mhurhangee/ep-ind-claims huggingface dataset:
A toilet seat comprising: a toilet seat section; a heating element for heating the toilet seat section; a human body sensing section for detecting a user; a control section (210, 230) for controlling the heating element to be driven; a toilet seat temperature measuring device (220, 411) for measuring a temperature of the toilet seat section; and a memory section in which the correspondence relationship between first and second time periods and the temperature measured by the toilet seat temperature measuring device (220, 411) is stored, wherein, when the human body sensing section detects a user, the control section (210, 230) is configured to read out the corresponding first and second time periods from the memory section on the basis of the temperature measured by the toilet seat temperature measuring device (220, 411), and on the basis of the first and second time periods read out by the control section (210, 230), the control section (210, 230) is configured to drive the heating element during the first time period so as to increase the temperature of the toilet seat section to a first temperature along a first temperature gradient with first electric power, and the control section (210, 230) is configured then to drive the heating element during the second time period so as to increase the temperature of the toilet seat section to a second temperature, which is higher than the first temperature, along a second temperature gradient, which is lower than the first temperature gradient, with second electric power which is lower than the first electric power. a toilet seat section; a heating element for heating the toilet seat section; a human body sensing section for detecting a user; a control section (210, 230) for controlling the heating element to be driven; a toilet seat temperature measuring device (220, 411) for measuring a temperature of the toilet seat section; and a memory section in which the correspondence relationship between first and second time periods and the temperature measured by the toilet seat temperature measuring device (220, 411) is stored,
A strap comprising: a sheath; and a fluid-filled bladder at least partially located within the sheath, the bladder having an elongate configuration that defines a first bladder end, an opposite second bladder end, and a central bladder portion located between the first bladder end and the second bladder end, at least the central bladder portion and the second bladder end being unsecured to the sheath, wherein the bladder is an elongated polymer tube that is sealed by a pair of sealing bonds, one sealing bond at each of the first and second bladder ends, wherein a fluid within the elongated polymer tube is communicable throughout a sealed portion of the polymer tube between the pair of sealing bonds, and wherein the sealing bonds are spaced from the ends of the polymer tube forming a pair of flanged areas at each of the ends of the polymer tube that do not enclose the fluid; and a first securing element and a second securing element configured to join the strap to an article, at least one of the securing elements being joined to the second bladder end, wherein the first bladder end is secured to the sheath, and wherein the strap further comprises: an extension secured to the second bladder end and unsecured to the sheath, wherein at least one of the second bladder end and the extension is located to extend from an interior of the sheath to an exterior of the sheath. a sheath; and a fluid-filled bladder at least partially located within the sheath, the bladder having an elongate configuration that defines a first bladder end, an opposite second bladder end, and a central bladder portion located between the first bladder end and the second bladder end, at least the central bladder portion and the second bladder end being unsecured to the sheath, wherein the bladder is an elongated polymer tube that is sealed by a pair of sealing bonds, one sealing bond at each of the first and second bladder ends, wherein a fluid within the elongated polymer tube is communicable throughout a sealed portion of the polymer tube between the pair of sealing bonds, and wherein the sealing bonds are spaced from the ends of the polymer tube forming a pair of flanged areas at each of the ends of the polymer tube that do not enclose the fluid; and a first securing element and a second securing element configured to join the strap to an article, at least one of the securing elements being joined to the second bladder end, wherein the first bladder end is secured to the sheath, and wherein the strap further comprises: an extension secured to the second bladder end and unsecured to the sheath, wherein at least one of the second bladder end and the extension is located to extend from an interior of the sheath to an exterior of the sheath. an extension secured to the second bladder end and unsecured to the sheath, wherein at least one of the second bladder end and the extension is located to extend from an interior of the sheath to an exterior of the sheath.
An oil absorbing material comprising sorbent particles, characterised in that the sorbent particles have an average aspect ratio of 5 to 500 and a mean average particle diameter of 10 μm to 2 mm, wherein the aspect ratio is defined as the maximum diameter or width of the particles divided by the maximum thickness; and wherein the sorbent particles comprise a thermoplastic polyolefin material, inorganic filler particles, and absorbent core material.
A communication terminal, comprising: a receiver, which is configured to receive an aggregated-spectrum downlink signal comprising two or more component carriers in respective spectral bands; a transmitter, which is configured to transmit an uplink signal to a serving base station that serves the communication terminal; and control circuitry, which is configured to: evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, wherein the transmitter is further configured to transmit a report comprising the compressed channel quality metrics over the uplink to the serving base station. a receiver, which is configured to receive an aggregated-spectrum downlink signal comprising two or more component carriers in respective spectral bands; a transmitter, which is configured to transmit an uplink signal to a serving base station that serves the communication terminal; and control circuitry, which is configured to: evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, wherein the transmitter is further configured to transmit a report comprising the compressed channel quality metrics over the uplink to the serving base station.
A thermoplastic elastomer composition comprising a blend of thermoplastic materials comprising a polyamide block copolymer and one or more thermoplastic organic polymers excluding, with a silicone composition comprising a silicone base comprising (B1a) a diorganopolysiloxane polymer having a viscosity of at least 1000000mPa.s at 25°C, as measured according to the method indicated in the description, and an average of at least 2 alkenyl groups per molecule, (B1b) a reinforcing filler in an amount of from 1 to 50% by weight of polymer (B1a), and an organohydrido silicone compound which contains an average of at least 2 silicon-bonded hydrogen groups per molecule, a hydrosilylation catalyst, which composition may additionally optionally comprise one or more additives; wherein the weight ratio: is in the range 50:50 to 95:5, and wherein component B2 and C being present in an amount sufficient to cure said silicone composition B. thermoplastic materials comprising a polyamide block copolymer and one or more thermoplastic organic polymers excluding, with a polyamide block copolymer and one or more thermoplastic organic polymers excluding, with a silicone composition comprising a silicone base comprising (B1a) a diorganopolysiloxane polymer having a viscosity of at least 1000000mPa.s at 25°C, as measured according to the method indicated in the description, and an average of at least 2 alkenyl groups per molecule, (B1b) a reinforcing filler in an amount of from 1 to 50% by weight of polymer (B1a), and an organohydrido silicone compound which contains an average of at least 2 silicon-bonded hydrogen groups per molecule, a silicone base comprising (B1a) a diorganopolysiloxane polymer having a viscosity of at least 1000000mPa.s at 25°C, as measured according to the method indicated in the description, and an average of at least 2 alkenyl groups per molecule, (B1b) a reinforcing filler in an amount of from 1 to 50% by weight of polymer (B1a), and (B1a) a diorganopolysiloxane polymer having a viscosity of at least 1000000mPa.s at 25°C, as measured according to the method indicated in the description, and an average of at least 2 alkenyl groups per molecule, (B1b) a reinforcing filler in an amount of from 1 to 50% by weight of polymer (B1a), and an organohydrido silicone compound which contains an average of at least 2 silicon-bonded hydrogen groups per molecule, a hydrosilylation catalyst, which composition may additionally optionally comprise one or more additives; wherein the weight ratio: is in the range 50:50 to 95:5, and wherein component B2 and C being present in an amount sufficient to cure said silicone composition B. which composition may additionally optionally comprise one or more additives; wherein the weight ratio: is in the range 50:50 to 95:5, and wherein component B2 and C being present in an amount sufficient to cure said silicone composition B.
A composition comprising soluble selenoglycoproteins, wherein the soluble selenoglycoproteins contain two or more pH dependent fractions of the selenoglycoproteins, wherein the soluble selenoglycoproteins are obtained via acid extraction of the soluble selenoglycoproteins from selenium enriched yeast and subsequent to exposing the selenium enriched yeast to acidic conditions, via sequential pH dependent precipitation at two or more different pH values of the soluble selenoglycoproteins, wherein the soluble selenoglycoproteins are generated by a method comprising: a) providing selenium enriched yeast; b) exposing the selenium enriched yeast to acidic conditions followed by centrifugation to generate i) a pellet comprising acid insoluble material; and ii) a liquid phase comprising the extract of selenium enriched yeast soluble under the acidic conditions; c) precipitating selenoglycoproteins from the liquid phase comprising the extract of selenium enriched yeast soluble under the acidic conditions via raising the pH of the liquid phase by 0.1, 0.2, 0.5, 1.0, 2.0, 3.0, 4.0, 5.0 or 6.0; and d) separating the precipitated selenoglycoproteins from the liquid phase. a) providing selenium enriched yeast; b) exposing the selenium enriched yeast to acidic conditions followed by centrifugation to generate i) a pellet comprising acid insoluble material; and ii) a liquid phase comprising the extract of selenium enriched yeast soluble under the acidic conditions; i) a pellet comprising acid insoluble material; and ii) a liquid phase comprising the extract of selenium enriched yeast soluble under the acidic conditions; c) precipitating selenoglycoproteins from the liquid phase comprising the extract of selenium enriched yeast soluble under the acidic conditions via raising the pH of the liquid phase by 0.1, 0.2, 0.5, 1.0, 2.0, 3.0, 4.0, 5.0 or 6.0; and d) separating the precipitated selenoglycoproteins from the liquid phase.
Electromagnetic signal converter for a bone conduction receiver, comprising - at least one soft-magnetic armature which is movable relative to a pole (1a, 1b) that supports at least one electric coil, - at least one permanent magnet for generating a magnetic bias of the armature, as well as - at least one soft-magnetic yoke, which forms at least one magnetic circuit together with the at least one permanent magnet, the at least one pole (1a, 1b) and the at least one armature, characterized - in that at least one first pole and one second pole are provided, each of which carries at least one electric coil, wherein the two poles are identical in design and are arranged symmetrically with respect to one another on a common pole axis, - in that the at least one soft-magnetic armature is arranged between at least two poles (1a, 1b) arranged symmetrically with respect to one another, thereby forming in each case an axial working air gap, and is movable along the pole axis relative to the poles (1a, 1b), - in that the at least one permanent magnet is magnetized perpendicularly to the pole axis and is arranged radially outside the at least one armature, - in that the lateral surface of the at least one armature facing the at least one permanent magnet forms a radial air gap, via which the armature is magnetically coupled to the permanent magnet, wherein the axial thickness of the permanent magnet is equal to or greater than the axial distance between the two poles (1a, 1b). - at least one soft-magnetic armature which is movable relative to a pole (1a, 1b) that supports at least one electric coil, - at least one permanent magnet for generating a magnetic bias of the armature, as well as - at least one soft-magnetic yoke, which forms at least one magnetic circuit together with the at least one permanent magnet, the at least one pole (1a, 1b) and the at least one armature, characterized - in that at least one first pole and one second pole are provided, each of which carries at least one electric coil, wherein the two poles are identical in design and are arranged symmetrically with respect to one another on a common pole axis, - in that the at least one soft-magnetic armature is arranged between at least two poles (1a, 1b) arranged symmetrically with respect to one another, thereby forming in each case an axial working air gap, and is movable along the pole axis relative to the poles (1a, 1b), - in that the at least one permanent magnet is magnetized perpendicularly to the pole axis and is arranged radially outside the at least one armature, - in that the lateral surface of the at least one armature facing the at least one permanent magnet forms a radial air gap, via which the armature is magnetically coupled to the permanent magnet, wherein the axial thickness of the permanent magnet is equal to or greater than the axial distance between the two poles (1a, 1b).
A method for communicating information between a first wireless communication device and a communications network via a particular second wireless communication device, the communications network being said second wireless communication device's own communications network, in which method user identification data of said first wireless communication device is supplied to said second wireless communication device, characterised by making a contact from said second wireless communication device to its own communications network on the basis of the supplied user identification data of said first wireless communication device for communicating information between the first wireless communication device and said communications network via said second wireless communication device.
A sterilized monomeric adhesive composition comprising a homogeneous mixture of: (i) an alpha-cyanoacrylate monomer, (ii) a free radical stabilizer and an anionic stabilizer for said alpha-cyanoacrylate monomer, and (iii) 0.05 % to 0.3 % by weight of the composition of phenytoin. (i) an alpha-cyanoacrylate monomer, (ii) a free radical stabilizer and an anionic stabilizer for said alpha-cyanoacrylate monomer, and (iii) 0.05 % to 0.3 % by weight of the composition of phenytoin.
A method of monitoring the chlorine content in a wafer treatment system with at least one water conduit, a dechlorination device positioned in the water conduit and a chlorine sensor device (29, 30), characterised in that the chlorine sensor device includes a chlorine sensor 30, which measures online, the safety-related function of which is regularly checked by supplying electrolytically produced chlorine of known concentration to the chlorine sensor at time intervals and each measurement value of the chlorine sensor is compared with an associated desired value and the measurement result is electronically registered and recorded, that the dechlorination device has outlets which are connected to the chlorine sensor via conduits (19a, 6b) and switching valves (31, 33) and a release valve, that for the purpose of monitoring the correct function of the dechlorination device a valve and the release valve are firstly opened so that the previously verified chlorine sensor registers any chlorine present in the liquid supplied from the water conduit upstream of the dechlorination device, and that the valves (31, 33) and the release valve are then opened so that the chlorine sensor registers whether chlorine is present in the water supplied through the conduits (19a, 6b), wherein also this measurement is performed autonomously and is registered by data processing means.
A pressure vessel for liquid mixing, comprising: a housing; a deformable member configured to define a chamber in combination with at least one portion of the housing; an inlet port fluidly communicated with the chamber; an outlet port fluidly communicated with the chamber; an elastic biasing means configured to interact with the deformable member to make a volume of the chamber variable; and an air detection means configured to detect the presence of air within the chamber. a housing; a deformable member configured to define a chamber in combination with at least one portion of the housing; an inlet port fluidly communicated with the chamber; an outlet port fluidly communicated with the chamber; an elastic biasing means configured to interact with the deformable member to make a volume of the chamber variable; and an air detection means configured to detect the presence of air within the chamber.
A motor control system, comprising: a motor operating at a rotational velocity, the motor operating to create a regenerative current, the motor having a target field weakening current that is configured for limiting the regenerative current to a threshold value, the motor having a plurality of motor circuit parameters; and a control module in communication with the motor, the control module receiving a motor torque command, characterized in that, the control module comprises: a control logic for identifying the target field weakening current based upon the motor torque command and the rotational velocity of the motor; a control logic for determining a phase advance angle (δ) to generate the target field weakening current; wherein the phase advance angle (δ) is a phase shift between a motor voltage command and a BEMF voltage; and a control logic for determining the motor voltage command based on the motor torque command, the rotational velocity and the plurality of motor circuit parameters, the motor voltage command applied at the phase advance angle. a motor operating at a rotational velocity, the motor operating to create a regenerative current, the motor having a target field weakening current that is configured for limiting the regenerative current to a threshold value, the motor having a plurality of motor circuit parameters; and a control module in communication with the motor, the control module receiving a motor torque command, characterized in that, the control module comprises: a control logic for identifying the target field weakening current based upon the motor torque command and the rotational velocity of the motor; a control logic for determining a phase advance angle (δ) to generate the target field weakening current; wherein the phase advance angle (δ) is a phase shift between a motor voltage command and a BEMF voltage; and a control logic for determining the motor voltage command based on the motor torque command, the rotational velocity and the plurality of motor circuit parameters, the motor voltage command applied at the phase advance angle. a control logic for identifying the target field weakening current based upon the motor torque command and the rotational velocity of the motor; a control logic for determining a phase advance angle (δ) to generate the target field weakening current; wherein the phase advance angle (δ) is a phase shift between a motor voltage command and a BEMF voltage; and a control logic for determining the motor voltage command based on the motor torque command, the rotational velocity and the plurality of motor circuit parameters, the motor voltage command applied at the phase advance angle.
A patient ocular interface and a radiotherapy system arranged to treat an ocular structure with the radiotherapy system (10, 990), comprising: a holder adapted to maintain an eye in a substantially stable position; and a communication link adapted to communicate information between the holder and the radiotherapy system (10, 990), the information being indicative of a position of the eye and determining a characteristic of a radiation beam emitted from the radiotherapy system (10, 990). a holder adapted to maintain an eye in a substantially stable position; and a communication link adapted to communicate information between the holder and the radiotherapy system (10, 990), the information being indicative of a position of the eye and determining a characteristic of a radiation beam emitted from the radiotherapy system (10, 990).
An ion exchange polymer composition comprising a primary crosslinker and a secondary crosslinker, wherein the primary crosslinker comprises a crosslinked ionic monomer including a quaternary ammonium group, wherein the crosslinked ionic monomer is prepared by reacting a polyepoxide with a tertiary amine including an acrylic group in the presence of an acid.