mhurhangee/ep-ind-claims huggingface dataset:
A control module configured in a wireless device and suitable for monitoring beacons transmitted by a wireless access point and calibrating listen time characteristics according to the beacons, the control module comprising: a transceiver unit receiving the beacons; and a processing unit coupled to the transceiver unit, wherein the processing unit calculates optimal listen time characteristics according to a beacon-receiving interval obtained within a first specific time frame and again monitors the beacons according to the optimal listen time characteristics, the control module being characterized in that when current listen time characteristics are determined to be calibrated, the processing unit further calculates an average beacon-receiving time and a root-mean-square beacon-receiving time according to the beacon-receiving interval obtained within the first specific time frame, and the processing unit further calculates the optimal listen time characteristics according to the average beacon-receiving time and the root-mean-square beacon-receiving time; wherein the current listen time characteristics comprise a current listen duration and a current listen interval, and the optimal listen time characteristics comprise an optimal listen duration and an optimal listen interval, wherein the processing unit further sets the average beacon-receiving time as the optimal listen interval and sets the root-mean-square beacon-receiving time as the optimal listen duration. a transceiver unit receiving the beacons; and a processing unit coupled to the transceiver unit, wherein the processing unit calculates optimal listen time characteristics according to a beacon-receiving interval obtained within a first specific time frame and again monitors the beacons according to the optimal listen time characteristics, the control module being characterized in that when current listen time characteristics are determined to be calibrated, the processing unit further calculates an average beacon-receiving time and a root-mean-square beacon-receiving time according to the beacon-receiving interval obtained within the first specific time frame, and the processing unit further calculates the optimal listen time characteristics according to the average beacon-receiving time and the root-mean-square beacon-receiving time; wherein the current listen time characteristics comprise a current listen duration and a current listen interval, and the optimal listen time characteristics comprise an optimal listen duration and an optimal listen interval, wherein the processing unit further sets the average beacon-receiving time as the optimal listen interval and sets the root-mean-square beacon-receiving time as the optimal listen duration.
A screen printing machine that prints applying material on a substrate, characterized by: a screen mask detachably mounted to a mask mounting area set in advance; a squeegee (91, 91 A, 91B), arranged above the screen mask mounted to the mask mounting area, that reciprocates relative to the screen mask in a squeegee-movement direction set in advance; and scraping means (144, 241) for coming into sliding contact with the squeegee (91, 91A, 91 B) upon suspension of printing and scraping off applying material adhered to the squeegee (91, 91 A, 91 B), wherein the scraping means (144, 241) includes an arm portion and a wire portion (144c, 241a, 241 b), wherein the wire portion (144c, 241a, 241b) is formed on tips of the arm portion and comes into sliding contact with the squeegee (91, 91A, 91 B) such that the wire portion (144c, 241 a, 241 b) contacts an entire width of the squeegee (91, 91 A, 91 B). a screen mask detachably mounted to a mask mounting area set in advance; a squeegee (91, 91 A, 91B), arranged above the screen mask mounted to the mask mounting area, that reciprocates relative to the screen mask in a squeegee-movement direction set in advance; and scraping means (144, 241) for coming into sliding contact with the squeegee (91, 91A, 91 B) upon suspension of printing and scraping off applying material adhered to the squeegee (91, 91 A, 91 B),
A puncturing device for a turbo encoder, which uses two component encoders with separate termination and a constraint length K=4, for a mobile communication system including a convolutional encoder having a constraint length K=9 and the turbo encoder, the turbo encoder encoding an input information data into encoded symbols, namely a systematic symbol, parity symbols and tail symbols, at a given code rate, the device comprising: a frame generator for generating a transmission frame having the number of transmission symbols predetermined according to a symbol rate by puncturing the parity symbols for code rate matching and puncturing the coded tail symbols for symbol rate matching; and a controller for controlling said frame generator by controlling said puncturing of the tail symbols in order to minimize puncturing of coded tail symbols such that coded tail symbols are only punctured when the number of coded tail symbols exceeds the number of the convolutional encoder tail symbols for the same given code rate, wherein the systematic symbols are not punctured, said frame generator, under the control of said controller, punctures only two bits out of the tail symbols of the parity symbols when the code rate is 1/2, and wherein only bits of the parity symbol are punctured when the code rate is lower than 1/2, and wherein said controller further controls said frame generator by reading a puncturing pattern according to the code rate and information about the number of invalid symbols inserted in reserved symbols at every code rate. a frame generator for generating a transmission frame having the number of transmission symbols predetermined according to a symbol rate by puncturing the parity symbols for code rate matching and puncturing the coded tail symbols for symbol rate matching; and a controller for controlling said frame generator by controlling said puncturing of the tail symbols in order to minimize puncturing of coded tail symbols such that coded tail symbols are only punctured when the number of coded tail symbols exceeds the number of the convolutional encoder tail symbols for the same given code rate, wherein the systematic symbols are not punctured, said frame generator, under the control of said controller, punctures only two bits out of the tail symbols of the parity symbols when the code rate is 1/2, and wherein only bits of the parity symbol are punctured when the code rate is lower than 1/2, and wherein said controller further controls said frame generator by reading a puncturing pattern according to the code rate and information about the number of invalid symbols inserted in reserved symbols at every code rate.
An article of footwear, comprising: an upper formed from a flexible composite material including a sheet of carbon fiber weave material and a coating layer, the sheet of carbon fiber having an exposed side including a plurality of exposed ends; characterized in that the coating layer (i) is applied to the exposed side and the plurality of exposed ends and (ii) presses the exposed ends down to lay flat. an upper formed from a flexible composite material including a sheet of carbon fiber weave material and a coating layer, the sheet of carbon fiber having an exposed side including a plurality of exposed ends; characterized in that the coating layer (i) is applied to the exposed side and the plurality of exposed ends and (ii) presses the exposed ends down to lay flat.
A method for measuring cells in a public land mobile network, PLMN, said method being performed by a user equipment, UE, and comprising: determining a configuration from a serving cell in a PLMN, said configuration relating to receiving and measuring enhanced discovery reference signal, eDRS (780, 782), from each of a plurality of cells (704, 706) in said PLMN, wherein each eDRS is carried on an unlicensed carrier frequency, wherein each eDRS comprises a reference signal transmission, wherein the reference signal transmission includes at least a channel state information reference signal, CSI-RS, transmission, wherein said CSI-RS transmission is received by the UE over resources which are common to the cells (704, 706) in said PLMN, wherein said resources identify said PLMN; performing measurements of the eDRS (780, 782) for one of the cells (704, 706) based at least in part on the configuration; and reporting the measurements of the eDRS (780, 782) to the serving cell. determining a configuration from a serving cell in a PLMN, said configuration relating to receiving and measuring enhanced discovery reference signal, eDRS (780, 782), from each of a plurality of cells (704, 706) in said PLMN, wherein each eDRS is carried on an unlicensed carrier frequency, wherein each eDRS comprises a reference signal transmission, wherein the reference signal transmission includes at least a channel state information reference signal, CSI-RS, transmission, wherein said CSI-RS transmission is received by the UE over resources which are common to the cells (704, 706) in said PLMN, wherein said resources identify said PLMN; performing measurements of the eDRS (780, 782) for one of the cells (704, 706) based at least in part on the configuration; and reporting the measurements of the eDRS (780, 782) to the serving cell.
A dental occlusal adjustment burr where external dimensions of the burr has flat sides that diverge on an angle from 70 to 95 degrees and where at the confluence of the flat sides there is a radius of 0.8 mm to 1.4mm and where the flat sides widen at the angle of divergence to a minimum diameter of 3mm to a maximum diameter of 4.5mm.
A corrosion-resistant and leak-proof stoma paste with self-regulation of strength, wherein the paste's formula comprises 4-40 parts of liquid rubber with a molecular weight ranging from 2000 to 5000, 8-18 parts of mineral oil, 14-34 parts of iota-carrageenan, 10-20 parts of plant polysaccharide and 15-20 parts of sericite, by weight.
A composition for use in treating or preventing an immunocompromised condition in a subject, which condition results from exposure of the subject to a medical treatment that targets rapidly dividing cells or disrupts the cell cycle or cell division, the composition comprising an E-selectin antagonist and granulocyte colony stimulating factor (G-CSF), wherein said immunocompromised condition is selected from neutropenia, agranulocytosis, thrombocytopenia, and anemia.
An optical cable structure, comprising: a first jacket, a supporting skeleton provided in the first jacket, and an optical fiber unit; wherein an accommodating groove is provided within the supporting skeleton, the optical fiber unit is embedded in the accommodating groove, and the supporting skeleton is configured to always have a clamping force applied to the optical fiber unit, wherein the width of the accommodating groove is slightly smaller than the diameter of the optical fiber unit, and wherein along the direction in which the first jacket points toward the supporting skeleton, the width of the accommodating groove is gradually increased to form a groove structure with a smaller opening and a larger internal width dimension, and the optical fiber unit abuts against inner walls of the accommodating groove. wherein an accommodating groove is provided within the supporting skeleton, the optical fiber unit is embedded in the accommodating groove, and the supporting skeleton is configured to always have a clamping force applied to the optical fiber unit, wherein the width of the accommodating groove is slightly smaller than the diameter of the optical fiber unit, and wherein along the direction in which the first jacket points toward the supporting skeleton, the width of the accommodating groove is gradually increased to form a groove structure with a smaller opening and a larger internal width dimension, and the optical fiber unit abuts against inner walls of the accommodating groove.
A positive electrode active material for non-aqueous electrolyte secondary batteries, comprising: a lithium-nickel composite oxide particle; and a coating layer attached to at least a part of a surface of the particle, wherein the lithium-nickel composite oxide particle contains lithium (Li), nickel (Ni), cobalt (Co), and an element M, and a mole ratio among these elements is represented by Li: Ni: Co: M = s: (1 - x - y): x: y, in which 0.95 ≤ s ≤ 1.30, 0.55 ≤ (1 - x - y) ≤ 0.95, 0.05 ≤ x ≤ 0.35, 0 ≤ y ≤ 0.1, and M represents at least one element selected from the group consisting of Mn, V, Mg, Mo, Nb, Ti, and Al, the lithium-nickel composite oxide particle contains boron inside the particle, the coating layer contains a titanium compound, and a content of the boron is 0.005% by mass or more and 0.1% by mass or less with respect to the whole positive electrode active material. a lithium-nickel composite oxide particle; and a coating layer attached to at least a part of a surface of the particle, wherein the lithium-nickel composite oxide particle contains lithium (Li), nickel (Ni), cobalt (Co), and an element M, and a mole ratio among these elements is represented by Li: Ni: Co: M = s: (1 - x - y): x: y, in which 0.95 ≤ s ≤ 1.30, 0.55 ≤ (1 - x - y) ≤ 0.95, 0.05 ≤ x ≤ 0.35, 0 ≤ y ≤ 0.1, and M represents at least one element selected from the group consisting of Mn, V, Mg, Mo, Nb, Ti, and Al, the lithium-nickel composite oxide particle contains boron inside the particle, the coating layer contains a titanium compound, and a content of the boron is 0.005% by mass or more and 0.1% by mass or less with respect to the whole positive electrode active material.
A contactless communication device (100, 200) comprising: a receiver unit (110, 210) having differential input terminals for connecting to an antenna, said differential input terminals of the receiver unit including a positive input terminal (RXp) and a negative input terminal (RXn); a first comparator (120a, 220a) adapted to generate a first comparator output signal (agc_comp_p) indicative of a relationship between a voltage at the positive input terminal (RXp) of the receiver unit (110, 210) and a first reference voltage (Vref_p); a second comparator (120b, 220b) adapted to generate a second comparator output signal (agc_comp_n) indicative of a relationship between a voltage at the negative input terminal (RXn) of the receiver unit (110, 210) and a second reference voltage (Vref n); a first voltage regulation circuit coupled to the first comparator (120a, 220a) and to the positive input terminal (RXp) of the receiver unit (110, 210), the first voltage regulation circuit being adapted to regulate the voltage at the positive input terminal (RXp) in response to the first comparator output signal (agc_comp_p); and a second voltage regulation circuit coupled to the second comparator (120b, 220b) and to the negative input terminal (RXn) of the receiver unit (110, 210), the second voltage regulation circuit being adapted to regulate the voltage at the negative input terminal (RXn) in response to the second comparator output signal (age comp n). a receiver unit (110, 210) having differential input terminals for connecting to an antenna, said differential input terminals of the receiver unit including a positive input terminal (RXp) and a negative input terminal (RXn); a first comparator (120a, 220a) adapted to generate a first comparator output signal (agc_comp_p) indicative of a relationship between a voltage at the positive input terminal (RXp) of the receiver unit (110, 210) and a first reference voltage (Vref_p); a second comparator (120b, 220b) adapted to generate a second comparator output signal (agc_comp_n) indicative of a relationship between a voltage at the negative input terminal (RXn) of the receiver unit (110, 210) and a second reference voltage (Vref n); a first voltage regulation circuit coupled to the first comparator (120a, 220a) and to the positive input terminal (RXp) of the receiver unit (110, 210), the first voltage regulation circuit being adapted to regulate the voltage at the positive input terminal (RXp) in response to the first comparator output signal (agc_comp_p); and a second voltage regulation circuit coupled to the second comparator (120b, 220b) and to the negative input terminal (RXn) of the receiver unit (110, 210), the second voltage regulation circuit being adapted to regulate the voltage at the negative input terminal (RXn) in response to the second comparator output signal (age comp n).
A computer implemented method of determining a start position for a 2D to 3D image registration, the method comprising the following steps, in this order: a) obtaining characteristic feature sets characterising a registration feature imaged in a plurality of synthetic 2D images, the plurality of synthetic 2D images having been generated from a 3D image data set, the synthetic 2D images containing the registration feature having been imaged according to a plurality of respective viewing parameters b) obtaining a 2D image to be registered with the 3D image data set; c) applying the characteristic feature sets to the obtained 2D image to locate the registration feature therein; and d) determining which of the one or more characteristic features sets locate the registration feature in the obtained 2D image; wherein at least the viewing parameters relating to the synthetic image corresponding to the determined characteristic features sets provide information relating to a start position for a subsequent registration of the obtained 2D image to the 3D image data set, wherein the characteristic feature sets are R tables for use with a generalised Hough transform, wherein the applying comprises generating accumulation images by applying the R-tables to the obtained 2D image using the generalised Hough transform. a) obtaining characteristic feature sets characterising a registration feature imaged in a plurality of synthetic 2D images, the plurality of synthetic 2D images having been generated from a 3D image data set, the synthetic 2D images containing the registration feature having been imaged according to a plurality of respective viewing parameters b) obtaining a 2D image to be registered with the 3D image data set; c) applying the characteristic feature sets to the obtained 2D image to locate the registration feature therein; and d) determining which of the one or more characteristic features sets locate the registration feature in the obtained 2D image;
An insulation film composition for a grain-oriented electrical steel sheet comprising 10-50 parts by weight of metal silicate or organic silicate, 20-70 parts by weight of inorganic nanoparticles and 0.1-20 parts by weight of cobalt hydroxide.
A method for initializing a rotary insert feeder for processing of a plurality of inserts, the method comprising steps of: measuring a length of a first insert delivered from a vacuum belt assembly (106, 280) to a collating track, the collating track comprising a plurality of leading and trailing pusher pins with a predetermined spacing therebetween; calculating, by way of a control processor, a first distance between a trailing edge of the first insert and a first trailing pusher pin, using the measured length of the first insert and the predetermined spacing between a first leading pusher pin and the first trailing pusher pin; establishing an offset for rotary insert feeder start position based on the calculated first distance between the trailing edge of the first insert and the first trailing pusher pin; during a restart of the rotary insert feeder, adjusting, by way of the control processor, a rotational position of the rotary insert feeder relative to a position of the first pusher pin based on the established offset; and feeding a second insert from the vacuum belt assembly (106, 280) to the collating track such that a second distance between a trailing edge of the second insert and a second trailing pusher pin is the same as the previously calculated first distance for the first insert. measuring a length of a first insert delivered from a vacuum belt assembly (106, 280) to a collating track, the collating track comprising a plurality of leading and trailing pusher pins with a predetermined spacing therebetween; calculating, by way of a control processor, a first distance between a trailing edge of the first insert and a first trailing pusher pin, using the measured length of the first insert and the predetermined spacing between a first leading pusher pin and the first trailing pusher pin; establishing an offset for rotary insert feeder start position based on the calculated first distance between the trailing edge of the first insert and the first trailing pusher pin; during a restart of the rotary insert feeder, adjusting, by way of the control processor, a rotational position of the rotary insert feeder relative to a position of the first pusher pin based on the established offset; and feeding a second insert from the vacuum belt assembly (106, 280) to the collating track such that a second distance between a trailing edge of the second insert and a second trailing pusher pin is the same as the previously calculated first distance for the first insert.
A carbonatable, non-hydraulic calcium silicate cement composition comprising: one or more discrete calcium silicate phases selected from wollastonite, pseudowollastonite, and rankinite; an amorphous calcium silicate phase; one or more hydraulic contaminants; and and one or more set-retarding or hydration-controlling compounds or admixtures wherein the set-retarding or hydration-controlling compounds or admixtures comprise one or more of lignosulfonates, hydroxycarboxylic acid and salts thereof, phosphonates, sugars, borates and phosphates; wherein the calcium silicate composition is suitable for carbonation with CO 2 at a temperature of 30°C to 90°C to form CaCO 3 with a mass gain of 10% or more. one or more discrete calcium silicate phases selected from wollastonite, pseudowollastonite, and rankinite; an amorphous calcium silicate phase; one or more hydraulic contaminants; and and one or more set-retarding or hydration-controlling compounds or admixtures wherein the set-retarding or hydration-controlling compounds or admixtures comprise one or more of lignosulfonates, hydroxycarboxylic acid and salts thereof, phosphonates, sugars, borates and phosphates; wherein the calcium silicate composition is suitable for carbonation with CO 2 at a temperature of 30°C to 90°C to form CaCO 3 with a mass gain of 10% or more. and one or more set-retarding or hydration-controlling compounds or admixtures wherein the set-retarding or hydration-controlling compounds or admixtures comprise one or more of lignosulfonates, hydroxycarboxylic acid and salts thereof, phosphonates, sugars, borates and phosphates; wherein the calcium silicate composition is suitable for carbonation with CO 2 at a temperature of 30°C to 90°C to form CaCO 3 with a mass gain of 10% or more.