mhurhangee/patent-ind-claim-en huggingface dataset:
A tampon absorbent for insertion into a vaginal cavity, said tampon absorbent having a longitudinal direction including an insertion end and a withdrawal end , said tampon absorbent comprising a first absorbent region at said insertion end for storing body fluid and demonstrating a first expansion capacity, a second absorbent region at said withdrawal end for storing body fluid and demonstrating a second expansion capacity, and a third absorbent region situated between said first absorbent region and said second absorbent regions , wherein said first absorbent region is bonded to said second absorbent region at said third absorbent region ; wherein said first absorbent region is comprised solely of a first absorbent material, said second absorbent region is comprised solely of said second absorbent material and said third absorbent region is comprised of both said first absorbent material and said second absorbent material.
A controller comprising: a master control unit ; and one or more slave control units connected to the master control unit with at least a communication line , the slave control units each including a timer that is synchronized with the master control unit , an input unit configured to receive an interrupt signal, a notification unit configured to obtain, upon receipt of the interrupt signal through the input unit , timing information from the timer and transmit notification about an input of the interrupt signal to the master control unit , and a transmission unit configured to transmit, upon receipt of a request from the master control unit via the communication line , the timing information to the master control unit via the communication line , characterized in that the controller comprises a plurality of the slave control units , and the controller further comprises a control unit configured to limit slave control units that are enabled to transmit notification about the input of the interrupt signal to the master control unit . a master control unit ; and one or more slave control units connected to the master control unit with at least a communication line , the slave control units each including a timer that is synchronized with the master control unit , an input unit configured to receive an interrupt signal, a notification unit configured to obtain, upon receipt of the interrupt signal through the input unit , timing information from the timer and transmit notification about an input of the interrupt signal to the master control unit , and a transmission unit configured to transmit, upon receipt of a request from the master control unit via the communication line , the timing information to the master control unit via the communication line , a timer that is synchronized with the master control unit , an input unit configured to receive an interrupt signal, a notification unit configured to obtain, upon receipt of the interrupt signal through the input unit , timing information from the timer and transmit notification about an input of the interrupt signal to the master control unit , and a transmission unit configured to transmit, upon receipt of a request from the master control unit via the communication line , the timing information to the master control unit via the communication line , characterized in that the controller comprises a plurality of the slave control units , and the controller further comprises a control unit configured to limit slave control units that are enabled to transmit notification about the input of the interrupt signal to the master control unit .
Copolymer with a rigid polyamide block and a flexible polyether or polyester block, wherein said polyamide block is semicrystalline and consists of a copolyamide of W/Y.Z type, wherein: (i) W is a lactam or an alpha, omega-aminocarboxylic acid; (ii) Y is a cycloaliphatic diamine; (iii) Z is an aliphatic and/or aromatic dicarboxylic acid; and the W/Y.Z molar ratio is between 14/1 and 20/1. (i) W is a lactam or an alpha, omega-aminocarboxylic acid; (ii) Y is a cycloaliphatic diamine; (iii) Z is an aliphatic and/or aromatic dicarboxylic acid;
Method for testing the tightness of a container closed by a membrane , comprising the steps of: - submitting the container to a deforming action adapted to increase the pressure inside the container, - submitting the membrane to an abutting action adapted to counteract the deformation of the membrane caused by said deforming action, - maintaining said action of abutting the membrane at the same time as said action of deforming the container for a set period of time, - interrupting said action of abutting the membrane at the end of said period of time, - detecting at least one parameter related to a membrane profile when said abutting action has ceased, - comparing said at least one parameter related to said membrane profile with a predefined threshold to verify whether the tightness of said container is to be classified as defective. - submitting the container to a deforming action adapted to increase the pressure inside the container, - submitting the membrane to an abutting action adapted to counteract the deformation of the membrane caused by said deforming action, - maintaining said action of abutting the membrane at the same time as said action of deforming the container for a set period of time, - interrupting said action of abutting the membrane at the end of said period of time, - detecting at least one parameter related to a membrane profile when said abutting action has ceased, - comparing said at least one parameter related to said membrane profile with a predefined threshold to verify whether the tightness of said container is to be classified as defective.
A multimode optical fiber comprising: a cladding having a refractive index n 1 ; and a core at least partially surrounded by said cladding, said core having a refractive index profile optimized to operate within a single wavelength operating window, the single wavelength operating window being an 850 nm wavelength window, said core further having a center, said center of said core having a refractive index n 0 , wherein n 0 2 − n 1 2 2 n 0 2 ≈ 0.01 , and wherein said core comprises at least one dopant, said at least one dopant being present in an amount sufficient to reduce a magnitude of chromatic dispersion of said multimode optical fiber within the 850 nanometers (nm) wavelength window to less than 89 picoseconds per nanometer wavelength change and kilometer propagation distance (ps/nm-km), the least one dopant being present in an amount sufficient to reduce a zero dispersion wavelength of said multimode optical fibre below 1295 nanometers (nm). a cladding having a refractive index n 1 ; and a core at least partially surrounded by said cladding, said core having a refractive index profile optimized to operate within a single wavelength operating window, the single wavelength operating window being an 850 nm wavelength window, said core further having a center, said center of said core having a refractive index n 0 , said core having a refractive index profile optimized to operate within a single wavelength operating window, the single wavelength operating window being an 850 nm wavelength window, said core further having a center, said center of said core having a refractive index n 0 , wherein n 0 2 − n 1 2 2 n 0 2 ≈ 0.01 , and wherein said core comprises at least one dopant, said at least one dopant being present in an amount sufficient to reduce a magnitude of chromatic dispersion of said multimode optical fiber within the 850 nanometers (nm) wavelength window to less than 89 picoseconds per nanometer wavelength change and kilometer propagation distance (ps/nm-km), the least one dopant being present in an amount sufficient to reduce a zero dispersion wavelength of said multimode optical fibre below 1295 nanometers (nm).
Pneumatic vehicle tyre having sidewalls with a decorative, for example pictorial, pattern , which is formed on at least one sidewall , extends over a circumferential portion of the sidewall and has two types of rectangular pattern fields which are arranged like a chequerboard, run in rows arranged adjacent to one another and largely parallel to one another, running largely in a straight line and of a constant width, and alternate with one another within the rows, wherein the pattern fields are offset from one another in rows running adjacent to one another, so that a pattern field of the one type in the one row is associated with a pattern field of the other type in the adjacent row, wherein a microrib is formed in each of the pattern fields , in particular running in a meandering or rectangular wave form, and the two types of pattern fields differ from one another by the course run by the microribs , characterized in that , to form the pattern , contained within rows there is at the location of a pattern field or a plurality of pattern fields in each case an empty field , having an unstructured or smooth outer surface, interrupting the alternating course run by the two types of rectangular pattern fields provided within a row, wherein only the microribs of pattern fields directly following one another within a row are connected to one another, forming a continuous series of microribs.
A method of activating a vehicular-capable terminal in a mobile telecommunications system, the mobile telecommunications system comprising one or more base stations operable to communicate with the vehicular-capable terminal and one or more road side units operable to communicate with the vehicular-capable terminal, wherein the method comprises: a first road side unit detecting a presence of the vehicular-capable terminal; upon detection of the presence of the vehicular-capable terminal, the first road side unit notifying a first base station of the presence of the vehicular-capable terminal; upon notification of the presence of the vehicular-capable terminal, the first base station instructing the vehicular-capable terminal to connect to the first base station by transmitting an activation message wherein the activation message is addressed to a group of terminals comprising the vehicular-capable terminal; and in response to the activation message, the vehicular-capable terminal activating a connection with the first base station and/or with the first road side unit. a first road side unit detecting a presence of the vehicular-capable terminal; upon detection of the presence of the vehicular-capable terminal, the first road side unit notifying a first base station of the presence of the vehicular-capable terminal; upon notification of the presence of the vehicular-capable terminal, the first base station instructing the vehicular-capable terminal to connect to the first base station by transmitting an activation message wherein the activation message is addressed to a group of terminals comprising the vehicular-capable terminal; and in response to the activation message, the vehicular-capable terminal activating a connection with the first base station and/or with the first road side unit.
A method of making a 14-hydroxycodeinone free base composition consisting the steps of: a. dissolving thebaine in a carboxylic acid to form a reaction mixture; b. adding hydrogen peroxide to the reaction mixture to form a peroxyacid in situ; c. oxidizing the thebaine by reacting it with the peroxyacid to form a 14-hydroxycodeinone composition; d. adding a solvent selected from the group consisting of methanol and ethanol at or about upon completion of the oxidation reaction; and e. adding aqueous ammonium hydroxide to form the 14-hydroxycodeinone free base composition. a. dissolving thebaine in a carboxylic acid to form a reaction mixture; b. adding hydrogen peroxide to the reaction mixture to form a peroxyacid in situ; c. oxidizing the thebaine by reacting it with the peroxyacid to form a 14-hydroxycodeinone composition; d. adding a solvent selected from the group consisting of methanol and ethanol at or about upon completion of the oxidation reaction; and e. adding aqueous ammonium hydroxide to form the 14-hydroxycodeinone free base composition.
Use of a composition that comprises a) one or more condensation products of 1-aminopropan-2-ol and formaldehyde and b) monoethylene glycol, wherein component a) is present in an amount from 5 to 70% by weight and component b) is present in an amount from 30 to 95% by weight, in each case based on the weight of the composition, in the removal of sulphur compounds from process streams. a) one or more condensation products of 1-aminopropan-2-ol and formaldehyde and b) monoethylene glycol,
An implantable medical device (IMD), comprising: communication circuitry that enables the IMD to communicate via a communication network ; and control circuitry configured to execute program code to cause the control circuitry to: determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer , reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network. communication circuitry that enables the IMD to communicate via a communication network ; and control circuitry configured to execute program code to cause the control circuitry to: determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer , reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network. determine whether the IMD is capable of communicating via the communication network; request, from a computing device connected to the communication network, a first identifier of current firmware that is stored on the computing device when it is determined that the IMD is capable of communicating via the communication network; compare the first identifier to a second identifier of firmware that is installed on the IMD; prior to expiration of a communication timer , reset the communication timer when the first identifier matches the second identifier; and after expiration of the communication timer, prevent the IMD from communicating via the communication network.
- Method for grouping into batches buoyant objects in at least one channel, named accumulation channel , wherein: - a hydraulic stream able to transport the objects is formed in each accumulation channel , - an upstream portion of at least one accumulation channel is supplied with objects such that the objects are transported by the hydraulic stream along the accumulation channel to a downstream end thereof provided with a device for holding/releasing the objects, this holding/releasing device being transparent to the hydraulic stream flowing in the accumulation channel , - each accumulation channel having a bottom and side walls and, at least in a downstream portion thereof, named superposition zone , a height greater than twice the maximum vertical size of each object so as to be able to receive superposed objects, - the speed of the hydraulic stream formed in each accumulation channel is accelerated locally by an elevation extending upwards from the bottom of the accumulation channel forming a reduction in the cross-section of the accumulation channel having the effect of locally accelerating the speed of the hydraulic stream passing above this elevation, so as to cause a superposition of the objects held in the superposition zone of the accumulation channel between said elevation and the closed holding/releasing device to hold the objects, characterised in that during a step of accumulating objects in an accumulation channel , said elevation is moved upstream in said superposition zone from the downstream end of the accumulation channel as the objects are being supplied. - a hydraulic stream able to transport the objects is formed in each accumulation channel , - an upstream portion of at least one accumulation channel is supplied with objects such that the objects are transported by the hydraulic stream along the accumulation channel to a downstream end thereof provided with a device for holding/releasing the objects, this holding/releasing device being transparent to the hydraulic stream flowing in the accumulation channel , - each accumulation channel having a bottom and side walls and, at least in a downstream portion thereof, named superposition zone , a height greater than twice the maximum vertical size of each object so as to be able to receive superposed objects, - the speed of the hydraulic stream formed in each accumulation channel is accelerated locally by an elevation extending upwards from the bottom of the accumulation channel forming a reduction in the cross-section of the accumulation channel having the effect of locally accelerating the speed of the hydraulic stream passing above this elevation, so as to cause a superposition of the objects held in the superposition zone of the accumulation channel between said elevation and the closed holding/releasing device to hold the objects, characterised in that during a step of accumulating objects in an accumulation channel , said elevation is moved upstream in said superposition zone from the downstream end of the accumulation channel as the objects are being supplied.
A cooling structure of a bearing device (B) comprising: a bearing ; an outer ring spacer adjacent to an outer ring of the bearing ; and an inner ring spacer adjacent to an inner ring of the bearing , wherein the outer ring spacer is provided with a nozzle configured to discharge compressed air toward an outer peripheral surface of the inner ring spacer , characterised in that the nozzle is inclined frontward in a rotation direction (L1) of the inner ring spacer and is located at a position that is offset from an arbitrary line (L2) extending in a radial direction in a cross-section perpendicular to an axis of the outer ring spacer , in a direction perpendicular to the line (L2), each of the outer ring spacer and the inner ring spacer has a width (W) equal to or larger than 2.5 times of a bearing width (X), and a distance from a center of the nozzle to a side surface of the bearing is equal to or smaller than the bearing width (X) and equal to or larger than half of the bearing width (X). a bearing ; an outer ring spacer adjacent to an outer ring of the bearing ; and an inner ring spacer adjacent to an inner ring of the bearing , wherein the outer ring spacer is provided with a nozzle configured to discharge compressed air toward an outer peripheral surface of the inner ring spacer , characterised in that the nozzle is inclined frontward in a rotation direction (L1) of the inner ring spacer and is located at a position that is offset from an arbitrary line (L2) extending in a radial direction in a cross-section perpendicular to an axis of the outer ring spacer , in a direction perpendicular to the line (L2), each of the outer ring spacer and the inner ring spacer has a width (W) equal to or larger than 2.5 times of a bearing width (X), and a distance from a center of the nozzle to a side surface of the bearing is equal to or smaller than the bearing width (X) and equal to or larger than half of the bearing width (X).
A method performed by a scheduled entity to communicate wirelessly with a scheduling entity , the method comprising: receiving a downlink transmission, wherein a first slot of the downlink transmission comprises: a first control region configured to carry first downlink control information, DCI and a control reference signal, CRS; a second control region, wherein the second control region is located, within the first slot, in a subsequent symbol later than an initial symbol of the first slot, the second control region configured to carry second DCI, supplemental to the first DCI carried in the first control region, wherein the second control region comprises a retransmission indicator, RI; and a first data region multiplexed with the first control region and configured to carry first user data and a first demodulation reference signal, DMRS; and transmitting, in an uplink burst region of the first slot, feedback based on at least one of the first DCI, the first user data, the first DMRS, of the first slot. receiving a downlink transmission, wherein a first slot of the downlink transmission comprises: a first control region configured to carry first downlink control information, DCI and a control reference signal, CRS; a second control region, wherein the second control region is located, within the first slot, in a subsequent symbol later than an initial symbol of the first slot, the second control region configured to carry second DCI, supplemental to the first DCI carried in the first control region, wherein the second control region comprises a retransmission indicator, RI; and a first data region multiplexed with the first control region and configured to carry first user data and a first demodulation reference signal, DMRS; and a first control region configured to carry first downlink control information, DCI and a control reference signal, CRS; a second control region, wherein the second control region is located, within the first slot, in a subsequent symbol later than an initial symbol of the first slot, the second control region configured to carry second DCI, supplemental to the first DCI carried in the first control region, wherein the second control region comprises a retransmission indicator, RI; and a first data region multiplexed with the first control region and configured to carry first user data and a first demodulation reference signal, DMRS; and transmitting, in an uplink burst region of the first slot, feedback based on at least one of the first DCI, the first user data, the first DMRS, of the first slot.