mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising, performed by at least one apparatus: obtaining data comprising magnetic flux density data and an association of the magnetic flux density data to grid points of at least one grid, each grid point representing at least a geographical location; applying at least one frequency transform to a representation of the magnetic flux density data and their association to grid points to obtain frequency components; and providing compressed magnetic flux density data comprising a subset of the obtained frequency components for at least one of storage and transmission, wherein the number of frequency components of the subset of frequency components is one of: adaptively selected based on an analysis of a deviation between the obtained magnetic flux density data and magnetic flux density data recovered from the subset of frequency components; and adaptively selected for a respective geographical area in response to a variability of the magnetic flux density data in the geographical area. obtaining data comprising magnetic flux density data and an association of the magnetic flux density data to grid points of at least one grid, each grid point representing at least a geographical location; applying at least one frequency transform to a representation of the magnetic flux density data and their association to grid points to obtain frequency components; and providing compressed magnetic flux density data comprising a subset of the obtained frequency components for at least one of storage and transmission, wherein the number of frequency components of the subset of frequency components is one of: adaptively selected based on an analysis of a deviation between the obtained magnetic flux density data and magnetic flux density data recovered from the subset of frequency components; and adaptively selected for a respective geographical area in response to a variability of the magnetic flux density data in the geographical area. adaptively selected based on an analysis of a deviation between the obtained magnetic flux density data and magnetic flux density data recovered from the subset of frequency components; and adaptively selected for a respective geographical area in response to a variability of the magnetic flux density data in the geographical area.
An expansion joint for use in a concrete floor surface, the expansion joint having, in use, an upper and lower portion, wherein the upper portion provides a first and a second dividing member , the dividing members consisting of two vertically oriented corrugated plates having undulations that fit in one another and wherein the lower portion comprises a first and a second vertically oriented corrugated plate , these plates having undulations that fit in one another, wherein the crests and troughs of the corrugations extend vertically, the vertical orientation being perpendicular with respect to the floor surface when in use, and wherein the first dividing member and the first lower corrugated plate are substantially in the same lateral plane and are secured to one another through a first binding member consisting of a metal sheet; the second dividing member and the second lower corrugated plate are substantially in the same lateral plane and are secured to one another through a second binding member consisting of a metal sheet; and in that the corrugated plates of the upper and lower portions are out of phase to one another.
An electromagnetic signal converter for an osteophone, comprising - a soft magnetic yoke , - an electrical coil arranged concentrically to the longitudinal axis of the yoke and set on the yoke , - a soft magnetic housing , - an elastically suspended, soft-magnetic armature which, viewed in the direction of the longitudinal axis of the yoke , is separated from the yoke and from the soft magnetic housing by a working air gap and can move along the longitudinal axis of the yoke , and - a permanent magnet which is magnetized in the direction of the longitudinal axis of the yoke in order to generate a magnetic biasing voltage of the yoke and of the armature , characterized in that the permanent magnet and the coil do not overlap one another in the direction of the longitudinal axis of the yoke and that means is provided for dividing the magnetic flux that can be produced by the coil onto at least two flux paths, wherein one flux path runs outside of the permanent magnet , and that the permanent magnet , yoke and coil are surrounded by a soft magnetic housing which is separated by an air gap from the yoke so that the magnetic flux which can be generated by the coil can be guided by the soft magnetic housing onto the flux path outside of the permanent magnet , and that the yoke comprises a rod-shaped yoke core aligned along the longitudinal axis of the yoke and comprises a yoke plate arranged normally to the longitudinal axis, wherein the yoke core extends into the coil and the yoke plate faces a front side of the coil , and the magnetic flux which can be produced by the coil can be guided by the yoke plate onto the flux path outside of the permanent magnet , and that the permanent magnet is arranged, as regards the yoke , lying opposite the armature . - a soft magnetic yoke , - an electrical coil arranged concentrically to the longitudinal axis of the yoke and set on the yoke , - a soft magnetic housing , - an elastically suspended, soft-magnetic armature which, viewed in the direction of the longitudinal axis of the yoke , is separated from the yoke and from the soft magnetic housing by a working air gap and can move along the longitudinal axis of the yoke , and - a permanent magnet which is magnetized in the direction of the longitudinal axis of the yoke in order to generate a magnetic biasing voltage of the yoke and of the armature , characterized in that the permanent magnet and the coil do not overlap one another in the direction of the longitudinal axis of the yoke and that means is provided for dividing the magnetic flux that can be produced by the coil onto at least two flux paths, wherein one flux path runs outside of the permanent magnet , and
A method for drying microcapsule particles containing multiple double bonds fat soluble nutrients, comprising the following steps: a) preparing a microcapsule emulsion containing multiple double bonds fat soluble nutrients, performing spray granulation on the microcapsule emulsion in a spray system, and meanwhile blasting air into the spray system, the blasted air wrapping adsorption materials, and the microcapsule emulsion being immediately solidified and sized after coming into contact with the air; wherein in step a), the temperature of blasting air into the spray system is 10-90°C; b) performing fluidized drying of the solidified and sized microcapsule emulsion of step a) into a multi-stage fluidized bed system; wherein in step b), a number of the stages of the multi-stage fluidized bed system is 1-4 level, the differential pressure between two adjacent stages of the multi-stage fluidized bed system is 0,14 MPa (20 psi) an inlet air temperature of the multi-stage fluidized bed system is in a range of 20-120°C; an inlet air temperature of a lower fluidized bed is higher than that of an upper fluidized bed, and an inlet air temperature difference is 20-40°C; c) collecting non-adsorbed adsorption materials by means of an adsorption material dust removal, recovery and circulation system; and d) collecting microcapsule particle products. a) preparing a microcapsule emulsion containing multiple double bonds fat soluble nutrients, performing spray granulation on the microcapsule emulsion in a spray system, and meanwhile blasting air into the spray system, the blasted air wrapping adsorption materials, and the microcapsule emulsion being immediately solidified and sized after coming into contact with the air; wherein in step a), the temperature of blasting air into the spray system is 10-90°C; b) performing fluidized drying of the solidified and sized microcapsule emulsion of step a) into a multi-stage fluidized bed system; wherein in step b), a number of the stages of the multi-stage fluidized bed system is 1-4 level, the differential pressure between two adjacent stages of the multi-stage fluidized bed system is 0,14 MPa (20 psi) an inlet air temperature of the multi-stage fluidized bed system is in a range of 20-120°C; an inlet air temperature of a lower fluidized bed is higher than that of an upper fluidized bed, and an inlet air temperature difference is 20-40°C; c) collecting non-adsorbed adsorption materials by means of an adsorption material dust removal, recovery and circulation system; and d) collecting microcapsule particle products.
Purified human placental alkaline phosphatase (PALP), or a physiologically active derivative thereof, for use in reducing weight gain or inducing weight loss, whereby the derivative is selected from fragments of PALP that demonstrate efficacies similar or more effective than native PALP.
A method of forming a three-dimensional object comprised of polyurethane, polyurea, or copolymer thereof, said method comprising: (a) providing a carrier and an optically transparent member having a build surface, said carrier and said build surface defining a build region therebetween; (b) filling said build region with a polymerizable liquid, said polymerizable liquid comprising at least one of: (i) a blocked or reactive blocked prepolymer, (ii) a blocked or reactive blocked diisocyanate, or (iii) a blocked or reactive blocked diisocyanate chain extender; (c) irradiating said build region with light through said optically transparent member to form a solid blocked polymer scaffold and advancing said carrier away from said build surface to form a three-dimensional intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object, with said intermediate containing said (i) blocked or reactive blocked prepolymer, (ii) blocked or reactive blocked diisocyanate, or (iii) blocked or reactive blocked diisocyanate chain extender; and then (d) heating or microwave irradiating said three-dimensional intermediate sufficiently to de-protect the (i) blocked or reactive blocked prepolymer, (ii) blocked or reactive blocked diisocyanate, or (iii) blocked or reactive blocked diisocyanate chain extender, and generate a free constituent which participates in a second solidifying and/or curing to form from said three-dimensional intermediate said three-dimensional object comprised of polyurethane, polyurea, or copolymer thereof. (a) providing a carrier and an optically transparent member having a build surface, said carrier and said build surface defining a build region therebetween; (b) filling said build region with a polymerizable liquid, said polymerizable liquid comprising at least one of: (i) a blocked or reactive blocked prepolymer, (ii) a blocked or reactive blocked diisocyanate, or (iii) a blocked or reactive blocked diisocyanate chain extender; (c) irradiating said build region with light through said optically transparent member to form a solid blocked polymer scaffold and advancing said carrier away from said build surface to form a three-dimensional intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object, with said intermediate containing said (i) blocked or reactive blocked prepolymer, (ii) blocked or reactive blocked diisocyanate, or (iii) blocked or reactive blocked diisocyanate chain extender; and then (d) heating or microwave irradiating said three-dimensional intermediate sufficiently to de-protect the (i) blocked or reactive blocked prepolymer, (ii) blocked or reactive blocked diisocyanate, or (iii) blocked or reactive blocked diisocyanate chain extender, and generate a free constituent which participates in a second solidifying and/or curing to form from said three-dimensional intermediate said three-dimensional object comprised of polyurethane, polyurea, or copolymer thereof.
A leak detection system , comprising: a testing interface comprises: a rotation holder configured to retain and rotate a package ; a plunger apparatus comprising a plunger comprising an electrically conductive end effector , wherein the plunger apparatus is configured to actuate the plunger to apply a pressure to the package at least one of before and during the package being inspected using a high voltage leak detection (HVLD) apparatus , wherein the plunger apparatus is configured to apply the pressure to a stopper of the package in an inward direction of the package , the stopper is configured to fit within the package and seal an opening of the package and rotate with the package , and the electrically conductive end effector is configured to contact the stopper and rotate with the package ; and a controller configured to operate and coordinate the operation of the testing interface with operation of the HVLD apparatus . a rotation holder configured to retain and rotate a package ; a plunger apparatus comprising a plunger comprising an electrically conductive end effector , wherein the plunger apparatus is configured to actuate the plunger to apply a pressure to the package at least one of before and during the package being inspected using a high voltage leak detection (HVLD) apparatus , wherein the plunger apparatus is configured to apply the pressure to a stopper of the package in an inward direction of the package , the stopper is configured to fit within the package and seal an opening of the package and rotate with the package , and the electrically conductive end effector is configured to contact the stopper and rotate with the package ; and a controller configured to operate and coordinate the operation of the testing interface with operation of the HVLD apparatus .
A device for detecting a flow of a fluid through or a presence of a fluid in a fluid carrying element, such as a pipe, a tube, a valve, a chamber and/or a fitting, comprising: - an emitting device configured to emit a wave signal into a fluid , which wave signal is transmittable by the fluid , wherein the emitting device comprises at least one coupling element configured for an injection of the wave signal into the fluid when the emitting device is arranged transverse to a longitudinal extension of the fluid carrying element, and - a receiving device configured to receive the wave signal emitted from the emitting device and transmitted by the fluid , wherein the receiving device comprises at least one coupling element configured for an extraction of the wave signal from the fluid when the receiving device is arranged transverse to a longitudinal extension of the fluid carrying element, characterized in that - the emitting device is a light emitting device configured to emit a visible or invisible light signal and the receiving device is a light receiving device configured to receive the light signal emitted from the light emitting device , wherein the at least one coupling element configured for an injection of the wave signal into the fluid is an optical element configured for a light injection into the fluid, and the at least one coupling element configured for an extraction of the wave signal from the fluid is an optical element configured for a light extraction from the fluid. - an emitting device configured to emit a wave signal into a fluid , which wave signal is transmittable by the fluid , wherein the emitting device comprises at least one coupling element configured for an injection of the wave signal into the fluid when the emitting device is arranged transverse to a longitudinal extension of the fluid carrying element, and - a receiving device configured to receive the wave signal emitted from the emitting device and transmitted by the fluid , wherein the receiving device comprises at least one coupling element configured for an extraction of the wave signal from the fluid when the receiving device is arranged transverse to a longitudinal extension of the fluid carrying element, - the emitting device is a light emitting device configured to emit a visible or invisible light signal and the receiving device is a light receiving device configured to receive the light signal emitted from the light emitting device , wherein the at least one coupling element configured for an injection of the wave signal into the fluid is an optical element configured for a light injection into the fluid, and the at least one coupling element configured for an extraction of the wave signal from the fluid is an optical element configured for a light extraction from the fluid.
A carbonaceous material for a sodium ion secondary battery negative electrode, characterized in that the carbonaceous material is derived from a plant as a carbon source, has a BET specific surface area of 100 m 2 /g or less, and has a true density determined by the butanol method that is less than 1.53 g/cm 3 , the plant is at least one plant selected from the group consisting of coconut shells, coffee beans, tea leaves, sugar cane, straw, broad leaf trees, conifers, bamboo, and rice husks, and the ratio H/C of hydrogen atoms to carbon atoms determined by elemental analysis is 0.03 or less.
A method for identifying components of a sample comprising: providing a sample to an ion source and generating a plurality of ions from constituent components of the sample; applying a first RF waveform at a first RF amplitude to an ion trap with field resonances while directing the plurality of ions into the ion trap, the first amplitude sufficient for at least a portion of the ions within the ion trap to have a secular frequency above at least one of the field resonances of the ion trap; applying a second RF waveform at a second RF amplitude to the ion trap while focusing the plurality of ions towards a center of the ion trap along a longitudinal axis, the second amplitude less than the first amplitude and low enough that the ions within the ion trap have a secular frequency less than the field resonances of the ion trap; ejecting the plurality of ions from the ion trap into a mass analyzer ; and using the mass analyzer to determine the mass-to-charge ratio of the ions. providing a sample to an ion source and generating a plurality of ions from constituent components of the sample; applying a first RF waveform at a first RF amplitude to an ion trap with field resonances while directing the plurality of ions into the ion trap, the first amplitude sufficient for at least a portion of the ions within the ion trap to have a secular frequency above at least one of the field resonances of the ion trap; applying a second RF waveform at a second RF amplitude to the ion trap while focusing the plurality of ions towards a center of the ion trap along a longitudinal axis, the second amplitude less than the first amplitude and low enough that the ions within the ion trap have a secular frequency less than the field resonances of the ion trap; ejecting the plurality of ions from the ion trap into a mass analyzer ; and using the mass analyzer to determine the mass-to-charge ratio of the ions.
A refrigerator comprising: an inner casing having a storage chamber defined therein, characterized by further comprising: a middle plate to surround an outer surface of the inner casing ; a cabinet cover to cover the middle plate and to define a top appearance of the refrigerator ; a wireless charging module including a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover , and a module mounting casing fixed to the middle plate and on which the wireless charging module is mounted; wherein the cabinet cover includes a module-receiving recess defined therein for receiving a portion of the wireless charging module . a middle plate to surround an outer surface of the inner casing ; a cabinet cover to cover the middle plate and to define a top appearance of the refrigerator ; a wireless charging module including a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover , and a module mounting casing fixed to the middle plate and on which the wireless charging module is mounted; wherein the cabinet cover includes a module-receiving recess defined therein for receiving a portion of the wireless charging module .
A method for waking up one of a plurality of radio communications modules, RCMs, of a first station, the method comprising: receiving , by the first station, a wake-up configuration from a second station; placing, by the first station, the plurality of RCMs of the first station into a sleeping mode; receiving , by the first station, a wake-up signal from the second station on an auxiliary low-power radio receiver of the first station; determining, by the first station, a first RCM of the plurality of RCMs to wake up in accordance with the wake-up configuration; and the method further comprising following steps in the provided sequence: waking up , by the first station, the first RCM from the sleeping mode to communicate with the second station, transmitting , by the first station, a wake-up indicator to the second station, detecting, by the first station, a time-out prior to receiving a response from the second station on the first RCM, determining, by the first station, a third RCM of the plurality of RCMs of the first station to wake up, and waking up, by the first station, the third RCM from the sleeping mode to communicate with the second station. receiving , by the first station, a wake-up configuration from a second station; placing, by the first station, the plurality of RCMs of the first station into a sleeping mode; receiving , by the first station, a wake-up signal from the second station on an auxiliary low-power radio receiver of the first station; determining, by the first station, a first RCM of the plurality of RCMs to wake up in accordance with the wake-up configuration; and the method further comprising following steps in the provided sequence: waking up , by the first station, the first RCM from the sleeping mode to communicate with the second station, transmitting , by the first station, a wake-up indicator to the second station, detecting, by the first station, a time-out prior to receiving a response from the second station on the first RCM, determining, by the first station, a third RCM of the plurality of RCMs of the first station to wake up, and waking up, by the first station, the third RCM from the sleeping mode to communicate with the second station. waking up , by the first station, the first RCM from the sleeping mode to communicate with the second station, transmitting , by the first station, a wake-up indicator to the second station, detecting, by the first station, a time-out prior to receiving a response from the second station on the first RCM, determining, by the first station, a third RCM of the plurality of RCMs of the first station to wake up, and waking up, by the first station, the third RCM from the sleeping mode to communicate with the second station.