mhurhangee/patent-ind-claim-en huggingface dataset:
Valve actuator comprising a housing arrangement, an actuating element having a movable actuation member , and electric supply means connected to the actuating element , wherein the housing arrangement comprises a first housing part enclosing an interior space of the first housing part , wherein the interior space accommodates and supports the actuating element and a connection of the electric supply means to the actuating element , wherein the housing arrangement further comprises a second housing part , wherein the first housing part comprises a cylindrical opening from the interior space to an outside of the first housing part , the cylindrical opening having a longitudinal axis, wherein the second housing part is moveable with respect to the first housing part along the longitudinal axis by moving the actuation member , wherein dynamic sealing means are arranged between the first housing part and the second housing part , and wherein the interior space of the first housing part is sealed and encapsulated from the outside of the first housing part , characterized in that an engagement protrusion of the second housing part for abutment of the actuation member extends from the outside of the first housing part into the cylindrical opening , wherein the actuation member extends into the cylindrical opening and abuts the engagement protrusion therein, and that the dynamic sealing is arranged between a radial outer surface of the engagement protrusion and a wall of the cylindrical opening . wherein the housing arrangement comprises a first housing part enclosing an interior space of the first housing part , wherein the interior space accommodates and supports the actuating element and a connection of the electric supply means to the actuating element , wherein the housing arrangement further comprises a second housing part , wherein the first housing part comprises a cylindrical opening from the interior space to an outside of the first housing part , the cylindrical opening having a longitudinal axis, wherein the second housing part is moveable with respect to the first housing part along the longitudinal axis by moving the actuation member , wherein dynamic sealing means are arranged between the first housing part and the second housing part , and wherein the interior space of the first housing part is sealed and encapsulated from the outside of the first housing part , characterized in that an engagement protrusion of the second housing part for abutment of the actuation member extends from the outside of the first housing part into the cylindrical opening , wherein the actuation member extends into the cylindrical opening and abuts the engagement protrusion therein, and that the dynamic sealing is arranged between a radial outer surface of the engagement protrusion and a wall of the cylindrical opening .
A method for determining regions of a surface on a three-dimensional object , which are to be inspected, from design data , particularly CAD data, of the object , which data are present in electronic form, it being determined for certain regions on the object , whether and in which way these regions should be inspected, by automatically determining regions to be inspected , regions not to be inspected and/or regions to be inspected in a certain manner from the design data , characterized in that the determination of the regions to be inspected takes place by determining geometric shapes or relationships from the design data, and in that during the inspection using a recording device , these regions to be inspected are assigned to the images actually recorded, wherein features determined from the design data in the regions to be inspected are compared with features that can be recognized in the recorded images.
A surgical system comprising: a surgical device comprising a battery dock; a battery unit , wherein the battery unit comprises: a first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); a translatable battery drain (612; 672, 674; 712) positioned proximate the first and second grouping of cells; wherein the translatable battery drain (612; 672, 674; 712) comprises a first and second set of contacts; wherein, in a first position, the first and second set of contacts are not electrically coupled to first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); and wherein, in a second position, the first set of contacts is electrically coupled to the first grouping of cells (610a, 610b; 662, 664; 710) and the second set of contacts is electrically coupled to the second grouping of cells (611a, 611b; 668, 670; 711); wherein the translatable battery drain (612; 672, 674; 712) translates from the first position to the second position upon attachment of the battery unit to the battery dock. a surgical device comprising a battery dock; a battery unit , wherein the battery unit comprises: a first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); a translatable battery drain (612; 672, 674; 712) positioned proximate the first and second grouping of cells; wherein the translatable battery drain (612; 672, 674; 712) comprises a first and second set of contacts; wherein, in a first position, the first and second set of contacts are not electrically coupled to first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); and wherein, in a second position, the first set of contacts is electrically coupled to the first grouping of cells (610a, 610b; 662, 664; 710) and the second set of contacts is electrically coupled to the second grouping of cells (611a, 611b; 668, 670; 711); wherein the translatable battery drain (612; 672, 674; 712) translates from the first position to the second position upon attachment of the battery unit to the battery dock. a first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); a translatable battery drain (612; 672, 674; 712) positioned proximate the first and second grouping of cells; wherein the translatable battery drain (612; 672, 674; 712) comprises a first and second set of contacts; wherein, in a first position, the first and second set of contacts are not electrically coupled to first and second grouping of cells (610a, 610b; 611a, 611b; 662, 664; 668, 670; 710; 711); and wherein, in a second position, the first set of contacts is electrically coupled to the first grouping of cells (610a, 610b; 662, 664; 710) and the second set of contacts is electrically coupled to the second grouping of cells (611a, 611b; 668, 670; 711); wherein the translatable battery drain (612; 672, 674; 712) translates from the first position to the second position upon attachment of the battery unit to the battery dock.
A portable pressure container for driving a medical device, the container comprising: - a pressure housing (101; 201; 301; 401; 501) confining an interior volume (103; 203; 303; 403; 503), - a pressure outlet (102; 202; 302; 402; 502) extending through the pressure housing (101; 201; 301; 401; 501), - wherein the interior volume (103; 203; 303; 403; 503) comprises a liquid storage portion (105; 205; 305; 405; 505) and a gas storage portion (104; 204; 304; 404; 504), wherein the liquid storage portion (105; 205; 305; 405; 505) and the gas storage portion (104; 204; 304; 404; 504) are in flow connection with each other, - wherein the liquid storage portion (105; 205; 305; 405; 505) is configured to store a liquid phase of a driving medium and wherein the gas storage portion (104; 204; 304; 404; 504) is configured to store a gas phase of the driving medium , and - wherein the pressure outlet (102; 202; 302; 402; 502) is only in flow connection with the gas storage portion (104; 204; 304; 404; 504), characterized in that - the liquid storage portion (105; 205; 305; 405; 505) is located remote and at a predefined non-zero distance from the pressure outlet (102; 202; 302; 402; 502) and wherein the gas storage portion (104; 204; 304; 404; 504) is located between the liquid storage portion (105; 205; 305; 405; 505) and the pressure outlet (102; 202; 302; 402; 502) and wherein a porous storage medium (310; 410; 510) or a porous transport medium is arranged inside the liquid storage portion (105; 205; 305; 405; 505) and extends towards or into the gas storage portion (104; 204; 304; 404; 504). - a pressure housing (101; 201; 301; 401; 501) confining an interior volume (103; 203; 303; 403; 503), - a pressure outlet (102; 202; 302; 402; 502) extending through the pressure housing (101; 201; 301; 401; 501), - wherein the interior volume (103; 203; 303; 403; 503) comprises a liquid storage portion (105; 205; 305; 405; 505) and a gas storage portion (104; 204; 304; 404; 504), wherein the liquid storage portion (105; 205; 305; 405; 505) and the gas storage portion (104; 204; 304; 404; 504) are in flow connection with each other, - wherein the liquid storage portion (105; 205; 305; 405; 505) is configured to store a liquid phase of a driving medium and wherein the gas storage portion (104; 204; 304; 404; 504) is configured to store a gas phase of the driving medium , and - wherein the pressure outlet (102; 202; 302; 402; 502) is only in flow connection with the gas storage portion (104; 204; 304; 404; 504), characterized in that - the liquid storage portion (105; 205; 305; 405; 505) is located remote and at a predefined non-zero distance from the pressure outlet (102; 202; 302; 402; 502) and wherein the gas storage portion (104; 204; 304; 404; 504) is located between the liquid storage portion (105; 205; 305; 405; 505) and the pressure outlet (102; 202; 302; 402; 502) and wherein a porous storage medium (310; 410; 510) or a porous transport medium is arranged inside the liquid storage portion (105; 205; 305; 405; 505) and extends towards or into the gas storage portion (104; 204; 304; 404; 504).
Method for receiving a vehicle cab in a reversible manner on an agricultural base vehicle having a supporting structure which is configured such that the vehicle cab is selectively received in a receiving region of the supporting structure or removed from the receiving region of the supporting structure as a function of a predetermined operation (S_BE) of the base vehicle , in order to operate the base vehicle without a vehicle cab , wherein a movable lifting device for receiving and/or removing the vehicle cab is arranged on the supporting structure .
A hearing device comprising a housing configured to be arranged in an ear canal or behind an outer ear of a user, wherein an attachment arrangement is connected to the housing , wherein said attachment arrangement comprises: - at least one first attachment part , and - at least one second attachment part , wherein the at least one first attachment part is configured to be arranged at a side of the pinna of said user facing an opening of the ear canal of the user, wherein the at least one second attachment part is configured to be arranged at an opposite side of the pinna than the at least one first attachment part in such a manner that the at least one first attachment part and the at least one second attachment part of the attachment arrangement are fixed relative to each other by means of one or more attraction members provided on each of said at least one first and at least one second attachment parts and which are opposing each other pairwise, characterized in that the at least one first or at least one second attachment part comprises one or more sensor elements having corresponding plate-shaped contact surfaces arranged to be brought into contact with a skin portion of the ear of said user by attraction force provided between the attraction members . - at least one first attachment part , and - at least one second attachment part , wherein the at least one first attachment part is configured to be arranged at a side of the
A method for controlling segmentation of transcoded content, the method comprising: receiving , by a computing device and from a plurality of segmenters that are blocked, respective indications of a plurality of different encoder boundary points that correspond to a plurality of different transcoded content streams associated with a source content stream; selecting , based on an analysis of the plurality of different encoder boundary points, a synchronization point that is associated with a time position of a first transcoded content stream of the plurality of different transcoded content streams; determining whether there is a lagger segmenter, among the plurality of segmenters, that indicated an encoder boundary point that is earlier in time than the synchronization point; if there is a lagger segmenter, unblocking the lagger segmenter ; if there is no lagger segmenter: determining whether there is a leader segmenter, among the plurality of segmenters, that indicated an encoder boundary point that is later in time than the synchronization point ; if there is a leader segmenter, maintaining blocking of the leader segmenter while unblocking synced segmenters, of the plurality of segmenters, to indicate a subsequent encoder boundary point; and if there is no leader segmenter, unblocking all of the plurality of segmenters to indicate subsequent encoder boundary points in the plurality of transcoded content streams . receiving , by a computing device and from a plurality of segmenters that are blocked, respective indications of a plurality of different encoder boundary points that correspond to a plurality of different transcoded content streams associated with a source content stream; selecting , based on an analysis of the plurality of different encoder boundary points, a synchronization point that is associated with a time position of a first transcoded content stream of the plurality of different transcoded content streams; determining whether there is a lagger segmenter, among the plurality of segmenters, that indicated an encoder boundary point that is earlier in time than the synchronization point; if there is a lagger segmenter, unblocking the lagger segmenter ; if there is no lagger segmenter: determining whether there is a leader segmenter, among the plurality of segmenters, that indicated an encoder boundary point that is later in time than the synchronization point ; if there is a leader segmenter, maintaining blocking of the leader segmenter while unblocking synced segmenters, of the plurality of segmenters, to indicate a subsequent encoder boundary point; and if there is no leader segmenter, unblocking all of the plurality of segmenters to indicate subsequent encoder boundary points in the plurality of transcoded content streams .
Method for safely controlling an elevator system comprising a drive unit which allows an elevator car located in an elevator shaft to move and which is controlled in a safe manner by a control device such that a) in the normal mode of operation, the elevator car can be moved to at least two accesses to the elevator shaft at which doors controlled by the control device are provided, a door lock being associated with at least one thereof, by means of which door lock the associated door (30A; 30B) can be unlocked and opened even in the case of a power failure; and b) the elevator car does not move or moves only to a limited extent if an individual is in the elevator shaft ; wherein a monitoring unit (10A; 10B) and a monitoring sensor (11A; 11B) are associated respectively with at least one of the doors , by means of which state changes such as unlocking or opening of the door (30A; 30B) are detected, the monitoring unit (10A; 10B) a) is equipped with a battery and is switched to an autonomous mode when the elevator system is entirely or partially disabled; b) is connected to the monitoring sensor (11A; 11B), monitors the state of the monitoring sensor (11A; 11B) at least during the autonomous mode, and records corresponding state data; and c) is connected to a safeguard unit which reads the recorded state data from all of the connected monitoring units (10A; 10B), evaluates said state data, and prevents the elevator system from being put into the normal mode of operation if a change in the state of one of the monitored doors (30A; 30B) has been detected, and the monitoring sensor (11A; 11B) is a switching contact coupled to the associated door lock (31A; 31B, via which a monitoring signal is transmitted from an output to an input of the monitoring unit (10A; 10B), and the transmitted monitoring signal is monitored with respect to state changes which occur upon actuation of the door lock (31A; 31B), characterized in that the monitoring signal is in the form of a sequence of pulses. a) in the normal mode of operation, the elevator car can be moved to at least two accesses to the elevator shaft at which doors controlled by the control device are provided, a door lock being associated with at least one thereof, by means of which door lock the associated door (30A; 30B) can be unlocked and opened even in the case of a power failure; and b) the elevator car does not move or moves only to a limited extent if an individual is in the elevator shaft ; a) is equipped with a battery and is switched to an autonomous mode when the elevator system is entirely or partially disabled; b) is connected to the monitoring sensor (11A; 11B), monitors the state of the monitoring sensor (11A; 11B) at least during the autonomous mode, and records corresponding state data; and c) is connected to a safeguard unit which reads the recorded state data from all of the connected monitoring units (10A; 10B), evaluates said state data, and prevents the elevator system from being put into the normal mode of operation if a change in the state of one of the monitored doors (30A; 30B) has been detected,
A projector comprising: a light source configured to emit laser light; a substrate apart from the light source; a pattern mask comprising a pattern on a first surface (S1) of the substrate, the first surface facing the light source; and a lens on a second surface (S2) of the substrate, the second surface facing the first surface; characterized in that : the lens is a first meta-lens including a plurality of first nanostructures , the plurality of first nanostructures having a shape dimension of a sub-wavelength that is less than a wavelength of light emitted from the light source ; and the pattern mask comprises a first portion which is a region where laser light is absorbed or reflected and a second portion which is a region where a material for the first portion is removed and laser light is transmitted therethrough. a light source configured to emit laser light; a substrate apart from the light source; a pattern mask comprising a pattern on a first surface (S1) of the substrate, the first surface facing the light source; and a lens on a second surface (S2) of the substrate, the second surface facing the first surface; characterized in that : the lens is a first meta-lens including a plurality of first nanostructures , the plurality of first nanostructures having a shape dimension of a sub-wavelength that is less than a wavelength of light emitted from the light source ; and the pattern mask comprises a first portion which is a region where laser light is absorbed or reflected and a second portion which is a region where a material for the first portion is removed and laser light is transmitted therethrough. the lens is a first meta-lens including a plurality of first nanostructures , the plurality of first nanostructures having a shape dimension of a sub-wavelength that is less than a wavelength of light emitted from the light source ; and the pattern mask comprises a first portion which is a region where laser light is absorbed or reflected and a second portion which is a region where a material for the first portion is removed and laser light is transmitted therethrough.
Furniture formed from vertically and horizontally extending profile parts , comprising at least side walls and a rear wall , the profile parts delimiting compartments (F) with regard to the side walls and optionally the rear wall , the vertically extending profile parts furthermore being arranged at the associated corners (E) of a rectangle (R), comprising a vertical plane (V) which extends between two successive corners (E) of the rectangle (R), one or more compartments (F) being provided with an infill on the basis of one or more panel parts , a horizontally extending profile part furthermore having an inner and outer peripheral edge relative to a plan view and a theoretical intersection (S) of two perpendicular inner peripheral edges forming a corner (E) of the rectangle (R) and the compartments (F) having a compartment depth (t) that is defined by the perpendicular distance between the inner and outer peripheral edge of a horizontally extending profile part , characterised in that a panel part that has an inner surface extending parallel to the vertical plane (V) is fastened to the profile parts within the depth (t) of the compartment (F) on the inner surface , and in that a termination of the panel part along the inner peripheral edge and the resulting vertical plane (V) as well as a spacing of an outer surface of the panel part from the outer peripheral edge of the horizontally extending profile part is defined.
An air conditioner comprising: a housing including a main fan suction port and a main fan discharge port , the main fan suction port connected to the main fan discharge port by a main air flow path ; a main fan provided in the main air flow path and configured to intake air from the main fan suction port and to discharge the air from the main fan discharge port , and an auxiliary fan configured to intake the air at the main fan discharge port into an auxiliary air flow path of the air conditioner and discharge the air into the main air flow path to regulate a direction of the air discharged from the main fan discharge port , characterized in that the main fan includes a rotation axis disposed in parallel with a longitudinal direction of the discharge port . a housing including a main fan suction port and a main fan discharge port , the main fan suction port connected to the main fan discharge port by a main air flow path ; a main fan provided in the main air flow path and configured to intake air from the main fan suction port and to discharge the air from the main fan discharge port , and an auxiliary fan configured to intake the air at the main fan discharge port into an auxiliary air flow path of the air conditioner and discharge the air into the main air flow path to regulate a direction of the air discharged from the main fan discharge port , characterized in that the main fan includes a rotation axis disposed in parallel with a longitudinal direction of the discharge port .