mhurhangee/patent-ind-claim-en huggingface dataset:
A coatable composition for formation of an ink-receptive layer selected from coatable composition A or coatable composition B, where coatable composition A comprises a mixture of: a) 8.0-60 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 30-80.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 0-10 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers; and coatable composition B comprises a mixture of: a) 1.0-15 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 75-85.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 10-22.0 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers. a) 8.0-60 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 30-80.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 0-10 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers; a) 1.0-15 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 75-85.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 10-22.0 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers.
A braze alloy composition, comprising: a) nickel; or a combination of nickel and cobalt; b) 2% by weight to 30% by weight germanium; and c) 1% by weight to 5% by weight boron; wherein the composition is free of silicon. a) nickel; or a combination of nickel and cobalt; b) 2% by weight to 30% by weight germanium; and c) 1% by weight to 5% by weight boron;
A tape rule comprising: a housing ; a hub rotatably mounted within the housing ; a reel rotatably mounted within the housing ; a tape wound around the reel ; a spring wound around the hub and attached to at least one of the reel and the tape ; and characterised by further comprising: a motor disposed adjacent to the hub and configured, when activated, to rotate the hub to adjust an amount by which the spring is wound around the hub ; a hub bearing that is situated between the hub and the reel allowing the motor to rotate the hub without rotating the reel ; a control circuit that is configured to selectively activate the motor to rotate the hub relative to the motor ; and further characterised in that the tape rule is configured, during extraction of the tape from the housing : to determine a parameter value indicative of the amount by which the spring is wound around the hub ; to determine whether the parameter value has reached or exceeds a defined threshold; and in response to a determination that the parameter value has reached or exceeds the defined threshold, to activate the motor to unwind the spring relative to the hub . a housing ; a hub rotatably mounted within the housing ; a reel rotatably mounted within the housing ; a tape wound around the reel ; a spring wound around the hub and attached to at least one of the reel and the tape ; and characterised by further comprising: a motor disposed adjacent to the hub and configured, when activated, to rotate the hub to adjust an amount by which the spring is wound around the hub ; a hub bearing that is situated between the hub and the reel allowing the motor to rotate the hub without rotating the reel ; a control circuit that is configured to selectively activate the motor to rotate the hub relative to the motor ; and further characterised in that the tape rule is configured, during extraction of the tape from the housing : to determine a parameter value indicative of the amount by which the spring is wound around the hub ; to determine whether the parameter value has reached or exceeds a defined threshold; and in response to a determination that the parameter value has reached or exceeds the defined threshold, to activate the motor to unwind the spring relative to the hub . a motor disposed adjacent to the hub and configured, when activated, to rotate the hub to adjust an amount by which the spring is wound around the hub ; a hub bearing that is situated between the hub and the reel allowing the motor to rotate the hub without rotating the reel ; a control circuit that is configured to selectively activate the motor to rotate the hub relative to the motor ; and further characterised in that the tape rule is configured, during extraction of the tape from the housing : to determine a parameter value indicative of the amount by which the spring is wound around the hub ; to determine whether the parameter value has reached or exceeds a defined threshold; and in response to a determination that the parameter value has reached or exceeds the defined threshold, to activate the motor to unwind the spring relative to the hub .
A method for treating a stone block, comprising the following steps of: S 1 , wrapping the stone block by a diversion pipe , and then wrapping the stone block by a sealing material so as to form a sealed space between the sealing material and the stone block; S 2 , pumping the sealed space through the diversion pipe so as to form a vacuum in the sealed space, S 3 , injecting a reinforcing glue through the diversion pipe into the sealed space, monitoring the vacuum degree of the sealed space, and adjusting the vacuum degree according to the monitoring result until the reinforcing glue covers the entire surface of the stone block in the sealed space, wherein said monitoring the vacuum degree of the sealed space, and adjusting the vacuum degree according to the monitoring result are specifically as follows: injecting a reinforcing glue through the diversion pipe into the sealed space, and when the vacuum degree of the sealed space is monitored to be higher than a set value, stopping injecting the reinforcing glue, and pumping the sealed space until the vacuum degree is less than or equal to the set value, then stopping pumping the sealed space and proceeding to inject the reinforcing glue; or, injecting a reinforcing glue through the diversion pipe into the sealed space, and when the vacuum degree of the sealed space is monitored to be higher than a set value, stopping injecting the reinforcing glue, and pumping the sealed space until the vacuum degree is less than or equal to the set value, then proceeding to inject the reinforcing glue while proceeding to pump the sealed space; or, injecting a reinforcing glue through the diversion pipe into the sealed space, and when the vacuum degree of the sealed space is monitored to be higher than a set value, injecting the reinforcing glue while pumping the sealed space until the vacuum degree is less than or equal to the set value, then stopping pumping the sealed space. S 1 , wrapping the stone block by a diversion pipe , and then wrapping the stone block by a sealing material so as to form a sealed space between the sealing material and the stone block; S 2 , pumping the sealed space through the diversion pipe so as to form a vacuum in the sealed space, S 3 , injecting a reinforcing glue through the diversion pipe into the sealed space, monitoring the vacuum degree of the sealed space, and adjusting the vacuum degree according to the monitoring result until the reinforcing glue covers the entire surface of the stone block in the sealed space,
A urinary catheter , comprising: a length of thermoplastic polymer tubing made from a polymer material, the length of thermoplastic polymer tubing having an axial lumen defined therein, the lumen having an inside diameter, the thermoplastic polymer tubing terminating at an end ; characterized in : a thermoplastic polymer plug inserted in the lumen a distance sufficient to axially recess the thermoplastic polymer plug from the end of the thermoplastic polymer tubing , at least a portion of the thermoplastic polymer plug having a maximum outside diameter at least as large as the inside diameter of the lumen, the thermoplastic polymer plug being in contact with the polymer material of the thermoplastic polymer tubing ; and a tip attached to an end of the thermoplastic polymer tubing , the tip including a stubshaft that extends into the lumen and is bonded to the thermoplastic polymer plug at a plug-to-tip bond line . a thermoplastic polymer plug inserted in the lumen a distance sufficient to axially recess the thermoplastic polymer plug from the end of the thermoplastic polymer tubing , at least a portion of the thermoplastic polymer plug having a maximum outside diameter at least as large as the inside diameter of the lumen, the thermoplastic polymer plug being in contact with the polymer material of the thermoplastic polymer tubing ; and a tip attached to an end of the thermoplastic polymer tubing , the tip including a stubshaft that extends into the lumen and is bonded to the thermoplastic polymer plug at a plug-to-tip bond line .
A subsea system for processing a process fluid comprising: an electric motor filled with a barrier fluid that provides lubrication and a barrier between portions of the electric motor and surrounding seawater; and a rotating fluid processor for processing said process fluid, driven by said electric motor and lubricated by said barrier fluid, wherein the process fluid and barrier fluid are different; wherein a retractable subsea barrier fluid filtration system is coupled to a barrier fluid supply and comprises one or more separation components housed within a casing and configured to separate contaminants from said barrier fluid by circulating a portion of the barrier fluid through the one or more separation components , wherein the contaminants include water and particles; wherein the filtration system is configured to guide the barrier fluid along an outer annular region of a separation component such that water settling on an inside wall of the casing in the outer annular region flows down by gravity along said inside wall into a water collection volume connected to the outer annular region by a gap at a lower end of the outer annular region , the filtration system including a connection port for the water collection volume to allow for sampling of water content or to empty the water content. an electric motor filled with a barrier fluid that provides lubrication and a barrier between portions of the electric motor and surrounding seawater; and a rotating fluid processor for processing said process fluid, driven by said electric motor and lubricated by said barrier fluid, wherein the process fluid and barrier fluid are different; wherein a retractable subsea barrier fluid filtration system is coupled to a barrier fluid supply and comprises one or more separation components housed within a casing and configured to separate contaminants from said barrier fluid by circulating a portion of the barrier fluid through the one or more separation components , wherein the contaminants include water and particles; wherein the filtration system is configured to guide the barrier fluid along an outer annular region of a separation component such that water settling on an inside wall of the casing in the outer annular region flows down by gravity along said inside wall into a water collection volume connected to the outer annular region by a gap at a lower end of the outer annular region , the filtration system including a connection port for the water collection volume to allow for sampling of water content or to empty the water content.
A radar level gauge system for determining the filling level of a product in a tank, comprising: a signal propagation device arranged to propagate an electromagnetic transmit signal towards a surface of the product and to return an electromagnetic reflection signal resulting from reflection of the electromagnetic transmit signal at the surface; a microwave signal source coupled to said signal propagation device and controllable to generate said electromagnetic transmit signal; a microwave signal source controller coupled to said microwave signa source and configured to control said microwave signal source to generate said transmit signal in the form of a measurement sweep comprising a time sequence of discrete and mutually different frequency steps defining a bandwidth of said transmit signal; a mixer coupled to said microwave signal source and to said signa propagation device, and configured to combine said transmit signal and said reflection signal to form an intermediate frequency signal; a sampler coupled to said mixer and configured to sample said intermediate frequency signal at a plurality of sampling times during said measurement sweep; and processing circuitry coupled to said sampler and configured to determine said filling level based on said intermediate frequency signal, wherein said microwave signal source controller and said sampler are controllable independently of each other, in such a way that a duration of each of the frequency steps comprised in said measurement sweep is made different from a sampling time interval between consecutive ones of said sampling times. a signal propagation device arranged to propagate an electromagnetic transmit signal towards a surface of the product and to return an electromagnetic reflection signal resulting from reflection of the electromagnetic transmit signal at the surface; a microwave signal source coupled to said signal propagation device and controllable to generate said electromagnetic transmit signal; a microwave signal source controller coupled to said microwave signa source and configured to control said microwave signal source to generate said transmit signal in the form of a measurement sweep comprising a time sequence of discrete and mutually different frequency steps defining a bandwidth of said transmit signal; a mixer coupled to said microwave signal source and to said signa propagation device, and configured to combine said transmit signal and said reflection signal to form an intermediate frequency signal; a sampler coupled to said mixer and configured to sample said intermediate frequency signal at a plurality of sampling times during said measurement sweep; and processing circuitry coupled to said sampler and configured to determine said filling level based on said intermediate frequency signal, wherein said microwave signal source controller and said sampler are controllable independently of each other, in such a way that a duration of each of the frequency steps comprised in said measurement sweep is made different from a sampling time interval between consecutive ones of said sampling times.
A base station used in a cellular communication network, the base station comprising: at least one wireless transceiver ; and at least one processor configured to: transmit configuration information regarding a specific signal that is used for a V2X Service, to a first radio terminal ; and in response to receiving from the first radio terminal , via the at least one wireless transceiver , the specific signal containing a first message, transmit a second message derived from the first message, via the at least one wireless transceiver using a broadcast/multicast signal to be received by a specific radio terminal group identified by an identifier of a V2X service area for vehicle related communications, wherein the V2X service area is allocated a dedicated carrier frequency band secured for said V2X Service and said V2X service area is defined independently from any cell used in the cellular communication network by allowing said V2X service area to at least partially cover a plurality of cells or by having one or more other V2X service areas in the cell served by the base station. at least one wireless transceiver ; and at least one processor configured to: transmit configuration information regarding a specific signal that is used for a V2X Service, to a first radio terminal ; and in response to receiving from the first radio terminal , via the at least one wireless transceiver , the specific signal containing a first message, transmit a second message derived from the first message, via the at least one wireless transceiver using a broadcast/multicast signal to be received by a specific radio terminal group identified by an identifier of a V2X service area for vehicle related communications, wherein transmit configuration information regarding a specific signal that is used for a V2X Service, to a first radio terminal ; and in response to receiving from the first radio terminal , via the at least one wireless transceiver , the specific signal containing a first message, transmit a second message derived from the first message, via the at least one wireless transceiver using a broadcast/multicast signal to be received by a specific radio terminal group identified by an identifier of a V2X service area for vehicle related communications, wherein the V2X service area is allocated a dedicated carrier frequency band secured for said V2X Service and said V2X service area is defined independently from any cell used in the cellular communication network by allowing said V2X service area to at least partially cover a plurality of cells or by having one or more other V2X service areas in the cell served by the base station.
A semiconductor device comprising: a frame portion on which at least one semiconductor chip is arranged; a plurality of leads electrically connected to the semiconductor chip; and a mold portion formed on the frame portion to surround a part of the frame portion on which the semiconductor chip and the plurality of leads are arranged, wherein the plurality of leads are bent about a centre of a cross section along a length direction thereof, and characterized in that : the plurality of leads are alternately arranged in a line so that bending directions thereof are reversed. a frame portion on which at least one semiconductor chip is arranged; a plurality of leads electrically connected to the semiconductor chip; and a mold portion formed on the frame portion to surround a part of the frame portion on which the semiconductor chip and the plurality of leads are arranged,
A method of repairing an acoustic panel for an aircraft nacelle comprising: scanning, using a camera system , a perforation pattern in a damaged portion of the acoustic panel; forming a replacement patch ; drilling a plurality of perforations in the replacement patch with a computer numeric control machine , wherein the computer numeric control machine uses the perforation pattern to drill the plurality of perforations ; removing the damaged portion from the acoustic panel ; and bonding the replacement patch to the acoustic panel . scanning, using a camera system , a perforation pattern in a damaged portion of the acoustic panel; forming a replacement patch ; drilling a plurality of perforations in the replacement patch with a computer numeric control machine , wherein the computer numeric control machine uses the perforation pattern to drill the plurality of perforations ; removing the damaged portion from the acoustic panel ; and bonding the replacement patch to the acoustic panel .
A computer-implemented method comprising: receiving an audio signal that corresponds to an utterance recorded by a particular mobile device; determining a particular geographic location associated with the particular mobile device; receiving a set of geotagged audio signals that correspond to environmental audio signals recorded by multiple mobile devices in multiple geographic locations; selecting a subset of geotagged audio signals that are associated with the particular geographic location from the received set of geotagged audio signals that correspond to environmental audio recorded in multiple geographic locations, each geotagged audio signal having associated context data or metadata; generating a noise model for the particular geographic location using the subset of geotagged audio signals, wherein the context data or the metadata associated with the geotagged audio signals is used to adjust a weight or effect that a particular geotagged audio signal is to have upon the generation of the noise model; and performing noise compensation on the audio signal that corresponds to the utterance using the noise model that has been generated for the particular geographic location. receiving an audio signal that corresponds to an utterance recorded by a particular mobile device; determining a particular geographic location associated with the particular mobile device; receiving a set of geotagged audio signals that correspond to environmental audio signals recorded by multiple mobile devices in multiple geographic locations; selecting a subset of geotagged audio signals that are associated with the particular geographic location from the received set of geotagged audio signals that correspond to environmental audio recorded in multiple geographic locations, each geotagged audio signal having associated context data or metadata; generating a noise model for the particular geographic location using the subset of geotagged audio signals, wherein the context data or the metadata associated with the geotagged audio signals is used to adjust a weight or effect that a particular geotagged audio signal is to have upon the generation of the noise model; and performing noise compensation on the audio signal that corresponds to the utterance using the noise model that has been generated for the particular geographic location.