mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous casting method of steel supplying molten steel from a sliding nozzle provided at a bottom of a tundish through two discharge holes at the two sides of an immersion nozzle in the long axis direction toward the short side direction of a facing casting mold , said continuous casting method of steel characterized by using an immersion nozzle provided with an inside bore having a sectional area reduced from the top to the bottom and a horizontal sectional shape of an elliptical shape at the bottom of the inside bore and a circular shape at the top of the inside bore , the inside bore having the ratio S 1/ S 0 of 0.5 to 0.95, where S 1 is the sectional area of the smallest sectional area part of the inside bore and S 0 is the sectional area of the bore of the sliding nozzle , and a length ratio D L /D S of that long axis D L and short axis D S at right above the discharge holes of 1.2 to 3.8, arranging a direction of that long axis substantially parallel to a long side direction of the casting mold , arranging the sliding direction of the sliding nozzle in a direction perpendicular to said long axis to supply the molten steel in the casting mold , making a distance between an outer surface of the short axis side of the immersion nozzle and the inner wall of the long length side of the casting mold at least 50 mm and using an electromagnetic stirring apparatus to impart swirlability to the steel in the casting mold during casting.
A coating composition suitable for use on a fiber cement product comprising from about 5 to about 60% by weight of metakaolin and/or fly ash, the % by weight being based on the coating composition, an alkali metal (M) silicate wherein the molar ratio of SiO 2 versus M 2 O in said alkali metal silicate is between 1 and 2, preferably between 1.2 and 1.5, and water and wherein the molar ratio of Si versus Al in said coating composition is between 1 and 5.5, preferably between 2.3 and 5.3 and further comprising an accelerator consisting of zinc oxide to trap free alkali silicate thereby stopping efflorescence.
Traveling floor cleaning machine comprising a chassis , a cleaning tool apparatus which is arranged on the chassis , with at least one cleaning tool and with a holder for the at least one cleaning tool , and a suction apparatus which comprises a suction unit and an aspiration apparatus , wherein the suction unit is arranged on the holder , characterized in that the at least one cleaning tool and a motor apparatus are arranged and configured so that on contact of the at least one cleaning tool with a floor, a travel drive of the floor cleaning machine is provided.
A method for wireless communication, comprising: transmitting a sensor data request message to a responding device, the sensor data request message comprising a token identifier associated with the sensor data request message; receiving , from the responding device, a sensor data response message, characterised by the sensor data response message comprising a first indication of the token identifier at a first layer and a second indication of the token identifier at a second layer, wherein the first layer is a physical layer that is a lower layer than the second layer; and transmitting a first feedback message responsive to detecting the first indication of the token identifier at the first layer. transmitting a sensor data request message to a responding device, the sensor data request message comprising a token identifier associated with the sensor data request message; receiving , from the responding device, a sensor data response message, characterised by the sensor data response message comprising a first indication of the token identifier at a first layer and a second indication of the token identifier at a second layer, wherein the first layer is a physical layer that is a lower layer than the second layer; and transmitting a first feedback message responsive to detecting the first indication of the token identifier at the first layer.
A secure computing system with at-rest and in-motion encryption, the system comprising: a file system comprising a set of encryption zones , each of the encryption zones comprising encrypted files; a set of encrypted data encryption keys, each of the encrypted data encryption keys corresponding to one of the encrypted files, such that unencrypted versions of the encrypted data encryption keys decrypt the corresponding encrypted files; and an encryption zone key for each of the encryption zones, each of the encryption zone keys corresponding to at least one of the encrypted data encryption keys, such that the encryption zone keys decrypt the corresponding encrypted data encryption keys to generate the unencrypted version of the encrypted data encryption key; a key management service that is coupled to the file system and that processes requests for one or more of the encryption zone keys; a key server that is coupled to the key management service and that stores the encryption zone keys; and wherein the key management service is coupled to the file system using a first mutual secure sockets layer, and wherein the key server is coupled to the key management service using a second mutual secure sockets layer. a file system comprising a set of encryption zones , each of the encryption zones comprising encrypted files; a set of encrypted data encryption keys, each of the encrypted data encryption keys corresponding to one of the encrypted files, such that unencrypted versions of the encrypted data encryption keys decrypt the corresponding encrypted files; and an encryption zone key for each of the encryption zones, each of the encryption zone keys corresponding to at least one of the encrypted data encryption keys, such that the encryption zone keys decrypt the corresponding encrypted data encryption keys to generate the unencrypted version of the encrypted data encryption key; a key management service that is coupled to the file system and that processes requests for one or more of the encryption zone keys; a key server that is coupled to the key management service and that stores the encryption zone keys; and wherein the key management service is coupled to the file system using a first mutual secure sockets layer, and wherein the key server is coupled to the key management service using a second mutual secure sockets layer.
Connection profile for a composite profile, the connection profile comprising: a first fastening portion for fixing the connection profile to a first profile of the composite profile; a second fastening portion for fixing the connection profile to a second profile of the composite profile; and at least one interior located between the two fastening portions , the interior being delimited by a wall of the connection profile , characterized in that the wall has an integrally closed feed joint which extends in the longitudinal direction of the connection profile and in that the feed joint and the wall comprising the feed joint comprise the same material. a first fastening portion for fixing the connection profile to a first profile of the composite profile; a second fastening portion for fixing the connection profile to a second profile of the composite profile; and at least one interior located between the two fastening portions , the interior being delimited by a wall of the connection profile , characterized in that the wall has an integrally closed feed joint which extends in the longitudinal direction of the connection profile and in that the feed joint and the wall comprising the feed joint comprise the same material.
A disposable receptacle for holding used pet litter; the receptacle comprising: (a) a container defining an interior volume ; the container having a bottom wall , first and second opposing side walls extending from the bottom wall, and first and second opposing end walls extending from the bottom wall and between the first and second side wall; the container having an access opening surrounded by a rim defined by free ends of the first and second side walls and first and second end walls; and (b) a removable lid covering the access opening; (i) the lid having an interior side in communication with the interior volume of the container and an opposite exterior side facing away from the interior volume of the container; (ii) the lid having a lock tab projecting from the exterior side constructed and arranged to mate with a cover member of a litter box , when operably positioned therein; characterized in that (c) the container and the lid having radially projecting flanges with an open passage in between sized to receive a guide rail of a litter box, when operably positioned therein. (a) a container defining an interior volume ; the container having a bottom wall , first and second opposing side walls extending from the bottom wall, and first and second opposing end walls extending from the bottom wall and between the first and second side wall; the container having an access opening surrounded by a rim defined by free ends of the first and second side walls and first and second end walls; and (b) a removable lid covering the access opening; (i) the lid having an interior side in communication with the interior volume of the container and an opposite exterior side facing away from the interior volume of the container; (ii) the lid having a lock tab projecting from the exterior side constructed and arranged to mate with a cover member of a litter box , when operably positioned therein; characterized in that (i) the lid having an interior side in communication with the interior volume of the container and an opposite exterior side facing away from the interior volume of the container; (ii) the lid having a lock tab projecting from the exterior side constructed and arranged to mate with a cover member of a litter box , when operably positioned therein; characterized in that (c) the container and the lid having radially projecting flanges with an open passage in between sized to receive a guide rail of a litter box, when operably positioned therein.
A modularly constructed field device for operation on a field bus, comprising a housing having a base module , which includes a processing unit for process control, a communication interface , having a data connection to the processing unit , for connection to a local communication network of the automation environment of the field device, and an electrical interface , electrically connected to a power supply of the processing unit , for connection to a local power grid, wherein a functional module is associated with the housing , which includes at least one functional element , which has a data connection to the processing unit and an electrical connection to the electrical interface , so that both the communication via the field bus and also the power supply of the functional module are ensured, wherein the at least one functional element is a motor, a sensor or a sensor arrangement, an illumination element, a camera, a work machine, an input element, a display, or a loudspeaker, and wherein the communication interface , having a data connection to the processing unit , for connection to a local communication network, and also the electrical interface , having an electrical connection to a power supply of the processing unit , for connection to a local power grid are combined into a shared hybrid interface , preferably a Power-over-Ethernet (PoE) interface, characterized in that the housing is designed as an elongated polygonal profile enclosing an inner cavity, into the inner cavity of which the base module fastened on a base plate protrudes at the end and closes it by means of the base plate , wherein the at least one functional element is fastened on a cover plate , wherein the functional module protrudes at the end into the inner cavity of the polygonal profile and closes it by means of the cover plate and wherein the polygonal profile includes at least one undercut longitudinal groove on its circumferential wall, in which a groove block is insertable for fastening of the field device on a support device, into which groove block a screw can be screwed and the housing can be fixed on the support device.
Automatic machine for processing, in particular sorting or inspecting, objects passing in a flow (F) on a conveyor , this machine having either a selective ejection device with at least one pneumatic bar or rail with nozzles , or a radiation emitting and receiving device with at least one optical bar , this bar being disposed transverse to the direction of said flow (F), after the outlet or tipping end of said conveyor , and having an active surface strip that corresponds to the installation region of the outlet openings of the nozzles of the pneumatic bar or to a coverage or overlap region of the radiation emitting or receiving means of the optical bar , this surface strip being situated beneath the conveying plane (4") of the conveyor , which machine is characterized in that it also comprises a device for cleaning at least said surface strip , this cleaning device having at least one cleaning head that is able to move in translation along the longitudinal axis (AL) of the bar and at least over the entire extent of the installation or overlap region, said or each cleaning head comprising at least one scraping member , which moves in contact with at least said surface strip , and at least one nozzle for blowing air of which the pressurized jet is directed toward said surface strip and precedes the scraping member during the movement of the mobile cleaning head so as to process at least said surface strip in order to remove deposits present on the latter.
An apparatus for detecting volatile organic compounds, VOCs, in a gas, the apparatus comprising: a processing device ; a compensation voltage source ; a separation voltage source ; and a detecting region comprising: a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source ; a second interdigital pole disposed within the detecting region and electrically connected to a switch ; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; wherein the switch is configured to alternate the connection of the second interdigital pole between the compensation voltage source and the processing device ; and wherein the processing device is configured to determine a VOC value representative of a number of volatile organic compounds in the gas based at least in part on a number of ionized gas molecules that contact the second interdigital pole while the second interdigital pole is electrically connected to the processing device . a processing device ; a compensation voltage source ; a separation voltage source ; and a detecting region comprising: a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source ; a second interdigital pole disposed within the detecting region and electrically connected to a switch ; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; a first interdigital pole disposed within the detecting region and electrically connected to the separation voltage source ; a second interdigital pole disposed within the detecting region and electrically connected to a switch ; and an ionization device configured to interact with a gas within the detecting region creating a plurality of ionized gas molecules; wherein the switch is configured to alternate the connection of the second interdigital pole between the compensation voltage source and the processing device ; and wherein the processing device is configured to determine a VOC value representative of a number of volatile organic compounds in the gas based at least in part on a number of ionized gas molecules that contact the second interdigital pole while the second interdigital pole is electrically connected to the processing device .
A device comprising: accelerometer circuitry configured to generate at least one signal; a memory ; and processing circuitry coupled to the accelerometer circuitry and the memory configured to: detect a Sit-to-Stand transition of a patient based upon the at least one signal; determine if the patient has been inactive for a predetermined period of time prior to the Sit-to-Stand transition; and if the patient has been inactive for at least the predetermined period of time prior to the Sit-to-Stand transition, determine a body stability score of the patient based on the at least one signal. accelerometer circuitry configured to generate at least one signal; a memory ; and processing circuitry coupled to the accelerometer circuitry and the memory configured to: detect a Sit-to-Stand transition of a patient based upon the at least one signal; determine if the patient has been inactive for a predetermined period of time prior to the Sit-to-Stand transition; and if the patient has been inactive for at least the predetermined period of time prior to the Sit-to-Stand transition, determine a body stability score of the patient based on the at least one signal. detect a Sit-to-Stand transition of a patient based upon the at least one signal; determine if the patient has been inactive for a predetermined period of time prior to the Sit-to-Stand transition; and if the patient has been inactive for at least the predetermined period of time prior to the Sit-to-Stand transition, determine a body stability score of the patient based on the at least one signal.
An aircraft propulsion system intended for being integrated into the rear of an aircraft fuselage , the propulsion system comprising, from upstream to downstream in the direction of a gas flow in the propulsion system, at least two gas generators supplying a power turbine having two counter-rotating turbine rotors for driving two fans disposed downstream of the gas generators , and separate air inlets for supplying each gas generator , characterised in that it comprises an electrical drive device configured to rotate at least one of the turbine rotors and comprising at least one electrical generator configured to transform part of the energy of the flow coming from the gas generators into electrical power and an electric motor supplied by said electrical generator and capable of rotating at least one of the turbine rotors , said electrical generator being installed on one of said gas generators , and in that said turbine rotor is capable of being rotated simultaneously by a flow coming from said gas generators and by the electrical drive device .
A method for imaging an object, the method comprising the steps of: accommodating a positioning of the object relative to an imaging system, wherein a shape of the object is describable in terms of one or more shape parameters; creating scan data by determining a coordinate of the object at a set of points along an arc by the imaging system, wherein the coordinate of the object is a Z coordinate of an object layer; characterised in that the method further comprises the steps of determining an object shape parameter and an object position parameter based on the scan data by a system control module by extracting an amplitude and a phase of the scan data; and determining a center of the object layer based on the extracted amplitude and phase; wherein: the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object. accommodating a positioning of the object relative to an imaging system, wherein a shape of the object is describable in terms of one or more shape parameters; creating scan data by determining a coordinate of the object at a set of points along an arc by the imaging system, wherein the coordinate of the object is a Z coordinate of an object layer; characterised in that the method further comprises the steps of determining an object shape parameter and an object position parameter based on the scan data by a system control module by extracting an amplitude and a phase of the scan data; and determining a center of the object layer based on the extracted amplitude and phase; wherein: the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object. the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object.
A crystalline tranilast salt selected from the group consisting of crystalline 1:1 Tranilast N-methylglucamine form I, crystalline 1:1 Tranilast N-methylglucamine form II, crystalline 1:1 Tranilast L-Lysine, crystalline 1:1 Tranilast Diethylamine, crystalline 1:1 Tranilast N-ethylglucamine, crystalline 1:1 Tranilast Potassium Monohydrate, crystalline 1:1 Tranilast Diethanolamine, and crystalline 1:1 Tranilast Ethanolamine.
An acceleration-measuring sensor assembly comprising an accelerometer subassembly with three measurement axes, mounted in a housing equipped with securing elements , configured to determine an acceleration along a measurement axis OY, comprising: - a single-axis main accelerometer with a seismic mass moving in a straight line along a main sensitive axis A, insensitive to transverse accelerations, measuring acceleration along the main sensitive axis A which is misaligned with respect to the measurement axis OY by 50 mrad at most, the acceleration-measuring sensor assembly being characterised in that it also comprises: - a secondary accelerometer having at least two measurement axes and measuring, respectively, along two axes X and Z which form with the measurement axis Y a direct orthonormal trihedron (O, X, Y, Z), the measurement precision of the two-axis accelerometer along each of its axes being at least ten times inferior to the measurement precision of the main single-axis accelerometer, and - an electronic computation unit configured to compute and output an acceleration S compensated for by means of the following relation: S = S prA − μ CalZ ⋅ S secX + μ CalX ⋅ S secZ in which: - S prA represents the acceleration measurement along the main sensitive axis A; - μ CalX , μ CalZ represent the parameters compensating respectively for the alignments of axes X, Z of the sensor assembly, these being dimensionless quantities, measured after assembly of the sensor assembly; and - S secX , S secZ represent the compensation acceleration placed along the transverse axis X and along the transverse axis Z, respectively. - a single-axis main accelerometer with a seismic mass moving in a straight line along a main sensitive axis A, insensitive to transverse accelerations, measuring acceleration along the main sensitive axis A which is misaligned with respect to the measurement axis OY by 50 mrad at most, - a secondary accelerometer having at least two measurement axes and measuring, respectively, along two axes X and Z which form with the measurement axis Y a direct orthonormal trihedron (O, X, Y, Z), the measurement precision of the two-axis accelerometer along each of its axes being at least ten times inferior to the measurement precision of the main single-axis accelerometer, and - an electronic computation unit configured to compute and output an acceleration S compensated for by means of the following relation: S = S prA − μ CalZ ⋅ S secX + μ CalX ⋅ S secZ - S prA represents the acceleration measurement along the main sensitive axis A; - μ CalX , μ CalZ represent the parameters compensating respectively for the alignments of axes X, Z of the sensor assembly, these being dimensionless quantities, measured after assembly of the sensor assembly; and - S secX , S secZ represent the compensation acceleration placed along the transverse axis X and along the transverse axis Z, respectively.