mhurhangee/patent-ind-claim-en huggingface dataset:
A method for automatically setting up a code reading device comprising an image sensor and a control and evaluation unit , wherein an example image of an example object with an example code arranged in the field of view of the image sensor is recorded using the image sensor , and at least one recording parameter and/or at least one decoding parameter for the operation of the code reading device is set on the basis of an evaluation of the example image, characterized in that further example images are generated from the example image by computational modification and the at least one recording parameter and/or the at least one decoding parameter is set on the basis of an evaluation of the further example images.
A method for managing a measurement parameter for cell handover, performed by an aerial vehicle, characterized in that the method comprises: acquiring, by the aerial vehicle, a target parameter in a flight process , the target parameter being a parameter varying with an altitude and configurable to indicate an altitude of the aerial vehicle; determining, by the aerial vehicle, a target measurement parameter for cell handover according to the target parameter ; and performing, by the aerial vehicle, cell handover processing according to the target measurement parameter ; wherein determining, by the aerial vehicle, the target measurement parameter for cell handover according to the target parameter comprises: determining, by the aerial vehicle, a target regulation factor corresponding to the currently-acquired target parameter according to pre-stored correspondences between target parameters and regulation factors ; and acquiring, by the aerial vehicle, a product of the target regulation factor and a pre-stored reference measurement parameter for cell handover to obtain the target measurement parameter for cell handover ; wherein the target parameter comprises: a number of detected cells other than a presently-accessed cell. acquiring, by the aerial vehicle, a target parameter in a flight process , the target parameter being a parameter varying with an altitude and configurable to indicate an altitude of the aerial vehicle; determining, by the aerial vehicle, a target measurement parameter for cell handover according to the target parameter ; and performing, by the aerial vehicle, cell handover processing according to the target measurement parameter ; wherein determining, by the aerial vehicle, the target measurement parameter for cell handover according to the target parameter comprises: determining, by the aerial vehicle, a target regulation factor corresponding to the currently-acquired target parameter according to pre-stored correspondences between target parameters and regulation factors ; and acquiring, by the aerial vehicle, a product of the target regulation factor and a pre-stored reference measurement parameter for cell handover to obtain the target measurement parameter for cell handover ; determining, by the aerial vehicle, a target regulation factor corresponding to the currently-acquired target parameter according to pre-stored correspondences between target parameters and regulation factors ; and acquiring, by the aerial vehicle, a product of the target regulation factor and a pre-stored reference measurement parameter for cell handover to obtain the target measurement parameter for cell handover ; wherein the target parameter comprises: a number of detected cells other than a presently-accessed cell.
Cylinder lock comprising a cylinder housing consisting of a plurality of modules (1', 1", 1"', 1"") which are interconnected by means of a connecting element and arranged one behind the other in an axial direction (x), the connecting element being restrained, by means of positive engagement elements , in a recess , which has a base and two opposite walls , of a flange portion of the cylinder housing , which portion has two broad sides that face away from one another, the positive engagement elements each plugging into bores in at least one of the two walls , characterised in that the two broad sides each have a recess equipped with a connecting element .
A wound bed access device for providing access to a wound bed from outside a closed wound, which includes a self-sealing valve connector defining a flow path which is ordinarily closed, wherein the self-sealing valve connector includes a movable sealing member movable within the self-sealing valve connector and that is opened when a complementary opening connector of a supply or extraction apparatus, is connected to the self-sealing valve connector and allows flow in and out; and a wound dressing interface , shaped and dimensioned to be enclosed within a wound dressing covering a wound, the wound dressing interface being in the form of a flexible pad and having an underside which in use faces the wound bed and a top side having a planar surface for the wound dressing to adhere over, the self-sealing valve connector being connected to the top side of the wound dressing interface , with the flow path passing from the self-sealing valve connector through the wound dressing interface , in use the self-sealing valve connector is positioned outside the wound dressing thereby providing access to the wound bed from outside the closed wound, and allowing a supply or extraction apparatus to be intermittently connected or disconnected from the self-sealing valve connector . a self-sealing valve connector defining a flow path which is ordinarily closed, wherein the self-sealing valve connector includes a movable sealing member movable within the self-sealing valve connector and that is opened when a complementary opening connector of a supply or extraction apparatus, is connected to the self-sealing valve connector and allows flow in and out; and a wound dressing interface , shaped and dimensioned to be enclosed within a wound dressing covering a wound, the wound dressing interface being in the form of a flexible pad and having an underside which in use faces the wound bed and a top side having a planar surface for the wound dressing to adhere over, the self-sealing valve connector being connected to the top side of the wound dressing interface , with the flow path passing from the self-sealing valve connector through the wound dressing interface , in use the self-sealing valve connector is positioned outside the wound dressing thereby providing access to the wound bed from outside the closed wound, and allowing a supply or extraction apparatus to be intermittently connected or disconnected from the self-sealing valve connector .
A child vehicle seat comprising a chassis , a seat being detachably connectable to the chassis , at least one mounting element for securing the chassis in a vehicle, as well as at least one detector for detecting whether the mounting element is correctly mounted in the vehicle, which chassis is further provided with at least one indicator for indicating whether the chassis is correctly secured in the vehicle, whilst the chassis is provided with at least one detector for detecting whether the seat is correctly connected to the chassis , characterised in that when the connection between the mounting elements and the anchoring elements is broken while or after the seat is being or has been connected to the chassis , an alarm signal is immediately delivered by the indicator in use if the chassis is not correctly secured in the vehicle whilst the seat is correctly connected to the chassis .
A flight control device for an aircraft, comprising: - a casing , - a handle rotatably mounted with respect to the casing around a center of rotation , - a first drive shaft , a second drive shaft and a third drive shaft , the drive shafts (31-33) being rotatably mounted with respect to the casing along the same axis of rotation (X), - a first connecting part pivotally mounted, on the one hand, on the first shaft around a first axis of rotation (A 1 ), and on the other hand on the handle around a fourth axis of rotation (B 1 ), - a second connecting part pivotally mounted, on the one hand, on the second shaft around a second axis of rotation (A 2 ), and on the other hand on the handle around a fifth axis of rotation (B 2 ), - a third connecting part pivotally mounted, on the one hand, on the third shaft around a third axis of rotation (A 3 ), and on the other hand on the handle around a sixth axis of rotation (B 3 ), wherein the first axis (A 1 ), the second axis (A 2 ) and the third axis (A 3 ) of rotation intersect at the center of rotation of the handle . - a casing , - a handle rotatably mounted with respect to the casing around a center of rotation , - a first drive shaft , a second drive shaft and a third drive shaft , the drive shafts (31-33) being rotatably mounted with respect to the casing along the same axis of rotation (X), - a first connecting part pivotally mounted, on the one hand, on the first shaft around a first axis of rotation (A 1 ), and on the other hand on the handle around a fourth axis of rotation (B 1 ), - a second connecting part pivotally mounted, on the one hand, on the second shaft around a second axis of rotation (A 2 ), and on the other hand on the handle around a fifth axis of rotation (B 2 ), - a third connecting part pivotally mounted, on the one hand, on the third shaft around a third axis of rotation (A 3 ), and on the other hand on the handle around a sixth axis of rotation (B 3 ),
A system for battery cell balancing comprising: - a cell monitoring block configured to monitor the voltage or a related quantity across individual cells (C 1 , C 2 ,....C N ) in a battery cell module; - a microcontroller configured for monitoring the positive terminal voltage and the negative terminal voltage of said battery cell module, and for monitoring the output current I mod of said module, and monitored cell voltage of said individual cells (C 1 , C 2 ,....C N ), where the microcontroller is configured to provide a control signals based at least said positive terminal voltage , said negative terminal voltage , said output current I mod of said module, and said monitored cell voltage of said individual cells; - a hybrid module balancing block comprising a switching array , a passive balancing means and an active balancing device , where the switching array , the passive balancing means and the active balancing device are controlled by said control signals provided by the microcontroller , whereby the hybrid module balancing block can provide any of the cell balancing modes comprising an active cell balancing, a passive cell balancing, or a combination of active and passive cell balancing of the cells (C 1 , C 2 ,....C N ) in the specific module under the control of the control signals provided by the microcontroller . - a cell monitoring block configured to monitor the voltage or a related quantity across individual cells (C 1 , C 2 ,....C N ) in a battery cell module; - a microcontroller configured for monitoring the positive terminal voltage and the negative terminal voltage of said battery cell module, and for monitoring the output current I mod of said module, and monitored cell voltage of said individual cells (C 1 , C 2 ,....C N ), where the microcontroller is configured to provide a control signals based at least said positive terminal voltage , said negative terminal voltage , said output current I mod of said module, and said monitored cell voltage of said individual cells; - a hybrid module balancing block comprising a switching array , a passive balancing means and an active balancing device , where the switching array , the passive balancing means and the active balancing device are controlled by said control signals provided by the microcontroller , whereby the hybrid module balancing block can provide any of the cell balancing modes comprising an active cell balancing, a passive cell balancing, or a combination of active and passive cell balancing of the cells (C 1 , C 2 ,....C N ) in the specific module under the control of the control signals provided by the microcontroller .
A grass-mower, comprising: a collector which possesses a collector main-body which accommodates mowed grass to an inner part; and a collector-door lock mechanism which performs a lock of a collector-door of the collector main-body , the grass-mower comprising a manual collector-door lock releasing mechanism which releases the lock of the collector-door based on a manual operation which is performed in the inner part of the collector main-body , characterized in that the manual collector-door lock releasing mechanism is provided utilizing a stick-like member one end part of which is connected to the collector-door lock mechanism , another end part of the stick-like member protrudes to the inner part of the collector main-body , and the one end part of the stick-like member acts to the collector-door lock mechanism according to the manual operation onto the another end part of the stick-like member , and thereby the lock of the collector-door is released. a collector which possesses a collector main-body which accommodates mowed grass to an inner part; and a collector-door lock mechanism which performs a lock of a collector-door of the collector main-body , the grass-mower comprising a manual collector-door lock releasing mechanism which releases the lock of the collector-door based on a manual operation which is performed in the inner part of the collector main-body , characterized in that the manual collector-door lock releasing mechanism is provided utilizing a stick-like member one end part of which is connected to the collector-door lock mechanism , another end part of the stick-like member protrudes to the inner part of the collector main-body , and the one end part of the stick-like member acts to the collector-door lock mechanism according to the manual operation onto the another end part of the stick-like member , and thereby the lock of the collector-door is released.
A trocar assembly for use with a circular stapler, the trocar assembly comprising: a shaft ; a trocar tip configured to mechanically engage a distal portion of the shaft, the trocar tip including a first portion and second portion , the first portion is movable relative to the second portion prior to assembly of the trocar tip; and a band encircling a part of the first portion of the trocar tip and a part of the second portion of the trocar tip characterised in that both the first portion and the second portion of the trocar tip are configured to contact the shaft when the trocar tip is mechanically engaged with the shaft. a shaft ; a trocar tip configured to mechanically engage a distal portion of the shaft, the trocar tip including a first portion and second portion , the first portion is movable relative to the second portion prior to assembly of the trocar tip; and a band encircling a part of the first portion of the trocar tip and a part of the second portion of the trocar tip characterised in that both the first portion and the second portion of the trocar tip are configured to contact the shaft when the trocar tip is mechanically engaged with the shaft.
A four cable operated scissors grab , comprising a pair of scissor levers that are pivotably connected via a pivot joint , which scissor levers each include a grab shell and a hoist cable connection situated on a first side of the lever with respect to the pivot joint , and a closing cable connection situated on a second side of the lever that is opposite with respect to the pivot joint , so that in use a dedicated hoisting cable is fastened to each lever on the first side of the lever , and a dedicated closing cable is fastened to each lever at the second side of the lever , in which the scissor levers are arranged to pivot about the pivot axis between a closed position (I) of the grab in which side and bottom edges of the shells are adjacent each other and the shells cooperate to form a bucket that can hold material to be handled, and a fully opened position (II) of the grab in which the side and bottom edges are spaced apart and define a maximum opening there between through which material to be handled can pass, wherein when the grab moves from the closed position (I) to the fully opened open position (II), a plane (A) through the pivot axis and the side and bottom edges of each grab shell has a limited angular displacement (α) about the pivot axis that is included in the range of 50 - 70 degrees, characterised in that , the scissor levers are arranged as parallel planar plates interspaced by transverse stiff elements that include stiffening profiles on the first sides of said scissor levers said limited angular displacement allowing for the provision of said stiffening profiles on the first sides of said scissor levers .
Control method for controlling at least one solidification device of an additive manufacturing device for manufacturing a three-dimensional object by means of an additive layer build method in which at least one object is manufactured by repeated application of a layer of a building material , preferably a powder, to a build area and by selective solidification of the applied layer at positions corresponding to a cross-section of the object to be manufactured, wherein a gas having a plurality of flow directions which essentially are not aligned in the same direction flows across the build area , wherein the method comprises for at least one layer to be solidified the steps: receiving and/or determining a distribution of the flow directions of the gas above the build area , assigning a reference flow direction (RR) to an area of the build area in dependence on the distribution of the flow directions above the area, controlling the solidification device to solidify at least a part of the cross-section of the object to be produced in dependence on a reference flow direction (RR) above the area of the build area in which the respective part of the cross-section is positioned. receiving and/or determining a distribution of the flow directions of the gas above the build area , assigning a reference flow direction (RR) to an area of the build area in dependence on the distribution of the flow directions above the area, controlling the solidification device to solidify at least a part of the cross-section of the object to be produced in dependence on a reference flow direction (RR) above the area of the build area in which the respective part of the cross-section is positioned.
A microfluidic test chip comprising: a substrate ; a first resistive structure comprising one or more first resistive elements on the substrate operable to selectively heat the substrate and to selectively sense a temperature of the substrate to control the temperature of at least the substrate ; a microfluidic channel structure on the substrate , the microfluidic channel structure comprising one or more microfluidic channels and a second resistive structure comprising a plurality of second resistive elements located in the microfluidic channel structure and associated with or within the one or more microfluidic channels ; wherein the first resistive structure is electrically independent from the second resistive structure ; characterized in that at least some of the second resistive elements are operable to selectively pump fluid and to selectively apply heat within the microfluidic channel structure such that different portions of the substrate may be maintained at different temperatures. a substrate ; a first resistive structure comprising one or more first resistive elements on the substrate operable to selectively heat the substrate and to selectively sense a temperature of the substrate to control the temperature of at least the substrate ; a microfluidic channel structure on the substrate , the microfluidic channel structure comprising one or more microfluidic channels and a second resistive structure comprising a plurality of second resistive elements located in the microfluidic channel structure and associated with or within the one or more microfluidic channels ; wherein the first resistive structure is electrically independent from the second resistive structure ; characterized in that at least some of the second resistive elements are operable to selectively pump fluid and to selectively apply heat within the microfluidic channel structure such that different portions of the substrate may be maintained at different temperatures.
Front part of the body (C) of a vehicle, including a motor vehicle, including a cross-section front beam of bumper with two opposite ends connected to the front end of a shock absorber with a rear end connected to the front of one of the two stretchers of the body (C), each end of the front beam with a nose end strong rigid attached to the front beam in extension of the beam and having a curvature directed towards the rear of the vehicle, characterized by the reinforcement tip being covered with a damping envelope , the damping envelope being a profile made of a composite material.
A battery module, comprising: a battery stacked body, wherein the battery stacked body comprises a plurality of stacked batteries; a cooling plate, wherein the cooling plate is provided at a tail end in a battery stacking direction of the battery stacked body, and the cooling plate and the battery stacked body are provided in a thermal insulation manner, the thermal insulation manner is that the cooling plate is not in thermal contact with the battery stacked body directly, and the heat transfer between the cooling plate and the battery stacked body is performed through the heat transfer device; and a heat transfer device, wherein the heat transfer device is in thermal contact with the cooling plate, and heat of the batteries is transferred to the cooling plate through the heat transfer device; wherein in a normal charging-discharging state, a battery with a highest temperature in the battery stacked body is a battery A; and between a single cooling plate and the battery A, a thermal resistance between each battery and the heat transfer device is reduced along with an increase of a distance between the each battery and the cooling plate in the battery stacking direction. a battery stacked body, wherein the battery stacked body comprises a plurality of stacked batteries; a cooling plate, wherein the cooling plate is provided at a tail end in a battery stacking direction of the battery stacked body, and the cooling plate and the battery stacked body are provided in a thermal insulation manner, the thermal insulation manner is that the cooling plate is not in thermal contact with the battery stacked body directly, and the heat transfer between the cooling plate and the battery stacked body is performed through the heat transfer device; and a heat transfer device, wherein the heat transfer device is in thermal contact with the cooling plate, and heat of the batteries is transferred to the cooling plate through the heat transfer device; wherein in a normal charging-discharging state, a battery with a highest temperature in the battery stacked body is a battery A; and between a single cooling plate and the battery A, a thermal resistance between each battery and the heat transfer device is reduced along with an increase of a distance between the each battery and the cooling plate in the battery stacking direction.