mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic filter for a central heating and/or cooling system, the magnetic filter comprising a chamber having an inlet and an outlet , and a magnetic assembly mounted to the outside of the chamber , the magnetic assembly being movable from a position close to an outside wall of the chamber to a position spaced from the outside wall of the chamber , the magnetic assembly comprising: a carrier ; at least one magnetic element mounted to the carrier on the side of the carrier facing towards the chamber ; at least one spring disposed between the carrier and the magnetic element(s) for urging the magnetic element(s) towards the chamber ; and at least one force transfer element rigidly fixed to the carrier and disposed in front of part of the or each magnetic element, for pushing on the magnetic element(s) from the side of the magnetic element(s) facing towards the chamber , to apply force to the magnetic element(s) in a direction away from the chamber , against magnetic attraction between the magnetic element(s) and magnetic debris within the chamber , when the magnetic assembly is moved to a position spaced from the outside wall of the chamber. a chamber having an inlet and an outlet , and a magnetic assembly mounted to the outside of the chamber , the magnetic assembly being movable from a position close to an outside wall of the chamber to a position spaced from the outside wall of the chamber , the magnetic assembly comprising: a carrier ; at least one magnetic element mounted to the carrier on the side of the carrier facing towards the chamber ; at least one spring disposed between the carrier and the magnetic element(s) for urging the magnetic element(s) towards the chamber ; and at least one force transfer element rigidly fixed to the carrier and disposed in front of part of the or each magnetic element, for pushing on the magnetic element(s) from the side of the magnetic element(s) facing towards the chamber , to apply force to the magnetic element(s) in a direction away from the chamber , against magnetic attraction between the magnetic element(s) and magnetic debris within the chamber , when the magnetic assembly is moved to a position spaced from the outside wall of the chamber. a carrier ; at least one magnetic element mounted to the carrier on the side of the carrier facing towards the chamber ; at least one spring disposed between the carrier and the magnetic element(s) for urging the magnetic element(s) towards the chamber ; and at least one force transfer element rigidly fixed to the carrier and disposed in front of part of the or each magnetic element, for pushing on the magnetic element(s) from the side of the magnetic element(s) facing towards the chamber , to apply force to the magnetic element(s) in a direction away from the chamber , against magnetic attraction between the magnetic element(s) and magnetic debris within the chamber , when the magnetic assembly is moved to a position spaced from the outside wall of the chamber.
A method for detecting a hepatitis virus infection or hepatitis virus associated disease condition in a subject, comprising: (a) preparing an exosome preparation from a urine sample from the subject; (b) contacting the exosome preparation with one or more hepatitis virus-associated biomarker binding agent(s) suitable for detecting at least one hepatitis virus-associated biomarker selective for HCV and further contacting the exosome preparation with one or more detection reagent(s) suitable for detecting an miRNA selected from the group consisting of miR-92a, miR-122, miR-148a, miR-194, miR-155, miR-483-5p and miR-671-Sp, miR-106b, miR-1274a, miR-130b, miR-140-3p, miR-151-3p, miR-181a, miR-19b, miR-21, miR-24, miR-375, miR-5481, miR-93, and miR-941, miRNA-1, miRNA-122, miR-584, miR-517c, miR-378, miR-520f, miR-142-Sp, miR-451, miR-518d, miR-215, miR-376a, miR-133b and miR-367; and (c) determining whether the subject has or does not have an infection or disease condition caused by a hepatitis virus based on detecting the presence or absence of at least one hepatitis virus-associated biomarker, wherein the presence of at least one hepatitis virus-associated biomarker in step (c) is indicative of an infection or infectious disease condition caused by HCV, wherein the absence of at least one hepatitis virus-associated biomarker in step (c) is indicative of the absence of an infection or infectious disease condition caused by HCV, and wherein the at least one hepatitis virus-associated biomarker is selected from the group consisting of HCV core antigen (HCVcAg), HCV C protein, HCV E1 protein, HCV E2 protein, HCV p7 protein, HCV NS2 protein, HCV NS3 protein, HCV NS4a protein, HCV NS4b protein, HCV NS5a protein and HCV NS5b protein. (a) preparing an exosome preparation from a urine sample from the subject; (b) contacting the exosome preparation with one or more hepatitis virus-associated biomarker binding agent(s) suitable for detecting at least one hepatitis virus-associated biomarker selective for HCV and further contacting the exosome preparation with one or more detection reagent(s) suitable for detecting an miRNA selected from the group consisting of miR-92a, miR-122, miR-148a, miR-194, miR-155, miR-483-5p and miR-671-Sp, miR-106b, miR-1274a, miR-130b, miR-140-3p, miR-151-3p, miR-181a, miR-19b, miR-21, miR-24, miR-375, miR-5481, miR-93, and miR-941, miRNA-1, miRNA-122, miR-584, miR-517c, miR-378, miR-520f, miR-142-Sp, miR-451, miR-518d, miR-215, miR-376a, miR-133b and miR-367; and (c) determining whether the subject has or does not have an infection or disease condition caused by a hepatitis virus based on detecting the presence or absence of at least one hepatitis virus-associated biomarker,
An alphaolefin oligomer, which is a hydrogenated alphaolefin oligomer composition comprising at least one hydrogenated alphaolefin oligomer, the alphaolefin oligomer having a uniform molecular structure with a weight average molecular weight of 697-1300 and having a branch ratio of 0.265 or less as represented by Equation below: Branch ratio = P 1 / P 2 (wherein P1 is an amount of a CH 3 group and P2 is an amount of a CH 2 group, the amount of the CH 2 group and the amount of the CH 3 group being measured through 1 H-NMR), wherein the alphaolefin oligomer has a kinematic viscosity at 100°C of 6.3 cSt or less measured according to the ASTM D445 standard, a Noack volatility of less than 12% measured according to the ASTM D5800 standard, and wherein the alphaolefin oligomer is configured such that carbon at position B2 in Structural Formula 1 below has a T 1 relaxation time of less than 0.6 at 298 K as measured by an NMR pulse sequence, and carbon at position B3 of the alphaolefin oligomer has a T 1 relaxation time of less than 0.5 at 298 K as measured by the NMR pulse sequence: (wherein n = 1 to 9). (wherein P1 is an amount of a CH 3 group and P2 is an amount of a CH 2 group, the amount of the CH 2 group and the amount of the CH 3 group being measured through 1 H-NMR), wherein the alphaolefin oligomer has a kinematic viscosity at 100°C of 6.3 cSt or less measured according to the ASTM D445 standard, a Noack volatility of less than 12% measured according to the ASTM D5800 standard, and wherein the alphaolefin oligomer is configured such that carbon at position B2 in Structural Formula 1 below has a T 1 relaxation time of less than 0.6 at 298 K as measured by an NMR pulse sequence, and carbon at position B3 of the alphaolefin oligomer has a T 1 relaxation time of less than 0.5 at 298 K as measured by the NMR pulse sequence: (wherein n = 1 to 9).
A method for measuring a surface profile of a film growing on a surface of a substrate in a chamber , the method comprising: successively or intermittently varying an angle of a pivot mirror by pivoting at a high speed so that the mirror sequentially gives a single laser beam (L0) to yield a plurality of irradiation points (P1, P2, P3) on a surface of the film or on the surface of the substrate while varying an incident direction of the laser beam; wherein the plurality of irradiation points are corners (P1, P2, P3) of a triangle containing a certain point (F) on the surface of the film or on the surface of the substrate; detecting a reflection direction of the single laser beam using a beam position sensor , and; calculating, from the reflection direction, an angle of inclination of the surface at each of the plurality of irradiation points and a warpage of the surface within a region including the certain point and the plurality of irradiation points from the calculated angles of inclination. successively or intermittently varying an angle of a pivot mirror by pivoting at a high speed so that the mirror sequentially gives a single laser beam (L0) to yield a plurality of irradiation points (P1, P2, P3) on a surface of the film or on the surface of the substrate while varying an incident direction of the laser beam; wherein the plurality of irradiation points are corners (P1, P2, P3) of a triangle containing a certain point (F) on the surface of the film or on the surface of the substrate; detecting a reflection direction of the single laser beam using a beam position sensor , and; calculating, from the reflection direction, an angle of inclination of the surface at each of the plurality of irradiation points and a warpage of the surface within a region including the certain point and the plurality of irradiation points from the calculated angles of inclination.
A semisolid aqueous pharmaceutical composition containing tapentadol or a physiologically acceptable salt thereof, which does not contain any preservative.
A method for manufacturing an article , comprising: initiating an additive manufacturing process of the article on a bed associated with an additive manufacturing system using an additive manufacturing process , wherein the article is positioned relative to the bed with a plurality of positioning features that are received in corresponding ones of a plurality of openings in the bed ; forming a portion of the article using the additive manufacturing process ; pausing the additive manufacturing process prior to completion of the article ; performing a procedure on the portion of the article , wherein the procedure is not an additive manufacturing process performed using the additive manufacturing system ; after performing the procedure, resuming the additive manufacturing process of the article ; completing the additive manufacturing process of the article ; and removing the article from the bed , characterized in that the article is formed around kinetic balls of the plurality of positioning features such that the article partially encapsulates the kinetic balls , or the article is formed around pins of the plurality of positioning features such that the article adheres to the pins or partly encapsulates the pins . initiating an additive manufacturing process of the article on a bed associated with an additive manufacturing system using an additive manufacturing process , wherein the article is positioned relative to the bed with a plurality of positioning features that are received in corresponding ones of a plurality of openings in the bed ; forming a portion of the article using the additive manufacturing process ; pausing the additive manufacturing process prior to completion of the article ; performing a procedure on the portion of the article , wherein the procedure is not an additive manufacturing process performed using the additive manufacturing system ; after performing the procedure, resuming the additive manufacturing process of the article ; completing the additive manufacturing process of the article ; and removing the article from the bed , characterized in that the article is formed around kinetic balls of the plurality of positioning features such that the article partially encapsulates the kinetic balls , or the article is formed around pins of the plurality of positioning features such that the article adheres to the pins or partly encapsulates the pins .
Switching device with a first switching device control terminal and a second switching device control terminal , and with a first switching device load terminal and a second switching device load terminal , wherein the switching device has a switching device housing , wherein inside the switching device housing a first relay is arranged with a first relay housing different from the switching device housing , wherein the first switching device control terminal is circuit-connected to a first relay control terminal of the first relay , wherein the second switching device control terminal is circuit-connected to a second relay control terminal of the first relay , wherein the first switching device load terminal is circuit-connected to a first relay load terminal of the first relay , and wherein the second switching device load terminal is circuit-connected to a second relay load terminal of the first relay , characterised in that the switching device has a push-button , in that the push-button interacts mechanically with an anchor of the first relay such that an activation of the push-button activates the anchor, in that the first relay housing has a first opening , and in that a first extension interacting with the push-button projects through the first opening into the inside of the first relay housing and in that the first extension is arranged on a slide mounted to be longitudinally displaceable inside the switching device housing , and in that the slide is connected by means of a lever arm to the push-button .
Method for operating a two-wheeled vehicle , in particular a motorcycle, on a roadway , comprising the following steps: a) ascertaining a current coefficient of friction between at least one wheel of the two-wheeled vehicle and the roadway , b) calculating a critical tilt angle (γ) of the two-wheeled vehicle in dependence on at least the current coefficient of friction, c) sensing a current tilt angle (β) of the two-wheeled vehicle , d) determining the distance (Δ) of the current tilt angle (β) from the critical tilt angle (γ), e) outputting information to the rider in dependence on the determined distance (Δ). a) ascertaining a current coefficient of friction between at least one wheel of the two-wheeled vehicle and the roadway , b) calculating a critical tilt angle (γ) of the two-wheeled vehicle in dependence on at least the current coefficient of friction, c) sensing a current tilt angle (β) of the two-wheeled vehicle , d) determining the distance (Δ) of the current tilt angle (β) from the critical tilt angle (γ), e) outputting information to the rider in dependence on the determined distance (Δ).
A round baler comprising: a bale forming chamber having a belt to form a bale of crop material; a wrap feed system ; and a belt guide coupled to the baler so as to be external to the bale forming chamber , the belt guide comprising an inwardly facing surface substantially parallel to the belt ; and a protrusion extending inwardly towards the bale forming chamber , the protrusion positioned adjacent a side of the belt , wherein the belt guide is configured to sandwich wrap material between the belt and the belt guide the belt guide further comprises a guide body having the inwardly facing surface and a guide coupled to the guide body that includes the protrusion characterized in that the belt guide further comprises a hinge coupled to the guide at a first end , the hinge having a second end that cooperates with the guide and the guide body to receive a portion of the baler to couple the belt guide to the baler such that the belt guide is external to the bale forming chamber . a bale forming chamber having a belt to form a bale of crop material; a wrap feed system ; and a belt guide coupled to the baler so as to be external to the bale forming chamber , the belt guide comprising an inwardly facing surface substantially parallel to the belt ; and a protrusion extending inwardly towards the bale forming chamber , the protrusion positioned adjacent a side of the belt , wherein the belt guide is configured to sandwich wrap material between the belt and the belt guide the belt guide further comprises a guide body having the inwardly facing surface and a guide coupled to the guide body that includes the protrusion characterized in that the belt guide further comprises a hinge coupled to the guide at a first end , the hinge having a second end that cooperates with the guide and the guide body to receive a portion of the baler to couple the belt guide to the baler such that the belt guide is external to the bale forming chamber .
An automatic driving system for a vehicle, comprising: a mapping module which receives a route information set on a navigation device installed at a vehicle and converts a distance, a direction and a rotation angle into an actual data, or real data, and sets a driving lane; wherein the mapping module is configured to store information on the width and number of the lanes formed on each road on which the vehicle is driven and form a main driving lane allowing the vehicle to be directly driven on any of the lanes formed on the road, and an assistant driving lane allowing the vehicle to be driven on other lanes; characterised by a driving control module which allows the vehicle to be driven on the driving lane set by the mapping module ; and a position detection module for detecting the position of the vehicle, wherein the position detection module includes a first transceiver device for transmitting and receiving a high frequency signal, and a second transceiver device is installed spaced apart at a predetermined interval at both sides of the road so as to receive the signal from the first transceiver device and transmit again, and the position detection module is configured to determine the lane on which the vehicle positions on the road with the aid of the information on the distance between the both sides of the road and on the width of the lane which are detected based on the signal transmitted through the first and second transceiver devices . a mapping module which receives a route information set on a navigation device installed at a vehicle and converts a distance, a direction and a rotation angle into an actual data, or real data, and sets a driving lane; wherein the mapping module is configured to store information on the width and number of the lanes formed on each road on which the vehicle is driven and form a main driving lane allowing the vehicle to be directly driven on any of the lanes formed on the road, and an assistant driving lane allowing the vehicle to be driven on other lanes; characterised by a driving control module which allows the vehicle to be driven on the driving lane set by the mapping module ; and a position detection module for detecting the position of the vehicle, wherein the position detection module includes a first transceiver device for transmitting and receiving a high frequency signal, and a second transceiver device is installed spaced apart at a predetermined interval at both sides of the road so as to receive the signal from the first transceiver device and transmit again, and the position detection module is configured to determine the lane on which the vehicle positions on the road with the aid of the information on the distance between the both sides of the road and on the width of the lane which are detected based on the signal transmitted through the first and second transceiver devices .
A lens drive apparatus for use in a small camera module, which displaces a lens holder in a direction (Z) of an optical axis (O) and first and second directions (X, Y) that are orthogonal to the optical axis (O) and to each other, the lens drive apparatus comprising: a drive section that rocks an assembly , which is formed by assembling the lens holder together with magnets disposed around the lens holder and together with a guide member configured to guide the lens holder such that the lens holder can move with respect to the magnets in the direction of the optical axis (O), in the first and second directions (X, Y) by the magnets and coils disposed at a position facing the magnets in collaboration with each other; a rocking support member configured to support the assembly such that the assembly can rock in the first and second directions (X, Y); and Hall devices configured to detect a position of the magnets in the first and second directions (X, Y), wherein the magnets , the coils and the Hall devices are disposed at positions shifted in the direction of the optical axis (O). a drive section that rocks an assembly , which is formed by assembling the lens holder together with magnets disposed around the lens holder and together with a guide member configured to guide the lens holder such that the lens holder can move with respect to the magnets in the direction of the optical axis (O), in the first and second directions (X, Y) by the magnets and coils disposed at a position facing the magnets in collaboration with each other; a rocking support member configured to support the assembly such that the assembly can rock in the first and second directions (X, Y); and Hall devices configured to detect a position of the magnets in the first and second directions (X, Y), wherein the magnets , the coils and the Hall devices are disposed at positions shifted in the direction of the optical axis (O).