mhurhangee/patent-ind-claim-en huggingface dataset:
An armrest assembly , for an aircraft passenger seat, comprising: a base ; a first arm having a first end pivotally attached to the base ; a second arm having a first end pivotally attached to the base ; an arm support element pivotally connected to a second end of the first arm and pivotally connected to a second end of the second arm ; and an assist device coupled to at least one of the first arm and the second arm, the assist device applying force to at least one of the first and second arms to bias the arm support element from a first position toward a second position higher than the first position; wherein the base , the arm support element , the first arm , and the second arm operate together as a 4-bar linkage system wherein the first arm and the second arm cooperate to support the arm support element and coordinate an angle and vertical position of the arm support element , characterized in that the base is height-adjustable by being slidably mounted to a vertical rail and selectively vertically positionable relative to the vertical rail between a lowest position corresponding to a stowed position of the armrest assembly and an elevated position corresponding to a deployed position of the armrest assembly, and wherein the assist device is further coupled to the base and is operable for applying force to the base to bias the base from a stowed forward position toward an aft elevated position. a base ; a first arm having a first end pivotally attached to the base ; a second arm having a first end pivotally attached to the base ; an arm support element pivotally connected to a second end of the first arm and pivotally connected to a second end of the second arm ; and an assist device coupled to at least one of the first arm and the second arm, the assist device applying force to at least one of the first and second arms to bias the arm support element from a first position toward a second position higher than the first position; wherein the base , the arm support element , the first arm , and the second arm operate together as a 4-bar linkage system wherein the first arm and the second arm cooperate to support the arm support element and coordinate an angle and vertical position of the arm support element , characterized in that the base is height-adjustable by being slidably mounted to a vertical rail and selectively vertically positionable relative to the vertical rail between a lowest position corresponding to a stowed position of the armrest assembly and an elevated position corresponding to a deployed position of the armrest assembly, and wherein the assist device is further coupled to the base and is operable for applying force to the base to bias the base from a stowed forward position toward an aft elevated position.
A computer-implemented automatic inspection method comprising: computing (S60) target feature vectors for points in a 3D point-cloud representation of an inspection target; computing (S62) component feature vectors for points in a 3D point-cloud representation of a component; and performing (S64) matching between the target feature vectors and the component feature vectors to obtain point pairs each comprising a said point in the 3D point-cloud representation of the inspection target and a said point in the 3D point-cloud representation of the component to determine whether the component is present in the inspection target, characterized in that the method further comprises computing (S68) a geometric transformation between the component and the inspection target and determining that the component is present in the inspection target when a result of the geometric transformation meets a predefined criterion. computing (S60) target feature vectors for points in a 3D point-cloud representation of an inspection target; computing (S62) component feature vectors for points in a 3D point-cloud representation of a component; and performing (S64) matching between the target feature vectors and the component feature vectors to obtain point pairs each comprising a said point in the 3D point-cloud representation of the inspection target and a said point in the 3D point-cloud representation of the component to determine whether the component is present in the inspection target, characterized in that the method further comprises computing (S68) a geometric transformation between the component and the inspection target and determining that the component is present in the inspection target when a result of the geometric transformation meets a predefined criterion.
Light fitting for use in a lighting device which comprises one or more lighting modules which can be mounted in the fitting, wherein the fitting comprises a profile and a carrier ; wherein the carrier has an inner side and an outer side ; wherein the inner side is mounted against the profile ; wherein the outer side is provided with at least one first electrically conductive track (140a; 140b) of a first material and each first electrically conductive track is covered with a second electrically conductive track (130a; 130b) which is manufactured from a second material; wherein the at least one first and second electrically conductive track is intended to be connected to a power supply; wherein one or more lighting modules can be coupled to the fitting such that at least one electrical contact element of each lighting module makes contact with the at least one second electrically conductive track; wherein the first material has a greater electrical conductivity than the second material at 20°C.
A steel Yankee drying cylinder comprising a cylindrical shell having two axial ends , an end wall being joined to each axial end by means of a circumferential weld bead , the cylindrical shell further having an outer surface and an inner surface , characterized in that the outer surface of the cylindrical shell is formed by steel of the grade P690 as defined in European Standard EN 10028-6:2017 or a similar steel which has the following composition by weight: C equal to or greater than 0.12 % and equal to or less than 0.20 % Si equal to or greater than 0.10 % and equal to or less than 0.80 % Mn equal to or greater than 1.00 % and equal to or less than 1.70 % Cr equal to or greater than 0.10 % and equal to or less than 1.50 % Mo equal to or greater than 0.30 % and equal to or less than 0.70 % V equal to or greater than 0.005 % and equal to or less than 0.12 % Nb equal to or greater than 0.005 % and equal to or less than 0.060 % B equal to or greater than 0.0006 % and equal to or less than 0.005 % P equal to or less than 0.025 % S equal to or less than 0.010 % N equal to or less than 0.015% Cu equal to or less than 0.30 % Ni equal to or less than 2.50 % Ti equal to or less than 0.05 % Zr equal to or less than 0.15 % Al equal to or less than 0.01% Remainder iron and impurities. C equal to or greater than 0.12 % and equal to or less than 0.20 % Si equal to or greater than 0.10 % and equal to or less than 0.80 % Mn equal to or greater than 1.00 % and equal to or less than 1.70 % Cr equal to or greater than 0.10 % and equal to or less than 1.50 % Mo equal to or greater than 0.30 % and equal to or less than 0.70 % V equal to or greater than 0.005 % and equal to or less than 0.12 % Nb equal to or greater than 0.005 % and equal to or less than 0.060 % B equal to or greater than 0.0006 % and equal to or less than 0.005 % P equal to or less than 0.025 % S equal to or less than 0.010 % N equal to or less than 0.015% Cu equal to or less than 0.30 % Ni equal to or less than 2.50 % Ti equal to or less than 0.05 % Zr equal to or less than 0.15 % Al equal to or less than 0.01% Remainder iron and impurities.
A surgical system for use with a surgical stapling instrument in a surgical procedure performed on an anatomical organ, the surgical system comprising: at least one imaging device ; and a control circuit configured to: propose a surgical resection path for removing a portion of the anatomical organ by the surgical stapling instrument; characterised in that the control circuit is further configured to propose a staple cartridge arrangement along the surgical resection path ; and monitor shifting (d') of tissue along the proposed surgical resection path due to deployment of staple lines into the tissue from staple cartridges of the staple cartridge arrangement . at least one imaging device ; and a control circuit configured to: propose a surgical resection path for removing a portion of the anatomical organ by the surgical stapling instrument; characterised in that the control circuit is further configured to propose a staple cartridge arrangement along the surgical resection path ; and monitor shifting (d') of tissue along the proposed surgical resection path due to deployment of staple lines into the tissue from staple cartridges of the staple cartridge arrangement . propose a surgical resection path for removing a portion of the anatomical organ by the surgical stapling instrument; characterised in that the control circuit is further configured to propose a staple cartridge arrangement along the surgical resection path ; and monitor shifting (d') of tissue along the proposed surgical resection path due to deployment of staple lines into the tissue from staple cartridges of the staple cartridge arrangement .
A method of forming a non-pneumatic tire comprising the steps of: providing an outer shear band ring ; providing an intermediate section that has a supporting structure , wherein the intermediate section is in an uncollapsed state, wherein the intermediate section has an outer surface that that is located at an outer diameter of the intermediate section in the uncollapsed state and at the outer diameter extends continuously all the way around a central axis ; compressing the intermediate section from the uncollapsed state to a collapsed state; inserting the intermediate section when in the collapsed state inside of the outer shear band ring such that the outer shear band ring is located outward from the intermediate section in a radial direction of the tire ; and releasing compression of the intermediate section when the intermediate section is inside of the outer shear band ring such that the intermediate section returns to the uncollapsed state from the collapsed state. providing an outer shear band ring ; providing an intermediate section that has a supporting structure , wherein the intermediate section is in an uncollapsed state, wherein the intermediate section has an outer surface that that is located at an outer diameter of the intermediate section in the uncollapsed state and at the outer diameter extends continuously all the way around a central axis ; compressing the intermediate section from the uncollapsed state to a collapsed state; inserting the intermediate section when in the collapsed state inside of the outer shear band ring such that the outer shear band ring is located outward from the intermediate section in a radial direction of the tire ; and releasing compression of the intermediate section when the intermediate section is inside of the outer shear band ring such that the intermediate section returns to the uncollapsed state from the collapsed state.
Battery cell , comprising: - a first terminal contact and a second terminal contact , - an energy storage unit , - a first transistor , - a sensor system that is set up to acquire a state parameter of the battery cell , and a control circuit , - wherein a first pole of the energy storage unit is coupled to the first terminal contact , and a second pole of the energy storage unit is coupled to the second terminal contact , - wherein the first transistor is connected between the first terminal contact and the second terminal contact in series with the energy storage unit , and - wherein the control circuit is set up to control a switching process of the first transistor , wherein the control circuit controls the first transistor based on the acquired state parameter in order to control a charge current or a discharge current of the energy storage unit , - a second transistor that is connected between the first terminal contact and the second terminal contact in parallel with the energy storage unit , - wherein the control circuit is set up to control a switching process of the second transistor , - wherein the second transistor is, in particular, a thin-film MOSFET transistor, characterized in that the control circuit is set up to switch both the first transistor and the second transistor to the on state at the same time in order to heat the battery cell. - a first terminal contact and a second terminal contact , - an energy storage unit , - a first transistor , - a sensor system that is set up to acquire a state parameter of the battery cell , and a control circuit , - wherein a first pole of the energy storage unit is coupled to the first terminal contact , and a second pole of the energy storage unit is coupled to the second terminal contact , - wherein the first transistor is connected between the first terminal contact and the second terminal contact in series with the energy storage unit , and - wherein the control circuit is set up to control a switching process of the first transistor , wherein the control circuit controls the first transistor based on the acquired state parameter in order to control a charge current or a discharge current of the energy storage unit , - a second transistor that is connected between the first terminal contact and the second terminal contact in parallel with the energy storage unit , - wherein the control circuit is set up to control a switching process of the second transistor , - wherein the second transistor is, in particular, a thin-film MOSFET transistor, characterized in that the control circuit is set up to switch both the first transistor and the second transistor to the on state at the same time in order to heat the battery cell.
A micro-device for detecting a disease in a biological subject, comprising a first sorting unit capable of detecting a property of the biological subject at the microscopic level and sorting the biological subject by the detected property into a suspect of diseased biological subject or a non-suspect of diseased biological subject ; a first detection unit capable of detecting the same or a different property of the sorted biological subject at the microscopic level; a first layer of material having an exterior surface and an interior surface, wherein the interior surface defines a first channel in which the sorted biological subject flows from the first sorting unit to the first detection unit ; wherein the first sorting unit and the first detection unit are integrated into the first layer of material and positioned to be at least partially exposed in the first channel, and characterized in that the interior surface defines an additional channel for transporting the sorted suspect of diseased biological subject from the first channel downstream the first detection unit back to the first sorting unit or the first detection unit for further sorting or detection. a first sorting unit capable of detecting a property of the biological subject at the microscopic level and sorting the biological subject by the detected property into a suspect of diseased biological subject or a non-suspect of diseased biological subject ; a first detection unit capable of detecting the same or a different property of the sorted biological subject at the microscopic level; a first layer of material having an exterior surface and an interior surface, wherein the interior surface defines a first channel in which the sorted biological subject flows from the first sorting unit to the first detection unit ; wherein the first sorting unit and the first detection unit are integrated into the first layer of material and positioned to be at least partially exposed in the first channel, and characterized in that the interior surface defines an additional channel for transporting the sorted suspect of diseased biological subject from the first channel downstream the first detection unit back to the first sorting unit or the first detection unit for further sorting or detection.
A stimulator device, comprising: a plurality of electrode nodes , each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; stimulation circuitry configured to provide actively-driven stimulation at at least one stimulation node selected from the plurality of the electrode nodes, wherein the stimulation comprises at least one pulse comprising at least a first phase; and passive charge recovery circuitry configured to provide passively-driven passive charge recovery for a passive charge recovery duration, wherein the passive charge recovery circuitry comprises a resistance circuitry configurable to adjust a recovery impedance during the passive charge recovery duration; and sensing circuitry configured to sense a neural response at at least one sensing node selected from the plurality of electrode nodes during the passive charge recovery duration, wherein the resistance circuitry comprises a variable resistance circuitry configured to provide a first recovery impedance for a high-impedance portion of the passive charge recovery duration and a second recovery impedance for a low-impedance portion of the passive charge recovery duration, wherein the first recovery impedance is greater than the second recovery impedance, and wherein the sensing circuitry is configured to sense the neural response during the high-impedance portion of the passive charge recovery duration. a plurality of electrode nodes , each electrode node configured to be coupled to one of a plurality of electrodes configured to contact a patient's tissue; stimulation circuitry configured to provide actively-driven stimulation at at least one stimulation node selected from the plurality of the electrode nodes, wherein the stimulation comprises at least one pulse comprising at least a first phase; and passive charge recovery circuitry configured to provide passively-driven passive charge recovery for a passive charge recovery duration, wherein the passive charge recovery circuitry comprises a resistance circuitry configurable to adjust a recovery impedance during the passive charge recovery duration; and sensing circuitry configured to sense a neural response at at least one sensing node selected from the plurality of electrode nodes during the passive charge recovery duration, wherein the resistance circuitry comprises a variable resistance circuitry configured to provide a first recovery impedance for a high-impedance portion of the passive charge recovery duration and a second recovery impedance for a low-impedance portion of the passive charge recovery duration, wherein the first recovery impedance is greater than the second recovery impedance, and wherein the sensing circuitry is configured to sense the neural response during the high-impedance portion of the passive charge recovery duration.
Roller bearing cage or roller bearing cage segment, which consists at least partially of a plastic, wherein the plastic has a foam structure at least in certain portions, wherein the roller bearing cage or the roller bearing cage segment is produced by an injection moulding process; wherein the plastic is a thermoplastic; wherein the foam structure forms a core of the roller bearing cage or the roller bearing cage segment, which core is surrounded by a compact outer skin ; wherein the outer skin has a solid structure, which serves as a skeleton of the roller bearing cage, characterized in that the roller bearing cage or the roller bearing cage segment has a wall thickness of between 4 mm and 20 mm; and the core is a region of the roller bearing cage that does not form a surface of the roller bearing cage . wherein the roller bearing cage or the roller bearing cage segment is produced by an injection moulding process; wherein the plastic is a thermoplastic; wherein the foam structure forms a core of the roller bearing cage or the roller bearing cage segment, which core is surrounded by a compact outer skin ; wherein the outer skin has a solid structure, which serves as a skeleton of the roller bearing cage, characterized in that the roller bearing cage or the roller bearing cage segment has a wall thickness of between 4 mm and 20 mm; and the core is a region of the roller bearing cage that does not form a surface of the roller bearing cage .
Handheld tool comprising a) a shank and b) a handle wherein the shank is embedded with a positive engagement and/or with an adhesive bond in a way such that a manually applied actuation force is transmitted between the handle and the shank , c) the handle comprising ca) a handle core made of a first plastic material and cb) a material portion made of a second plastic material which differs from the first plastic material , characterised in that d) the interior of the handle core and the shank form or define an interspace with which is filled with a first material portion made from the second plastic material and e) a second material portion made from the second plastic material adjoins to the handle core in the region of the outer surface of the handle core , f) the first material portion and the second material portion being connected to each other by an axial or radial connecting channel of the handle core which is filled with the second plastic material . a) a shank and b) a handle wherein the shank is embedded with a positive engagement and/or with an adhesive bond in a way such that a manually applied actuation force is transmitted between the handle and the shank , c) the handle comprising ca) a handle core made of a first plastic material and cb) a material portion made of a second plastic material which differs from the first plastic material , characterised in that ca) a handle core made of a first plastic material and cb) a material portion made of a second plastic material which differs from the first plastic material , d) the interior of the handle core and the shank form or define an interspace with which is filled with a first material portion made from the second plastic material and e) a second material portion made from the second plastic material adjoins to the handle core in the region of the outer surface of the handle core , f) the first material portion and the second material portion being connected to each other by an axial or radial connecting channel of the handle core which is filled with the second plastic material .