mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting a hematoma in a tissue of a patient; comprising: a non-stationary detection device that emits near infrared light into the tissue and which provides outputs corresponding to detected reflected light; an analysis section operably coupled to the detection device that determines at least the presence of a blood event from the detection device outputs; wherein the detection device includes: a near infrared light emitting section that is configured and arranged so the near infrared light penetrates to two different depths into the tissue, and a detection section that is configured and arranged so as to separately detect reflected light from the two different depths while the detection device is moved along the external surface of the tissue; and wherein the analysis section is configured and arranged to apply a ratiometric analysis to the reflected light detected while the detection device is moved along the external surface of the tissue to distinguish between normal tissue and tissue containing accumulated blood. a non-stationary detection device that emits near infrared light into the tissue and which provides outputs corresponding to detected reflected light; an analysis section operably coupled to the detection device that determines at least the presence of a blood event from the detection device outputs; wherein the detection device includes: a near infrared light emitting section that is configured and arranged so the near infrared light penetrates to two different depths into the tissue, and a detection section that is configured and arranged so as to separately detect reflected light from the two different depths while the detection device is moved along the external surface of the tissue; and a near infrared light emitting section that is configured and arranged so the near infrared light penetrates to two different depths into the tissue, and a detection section that is configured and arranged so as to separately detect reflected light from the two different depths while the detection device is moved along the external surface of the tissue; and wherein the analysis section is configured and arranged to apply a ratiometric analysis to the reflected light detected while the detection device is moved along the external surface of the tissue to distinguish between normal tissue and tissue containing accumulated blood.
An electronic entity comprising: - a body in which there is formed a cavity emerging on one face of this body, said face of the body forming a face of the entity, - a module inserted into this body by occupying said cavity, - a microcircuit forming part of this body, - a direct current source forming part of this body, and - an electronic component forming part of the module and accessible from the outside through said face of the entity, this electronic component being connected electrically to the microcircuit and having to be supplied with direct current by the direct current source, characterized in that the body comprises a first antenna connected to the direct current source through an oscillator and in that the module also comprises a second antenna connected to this electronic component through a rectifier circuit, this first antenna and this second antenna being electromagnetically coupled, ensuring a wireless radiofrequency powering of the electronic component of the module by the direct current source of the body and electrically connecting this electronic component to the microcircuit. - a body in which there is formed a cavity emerging on one face of this body, said face of the body forming a face of the entity, - a module inserted into this body by occupying said cavity, - a microcircuit forming part of this body, - a direct current source forming part of this body, and - an electronic component forming part of the module and accessible from the outside through said face of the entity, this electronic component being connected electrically to the microcircuit and having to be supplied with direct current by the direct current source,
a hydraulic braking system on the trailer side comprising a) a coupling assembly which comprises at least one connecting device with three separate connections (2.1; 2.2; 2.3), the second connection serving the direct actuation of a three-way valve; b) a valve assembly, which comprises at least one pressure accumulator, at least one accumulator drain valve and at least the three-way valve c) a pressure control group which comprises at least one pressure control valve and at least one pressure connection for the brake cylinder, wherein d) the third connection (2.3) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic brake system on the trailer side by means of a brake line (9.1) with couplings detachable on both sides; e) the second connection (2.2) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic trailer-side brake system by means of an additional line (9.2) with couplings releasable on both sides: f) the first connection (2.1) serves to receive one of the detachable couplings of the auxiliary line (9.2) when the hydraulic trailer-side braking system is used in combination with a towing vehicle with a single-conductor braking system; g) the first and third connections (2.1; 2.3) are each provided with a presence sensor (19; 20) for detecting the physical presence of a releasable coupling in the connection (2.1; 2.3); and h) the signal from the presence sensors (19; 20) is used as a control value for the three-way valve for an emergency braking function via the pressure accumulator. a) a coupling assembly which comprises at least one connecting device with three separate connections (2.1; 2.2; 2.3), the second connection serving the direct actuation of a three-way valve; b) a valve assembly, which comprises at least one pressure accumulator, at least one accumulator drain valve and at least the three-way valve c) a pressure control group which comprises at least one pressure control valve and at least one pressure connection for the brake cylinder, wherein d) the third connection (2.3) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic brake system on the trailer side by means of a brake line (9.1) with couplings detachable on both sides; e) the second connection (2.2) serves for the connectable connection of the brake system of the towing vehicle with the hydraulic trailer-side brake system by means of an additional line (9.2) with couplings releasable on both sides: f) the first connection (2.1) serves to receive one of the detachable couplings of the auxiliary line (9.2) when the hydraulic trailer-side braking system is used in combination with a towing vehicle with a single-conductor braking system; g) the first and third connections (2.1; 2.3) are each provided with a presence sensor (19; 20) for detecting the physical presence of a releasable coupling in the connection (2.1; 2.3); and h) the signal from the presence sensors (19; 20) is used as a control value for the three-way valve for an emergency braking function via the pressure accumulator.
A radio base station (eNB), comprising: a Back-off Indicator transmission unit configured to transmit a Back-off Indicator notifying a Back-off value when a usage situation of a random access preamble satisfies a predetermined condition, in a random access procedure, wherein the Back-off value (INDEX BI) is a value relating to a timing of transmitting the random access preamble in a mobile station; the Back-off Indicator transmission unit is configured to increase a Back-off value (INDEX BI) to be notified, when a total number (NUM PRE) of random access preambles received from the mobile station during a measurement period exceeds a first threshold value (TH NUMUP) for a first predetermined number (TH CNT,UP) of successive measurement periods; and the Back-off Indicator transmission unit is configured to decrease the Back-off value (INDEX BI) to be notified, when a total number (NUM PRE) of random access preambles received from the mobile station during a measurement period is equal to or less than a second threshold value (TH NUMDOWN) for a second predetermined number (TH CNT,DOWN) of successive measurement periods. a Back-off Indicator transmission unit configured to transmit a Back-off Indicator notifying a Back-off value when a usage situation of a random access preamble satisfies a predetermined condition, in a random access procedure, wherein the Back-off value (INDEX BI) is a value relating to a timing of transmitting the random access preamble in a mobile station; the Back-off Indicator transmission unit is configured to increase a Back-off value (INDEX BI) to be notified, when a total number (NUM PRE) of random access preambles received from the mobile station during a measurement period exceeds a first threshold value (TH NUMUP) for a first predetermined number (TH CNT,UP) of successive measurement periods; and the Back-off Indicator transmission unit is configured to decrease the Back-off value (INDEX BI) to be notified, when a total number (NUM PRE) of random access preambles received from the mobile station during a measurement period is equal to or less than a second threshold value (TH NUMDOWN) for a second predetermined number (TH CNT,DOWN) of successive measurement periods.
A method for detecting motion in the vicinity of an automotive system using a camera mounted to the automotive system, comprising: using the camera to capture video frames; selecting an array of a plurality of target sampling points in each video frame; measuring intensity levels at the plurality of target sampling points; with a first filtering circuit, filtering the measured intensity levels to generate a first filtered output at the target sampling points, including using a long average filter to produce a long term average value, wherein the long average filter outputs a brightness level that is averaged over a first duration; with a second filtering circuit, filtering the measured intensity levels to generate a second filtered output at the target sampling points, including using a short average filter to produce a short term average value, wherein the short average filter outputs a brightness level that is averaged over a second duration that is shorter than the first duration; sensing motion in the vicinity of the automotive system based on the first and second filtered outputs, including computing a difference between the first and second filtered outputs; comparing the computed difference to a predetermined threshold to determine whether a given target sampling point in the plurality of target sampling points has been activated; and in response to detecting that a particular sequence of target sampling points has been activated, determining that another vehicle is approaching the automotive system. using the camera to capture video frames; selecting an array of a plurality of target sampling points in each video frame; measuring intensity levels at the plurality of target sampling points; with a first filtering circuit, filtering the measured intensity levels to generate a first filtered output at the target sampling points, including using a long average filter to produce a long term average value, wherein the long average filter outputs a brightness level that is averaged over a first duration; with a second filtering circuit, filtering the measured intensity levels to generate a second filtered output at the target sampling points, including using a short average filter to produce a short term average value, wherein the short average filter outputs a brightness level that is averaged over a second duration that is shorter than the first duration; sensing motion in the vicinity of the automotive system based on the first and second filtered outputs, including computing a difference between the first and second filtered outputs; comparing the computed difference to a predetermined threshold to determine whether a given target sampling point in the plurality of target sampling points has been activated; and in response to detecting that a particular sequence of target sampling points has been activated, determining that another vehicle is approaching the automotive system.
An antenna system for an automotive vehicle comprising: an outside antenna (1, 31) that is located outside of the automotive vehicle; an inside antenna (2, 32) that includes an RF radiating cable and that is located inside of the automotive vehicle; and a wireless communication module (10, 20, 40); wherein the inside antenna (2, 32) is connected between the outside antenna (1, 31) and the wireless communication module (10, 20, 40) such that all signals received and transmitted by the outside antenna (1, 31) are received and transmitted through the inside antenna (2, 32). an outside antenna (1, 31) that is located outside of the automotive vehicle; an inside antenna (2, 32) that includes an RF radiating cable and that is located inside of the automotive vehicle; and a wireless communication module (10, 20, 40); wherein the inside antenna (2, 32) is connected between the outside antenna (1, 31) and the wireless communication module (10, 20, 40) such that all signals received and transmitted by the outside antenna (1, 31) are received and transmitted through the inside antenna (2, 32).
A poly(meth)acrylate-based viscosity index improver comprising: a core portion; and three or more arm portions, wherein each of the arm portions consists of a polymer chain comprising a structural unit represented by the following formula, and one end of the polymer chain is bonded to the core portion, wherein a weight-average molecular weight Mw is 100000 or more, and a ratio of the weight-average molecular weight Mw to a number average molecular weight Mn, Mw/Mn, is 1.6 or less, and wherein the polymer chain contains 15 to 45 mass% of the structural unit in which R 2 is a methyl group and 10 mass% or more of the structural unit in which R 2 is an alkyl group having 18 or more carbon atoms, based on the total amount of the structural units contained in the polymer chain. In the formula, R 1 represents hydrogen or a methyl group, and R 2 represents a C1 to C36 alkyl group. a core portion; and three or more arm portions, wherein each of the arm portions consists of a polymer chain comprising a structural unit represented by the following formula, and one end of the polymer chain is bonded to the core portion, wherein a weight-average molecular weight Mw is 100000 or more, and a ratio of the weight-average molecular weight Mw to a number average molecular weight Mn, Mw/Mn, is 1.6 or less, and wherein the polymer chain contains 15 to 45 mass% of the structural unit in which R 2 is a methyl group and 10 mass% or more of the structural unit in which R 2 is an alkyl group having 18 or more carbon atoms, based on the total amount of the structural units contained in the polymer chain. In the formula, R 1 represents hydrogen or a methyl group, and R 2 represents a C1 to C36 alkyl group.
An embolic protection device, said device comprising: an inner sheath having a lumen with a distal opening, wherein the inner lumen is configured to allow a catheter to be advanced therethrough; and an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end, a closed downstream end, a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber; wherein the embolic filter has at least a first port in the closed downstream end thereof comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through, wherein the expandable opening is disposed at an apical end of a first conical inner portion of the enclosed downstream end of the embolic filter; and wherein the inner sheath is attached to a second port in the enclosed downstream end of the embolic filter and to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter. an inner sheath having a lumen with a distal opening, wherein the inner lumen is configured to allow a catheter to be advanced therethrough; and an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end, a closed downstream end, a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber; wherein the embolic filter has at least a first port in the closed downstream end thereof comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through, wherein the expandable opening is disposed at an apical end of a first conical inner portion of the enclosed downstream end of the embolic filter; and wherein the inner sheath is attached to a second port in the enclosed downstream end of the embolic filter and to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter.
A scrap floating prevention mechanism comprising: a die holder (23;123;223;323;417) holding a die for punching a plate-like workpiece in cooperation with a punch, the die holder (23;123;223;323;417) being formed with a first communication pipe (30;130;230;275;375;461;463;479) for sending compressed fluid; a mounting table (7;107;207;307;417) on which the die holder (23;123;223;323;417) is placed and fixed, the mounting table (7;107;207;307;417) being formed with a second communication pipe (30;130;230;371;373;475,477) which is in communication with the first communication pipe (30;130;230;275;375;461;463;479) formed on the die holder (23;123;223;323;417) and which in operation sends compressed fluid to the first communication pipe (30;130;230;275;375;461;463;479); and a fluid injecting member (33;46;146;233;246;469) provided below the die, the fluid injecting member (33;46;146;233;246;469) being formed with a plurality of inclined injecting ports (32;132;232;432) for injecting compressed fluid from the first communication pipe (30;130;230;275;375;461;463;479); wherein the injecting ports (32;132;232;432) in operation inject compressed fluid downward in a space (35;41;135;235) into which a scrap punched out by the punch and the die drops. a die holder (23;123;223;323;417) holding a die for punching a plate-like workpiece in cooperation with a punch, the die holder (23;123;223;323;417) being formed with a first communication pipe (30;130;230;275;375;461;463;479) for sending compressed fluid; a mounting table (7;107;207;307;417) on which the die holder (23;123;223;323;417) is placed and fixed, the mounting table (7;107;207;307;417) being formed with a second communication pipe (30;130;230;371;373;475,477) which is in communication with the first communication pipe (30;130;230;275;375;461;463;479) formed on the die holder (23;123;223;323;417) and which in operation sends compressed fluid to the first communication pipe (30;130;230;275;375;461;463;479); and a fluid injecting member (33;46;146;233;246;469) provided below the die, the fluid injecting member (33;46;146;233;246;469) being formed with a plurality of inclined injecting ports (32;132;232;432) for injecting compressed fluid from the first communication pipe (30;130;230;275;375;461;463;479); wherein the injecting ports (32;132;232;432) in operation inject compressed fluid downward in a space (35;41;135;235) into which a scrap punched out by the punch and the die drops.
A piezoelectric actuator comprising: a piezoelectric thin film; and a substrate adapted to support the piezoelectric thin film, wherein the piezoelectric thin film is obtained by adding a donor element to lead zirconate titanate, the donor element is lanthanum, a molar ratio of lead to a total sum of zirconium and titanium is 105% or higher, a molar ratio of lanthanum to the total sum of zirconium and titanium is 6% or more and 10% or less, a molar ratio of zirconium to the total sum of zirconium and titanium is 54% or more and 59% or less, the thickness of the piezoelectric thin film is 1 μm or more and 10 μm or less, and, when positive and negative coercive electric fields in polarization and electric field hysteresis are referred to as Ec (+) and Ec (-), respectively, a value of | Ec (+) |/| Ec (-) | is 0.5 or more and 1.5 or less. a piezoelectric thin film; and a substrate adapted to support the piezoelectric thin film, wherein the piezoelectric thin film is obtained by adding a donor element to lead zirconate titanate, the donor element is lanthanum, a molar ratio of lead to a total sum of zirconium and titanium is 105% or higher, a molar ratio of lanthanum to the total sum of zirconium and titanium is 6% or more and 10% or less, a molar ratio of zirconium to the total sum of zirconium and titanium is 54% or more and 59% or less, the thickness of the piezoelectric thin film is 1 μm or more and 10 μm or less, and, when positive and negative coercive electric fields in polarization and electric field hysteresis are referred to as Ec (+) and Ec (-), respectively, a value of | Ec (+) |/| Ec (-) | is 0.5 or more and 1.5 or less.