mhurhangee/patent-ind-claim-en huggingface dataset:
A composite material for neutron shielding and for maintaining sub-criticality obtained from a formulation comprising: - 100 portions by weight of a composition comprising, the weight percentages being based on the total weight of the composition: . from 30% by weight to 45% by weight, advantageously from 32% by weight to 45% by weight and, preferably from 35% by weight to 44% by weight, of a vinylester resin, . from 23% by weight to 58% by weight, advantageously from 30% by weight to 50% by weight and, preferably, from 32% by weight to 44% by weight, of an inorganic filler, the inorganic filler comprising at least one hydrogenated compound and at least one boron compound, and . from 12% by weight to 32% by weight, advantageously from 15% by weight to 29% by weight and, preferentially, from 16% by weight to 28% by weight, of a polyolefin or of an olefin copolymer; - from 0.3 portion by weight to 1.4 portion by weight of a polymerisation initiator; and - from 0.3 portion by weight to 1.4 portion by weight of a polymerisation accelerator. - 100 portions by weight of a composition comprising, the weight percentages being based on the total weight of the composition: . from 30% by weight to 45% by weight, advantageously from 32% by weight to 45% by weight and, preferably from 35% by weight to 44% by weight, of a vinylester resin, . from 23% by weight to 58% by weight, advantageously from 30% by weight to 50% by weight and, preferably, from 32% by weight to 44% by weight, of an inorganic filler, the inorganic filler comprising at least one hydrogenated compound and at least one boron compound, and . from 12% by weight to 32% by weight, advantageously from 15% by weight to 29% by weight and, preferentially, from 16% by weight to 28% by weight, of a polyolefin or of an olefin copolymer; . from 30% by weight to 45% by weight, advantageously from 32% by weight to 45% by weight and, preferably from 35% by weight to 44% by weight, of a vinylester resin, . from 23% by weight to 58% by weight, advantageously from 30% by weight to 50% by weight and, preferably, from 32% by weight to 44% by weight, of an inorganic filler, the inorganic filler comprising at least one hydrogenated compound and at least one boron compound, and . from 12% by weight to 32% by weight, advantageously from 15% by weight to 29% by weight and, preferentially, from 16% by weight to 28% by weight, of a polyolefin or of an olefin copolymer; - from 0.3 portion by weight to 1.4 portion by weight of a polymerisation initiator; and - from 0.3 portion by weight to 1.4 portion by weight of a polymerisation accelerator.
A signal to noise ratio adjustment circuit configured to: determine, whether a signal to noise ratio of a first image is below a first threshold; determine, whether a variation of imaged content between the first image and a preceding second image of a video sequence is below a second threshold; and generate a third image having an increased signal to noise ratio as compared to the first image or the second image if the signal to noise ratio is below the first threshold and if the variation is below the second threshold. determine, whether a signal to noise ratio of a first image is below a first threshold; determine, whether a variation of imaged content between the first image and a preceding second image of a video sequence is below a second threshold; and generate a third image having an increased signal to noise ratio as compared to the first image or the second image if the signal to noise ratio is below the first threshold and if the variation is below the second threshold.
An operating device for a light source , comprising: a controllable switch which has a gate; and a gate driver circuit coupled to the gate of the controllable switch , wherein the gate driver circuit comprises an inductance forming a resonance circuit with a capacitance of the gate of the controllable switch , wherein the gate driver circuit comprises a first switch coupled in series with the inductance to a voltage rail, measured relative to a reference potential, wherein the gate driver circuit comprises a second switch coupled via the inductance to the gate of the controllable switch and connected in between the inductance and the reference potential, characterized in that the gate driver circuit comprises a third switch coupled to the gate of the controllable switch and connected in between the gate of the controllable switch and the reference potential, wherein the gate driver circuit is configured to control the second switch and the third switch such that the second switch and the third switch are switched to a conducting state in a time-offset manner. a controllable switch which has a gate; and a gate driver circuit coupled to the gate of the controllable switch , wherein the gate driver circuit comprises an inductance forming a resonance circuit with a capacitance of the gate of the controllable switch , wherein the gate driver circuit comprises a first switch coupled in series with the inductance to a voltage rail, measured relative to a reference potential, wherein the gate driver circuit comprises a second switch coupled via the inductance to the gate of the controllable switch and connected in between the inductance and the reference potential, characterized in that the gate driver circuit comprises a third switch coupled to the gate of the controllable switch and connected in between the gate of the controllable switch and the reference potential, wherein the gate driver circuit is configured to control the second switch and the third switch such that the second switch and the third switch are switched to a conducting state in a time-offset manner.
A system for treating a tissue site with reduced pressure, the system comprising: a manifold adapted to be positioned adjacent the tissue site ; an ion exchange member comprising an ion exchange layer formed of crosslinked ion exchange resin coated onto a wicking substrate layer, or onto fabric, or onto non-woven material before crosslinking and adapted to be fluidly coupled to the manifold ; an absorbent adapted to be fluidly coupled to the manifold and the ion exchange member ; a sealing member adapted to cover the tissue site to form a sealed space having the manifold disposed therein; and a reduced-pressure source adapted to be fluidly coupled to the manifold , the ion exchange member , and the absorbent . a manifold adapted to be positioned adjacent the tissue site ; an ion exchange member comprising an ion exchange layer formed of crosslinked ion exchange resin coated onto a wicking substrate layer, or onto fabric, or onto non-woven material before crosslinking and adapted to be fluidly coupled to the manifold ; an absorbent adapted to be fluidly coupled to the manifold and the ion exchange member ; a sealing member adapted to cover the tissue site to form a sealed space having the manifold disposed therein; and a reduced-pressure source adapted to be fluidly coupled to the manifold , the ion exchange member , and the absorbent .
An apparatus for transferring one or more receptacles between a plurality of receptacle-receiving structures (102-124), one or more of the receptacle receiving structures including a receptacle transfer portal through which a receptacle is placed into or removed from the receptacle-receiving structure and a door disposed over the receptacle transfer portal, the apparatus comprising: a receptacle carriage adapted to carry a receptacle and to selectively stop at a transfer position with respect to any of the receptacle-receiving structures, and wherein the receptacle carriage includes a receptacle moving mechanism adapted to move a receptacle with respect to the receptacle carriage to move a receptacle into the receptacle carriage, move a receptacle out of the receptacle carriage, or alternately move a receptacle into and out of the receptacle carriage, characterized in that a portion of the receptacle carriage is adapted to engage a door of a receptacle-receiving structure and to open the door upon performance of a predetermined movement of the receptacle carriage with respect to the receptacle-receiving structure; and a carriage positioning system adapted to automatically position the receptacle carriage so that a portion of the receptacle carriage engages a door of a selected one of the receptacle-receiving structures and to effect the predetermined movement of the receptacle carriage to open the door. a receptacle carriage adapted to carry a receptacle and to selectively stop at a transfer position with respect to any of the receptacle-receiving structures, and wherein the receptacle carriage includes a receptacle moving mechanism adapted to move a receptacle with respect to the receptacle carriage to move a receptacle into the receptacle carriage, move a receptacle out of the receptacle carriage, or alternately move a receptacle into and out of the receptacle carriage, characterized in that a portion of the receptacle carriage is adapted to engage a door of a receptacle-receiving structure and to open the door upon performance of a predetermined movement of the receptacle carriage with respect to the receptacle-receiving structure; and a carriage positioning system adapted to automatically position the receptacle carriage so that a portion of the receptacle carriage engages a door of a selected one of the receptacle-receiving structures and to effect the predetermined movement of the receptacle carriage to open the door.
Cutting device for a soil cultivating machine, in particular a road milling machine, with a carrier to which a cutting insert is fastened, wherein the carrier has a base part to which a holding projection with a receptacle is attached in a projecting manner, wherein the cutting insert is arranged at least regionally in the receptacle and wherein a fastening projection is arranged on a fastening side opposite the holding projection , the cutting insert having a cutting tip with a superhard material, the holding projection carrying a hard material element at least on its front region in the feed direction in the zone between the cutting tip and the base part , and the cutting insert has a head , the holding projection having a supporting section facing away from the base part , and the cutting insert covering the supporting section with its head at least in regions, characterized in that the hard material element is guided into the region of the supporting section under the head of the cutting insert . the cutting insert having a cutting tip with a superhard material, the holding projection carrying a hard material element at least on its front region in the feed direction in the zone between the cutting tip and the base part , and the cutting insert has a head , the holding projection having a supporting section facing away from the base part , and the cutting insert covering the supporting section with its head at least in regions, characterized in that the hard material element is guided into the region of the supporting section under the head of the cutting insert .
A method performed by a wireless device , the method comprising: receiving , from a network node , a command associated with a procedure to setup or release a cell or a signal; while transmitting a Hybrid Automatic Repeat Request, HARQ, feedback associated with the procedure to setup or release the cell or signal, detecting one or more clear channel assessment, CCA, failures on an uplink signal; and extending a transmission period for transmitting the HARQ feedback associated with the procedure to setup or release the cell or signal based on the one or more CCA failures. receiving , from a network node , a command associated with a procedure to setup or release a cell or a signal; while transmitting a Hybrid Automatic Repeat Request, HARQ, feedback associated with the procedure to setup or release the cell or signal, detecting one or more clear channel assessment, CCA, failures on an uplink signal; and extending a transmission period for transmitting the HARQ feedback associated with the procedure to setup or release the cell or signal based on the one or more CCA failures.
A producing method of a thermoelectric material comprising a compound formed of Yb and Si, the method comprising: a first step of weighing Yb and Si so as to obtain a composition ratio at which a compound formed of the Yb and the Si has an AlB 2 type structure; a second step of dissolving the Yb and the Si by using an arc melting method, so as to obtain a base alloy; a third step of grinding the base alloy in order to obtain powder; and a fourth step of sintering the powdery base alloy by using an SPS method; wherein a composition ratio of Yb and Si is selected to obtain the compound having an AlB 2 type structure and is in a range of 1:1.8 to 1:2.2 wherein, in the fourth step, the powdery base alloy is sintered under pressure of 40 MPa to 5 GPa while a pulse current is applied; and wherein, in the fourth step, a temperature of 700 degrees to 1200 degrees is held for a period of 3 minutes to 180 minutes. a first step of weighing Yb and Si so as to obtain a composition ratio at which a compound formed of the Yb and the Si has an AlB 2 type structure; a second step of dissolving the Yb and the Si by using an arc melting method, so as to obtain a base alloy; a third step of grinding the base alloy in order to obtain powder; and a fourth step of sintering the powdery base alloy by using an SPS method; wherein a composition ratio of Yb and Si is selected to obtain the compound having an AlB 2 type structure and is in a range of 1:1.8 to 1:2.2 wherein, in the fourth step, the powdery base alloy is sintered under pressure of 40 MPa to 5 GPa while a pulse current is applied; and wherein, in the fourth step, a temperature of 700 degrees to 1200 degrees is held for a period of 3 minutes to 180 minutes.
An adapter frame for use when installing or renovating a basin, the basin including a basin body buried in the ground , with a basin top , a basin frame adapted to be on level with a top coating covering the ground , the basin frame being of the floating type and holding a basin cover , wherein in use the adapter frame is placed between the basin body and the basin frame preventing the basin frame from being attached to the basin body , the adapter frame forming a void between the basin top and the adapter frame , wherein the adapter frame includes a skirt with an inward facing flange attached to an upper part of the skirt , wherein in use the flange is fitting around the circumference of the basin top and an inner dimension of at least a lower part of the skirt is larger than a corresponding outer dimension of the basin top , characterized by an outward facing flange foot attached to a lower part of the skirt , wherein in use the flange foot is resting on masses outside the basin body transferring forces from the basin frame to the masses outside the basin body .
An anti-tampering device comprising - a first threaded element having a female thread defining a screwing axis (A) and an engaging surface for engagement with a driving tool, - a second threaded element having a male thread that is screwed into the female thread of the first threaded element , and - a protection body for preventing the driving tool from engaging the engaging surface , wherein the protection body is coupled to the first threaded element so that they are mutually blocked in a direction parallel to the screwing axis (A) and free to spin around the screwing axis (A), wherein the protection body is coupled to the first threaded element by means of a retaining ring partly accommodated in an annular groove of the first threaded element and partly accommodated in an annular groove of the protection body , wherein the protection body's annular groove is realized on an internal surface of an annular wall of the protection body which surrounds at least partially the first threaded element and which has at least an open end for coupling with the first threaded element , characterized for comprising an elastomeric ring coaxially interposed between the second threaded element and the annular wall of the protection body . - a first threaded element having a female thread defining a screwing axis (A) and an engaging surface for engagement with a driving tool, - a second threaded element having a male thread that is screwed into the female thread of the first threaded element , and - a protection body for preventing the driving tool from engaging the engaging surface , wherein the protection body is coupled to the first threaded element so that they are mutually blocked in a direction parallel to the screwing axis (A) and free to spin around the screwing axis (A), wherein the protection body is coupled to the first threaded element by means of a retaining ring partly accommodated in an annular groove of the first threaded element and partly accommodated in an annular groove of the protection body , wherein the protection body's annular groove is realized on an internal surface of an annular wall of the protection body which surrounds at least partially the first threaded element and which has at least an open end for coupling with the first threaded element , characterized for comprising an elastomeric ring coaxially interposed between the second threaded element and the annular wall of the protection body .
A method of quantification of conjugated dienes in a feed or a product stream by a Gas Chromatography (GC), wherein the Gas Chromatography is coupled with Mass Spectrometry in a selective hydrogenation process (SHP), wherein said method comprises of: a) passing a portion of a feed or a product stream to be processed by the SHP, through a GC column having a length ranging from 140 to 170 m; b) determining concentration of each conjugated dienes by a mass spectrometer; c) performing the SHP on the feed or the product stream to obtain a SHP product; d) passing a portion of the SHP product through the GC column having a length ranging from 140 to 170 m; e) determining concentration of each conjugated dienes by the mass spectrometer; and f) comparing the concentration of the conjugated dienes of step (b) and (e) to determine the amount of hydrogenation of conjugated dienes in the SHP. a) passing a portion of a feed or a product stream to be processed by the SHP, through a GC column having a length ranging from 140 to 170 m; b) determining concentration of each conjugated dienes by a mass spectrometer; c) performing the SHP on the feed or the product stream to obtain a SHP product; d) passing a portion of the SHP product through the GC column having a length ranging from 140 to 170 m; e) determining concentration of each conjugated dienes by the mass spectrometer; and f) comparing the concentration of the conjugated dienes of step (b) and (e) to determine the amount of hydrogenation of conjugated dienes in the SHP.
A medical image processing apparatus comprising: a data acquisition unit configured to acquire a plurality of medical images representing an object, including at least one target in the object, corresponding to a plurality of different time points, wherein at least one of the plurality of medical images correspond to one of the plurality of different time points; and an image processor configured to generate, based on the plurality of medical images, a diagnostic image showing at least one degree of change in the at least one target over the plurality of different time points; wherein the image processor is configured to register the plurality of medical images to generate a plurality of registered medical images, and to quantify each of the at least one degree of change into one of a plurality of stages based on a variation in pixel intensity between corresponding pixels in the plurality of registered medical images. a data acquisition unit configured to acquire a plurality of medical images representing an object, including at least one target in the object, corresponding to a plurality of different time points, wherein at least one of the plurality of medical images correspond to one of the plurality of different time points; and an image processor configured to generate, based on the plurality of medical images, a diagnostic image showing at least one degree of change in the at least one target over the plurality of different time points; wherein the image processor is configured to register the plurality of medical images to generate a plurality of registered medical images, and to quantify each of the at least one degree of change into one of a plurality of stages based on a variation in pixel intensity between corresponding pixels in the plurality of registered medical images.
A health monitoring system for a tension member of an elevator system , comprising: one or more light emitters configured to direct a light signal toward an elevator system tension member ; and characterized by one or more light receivers configured to receive a reflected light signal from a fluorescent surface of the elevator system tension member ; wherein a discontinuity in the reflected light signal received at the one or more light receivers is indicative of an anomaly in the elevator tension member . one or more light emitters configured to direct a light signal toward an elevator system tension member ; and characterized by one or more light receivers configured to receive a reflected light signal from a fluorescent surface of the elevator system tension member ; wherein a discontinuity in the reflected light signal received at the one or more light receivers is indicative of an anomaly in the elevator tension member .
Method for verifying the integrity of a dataset supposed to have been deployed on each electronic device of a plurality of electronic devices , the method being executed by a server , characterized in that said server performs the following steps: - calculating a first verification code for each memory address range of a set of memory address ranges, from said dataset supposed to have been deployed on the plurality of electronic devices; - distributing the memory address ranges among the electronic devices and requesting that each electronic device calculates a second verification code for the memory address range that is assigned thereto, from a dataset effectively in the non-volatile memory of said electronic device following said deployment; and - verifying , for each memory address range, the match between the first verification code calculated by said server and the second verification code calculated by each electronic device to which said memory range has been assigned. - calculating a first verification code for each memory address range of a set of memory address ranges, from said dataset supposed to have been deployed on the plurality of electronic devices; - distributing the memory address ranges among the electronic devices and requesting that each electronic device calculates a second verification code for the memory address range that is assigned thereto, from a dataset effectively in the non-volatile memory of said electronic device following said deployment; and - verifying , for each memory address range, the match between the first verification code calculated by said server and the second verification code calculated by each electronic device to which said memory range has been assigned.