mhurhangee/patent-ind-claim-en huggingface dataset:
A braking system for a vehicle combination , the system including: a first brake axle (20 1 ) including a first actuatable brake; a second brake axle (20 2 ) including a second actuatable brake; a third brake axle (20 3 ) including a third actuatable brake (22 3 ); characterized by a first valve (26 1 ) controlling actuation of the first actuatable brake and actuation of the second actuatable brake (22 2 ); and a second valve (26 2 ) controlling actuation of the second actuatable brake (22 2 ) and actuation of the third actuatable brake (22 3 ). a first brake axle (20 1 ) including a first actuatable brake; a second brake axle (20 2 ) including a second actuatable brake; a third brake axle (20 3 ) including a third actuatable brake (22 3 ); characterized by a first valve (26 1 ) controlling actuation of the first actuatable brake and actuation of the second actuatable brake (22 2 ); and a second valve (26 2 ) controlling actuation of the second actuatable brake (22 2 ) and actuation of the third actuatable brake (22 3 ).
An apparatus comprising: a plurality of transformers , wherein each of the plurality of transformers is independently connected to a load and/or a source , wherein each of the plurality of transformers comprises a core , a first winding connected to one of the load and the source, a second winding and a control winding, a path configured to connect the respective second windings of the each of the plurality of transformers, wherein non-direct current flows through the path; and a number of current sources configured to send direct current into a portion of the plurality of transformers such that a transfer of energy between the core for each of the portion of the plurality of transformers and the path is substantially absent, wherein the number of current sources is configured to send the direct current into the control winding for the each of the portion of the plurality of transformers to saturate the core for the each of the portion of the plurality of transformers. a plurality of transformers , wherein each of the plurality of transformers is independently connected to a load and/or a source , wherein each of the plurality of transformers comprises a core , a first winding connected to one of the load and the source, a second winding and a control winding, a path configured to connect the respective second windings of the each of the plurality of transformers, wherein non-direct current flows through the path; and a number of current sources configured to send direct current into a portion of the plurality of transformers such that a transfer of energy between the core for each of the portion of the plurality of transformers and the path is substantially absent, wherein the number of current sources is configured to send the direct current into the control winding for the each of the portion of the plurality of transformers to saturate the core for the each of the portion of the plurality of transformers.
A glow plug with a combustion pressure sensor comprising a rodlike ceramic heater having a forward heat-generating element provided at a forward end portion and adapted to generate heat through application of electricity, a tubular housing having the ceramic heater disposed therein with a forward end of the ceramic heater protruding forward from a forward end thereof, and a sensor capable of sensing combustion pressure by detecting pressure or displacement generated as a result of the ceramic heater being pressed rearward at the forward end by the combustion pressure, an inner circumferential surface of a forward end portion of the housing and an outer circumferential surface of the ceramic heater defining an annular space K communicating with an opening in a forward end of the housing , and the space K accommodating a displacement member joined along a circumferential direction to the housing and to the ceramic heater and being deformable so as to allow displacement of the ceramic heater along an axis G, the glow plug being characterized in that the ceramic heater has a rear heat-generating element adapted to generate heat through application of electricity, for heating at least a portion of the outer circumferential surface of the ceramic heater in an axial region between a rear end portion of a protruding portion of the ceramic heater protruding forward from the forward end of the housing and a rear end of the displacement member located rearward of the rear end portion of the protruding portion of the ceramic heater .
A window assembly comprising: a transparent pane ; an electrical conductor contacting said transparent pane ; an electrical connection element for energizing said electrical conductor ; an electrically conductive solder joint connecting said electrical connection element and said electrical conductor for providing an electrical connection between said electrical connection element and said electrical conductor ; an encapsulation over said electrical connection element and said electrical conductor : and a casing disposed between said encapsulation and said electrical conductor and surrounding said solder joint and contacting said encapsulation and said transparent pane to prevent contact between said encapsulation and said solder joint ; wherein said casing is set apart in substantially all areas to form a layer of air between said encapsulation and said solder joint to prevent stress imparted on said casing from said encapsulation from being transferred to said solder joint to prevent said transparent pane from cracking. a transparent pane ; an electrical conductor contacting said transparent pane ; an electrical connection element for energizing said electrical conductor ; an electrically conductive solder joint connecting said electrical connection element and said electrical conductor for providing an electrical connection between said electrical connection element and said electrical conductor ; an encapsulation over said electrical connection element and said electrical conductor : and a casing disposed between said encapsulation and said electrical conductor and surrounding said solder joint and contacting said encapsulation and said transparent pane to prevent contact between said encapsulation and said solder joint ; wherein said casing is set apart in substantially all areas to form a layer of air between said encapsulation and said solder joint to prevent stress imparted on said casing from said encapsulation from being transferred to said solder joint to prevent said transparent pane from cracking.
Magnetocardiographic method, the method comprising the following steps: a) Measuring a component of the heart magnetic field at a plurality of positions above the heart of a subject using a plurality of magnetic field sensors during at least part of the cardiac cycle comprising the ST-T segment of the sinus rhythm of the heart, and b) Determining, using the magnetic field data measured by the plurality of magnetic field sensors, the monopolarity of the magnetic field at least one given point in time or over at least one given time period during the ST-T segment of the sinus rhythm of the heart, wherein the determination of the monopolarity of the magnetic field is computer implemented, characterized in that the monopolarity of the magnetic field represents a measure for the deviation of the magnetic field from a dipolar shape, and in that the monopolarity of the magnetic field is calculated by the following formula M = ∑ b i ∑ b i wherein M is the monopolarity, i the sensor index and b i the magnetic field gradient measured by the i -th magnetic field sensor. a) Measuring a component of the heart magnetic field at a plurality of positions above the heart of a subject using a plurality of magnetic field sensors during at least part of the cardiac cycle comprising the ST-T segment of the sinus rhythm of the heart, and b) Determining, using the magnetic field data measured by the plurality of magnetic field sensors, the monopolarity of the magnetic field at least one given point in time or over at least one given time period during the ST-T segment of the sinus rhythm of the heart,
A modified conjugated diene-based polymer, comprising: a derived unit from a modifier, wherein the modifier comprising three or more alkoxy groups bonded to silicon; a non-functional chain forming a silicon-carbon bond at one side of the derived unit from a modifier, wherein the non-functional chain comprising a repeating unit derived from a conjugated diene-based monomer; and a functional chain forming a silicon-carbon bond at the other side of the derived unit from a modifier, the functional chain comprising two or more derived units from an N-functional group-containing monomer, wherein the modified conjugated diene-based polymer has a rate of change of mooney viscosity (MV R ) of 200 or less, wherein the MV R is determined according to the following Mathematical Formula 1: MV R = MV f − MV i / MV i × 100 in Mathematical Formula 1, MV f is mooney viscosity at 100°C after standing the polymer at 25°C for 30 days, and MVi is initial mooney viscosity of the polymer at 100°C, wherein the mooney viscosity is measured according to the method as described in the description. a derived unit from a modifier, wherein the modifier comprising three or more alkoxy groups bonded to silicon; a non-functional chain forming a silicon-carbon bond at one side of the derived unit from a modifier, wherein the non-functional chain comprising a repeating unit derived from a conjugated diene-based monomer; and a functional chain forming a silicon-carbon bond at the other side of the derived unit from a modifier, the functional chain comprising two or more derived units from an N-functional group-containing monomer, wherein the modified conjugated diene-based polymer has a rate of change of mooney viscosity (MV R ) of 200 or less, wherein the MV R is determined according to the following Mathematical Formula 1: MV R = MV f − MV i / MV i × 100 in Mathematical Formula 1, MV f is mooney viscosity at 100°C after standing the polymer at 25°C for 30 days, and MVi is initial mooney viscosity of the polymer at 100°C, wherein the mooney viscosity is measured according to the method as described in the description.
A foot controller comprising: a base ; a treadle having a pair of side supports rotatably coupled with the base, the pair of side supports separated by a gap , the treadle further having a pedal surface coupled with the pair of side supports at a distal end of the treadle, wherein the gap between the pair of side supports accommodates an object for providing an upward rotational lift on a bottom surface of the pedal surface; a control assembly configured to determine an angular position of the treadle relative to the base and to convert the angular position into a first signal describing the angular position of the pedal surface; and a switch configured to emit an additional signal upon depression of the switch, wherein the switch is positioned at a distal end of the base , wherein the switch is at least partially shrouded by the pedal surface at a default angular position of the pedal surface relative to the base, and wherein the switch is at least partially exposed upon an upward rotational lift of the pedal surface of the pedal surface away from the distal end of the base. a base ; a treadle having a pair of side supports rotatably coupled with the base, the pair of side supports separated by a gap , the treadle further having a pedal surface coupled with the pair of side supports at a distal end of the treadle, wherein the gap between the pair of side supports accommodates an object for providing an upward rotational lift on a bottom surface of the pedal surface; a control assembly configured to determine an angular position of the treadle relative to the base and to convert the angular position into a first signal describing the angular position of the pedal surface; and a switch configured to emit an additional signal upon depression of the switch, wherein the switch is positioned at a distal end of the base , wherein the switch is at least partially shrouded by the pedal surface at a default angular position of the pedal surface relative to the base, and wherein the switch is at least partially exposed upon an upward rotational lift of the pedal surface of the pedal surface away from the distal end of the base.
Portable surface cleaning apparatus comprising a base ; and a tank associated with said base , at the top thereof, characterised by said tank comprising at least a couple of chambers predisposed to contain respective abrasive materials, said chambers being hermetically separated from one another; at least one couple of mixing valves associated with said base and connected with respective said chambers , each said mixing valve being predisposed to receive said abrasive material contained in said respective chamber and to mix said abrasive material with a predetermined amount of compressed air; a circuit for adjusting and distributing compressed air (C) comprising compressed air conducting means predisposed to convey said compressed air into said chambers and into said mixing valves ; and a fitting assembly predisposed to connect said mixing valves with spraying means predisposed to spray at least one flow of compressed air mixed with at least one abrasive material, said fitting assembly comprising a mixing device predisposed to be connected to said at least a couple of mixing valves so as to mix said flows of compressed air and abrasive materials coming from said mixing valves in order to obtain a resulting flow of compressed air and at least two abrasive materials to be sprayed on the surface to be treated. a base ; and a tank associated with said base , at the top thereof, characterised by said tank comprising at least a couple of chambers predisposed to contain respective abrasive materials, said chambers being hermetically separated from one another; at least one couple of mixing valves associated with said base and connected with respective said chambers , each said mixing valve being predisposed to receive said abrasive material contained in said respective chamber and to mix said abrasive material with a predetermined amount of compressed air; a circuit for adjusting and distributing compressed air (C) comprising compressed air conducting means predisposed to convey said compressed air into said chambers and into said mixing valves ; and a fitting assembly predisposed to connect said mixing valves with spraying means predisposed to spray at least one flow of compressed air mixed with at least one abrasive material, said fitting assembly comprising a mixing device predisposed to be connected to said at least a couple of mixing valves so as to mix said flows of compressed air and abrasive materials coming from said mixing valves in order to obtain a resulting flow of compressed air and at least two abrasive materials to be sprayed on the surface to be treated.
A method of wireless communication at a station (105-c), comprising: communicating with a neighboring AP (105-d, 105-e) to negotiate a first set of EDCA parameters, identifying the first set of enhanced distributed channel access, EDCA, parameters for a first access category (315-e, 315-f, 315-g, 315-h, 315-i) based at least in part on a first traffic type and a determination that a multiple user, MU, frame is to be transmitted; and contending to gain access for a transmission opportunity over a shared radio frequency spectrum band to communicate with a plurality of stations (105-c) in a MU mode, wherein the contending is based at least in part on the first set of EDCA parameters. communicating with a neighboring AP (105-d, 105-e) to negotiate a first set of EDCA parameters, identifying the first set of enhanced distributed channel access, EDCA, parameters for a first access category (315-e, 315-f, 315-g, 315-h, 315-i) based at least in part on a first traffic type and a determination that a multiple user, MU, frame is to be transmitted; and contending to gain access for a transmission opportunity over a shared radio frequency spectrum band to communicate with a plurality of stations (105-c) in a MU mode, wherein the contending is based at least in part on the first set of EDCA parameters.
A stereopsis display device comprising: a plurality of sub-pixels; a black matrix defining openings ; and a plurality of lenticular lenses slanted based on a vertical line at a first slant angle greater than zero, characterized in that the openings are slanted based on the vertical line at a second slant angle greater than zero to have an oblique shape, wherein the second slant angel is different from the first slant angle, wherein one view matrix comprised of M×N sub-pixels includes M sub-pixels arranged in a vertical direction and N sub-pixels arranged in a horizontal direction, wherein M and N are a positive integer, the view matrix being divided into sub-pixels opened by the openings and sub-pixels covered by the black matrix , wherein a number of the sub-pixels of the view matrix opened by the openings within a viewing zone formed by the lenticular lenses is N, and wherein the second slant angle is slanted at an angle of maximum ±3.5° with respect to the first slant angle. a plurality of sub-pixels; a black matrix defining openings ; and a plurality of lenticular lenses slanted based on a vertical line at a first slant angle greater than zero, characterized in that the openings are slanted based on the vertical line at a second slant angle greater than zero to have an oblique shape, wherein the second slant angel is different from the first slant angle, wherein one view matrix comprised of M×N sub-pixels includes M sub-pixels arranged in a vertical direction and N sub-pixels arranged in a horizontal direction, wherein M and N are a positive integer, the view matrix being divided into sub-pixels opened by the openings and sub-pixels covered by the black matrix , wherein a number of the sub-pixels of the view matrix opened by the openings within a viewing zone formed by the lenticular lenses is N, and wherein the second slant angle is slanted at an angle of maximum ±3.5° with respect to the first slant angle.
A computer program (P) causing a computer to perform processing of: generating a plurality of medical images based on signals detected by a catheter inserted into a lumen organ while the catheter is moving a sensor along a longitudinal direction of the lumen organ, the lumen organ including a main trunk (A), a side branch (B) branched from the main trunk (A), and a bifurcated portion of the main trunk (A) and the side branch (B); and recognizing a main trunk cross-section, a side branch cross-section, and a bifurcated portion cross-section by inputting the acquired medical images into a learning model configured to recognize the main trunk cross-section, the side branch cross-section, and the bifurcated portion cross-section, characterized by recognizing at least the main trunk cross-section or the side branch cross-section by inputting an acquired first medical image into the learning model ; recognizing the bifurcated portion cross-section by inputting an acquired second medical image into the learning model ; and discriminating between a main trunk portion and a side branch portion constituting the bifurcated portion cross-section based on a recognition result based on the first medical image. generating a plurality of medical images based on signals detected by a catheter inserted into a lumen organ while the catheter is moving a sensor along a longitudinal direction of the lumen organ, the lumen organ including a main trunk (A), a side branch (B) branched from the main trunk (A), and a bifurcated portion of the main trunk (A) and the side branch (B); and recognizing a main trunk cross-section, a side branch cross-section, and a bifurcated portion cross-section by inputting the acquired medical images into a learning model configured to recognize the main trunk cross-section, the side branch cross-section, and the bifurcated portion cross-section, characterized by recognizing at least the main trunk cross-section or the side branch cross-section by inputting an acquired first medical image into the learning model ; recognizing the bifurcated portion cross-section by inputting an acquired second medical image into the learning model ; and discriminating between a main trunk portion and a side branch portion constituting the bifurcated portion cross-section based on a recognition result based on the first medical image.
A supple member with adjustable stiffness for lying and/or sitting furniture , comprising: one or more adjustable springs , each configured to be deformed radially relative to a central axis (Z) under the effect of an axial stress along the central axis (Z), and a rotary part including a hub able to rotate about the central axis and one or more fingers , elastically flexible in a plane perpendicular to the central axis (Z), each extending from a first end secured to the hub of the rotary part , over an arc of circle (A) about the central axis (Z), to a second end , and each cooperating, in the radial direction relative to the central axis (Z), with one or more of the adjustable springs . one or more adjustable springs , each configured to be deformed radially relative to a central axis (Z) under the effect of an axial stress along the central axis (Z), and a rotary part including a hub able to rotate about the central axis and one or more fingers , elastically flexible in a plane perpendicular to the central axis (Z), each extending from a first end secured to the hub of the rotary part , over an arc of circle (A) about the central axis (Z), to a second end , and each cooperating, in the radial direction relative to the central axis (Z), with one or more of the adjustable springs .
Gas burner , comprising: - a support wall forming an inlet passage through which a pre-mixture of fuel gas and air is to be introduced into the burner , - a diffuser wall connected to the support wall in flow communication with the inlet passage and having a perforation for the passage of the pre-mixture of fuel gas and air from inside the burner to an outer side of the diffuser wall where combustion takes place, - a distribution diaphragm arranged in the inlet passage and having a through distribution opening , wherein the distribution opening forms a central passage section distant from the diffuser wall and a plurality of peripheral passage sections , shaped as rays or branches, extended from the central passage section towards the diffuser wall , and wherein the peripheral passage sections and the central passage section are connected to each other to form a single hole. - a support wall forming an inlet passage through which a pre-mixture of fuel gas and air is to be introduced into the burner , - a diffuser wall connected to the support wall in flow communication with the inlet passage and having a perforation for the passage of the pre-mixture of fuel gas and air from inside the burner to an outer side of the diffuser wall where combustion takes place, - a distribution diaphragm arranged in the inlet passage and having a through distribution opening ,