mhurhangee/patent-ind-claim-en huggingface dataset:
A method for starting up a hoisting gear from a braked position in which a hoisting gear brake holds a hoisting load, in which a starting torque is built up by a hoisting gear drive against the closed hoisting gear brake and the hoisting gear brake is released upon or after reaching the starting torque, wherein the current hoisting load is detected by means of a load detection device when the hoisting gear brake is closed, wherein the starting torque is adjusted by a hoisting gear controller with reference to the detected current hoisting load such that the hoisting force provided by the starting torque of the hoisting gear corresponds to the detected current hoisting load, characterized in that the starting torque is calculated as a fraction of the nominal motor torque of the hoisting gear drive and from the calculated fraction of the nominal motor torque a starting value for a frequency converter is calculated, by means of which the frequency converter then actuates the hoisting gear drive such that the desired fraction of the nominal motor torque is built up as a starting torque.
A sheetlike composite , comprising as a layer sequence in a direction from an outer surface of the sheetlike composite to an inner surface of the sheetlike composite a) an outer polymer layer , b) a colour application , c) a carrier layer , and d) a barrier layer ; wherein the sheetlike composite comprises at least one longitudinal crease line ; wherein the at least one longitudinal crease line is oriented in a first direction ; wherein the sheetlike composite has a first bending resistance in the first direction ; wherein a further direction is perpendicular to the first direction ; wherein the sheetlike composite has a further bending resistance in the further direction ; wherein the first bending resistance is less than the further bending resistance; wherein the first and further bending resistances have been measured according to the test method described herein on samples having no crease line, fold or edge, wherein the test method includes a two-point bending test, wherein a direction in which the sheetlike composite has a bending resistance is a direction of a straight line connecting the two attack points of the two-point bending test. a) an outer polymer layer , b) a colour application , c) a carrier layer , and d) a barrier layer ; wherein the sheetlike composite comprises at least one longitudinal crease line ; wherein the at least one longitudinal crease line is oriented in a first direction ; wherein the sheetlike composite has a first bending resistance in the first direction ; wherein a further direction is perpendicular to the first direction ; wherein the sheetlike composite has a further bending resistance in the further direction ; wherein the first bending resistance is less than the further bending resistance; wherein the first and further bending resistances have been measured according to the test method described herein on samples having no crease line, fold or edge, wherein the test method includes a two-point bending test, wherein a direction in which the sheetlike composite has a bending resistance is a direction of a straight line connecting the two attack points of the two-point bending test.
Nuclear Magnetic Resonance (NMR) measurement cell in solution enabling the introduction of a gas into said solution , the measurement cell being designed to be placed in a static magnetic field such as the field of an NMR spectrometer , and comprising: - at least one measurement chamber of the solution in which a radiofrequency electromagnetic field will be applied and/or measured, - at least one conduit for the solution in fluidic communication with the measurement chamber , said conduit comprising an including a gas inlet zone, the gas introduction zone comprising a gas inlet to generate bubbles only in the gas introduction zone, the measurement cell being characterised in that it further incudes: - network of conduits including the at t least one conduit and forming a closed circuit for circulation of the solution between the measurement chamber and the gas introduction zone, the gas inlet being arranged so as to set up circulation of the solution in the network of conduits between the gas introduction zone and the measurement chamber , the measurement chamber comprising a conduit of the network of conduits called the measurement conduit, a radiofrequency system arranged to apply and/or detect a radiofrequency electromagnetic field in the measurement conduit. - at least one measurement chamber of the solution in which a radiofrequency electromagnetic field will be applied and/or measured, - at least one conduit for the solution in fluidic communication with the measurement chamber , said conduit comprising an including a gas inlet zone, the gas introduction zone comprising a gas inlet to generate bubbles only in the gas introduction zone, - network of conduits including the at t least one conduit and forming a closed circuit for circulation of the solution between the measurement chamber and the gas introduction zone, the gas inlet being arranged so as to set up circulation of the solution in the network of conduits between the gas introduction zone and the measurement chamber , the measurement chamber comprising a conduit of the network of conduits called the measurement conduit,
Method for characterizing an electrochemical device of a given type, in operation, for a prognosis of future operation of the device according to said operation, the method comprising: - A preliminary step of storage in memory, for a type of device corresponding to that given type, of a plurality of models of variation over time of at least one operating parameter of the device, depending on the respective operating points of the device, and - Subsequent common steps implemented by a processor accessing said memory and having at least one connection the device for: - Obtain information relating to a common operating point of the device, - Retrieve in the memory at least one variation pattern corresponding to the current operating point of the device, - Receive from the device at least one measurement of a current value of the operating parameter, - Compare said measurement to the model of variation retrieved from memory, to locate temporally the operation of the device, and, from there, - Estimate a prognosis of operation of the device, said current operating point of the device being defined according to: - at least one input variable, corresponding to an operating parameter imposed on the electrochemical device, and - at least one output variable, corresponding to a parameter delivered by the electrochemical device in relation to its operation. - A preliminary step of storage in memory, for a type of device corresponding to that given type, of a plurality of models of variation over time of at least one operating parameter of the device, depending on the respective operating points of the device, and - Subsequent common steps implemented by a processor accessing said memory and having at least one connection the device for: - Obtain information relating to a common operating point of the device, - Retrieve in the memory at least one variation pattern corresponding to the current operating point of the device, - Receive from the device at least one measurement of a current value of the operating parameter, - Compare said measurement to the model of variation retrieved from memory, to locate temporally the operation of the device, and, from there, - Estimate a prognosis of operation of the device, - Obtain information relating to a common operating point of the device, - Retrieve in the memory at least one variation pattern corresponding to the current operating point of the device, - Receive from the device at least one measurement of a current value of the operating parameter, - Compare said measurement to the model of variation retrieved from memory, to locate temporally the operation of the device, and, from there, - Estimate a prognosis of operation of the device, - at least one input variable, corresponding to an operating parameter imposed on the electrochemical device, and - at least one output variable, corresponding to a parameter delivered by the electrochemical device in relation to its operation.
Exterior aircraft light comprising at least two switchable illumination circuits , each of the at least two switchable illumination circuits comprising: at least one light source ; a temperature detector configured for detecting the temperature of the at least one light source of the respective switchable illumination circuit and providing a corresponding temperature signal; an electric switch for selectively switching power flow to the at least one light source on and off; a control circuit , coupled to the temperature detector and to the electric switch , wherein the control circuit is configured for driving the electric switch based on the temperature signal provided by the temperature detector to repeatedly switch power flow to the at least one light source on and off wherein the exterior aircraft light is one of a landing light , a taxi light , a runway turn-off light , a take-off light , and a multi-purpose light combining the functionality of at least two of a landing light , a taxi light , a runway turn-off light and a take-off light ; and wherein each of the at least two switchable illumination circuits forms a functional unit of spatially associated components, wherein the at least one light source , the temperature detector , the electric switch and the control circuit of each of the at least two switchable illumination circuits are arranged within less than 10 cm from each other at least one light source ; a temperature detector configured for detecting the temperature of the at least one light source of the respective switchable illumination circuit and providing a corresponding temperature signal; an electric switch for selectively switching power flow to the at least one light source on and off; a control circuit , coupled to the temperature detector and to the electric switch , wherein the control circuit is configured for driving the electric switch based on the temperature signal provided by the temperature detector to repeatedly switch power flow to the at least one light source on and off wherein the exterior aircraft light is one of a landing light , a taxi light , a runway turn-off light , a take-off light , and a multi-purpose light combining the functionality of at least two of a landing light , a taxi light , a runway turn-off light and a take-off light ; and wherein each of the at least two switchable illumination circuits forms a functional unit of spatially associated components, wherein the at least one light source , the temperature detector , the electric switch and the control circuit of each of the at least two switchable illumination circuits are arranged within less than 10 cm from each other
A self-moving device , comprising: a housing , provided with a motor ; a moving module driven by the motor , moving the self-moving device ; a working module ; a control module , configured to control movement of the moving module and working of the working module ; and a first sensor and a second sensor , configured to detect an obstacle in a moving direction of the self-moving device , wherein the first sensor is configured to detect a first area in the moving direction, the second sensor is configured to detect a second area in the moving direction, and the first area and the second area are arranged perpendicular to the moving direction; and the control module controls a moving manner of the self-moving device according to sensing results of the first sensor and the second sensor ; wherein the first sensor is a non-contact sensor and the second sensor is a contact sensor ; and characterised in that said moving module comprises a track and when the non-contact sensor detects an obstacle in the moving direction of the self-moving device , the control module is configured to control the self-moving device to continuously move and then to stop moving before colliding with the obstacle. a housing , provided with a motor ; a moving module driven by the motor , moving the self-moving device ; a working module ; a control module , configured to control movement of the moving module and working of the working module ; and a first sensor and a second sensor , configured to detect an obstacle in a moving direction of the self-moving device , wherein the first sensor is configured to detect a first area in the moving direction, the second sensor is configured to detect a second area in the moving direction, and the first area and the second area are arranged perpendicular to the moving direction; and the control module controls a moving manner of the self-moving device according to sensing results of the first sensor and the second sensor ; wherein the first sensor is a non-contact sensor and the second sensor is a contact sensor ; and characterised in that said moving module comprises a track and when the non-contact sensor detects an obstacle in the moving direction of the self-moving device , the control module is configured to control the self-moving device to continuously move and then to stop moving before colliding with the obstacle.
An imaging device comprising a control unit configured to perform setting for shooting in accordance with an input from a first input unit in which setting from a still image shooting mode, to a first frame rate of moving image shooting, then to a second frame rate of moving image shooting and then to a further occurrence of the first frame rate of moving image shooting, can be continuously input in one direction; wherein the still image shooting mode can be further set a plurality of times in the first input unit when inputting a series of continuous input in one direction from the first frame rate to the further occurrence of the first frame rate.
Method for removing a jet aerator from a faucet outlet , wherein the jet aerator has a housing and a latching element arranged movably on the housing , wherein the latching element is acted upon by a spring element , which is accessible from outside the faucet outlet when the jet aerator is inserted into the faucet outlet in the position of use, and wherein the latching element projects beyond the housing in the position of use in order to hold the jet aerator in the faucet outlet , wherein a tool for removal is inserted into the faucet outlet in an insertion direction and wherein the spring element is acted upon by the tool during insertion until the latching element releases the jet aerator , wherein the latching element is guided by a guide formed by the housing , and/or the latching element and/or the spring element is/are formed separately from the housing . wherein the latching element is acted upon by a spring element , which is accessible from outside the faucet outlet when the jet aerator is inserted into the faucet outlet in the position of use, and wherein the latching element projects beyond the housing in the position of use in order to hold the jet aerator in the faucet outlet , wherein a tool for removal is inserted into the faucet outlet in an insertion direction and wherein the spring element is acted upon by the tool during insertion until the latching element releases the jet aerator , wherein the latching element is guided by a guide formed by the housing , and/or the latching element and/or the spring element is/are formed separately from the housing .
A three-dimensional, degradable medical implant (22; 30; 40; 50; 60; 73; 83; 92; 102; 140) for regeneration of soft tissue comprising: - a first plurality of volume-building components (20, 31; 41; 52; 61; 75; 85; 94; 103; 142); - a first mesh component (21; 32; 42; 51; 62; 72; 82; 91; 101; 141) which is substantially made of monofilament or multifilament fibers; wherein each of the volume-building components comprises a scaffold component (20; 31; 41; 52; 61; 74; 84; 93; 110; 120; 130), which scaffold component comprises a material (111; 121; 131) which is chosen from a group consisting of (i) a hydrogel, (ii) a porous material, or (iii) fibers, or any combination thereof; wherein the scaffold component has a substantially homogeneous interior, a porous interior, a fibrous interior, or a combination thereof; wherein each volume-building component is attached to at least one point on a surface of the mesh component, wherein the projected surface area of each volume-building component, when projected on the surface of the mesh component, corresponds to a maximum of one tenth of the surface area of the mesh component, and wherein at least one of the volume-building components (75; 85; 94; 103) further comprises a support structure (70; 80; 90; 100) having a higher compression modulus than the scaffold component (74; 84; 93). - a first plurality of volume-building components (20, 31; 41; 52; 61; 75; 85; 94; 103; 142); - a first mesh component (21; 32; 42; 51; 62; 72; 82; 91; 101; 141) which is substantially made of monofilament or multifilament fibers; wherein each of the volume-building components comprises a scaffold component (20; 31; 41; 52; 61; 74; 84; 93; 110; 120; 130), which scaffold component comprises a material (111; 121; 131) which is chosen from a group consisting of (i) a hydrogel, (ii) a porous material, or (iii) fibers, or any combination thereof; wherein the scaffold component has a substantially homogeneous interior, a porous interior, a fibrous interior, or a combination thereof; wherein each volume-building component is attached to at least one point on a surface of the mesh component, wherein the projected surface area of each volume-building component, when projected on the surface of the mesh component, corresponds to a maximum of one tenth of the surface area of the mesh component, and wherein at least one of the volume-building components (75; 85; 94; 103) further comprises a support structure (70; 80; 90; 100) having a higher compression modulus than the scaffold component (74; 84; 93).
Method for manufacturing a configurable electrical component comprising a step of printing a pattern on a substrate with a nano-ink based on conductive nanoparticles, the nano-ink initially being nonconductive, and said pattern being interrupted by at least one micro-break , characterized in that it comprises a step (E50) of sintering at least part of said pattern so as to make that part conductive, said sintering step (E50) making it possible to modify the state of the nanoparticles contained in said nano-ink so as to at least partially fill said at least one micro-break, and said at least one micro-break has a width of between 10 um and 50 μm. characterized in that it comprises a step (E50) of sintering at least part of said pattern so as to make that part conductive, said sintering step (E50) making it possible to modify the state of the nanoparticles contained in said nano-ink so as to at least partially fill said at least one micro-break, and said at least one micro-break has a width of between 10 um and 50 μm.
An inkjet recording device , comprising: a bed including a surface (1c2) that is configured to support a recording medium (K); an ink head that is configured to inject ink toward the recording medium (K) on the bed ; a table located below the bed ; characterized in that the inkjet recording device comprises a pivoting device that is configured to pivot the bed and the ink head around a horizontal axis; wherein: the bed extends in a first direction (X) and a second direction (Y) perpendicular to the first direction (X); and the inkjet recording device further comprises: a pair of guide rails extending in the first direction (X); a movable member extending in the second direction (Y), the movable member being engaged with the pair of guide rails and slidable on the pair of guide rails to be movable in the first direction (X); and a carriage that holds the ink head and is provided on the movable member so as to be movable in the second direction (Y). a bed including a surface (1c2) that is configured to support a recording medium (K); an ink head that is configured to inject ink toward the recording medium (K) on the bed ; a table located below the bed ; characterized in that the inkjet recording device comprises a pivoting device that is configured to pivot the bed and the ink head around a horizontal axis; the bed extends in a first direction (X) and a second direction (Y) perpendicular to the first direction (X); and the inkjet recording device further comprises: a pair of guide rails extending in the first direction (X); a movable member extending in the second direction (Y), the movable member being engaged with the pair of guide rails and slidable on the pair of guide rails to be movable in the first direction (X); and a carriage that holds the ink head and is provided on the movable member so as to be movable in the second direction (Y). a pair of guide rails extending in the first direction (X); a movable member extending in the second direction (Y), the movable member being engaged with the pair of guide rails and slidable on the pair of guide rails to be movable in the first direction (X); and a carriage that holds the ink head and is provided on the movable member so as to be movable in the second direction (Y).
Time-of-flight sensor module , having a housing and a sensor assembly arranged inside the housing , wherein the sensor assembly includes: - a plate assembly which is arranged inside the housing , wherein the plate assembly has a plate section used as an optics area for supporting optical components of the sensor assembly, - a light source mounted on the optics area for emitting light for an illumination of a scene that is to be imaged, - a light sensor mounted on the optics area for detecting light which is emitted from the light source and subsequently reflected by the scene that is to be imaged, - a control device which is coupled with the light source and with the light sensor , and - a light optics socket which is arranged in front of the light source , in which a light optics device is arranged, and a sensor optics socket arranged in front of the light sensor in which a sensor optics device is arranged, characterized in that the sensor assembly has a securing bracket which is mounted on the plate assembly , wherein the securing bracket is arranged so as to clasp the light optics socket in such a way that a shifting of the light optics device out of position at least partially separates the coupling between the securing bracket and the plate assembly , wherein the securing bracket which is coupled to the plate assembly is a galvanically coupled part of a backup electrical circuit, wherein the backup electrical circuit is designed in such manner that the at least partial separation of the securing bracket and the plate assembly from each other causes an automatic change in the operation of the light source . - a plate assembly which is arranged inside the housing , wherein the plate assembly has a plate section used as an optics area for supporting optical components of the sensor assembly, - a light source mounted on the optics area for emitting light for an illumination of a scene that is to be imaged, - a light sensor mounted on the optics area for detecting light which is emitted from the light source and subsequently reflected by the scene that is to be imaged, - a control device which is coupled with the light source and with the light sensor , and - a light optics socket which is arranged in front of the light source , in which a light optics device is arranged, and a sensor optics socket arranged in front of the light sensor in which a sensor optics device is arranged,