a current magnitude greater than a threshold value, and at a current magnitude smaller than the threshold value, the isotropic component of the admittance ( Y Σ ) or inductance is used to correct a variable that contains the value of the isotropic component ( Y Σ ) that applies to the zero current.
A compound of the following structure of formula (I): RC(O)-Xaa-Xbb-Y (I), wherein - R is a C5-C19 linear or branched (fatty) hydrocarbon chain, - Xaa is an asparagine or an equivalent polar and non-charged amino acid selected from the list consisting of serine, threonine or glutamine moiety, - Xbb is a gamma-aminobutyric acid moiety, - Y is -OH or NH2, and wherein the gamma-aminobutyric acid moiety is linked to Xaa through its amine functional group and wherein the RC(O) group is at the N terminal side and Y is a C terminal side, or a pharmaceutical acceptable salt thereof. - R is a C5-C19 linear or branched (fatty) hydrocarbon chain, - Xaa is an asparagine or an equivalent polar and non-charged amino acid selected from the list consisting of serine, threonine or glutamine moiety, - Xbb is a gamma-aminobutyric acid moiety, - Y is -OH or NH2,
An implant retrieval device comprising: an outer elongate body having a first longitudinal lumen extending therethrough; an inner elongate body configured to be slidably disposed within the first longitudinal lumen, wherein the inner elongate body comprises a second longitudinal lumen and a stop located within the second longitudinal lumen at a distal portion thereof; an actuator slidably coupled to the inner elongate body; a retrieval cable slidably disposed within the second longitudinal lumen of the inner elongate body and connected to the actuator such that the retrieval cable at least partially surrounds the stop; and a retainer comprising a clamp disposed over the inner elongate body that secures the position of the actuator with respect to the inner elongate body. an outer elongate body having a first longitudinal lumen extending therethrough; an inner elongate body configured to be slidably disposed within the first longitudinal lumen, wherein the inner elongate body comprises a second longitudinal lumen and a stop located within the second longitudinal lumen at a distal portion thereof; an actuator slidably coupled to the inner elongate body; a retrieval cable slidably disposed within the second longitudinal lumen of the inner elongate body and connected to the actuator such that the retrieval cable at least partially surrounds the stop; and a retainer comprising a clamp disposed over the inner elongate body that secures the position of the actuator with respect to the inner elongate body.
A LAS-degrading and N-removing bacterium, taxonomically classified as Pseudomonas sp., deposited in China General Microbiological Culture Collection Center on September 18 th , 2018, with the accession number of CGMCC 16502.
A method for transmitting a channel state information-reference signal, CSI-RS by a base station, BS, in a wireless communication system, the method comprising: transmitting (S2010) synchronization signal/sequence blocks, SSBs based on a plurality of SSB indexes; transmitting CSI-RS configuration information; transmitting (S2020) a CSI-RS based on the CSI-RS configuration information and the SSBs, characterized in that the CSI-RS configuration information includes i) information for a plurality of CSI-RS resources and ii) quasi co-location QCL information for each of the plurality of CSI-RS resources, wherein based on i) the CSI-RS is related to a specific CSI-RS resource among the plurality of CSI-RS resources and ii) the QCL information related to the specific CSI-RS resource represents a specific SSB index among the plurality of SSB indexes: the CSI-RS is assumed to be quasi co-located, QCL with an SSB based on the specific SSB index, with respect to a spatial reception parameter. transmitting (S2010) synchronization signal/sequence blocks, SSBs based on a plurality of SSB indexes; transmitting CSI-RS configuration information; transmitting (S2020) a CSI-RS based on the CSI-RS configuration information and the SSBs, characterized in that the CSI-RS configuration information includes i) information for a plurality of CSI-RS resources and ii) quasi co-location QCL information for each of the plurality of CSI-RS resources, wherein based on i) the CSI-RS is related to a specific CSI-RS resource among the plurality of CSI-RS resources and ii) the QCL information related to the specific CSI-RS resource represents a specific SSB index among the plurality of SSB indexes: the CSI-RS is assumed to be quasi co-located, QCL with an SSB based on the specific SSB index, with respect to a spatial reception parameter.