mhurhangee/ep-ind-claims huggingface dataset:
A wood-based panel having antistatic properties comprising at least one carrier board and at least one resin layer disposed on at least one side of the carrier board, characterized in that the at least one resin layer comprises - carbon-based particles, especially carbon nanotubes (CNTs) or graphene, - at least one compound having the general formula (Ia) R 1 a SiX (4-a) (Ia), where - X is H, OH or a hydrolyzable moiety selected from the group comprising halogen, alkoxy, carboxy, amino, monoalkylamino or dialkylamino, aryloxy, acyloxy, alkylcarbonyl, - R 1 is an organic moiety selected from the group comprising alkyl, aryl, cycloalkyl, which may be interrupted by -O- or -NH-, - wherein R 1 has at least one functional group Q 1 selected from a group containing a hydroxy, amino, monoalkylamino, carboxy, mercapto, alkoxy, aldehyde, acrylic, acryloxy, methacrylic, methacryloxy, cyano, isocyano and epoxy group, - a 1 or 2, and - at least one further compound of the general formula R 3 c SiX (4-c), where - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of alkyl, aryl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, and - c 1, 2, 3, or 4, in particular 1, 2, or 3. - carbon-based particles, especially carbon nanotubes (CNTs) or graphene, - at least one compound having the general formula (Ia) R 1 a SiX (4-a) (Ia), where - X is H, OH or a hydrolyzable moiety selected from the group comprising halogen, alkoxy, carboxy, amino, monoalkylamino or dialkylamino, aryloxy, acyloxy, alkylcarbonyl, - R 1 is an organic moiety selected from the group comprising alkyl, aryl, cycloalkyl, which may be interrupted by -O- or -NH-, - wherein R 1 has at least one functional group Q 1 selected from a group containing a hydroxy, amino, monoalkylamino, carboxy, mercapto, alkoxy, aldehyde, acrylic, acryloxy, methacrylic, methacryloxy, cyano, isocyano and epoxy group, - a 1 or 2, and - X is H, OH or a hydrolyzable moiety selected from the group comprising halogen, alkoxy, carboxy, amino, monoalkylamino or dialkylamino, aryloxy, acyloxy, alkylcarbonyl, - R 1 is an organic moiety selected from the group comprising alkyl, aryl, cycloalkyl, which may be interrupted by -O- or -NH-, - wherein R 1 has at least one functional group Q 1 selected from a group containing a hydroxy, amino, monoalkylamino, carboxy, mercapto, alkoxy, aldehyde, acrylic, acryloxy, methacrylic, methacryloxy, cyano, isocyano and epoxy group, - a 1 or 2, and - at least one further compound of the general formula R 3 c SiX (4-c), where - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of alkyl, aryl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, and - c 1, 2, 3, or 4, in particular 1, 2, or 3. - X has the above meaning, - R 3 is a non-hydrolyzable organic moiety R 3 selected from the group consisting of alkyl, aryl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, and - c 1, 2, 3, or 4, in particular 1, 2, or 3.
A medical treatment tool comprising: a cylindrical retractor main body which is capable of being placed in an incision, wherein the retractor main body includes an expansion unit that holds the incision in an expanded state in a predetermined opening direction; a converter which is detachably installed on an opening end of the retractor main body to close the opening end; and ports which are provided in a plurality of sites of the converter and through which treatment tools are inserted into the retractor main body, wherein the converter can be installed on the opening end at an installation angle which is selected from a plurality of installation angles, and positional relationships of the ports with respect to the retractor main body when the converter is installed on the opening end at the respective installation angles become different from each other, wherein in the plurality of installation angles, positional relationships of the ports with respect to the incision in the opening direction are different from each other; wherein each of the installation angles can be reached by rotating the converter in an axial rotation direction with respect to the retractor main body; characterized in that the angle (θ 1), which is formed between a perpendicular bisector of a line segment that connects a first port and a second port and the opening direction when the converter is installed on the opening end at any one or more installation angles, is 115 degrees ± 20 degrees. a cylindrical retractor main body which is capable of being placed in an incision, wherein the retractor main body includes an expansion unit that holds the incision in an expanded state in a predetermined opening direction; a converter which is detachably installed on an opening end of the retractor main body to close the opening end; and ports which are provided in a plurality of sites of the converter and through which treatment tools are inserted into the retractor main body, wherein the converter can be installed on the opening end at an installation angle which is selected from a plurality of installation angles, and positional relationships of the ports with respect to the retractor main body when the converter is installed on the opening end at the respective installation angles become different from each other, wherein in the plurality of installation angles, positional relationships of the ports with respect to the incision in the opening direction are different from each other; wherein each of the installation angles can be reached by rotating the converter in an axial rotation direction with respect to the retractor main body;
A method of compensating timing measurements made in a wireless communication network having multiple carriers (26, 28) operating at different carrier frequencies, said method implemented in a node (12, 24, 38) configured for operation in the wireless communication network and comprising: obtaining a timing measurement performed over first and second radio signals at first and second carrier frequencies, respectively; the method characterized in that it comprises: determining whether timing compensation is needed for the timing measurement based at least in part on the frequency distance between the first and second carrier frequencies; when timing compensation is needed, compensating the timing measurement using a compensation value that compensates the timing measurement for frequency-dependent propagation differences between the first and second carrier frequencies; and providing the compensated timing measurement for use in processing dependent on said timing measurement. obtaining a timing measurement performed over first and second radio signals at first and second carrier frequencies, respectively; the method characterized in that it comprises: determining whether timing compensation is needed for the timing measurement based at least in part on the frequency distance between the first and second carrier frequencies; when timing compensation is needed, compensating the timing measurement using a compensation value that compensates the timing measurement for frequency-dependent propagation differences between the first and second carrier frequencies; and providing the compensated timing measurement for use in processing dependent on said timing measurement. determining whether timing compensation is needed for the timing measurement based at least in part on the frequency distance between the first and second carrier frequencies; when timing compensation is needed, compensating the timing measurement using a compensation value that compensates the timing measurement for frequency-dependent propagation differences between the first and second carrier frequencies; and providing the compensated timing measurement for use in processing dependent on said timing measurement.
A method for receiving a data frame emitted by a node in a network connected to several nodes (Txl), wherein an address (ADD 32) and a secret (SS k) are respectively assigned to each node, the method being implemented by a processing and optimisation unit comprising: - extracting from the frame an incomplete address datum (ADD 16) obtained by truncating, by the node having emitted the frame, the address assigned to the node, encrypted data and a frame hash code; - consulting a database with respective records concerning the nodes, each record relating to a node containing information items including the address and the secret assigned to said node; - identifying several records comprised in the database containing an address corresponding to the incomplete address datum extracted; - for at least one identified database record: - calculating at least one hash code from elements comprising the encrypted data extracted from the frame and the secret contained in said record; - comparing the calculated hash code with the frame hash code extracted from the frame; and - repeating the steps of calculating and comparing the hash code for the identified records as long as the compared hash codes do not match; - selecting from the identified records, the record for which the compared hash codes match; - and processing the frame, the processing comprising an identification of the address contained in the selected record as the address assigned to the node from which is obtained the frame, and a decryption of the encrypted data extracted from the frame using the secret contained in the selected record. - extracting from the frame an incomplete address datum (ADD 16) obtained by truncating, by the node having emitted the frame, the address assigned to the node, encrypted data and a frame hash code; - consulting a database with respective records concerning the nodes, each record relating to a node containing information items including the address and the secret assigned to said node; - identifying several records comprised in the database containing an address corresponding to the incomplete address datum extracted; - for at least one identified database record: - calculating at least one hash code from elements comprising the encrypted data extracted from the frame and the secret contained in said record; - comparing the calculated hash code with the frame hash code extracted from the frame; and - repeating the steps of calculating and comparing the hash code for the identified records as long as the compared hash codes do not match; - selecting from the identified records, the record for which the compared hash codes match; - and processing the frame, the processing comprising an identification of the address contained in the selected record as the address assigned to the node from which is obtained the frame, and a decryption of the encrypted data extracted from the frame using the secret contained in the selected record.
A heat-resistant laminated conveyer belt comprising: a fluororesin-coated core obtained by impregnating an aramid fiber woven fabric in a fluororesin dispersion and drying and sintering the fabric; and a reinforcement layer which is formed on the core through an adhesive layer and obtained by impregnating an aramid fiber woven fabric to which stretch properties are applied in a fluororesin dispersion and drying and sintering the fabric; wherein the aramid fiber woven fabric of the core is a woven fabric by a plain-weave seamless loom characterized in that the woven fabric includes an S-twist weft yarn and a Z-twist weft yarn which are alternatively arranged, and the reinforcement layer is thermal compression-molded in the thickness direction before the reinforcement layer is incorporated into the heat-resistant laminated conveyer belt. a fluororesin-coated core obtained by impregnating an aramid fiber woven fabric in a fluororesin dispersion and drying and sintering the fabric; and a reinforcement layer which is formed on the core through an adhesive layer and obtained by impregnating an aramid fiber woven fabric to which stretch properties are applied in a fluororesin dispersion and drying and sintering the fabric; wherein the aramid fiber woven fabric of the core is a woven fabric by a plain-weave seamless loom characterized in that the woven fabric includes an S-twist weft yarn and a Z-twist weft yarn which are alternatively arranged, and the reinforcement layer is thermal compression-molded in the thickness direction before the reinforcement layer is incorporated into the heat-resistant laminated conveyer belt.
Process for the manufacture of EDC or Ethylene Di-Chloride by chlorination and/or oxychlorination of ethylene, said process comprising the purification of an EDC stream according to the following steps: - eventually removing the lower boiling impurities from the EDC stream so as to generate a stream of EDC substantially free from lower boiling impurities; - feeding this EDC stream to a heavy ends distillation column so as to get a top stream of substantially pure EDC and a bottom stream comprising higher boiling impurities and EDC, wherein the EDC stream fed to the heavy ends distillation column is at least partly heated up by a heater using waste heat available in the EDC manufacturing process itself or in a subsequent pyrolysis step of said EDC into vinyl chloride monomer or VCM, and wherein the waste heat used in the heater is generated by compressing part of the top stream of substantially pure EDC from the heavy ends column using a Vapour Recompression or VR device. - eventually removing the lower boiling impurities from the EDC stream so as to generate a stream of EDC substantially free from lower boiling impurities; - feeding this EDC stream to a heavy ends distillation column so as to get a top stream of substantially pure EDC and a bottom stream comprising higher boiling impurities and EDC,
Apparatus for testing samples (32,33,35) of tempered, liquid confectionery mass, such as tempered chocolate mass, comprising a receiving opening for a sample cup adapted to fit into the opening, tempering means adapted to cool or heat the sample cup, a lid adapted to fit on top of the sample cup, a temperature measuring probe extending into the cup chamber at least when the lid is arranged on top of the cup, characterised in, that gasket means is arranged at the lid and is adapted to close the lid around the periphery of the cup thereby providing an airtight volume in the cup chamber, and wherein an opening extends from the inside to the outside of the lid, and that a channel (24, 25, 26) is arranged to connect the opening with a pressure or volume measuring device.
A collision avoidance system for a vehicle, the collision avoidance system comprising: a video camera configured to detect a presence of a pedestrian; a distance sensor configured to detect the presence of the pedestrian; a driver control configured to receive an input from a driver; a vehicle control system configured to automatically maneuver the vehicle; and a controller including an electronic processor, the controller communicatively coupled to the video camera, the distance sensor, the driver control, and the vehicle control system, the controller configured to receive a first signal from the video camera indicative of the presence of the pedestrian, receive a second signal from the distance sensor indicative of the presence of the pedestrian, determine a course deviation from a current path of travel of the vehicle and activate a timer when the presence of the pedestrian is detected by both the video camera and the distance sensor, reset the timer when the driver control receives an input from the driver that is above a threshold, and apply the course deviation using the vehicle control system when the driver input is below the threshold and the timer expires. a video camera configured to detect a presence of a pedestrian; a distance sensor configured to detect the presence of the pedestrian; a driver control configured to receive an input from a driver; a vehicle control system configured to automatically maneuver the vehicle; and a controller including an electronic processor, the controller communicatively coupled to the video camera, the distance sensor, the driver control, and the vehicle control system, the controller configured to receive a first signal from the video camera indicative of the presence of the pedestrian, receive a second signal from the distance sensor indicative of the presence of the pedestrian, determine a course deviation from a current path of travel of the vehicle and activate a timer when the presence of the pedestrian is detected by both the video camera and the distance sensor, reset the timer when the driver control receives an input from the driver that is above a threshold, and apply the course deviation using the vehicle control system when the driver input is below the threshold and the timer expires. receive a first signal from the video camera indicative of the presence of the pedestrian, receive a second signal from the distance sensor indicative of the presence of the pedestrian, determine a course deviation from a current path of travel of the vehicle and activate a timer when the presence of the pedestrian is detected by both the video camera and the distance sensor, reset the timer when the driver control receives an input from the driver that is above a threshold, and apply the course deviation using the vehicle control system when the driver input is below the threshold and the timer expires.
A swallowing movement monitoring sensor which is configured to measure swallowing movement of a subject comprising a first outside shape variation sensor configured to be attached to a laryngeal portion of the subject, the first outside shape variation sensor being configured to detect variation in outside shape of the laryngeal portion associated with swallowing movement, wherein the first outside shape variation sensor includes an optical fiber sheet attached to the laryngeal portion, the optical fiber sheet having an optical fiber and a sheet-like member supporting the optical fiber, wherein the optical fiber sheet is configured to detect variation in quantity of light of a transmission signal beam based on a loss produced by a lateral pressure applied to the optical fiber from the laryngeal portion in association with variation in outside shape of the laryngeal portion involved with swallowing movement, characterized in that the optical fiber has a meandering portion formed from one optical fiber portion, the meandering portion comprising a plurality of linear portions extending in a first direction and a plurality of curved portions connecting end portions of two linear portions to each other, and the optical fiber portion comprising a third linear portion located relatively downstream which passes between first and second linear portions located relatively upstream in the meandering portion.
A laminated glass including a pair of glass sheets (101a, 101b) disposed in facing relation to each other, intermediate layers (102a, 102b) provided on respective facing surfaces of said pair of glass sheets (101a, 101b), and a light adjuster sandwiched between said intermediate layers (102a, 102b); with the light adjuster including a liquid crystal layer formed of a transparent polymer film having a plurality of voids therein, each of said voids being filled with a liquid crystal material, a pair of substrates (109a, 109b) that sandwich said liquid crystal layer therebetween, at least one of said substrates (109a, 109b) being transparent, transparent electrically conductive films (110a, 110b) provided on respective facing surfaces of said substrates (109a, 109b), and an electrode structure formed of a connecting part and a connecting base, wherein the connecting base is interposed between said connecting part and one of said transparent electrically conductive films (110a, 110b); and said connecting base includes a metallic layer, wherein the connecting part is interposed between the metallic layer and one of the intermediate layers (102a, 102b) and is formed of an electrically conductive tape, the laminated glass further comprising a wiring arranged to supply power from outside, wherein a first end of the connecting part is connected to the wiring, characterized in that said connecting base further includes a conductive paste that is applied to an exposed part of the transparent electrically conductive film (110a, 110b) at one end of the light adjuster, wherein the metallic layer is stuck on the upper surface of the conductive paste, in that an end of the wiring is accommodated in an electrically conductive cylindrical housing, in that said first end of the connecting part is stuck on the cylindrical housing, in that the connecting part that is stuck on the cylindrical housing, the cylindrical housing and the wiring are caulked together, and in that the metallic layer and the connecting part are made of one electrically conductive tape folded between the conductive paste and one of said intermediate layers (102a, 102b) to thereby form the metallic layer and the connecting part.
A method of determining a high order aberration induced by a change in geometrical configuration in an eye of a patient, comprising: inputting a first geometrical configuration of the eye; inputting an original set of coefficients for a basis function characterizing the first geometrical configuration of the eye, wherein the basis function can be separated into a product of a first set of radial polynomials and a first triangular function; inputting a second geometrical configuration of the eye; inputting a transformed set of coefficients for the basis function, wherein the transformed set of coefficients are based on the first geometrical configuration of the eye, the original set of coefficients, and the second geometrical configuration of the eye; determining the induced high order aberration based on the transformed set of coefficients, and determining a predicted night vision symptom based on the induced high order aberration. inputting a first geometrical configuration of the eye; inputting an original set of coefficients for a basis function characterizing the first geometrical configuration of the eye, wherein the basis function can be separated into a product of a first set of radial polynomials and a first triangular function; inputting a second geometrical configuration of the eye; inputting a transformed set of coefficients for the basis function, wherein the transformed set of coefficients are based on the first geometrical configuration of the eye, the original set of coefficients, and the second geometrical configuration of the eye; determining the induced high order aberration based on the transformed set of coefficients, and determining a predicted night vision symptom based on the induced high order aberration.