mhurhangee/patent-ind-claim-en huggingface dataset:
Fuel cell device with an integrated gas processor unit (10a; 10e; 10f), which has at least one first functional unit (12a; 12e; 12f) with a first nominal operating temperature, at least one second functional unit (14a; 14e; 14f) with a second nominal operating temperature, at least one third functional unit (16a; 16e; 16f) with a third nominal operating temperature, at least one fourth functional unit (18a; 18e; 18f), which has a fourth nominal operating temperature, and at least one fifth functional unit (20a; 20e; 20f), which has a fifth nominal operating temperature, wherein the functional units (12a, 14a, 16a, 18a, 20a; 12e, 14e, 16e, 18e, 20e; 12f, 14f, 16f, 18f, 20f) are respectively formed as a reformer unit (22a; 22e; 22f), as an afterburning unit (24a; 24e; 24f) or as a heat exchanger (26a, 28a, 30a; 26e, 28e, 30e; 26f, 28f, 30f) and, when viewed along at least one direction, are arranged in order of their respective nominal operating temperature, wherein the first functional unit (12a; 12e; 12f) with the highest nominal operating temperature, formed as an afterburning unit (24a; 24e; 24f), is arranged centrally within the gas processor unit (10a; 10e; 10f) and the first functional unit (12a; 12e; 12f) is completely enclosed in the circumferential direction by the second functional unit (14a; 14e; 14f), characterized in that the third functional unit (16a; 16e; 16f) encloses the fourth functional unit (18a; 18e; 18f) and the fifth functional unit (20a; 20e; 20f) respectively encloses the first functional unit (12a; 12e; 12f) and the second functional unit (14a; 14e; 14f) in the circumferential direction, wherein the third functional unit (16a; 16e; 16f), the fourth functional unit (18a; 18e; 18f) and the fifth functional unit (20a; 20e; 20f) are arranged axially alongside one another.
Amorphous tapentadol phosphate in combination with MHPO 4 or M' 2 HPO 4 , wherein M is a divalent cation and M' is a monovalent cation.
A robot cleaner comprising: a first spin-mop and a second spin-mop that contact a floor while rotating in a clockwise direction or in a counterclockwise direction when viewed from above; and a controller that manages respective rotational directions and rotational speeds of the first spin-mop and the second spin-mop to move the robot cleaner such that: the robot cleaner travels in a zigzag pattern that includes a first travel during which the robot cleaner moves in a first direction, and a second travel during which the robot cleaner moves in a second direction which is opposite the first direction, and a first region of the floor over which one of the first spin-mop or the second spin-mop moves during the second travel overlaps a second region of the floor over which the first spin-mop moves during the first travel and a third region of the floor over which the second spin-mop moves during the first travel. a first spin-mop and a second spin-mop that contact a floor while rotating in a clockwise direction or in a counterclockwise direction when viewed from above; and a controller that manages respective rotational directions and rotational speeds of the first spin-mop and the second spin-mop to move the robot cleaner such that: the robot cleaner travels in a zigzag pattern that includes a first travel during which the robot cleaner moves in a first direction, and a second travel during which the robot cleaner moves in a second direction which is opposite the first direction, and a first region of the floor over which one of the first spin-mop or the second spin-mop moves during the second travel overlaps a second region of the floor over which the first spin-mop moves during the first travel and a third region of the floor over which the second spin-mop moves during the first travel. the robot cleaner travels in a zigzag pattern that includes a first travel during which the robot cleaner moves in a first direction, and a second travel during which the robot cleaner moves in a second direction which is opposite the first direction, and a first region of the floor over which one of the first spin-mop or the second spin-mop moves during the second travel overlaps a second region of the floor over which the first spin-mop moves during the first travel and a third region of the floor over which the second spin-mop moves during the first travel.
An endotracheal ventilator tube for the prevention of dysphagia, the endotracheal ventilator tube comprising: an elongate tube ; at least one electrode positioned about the elongate tube; and a sleeve selectively positionable around the elongate tube, wherein the at least one electrode is configured to deliver electrical stimulation to the oropharyngeal region and is electrically connected to an electrical stimulation generating means, characterized in that the at least one electrode is positioned on the sleeve in such a position that when the ventilator tube is properly inserted into a patient the at least one electrode is aligned and in contact with the pharyngeal mucosa, and in that the sleeve comprises a split longitudinally along its length configured to enable the sleeve to be added to or removed from the endotracheal ventilator tube after the endotracheal ventilator tube has been inserted into the patient. an elongate tube ; at least one electrode positioned about the elongate tube; and a sleeve selectively positionable around the elongate tube, wherein the at least one electrode is configured to deliver electrical stimulation to the oropharyngeal region and is electrically connected to an electrical stimulation generating means, characterized in that the at least one electrode is positioned on the sleeve in such a position that when the ventilator tube is properly inserted into a patient the at least one electrode is aligned and in contact with the pharyngeal mucosa, and in that the sleeve comprises a split longitudinally along its length configured to enable the sleeve to be added to or removed from the endotracheal ventilator tube after the endotracheal ventilator tube has been inserted into the patient. the at least one electrode is positioned on the sleeve in such a position that when the ventilator tube is properly inserted into a patient the at least one electrode is aligned and in contact with the pharyngeal mucosa, and in that the sleeve comprises a split longitudinally along its length configured to enable the sleeve to be added to or removed from the endotracheal ventilator tube after the endotracheal ventilator tube has been inserted into the patient.
A method for determining the propulsion torque (M v ) of a torque generator (D), which is mounted on a test bench , wherein an inner torque (M i ) of the torque generator (D) is measured and, based on the measured inner torque (M i ), from an equation of motion, comprising the measured inner torque (M i ), a dynamic torque (M dyn ) and a shaft torque (M w ) measured on an output shaft of the torque generator (D), a correction torque ( M̂ cor ) is estimated, and from the estimated correction torque ( M̂ cor ) and from the measured inner torque (M i ), the propulsion torque (M v ) is calculated according to the relation M v = M̂ cor + M i .
A rail cover for covering an underside of a foot of a railway rail , the rail cover comprising: mutually connectable cover parts configured to respectively extend at least partially around opposing sides of the foot of the railway rail and connectable by an adjustable ratcheting connection to resist separation of the mutually connectable cover parts; and characterised by : a first sleeper cover part configured to extend from one edge of a first cover part , in a direction perpendicular to a plane in which, in use, the first cover part extends, so that, when positioned adjacent to a rail and against a sleeper , covers at least part of the sleeper; and/or a second sleeper cover part configured to extend from one edge of a second cover part , in a direction perpendicular to a plane in which, in use, the second cover part extends, so that, when positioned adjacent to a rail and against a sleeper is arranged to cover at least part of the sleeper. a first sleeper cover part configured to extend from one edge of a first cover part , in a direction perpendicular to a plane in which, in use, the first cover part extends, so that, when positioned adjacent to a rail and against a sleeper , covers at least part of the sleeper; and/or a second sleeper cover part configured to extend from one edge of a second cover part , in a direction perpendicular to a plane in which, in use, the second cover part extends, so that, when positioned adjacent to a rail and against a sleeper is arranged to cover at least part of the sleeper.
An enclosure for a cable comprising: a splice closure housing ; a strain relief member in the splice closure housing ; a cable clamping housing having retention members extending therefrom, the retention members being configured to be inserted in mating openings in the strain relief member and to be secured thereto, wherein the retention members comprise a first retention member at a first longitudinal end of the cable clamping housing and a second retention member at an opposite second longitudinal end of the cable clamping housing , each of which is configured to be inserted in a corresponding mating opening in the strain relief member , wherein the first and second retention members are longitudinally movable relative to the strain relief member ; a connector configured to connect the cable to the cable clamping housing , the connector including a circumferential cable clamp or tie wrap ; wherein the enclosure further comprises: a retention finger located on the strain relief member , the retention finger being associated with the mating openings to limit longitudinal movement of the cable clamping housing once the first and second retention members are inserted in the corresponding mating openings in the strain relief member . a splice closure housing ; a strain relief member in the splice closure housing ; a cable clamping housing having retention members extending therefrom, the retention members being configured to be inserted in mating openings in the strain relief member and to be secured thereto, wherein the retention members comprise a first retention member at a first longitudinal end of the cable clamping housing and a second retention member at an opposite second longitudinal end of the cable clamping housing , each of which is configured to be inserted in a corresponding mating opening in the strain relief member , wherein the first and second retention members are longitudinally movable relative to the strain relief member ; a connector configured to connect the cable to the cable clamping housing , the connector including a circumferential cable clamp or tie wrap ; wherein the enclosure further comprises: a retention finger located on the strain relief member , the retention finger being associated with the mating openings to limit longitudinal movement of the cable clamping housing once the first and second retention members are inserted in the corresponding mating openings in the strain relief member .
A method of generating an inhalable aerosol comprising nicotine for delivery to a user using an electronic cigarette comprising a nicotine salt liquid formulation and a heater, the method comprising: (i) providing an amount of said nicotine salt liquid formulation to said heater, wherein (a) the nicotine salt liquid formulation comprises a nicotine salt and a biologically acceptable liquid carrier, wherein (i) the nicotine salt is formed from nicotine and benzoic acid, and the molar ratio of said nicotine to said benzoic acid is 1:1 in the nicotine salt liquid formulation, (ii) the nicotine salt liquid formulation has a concentration of said nicotine of from 0.5% (w/w) to 20% (w/w), and (iii) said biologically acceptable liquid carrier comprises from 10% to 70% of propylene glycol and from 90% to 30% of vegetable glycerin; and (ii) forming an aerosol by heating said amount of said nicotine salt liquid formulation. (i) providing an amount of said nicotine salt liquid formulation to said heater, wherein (a) the nicotine salt liquid formulation comprises a nicotine salt and a biologically acceptable liquid carrier, wherein (i) the nicotine salt is formed from nicotine and benzoic acid, and the molar ratio of said nicotine to said benzoic acid is 1:1 in the nicotine salt liquid formulation, (ii) the nicotine salt liquid formulation has a concentration of said nicotine of from 0.5% (w/w) to 20% (w/w), and (iii) said biologically acceptable liquid carrier comprises from 10% to 70% of propylene glycol and from 90% to 30% of vegetable glycerin; and (a) the nicotine salt liquid formulation comprises a nicotine salt and a biologically acceptable liquid carrier, wherein (i) the nicotine salt is formed from nicotine and benzoic acid, and the molar ratio of said nicotine to said benzoic acid is 1:1 in the nicotine salt liquid formulation, (ii) the nicotine salt liquid formulation has a concentration of said nicotine of from 0.5% (w/w) to 20% (w/w), and (iii) said biologically acceptable liquid carrier comprises from 10% to 70% of propylene glycol and from 90% to 30% of vegetable glycerin; and (i) the nicotine salt is formed from nicotine and benzoic acid, and the molar ratio of said nicotine to said benzoic acid is 1:1 in the nicotine salt liquid formulation, (ii) the nicotine salt liquid formulation has a concentration of said nicotine of from 0.5% (w/w) to 20% (w/w), and (iii) said biologically acceptable liquid carrier comprises from 10% to 70% of propylene glycol and from 90% to 30% of vegetable glycerin; and (ii) forming an aerosol by heating said amount of said nicotine salt liquid formulation.
A self-retaining device comprising: a main body ; and an attachment member that is sheet-shaped and configured to be attached to a body surface of a living body in order to retain the main body , wherein the attachment member has a first section fixed to a back surface of the main body , a second section that faces the back surface of the main body at a position adjacent to the first section and is able to separate from the main body , and a periphery section that is a section adjacent to an outside of the first section and the second section and is configured to be attached to the body surface, the periphery section includes a lateral extension part parallel to a direction in which the first section and the second section are arranged, the lateral extension part has a boundary adjacent part overlapping an extension line of a linear boundary (X) between the first section and the second section , a first section adjacent part adjacent to the boundary adjacent part and the first section , and a second section adjacent part adjacent to the boundary adjacent part and the second section , and a width of the boundary adjacent part is equal to or wider than a maximum width of the first section adjacent part and is wider than a maximum width of the second section adjacent part . a main body ; and an attachment member that is sheet-shaped and configured to be attached to a body surface of a living body in order to retain the main body , wherein the attachment member has a first section fixed to a back surface of the main body , a second section that faces the back surface of the main body at a position adjacent to the first section and is able to separate from the main body , and a periphery section that is a section adjacent to an outside of the first section and the second section and is configured to be attached to the body surface, the periphery section includes a lateral extension part parallel to a direction in which the first section and the second section are arranged, the lateral extension part has a boundary adjacent part overlapping an extension line of a linear boundary (X) between the first section and the second section , a first section adjacent part adjacent to the boundary adjacent part and the first section , and a second section adjacent part adjacent to the boundary adjacent part and the second section , and a width of the boundary adjacent part is equal to or wider than a maximum width of the first section adjacent part and is wider than a maximum width of the second section adjacent part .
A carrying case, comprising: a first compartment made of a rigid material, the first compartment defining an interior volume , the first compartment comprising a first shell member and a second shell member ; a second compartment coupled to the first compartment, the second compartment made of a flexible material, the second compartment defining an interior volume that is separate from the interior volume of the first compartment, the second compartment comprising a soft front shell attached to the second shell member; a soft rear shell attached to the first shell member; a connecting member; and a frame comprising at least one bar; wherein: the first compartment is arranged between the soft front shell and the soft rear shell , the connecting member is coupled to the first shell member via the soft rear shell , and the soft rear shell is coupled to the frame arranged between the soft rear shell and the first shell member . a first compartment made of a rigid material, the first compartment defining an interior volume , the first compartment comprising a first shell member and a second shell member ; a second compartment coupled to the first compartment, the second compartment made of a flexible material, the second compartment defining an interior volume that is separate from the interior volume of the first compartment, the second compartment comprising a soft front shell attached to the second shell member; a soft rear shell attached to the first shell member; a connecting member; and a frame comprising at least one bar; wherein: the first compartment is arranged between the soft front shell and the soft rear shell , the connecting member is coupled to the first shell member via the soft rear shell , and the soft rear shell is coupled to the frame arranged between the soft rear shell and the first shell member . the first compartment is arranged between the soft front shell and the soft rear shell , the connecting member is coupled to the first shell member via the soft rear shell , and the soft rear shell is coupled to the frame arranged between the soft rear shell and the first shell member .
A 3D printer , comprising: a print platform configured to support a printed object ; a printing home location (I0) defined in the 3D printer ; a print head comprising a 2D nozzle for providing ink to color the printed object and a 3D nozzle for providing build material to construct the printed object , the print head comprising a positioning point (L0), the 2D nozzle and the 3D nozzle respectively having a location offset with respect to the positioning point (L0); a maintenance station ; and a positioning sensor configured to sense the positioning point (L0) to facilitate positioning for the print head ; characterized in that the 3D printer is configured to control the print head to move toward the printing home location (I0) and control the positioning sensor to sense the positioning point (L0) when the 3D printer enters a working status; the 3D printer is configured to perform an initial positioning for the 2D nozzle and the 3D nozzle based on the two location offsets and the positioning point (L0) and to start printing the printed object after the initial positioning is finished; wherein the 3D printer is configured to control the print head to move toward the maintenance station and control the positioning sensor to sense the positioning point (L0) when the 3D printer enters a non-working status; the 3D printer is configured to perform a compensation movement for the print head based on the location offset (C1, P1) of the 2D nozzle and the positioning point (L0) and to move the 2D nozzle to enter a working zone of the maintenance station for maintenance. a print platform configured to support a printed object ; a printing home location (I0) defined in the 3D printer ; a print head comprising a 2D nozzle for providing ink to color the printed object and a 3D nozzle for providing build material to construct the printed object , the print head comprising a positioning point (L0), the 2D nozzle and the 3D nozzle respectively having a location offset with respect to the positioning point (L0); a maintenance station ; and a positioning sensor configured to sense the positioning point (L0) to facilitate positioning for the print head ; characterized in that the 3D printer is configured to control the print head to move toward the printing home location (I0) and control the positioning sensor to sense the positioning point (L0) when the 3D printer enters a working status; the 3D printer is configured to perform an initial positioning for the 2D nozzle and the 3D nozzle based on the two location offsets and the positioning point (L0) and to start printing the printed object after the initial positioning is finished; wherein the 3D printer is configured to control the print head to move toward the maintenance station and control the positioning sensor to sense the positioning point (L0) when the 3D printer enters a non-working status; the 3D printer is configured to perform a compensation movement for the print head based on the location offset (C1, P1) of the 2D nozzle and the positioning point (L0) and to move the 2D nozzle to enter a working zone of the maintenance station for maintenance.
A fan unit, comprising a casing with a central interior opening which is provided with a centrifugal impeller rotationally driven by a motor , the centrifugal impeller has a set of blades arranged around the central interior opening , and inclined with respect to the radial direction of the centrifugal impeller , the centrifugal impeller has an inner edge adjacent to the central interior opening and an outer edge on the periphery of the centrifugal impeller , wherein the blades have an arched configuration extending transversely between the inner edge adjacent to the central interior opening and the outer edge arranged on the periphery of the centrifugal impeller , the blades curving backwards and having a convex configuration on the pressure side positioned towards the inner part of the centrifugal impeller , and characterized in that the fan unit additionally comprises measurement means configured to measure the air flow driven by the centrifugal impeller based on the energy consumption of the motor and in that the arched configuration of the blades has a curvature with a radius (r) comprised between half and double the radius (Rr) of the centrifugal impeller .
System for garden care comprising at least two working apparatuses and an external computing device which is designed to communicate with the at least two working apparatuses , the working apparatus being automatically movable outdoors and having a chassis controlled by a control device , the control device using control data obtained from sensors of a sensor system and optionally cartography stored in a memory element, it being possible for the working apparatus to be navigated by the control device to locations of a terrain at which a task is to be executed, for which task-specific tools assigned to the working apparatus are used, the tools each being assigned to a working module , which working module is assigned to the working apparatus so as to be interchangeable with another working module having other tools , characterised in that the working apparatus interacts with a sensor module which uses a sensor system to record structural data on plants to be cared for, the sensor module being an external sensor module which is separate from the working apparatus , and the working apparatus being designed to control execution of a task by means of a tool depending on the data, the external computing device providing a communication platform similar to a social media platform, which is used as a meeting point for users of the working apparatuses , the external computing device having a knowledge base containing personal experiences of users and/or questions to other users of the system.