mhurhangee/patent-ind-claim-en huggingface dataset:
Method for assisting the selection of an IOL to be implanted into an eye, on the basis of the use of a calculation formula with which the IOL to be implanted and the effective lens positions (ELP) thereof are ascertained on the basis of the geometric data of the eye, wherein the ascertained IOL is inserted into an individual model of the eye to be implanted at the effective lens position (ELP) and displaced until the residual refraction of the individual model corresponds to the residual refraction ascertained using the calculation formula, and the expected visual performance is simulated by means of ray tracing.
Solid-flowable multicomponent granulate , wherein the solid-flowable multicomponent granulate comprises a biogenic residue with an organic substance and an adsorption agent, wherein the adsorption agent comprises a zeolite, and wherein the zeolite is loaded with a nutrient, wherein the nutrient is ammonia, and wherein the organic substance of the biogenic residue is physically bonded to the zeolite, the solid-flowable multicomponent granulate having a particle size in the range from 250 μm to 10 mm, characterized in that the zeolite has an ammonia loading of at least 60% of the nitrogen previously present in exhaust air and the loaded zeolite is coated with the biogenic residue by means of the organic substance, so that the solid-flowable multicomponent granulate is present as a completely nutrient-enriched fertilizer.
A computer-implemented user interface method for outputting an identification of stimulation settings of a leadwire implanted in, and configured to electrically stimulate tissue of, a patient, the method comprising: determining, by a computer processor, an angle between a direction of an electrical tissue stimulation according to a first stimulation parameter set and a predefined direction; converting, by the processor, a value of an electrical amplitude of the stimulation according to the first stimulation parameter set to a radius value; and displaying, by the processor and in a display device, a single ray whose length corresponds to the radius value and whose directionality corresponds to the determined angle. determining, by a computer processor, an angle between a direction of an electrical tissue stimulation according to a first stimulation parameter set and a predefined direction; converting, by the processor, a value of an electrical amplitude of the stimulation according to the first stimulation parameter set to a radius value; and displaying, by the processor and in a display device, a single ray whose length
A hoisting device comprising a trolley travelling along a support structure , and a hoisting member to be lowered and lifted therefrom by means of hoisting ropes , as well as a current supply cable between the trolley and the hoisting member , characterized in that the hoisting device is a pick-up robot for an automatic warehouse, and that the structure of the current supply cable is made to assume a spiral shape such that in an uplifted position it forms an at least substantially flat-spiral structure, wherein turns of the spiral structure lie in turns of increasing diameter, and that a frame of the current supply cable is made of a pneumatic hose which by means of heating is formed into a flat-spiral structure and which, after the heating, has a memory striving to return an unwound cable in to the shape of the flat-spiral structure, and wherein a portion of the spiral settling and curling on top of a plane surface (A) of the hoisting member is supported by the plane surface (A) of the hoisting member .
A method of controlling a hybrid-electric aircraft powerplant comprising: for a hybrid-electric aircraft powerplant having a thermal engine and an electric motor , running a first control loop for command of the thermal engine based on an error between a total response commanded for the hybrid-electric aircraft powerplant (MrqTot) and torque feedback from the thermal engine (MfbTM); running a second control loop in parallel with the first control loop for commanding the thermal engine based on an error between a maximum thermal engine output (MrqTMmax) and torque feedback from the thermal engine (MfbTM); using a low selector between the first control loop and the second control loop to command the thermal engine with the lower of responses commanded from the first and second control loops ; running a third control loop in parallel with the first and second control loops for commanding engine/propeller speed, wherein the third control loop outputs a speed control enable or disable status; using a high selector between output of the third control loop and the low selector ; and running a fourth control loop in parallel with the first, second, and third control loops for commanding the electric motor with non-zero demand when the second control loop is above control to add response from the electric motor to response from the thermal engine to achieve the total response commanded for the hybrid-electric aircraft powerplant (MrqTot). for a hybrid-electric aircraft powerplant having a thermal engine and an electric motor , running a first control loop for command of the thermal engine based on an error between a total response commanded for the hybrid-electric aircraft powerplant (MrqTot) and torque feedback from the thermal engine (MfbTM); running a second control loop in parallel with the first control loop for commanding the thermal engine based on an error between a maximum thermal engine output (MrqTMmax) and torque feedback from the thermal engine (MfbTM); using a low selector between the first control loop and the second control loop to command the thermal engine with the lower of responses commanded from the first and second control loops ; running a third control loop in parallel with the first and second control loops for commanding engine/propeller speed, wherein the third control loop outputs a speed control enable or disable status; using a high selector between output of the third control loop and the low selector ; and running a fourth control loop in parallel with the first, second, and third control loops for commanding the electric motor with non-zero demand when the second control loop is above control to add response from the electric motor to response from the thermal engine to achieve the total response commanded for the hybrid-electric aircraft powerplant (MrqTot).
A sound detector for being worn by a user and for communicating with a portable terminal , the sound detector comprising: a sensing unit configured for sensing first hearable data from outside the sound detector and the portable terminal, a sound detector side controller , wherein the sensing unit is connected to the sound detector side controller ; a sound detector side transmitter/receiver configured for communicating with the portable terminal using a body area network, BAN, of the user , wherein the sound detector side transmitter/receiver is further configured for receiving second hearable data and control data from the portable terminal through the BAN according to a manipulation of the portable terminal by the user; the sound detector side controller being configured for determining a reproducing mode for reproducing at least one of the first hearable data and the second hearable data according to the control data, wherein the sound detector side controller is connected to the sound detector side transmitter/receiver; and the sound detector side reproducing unit being connected to the sound detector side controller and configured for reproducing the first hearable data and/or the second hearable data received from the sound detector side controller according to the reproducing mode, wherein the sound detector side controller updates the control data, which controls the sound detector, according to the first hearable data sensed by the sensing unit. a sensing unit configured for sensing first hearable data from outside the sound detector and the portable terminal, a sound detector side controller , wherein the sensing unit is connected to the sound detector side controller ; a sound detector side transmitter/receiver configured for communicating with the portable terminal using a body area network, BAN, of the user , wherein the sound detector side transmitter/receiver is further configured for receiving second hearable data and control data from the portable terminal through the BAN according to a manipulation of the portable terminal by the user; the sound detector side controller being configured for determining a reproducing mode for reproducing at least one of the first hearable data and the second hearable data according to the control data, wherein the sound detector side controller is connected to the sound detector side transmitter/receiver; and the sound detector side reproducing unit being connected to the sound detector side controller and configured for reproducing the first hearable data and/or the second hearable data received from the sound detector side controller according to the reproducing mode, wherein the sound detector side controller updates the control data, which controls the sound detector, according to the first hearable data sensed by the sensing unit.
An input device for a transmission of a vehicle comprising: an operation member configured to be operated by a hand of an operator; a brake configured to brake a movement of the operation member ; a detector configured to determine a position of the operation member repeatedly, a speed determiner configured to determine a current speed of the operation member based on a current position of the operation member and a previous position of the operation member , and a running direction detector configured to determine a running direction of a vehicle in which the input device is installed, characterized in that the input device further comprises a target position acquirer configured to acquire information relating to a target position where the operation member is to be stopped and determine, as the target position, based on at least the determined running direction of the vehicle and a current movement direction of the operation member , a position corresponding to a gear position adjoining a gear position which causes a change in the running direction of the vehicle among plural gear positions of a transmission of the vehicle, and a controller configured to cause the brake to brake the movement of the operation member in response to the current speed of the operation member and adjust an activation start timing of the brake in response to a difference between the target position and the current position of the operation member and the current speed of the operation member . an operation member configured to be operated by a hand of an operator; a brake configured to brake a movement of the operation member ; a detector configured to determine a position of the operation member repeatedly, a speed determiner configured to determine a current speed of the operation member based on a current position of the operation member and a previous position of the operation member , and a running direction detector configured to determine a running direction of a vehicle in which the input device is installed, characterized in that the input device further comprises a target position acquirer configured to acquire information relating to a target position where the operation member is to be stopped and determine, as the target position, based on at least the determined running direction of the vehicle and a current movement direction of the operation member , a position corresponding to a gear position adjoining a gear position which causes a change in the running direction of the vehicle among plural gear positions of a transmission of the vehicle, and a controller configured to cause the brake to brake the movement of the operation member in response to the current speed of the operation member and adjust an activation start timing of the brake in response to a difference between the target position and the current position of the operation member and the current speed of the operation member .
A push-button switch having a button cap , a base plate , a switch element , a first lever , and a second lever , wherein the first lever and the second lever are mounted on the base plate so as to be rotatable by means of a respective pivot bearing , and wherein the switch element can be actuated by a second lever end of the first lever or by a second lever end of the second lever , characterized in that the switch element is arranged at the button cap , and the first lever and the second lever are each connected at a first lever end to the button cap so as to be movable and without play in the actuation direction of the push-button switch , and are connected at the second lever end to one another so as to be movable and without play in the actuation direction of the push-button switch .
A refrigerator comprising: a cabinet defining a storage compartment; a refrigerator door configured to open and close the storage compartment; a hinge assembly configured to couple the refrigerator door to the cabinet ; and a door opening device provided at the cabinet and configured to rotate the refrigerator door about the hinge assembly , the door opening device including: a frame , and a pushing member slidably provided at the frame and configured to protrude from the frame toward the hinge assembly to thereby open the refrigerator door , characterized in that the pushing member is configured to push the hinge assembly , the pushing member including: a first body extending toward a front of the frame , a connection body extending from the first body at a predetermined angle relative to the first body in a width direction of the frame , and a second body extending from the connection body toward the front of the frame , and wherein the second body is configured to protrude outward from a center portion of the frame in a width direction to thereby open the refrigerator door , and the first body is configured, based on the second body protruding outward of the frame , to be located entirely within the frame . a cabinet defining a storage compartment; a refrigerator door configured to open and close the storage compartment; a hinge assembly configured to couple the refrigerator door to the cabinet ; and a door opening device provided at the cabinet and configured to rotate the refrigerator door about the hinge assembly , the door opening device including: a frame , and a pushing member slidably provided at the frame and configured to protrude from the frame toward the hinge assembly to thereby open the refrigerator door , a frame , and a pushing member slidably provided at the frame and configured to protrude from the frame toward the hinge assembly to thereby open the refrigerator door , characterized in that the pushing member is configured to push the hinge assembly , the pushing member including: a first body extending toward a front of the frame , a connection body extending from the first body at a predetermined angle relative to the first body in a width direction of the frame , and a second body extending from the connection body toward the front of the frame , and a first body extending toward a front of the frame , a connection body extending from the first body at a predetermined angle relative to the first body in a width direction of the frame , and a second body extending from the connection body toward the front of the frame , and wherein the second body is configured to protrude outward from a center portion of the frame in a width direction to thereby open the refrigerator door , and the first body is configured, based on the second body protruding outward of the frame , to be located entirely within the frame .
A formulation [formulation (F), herein after] comprising: (i) at least one composition [composition (C), herein after] wherein said composition (C) comprises at least one compound (A) of formulae (I a ) herein below: wherein - R 3 is independently selected from hydrogen; an alkyl group having 1 to 4 carbon atoms; -C(O)-R α wherein R α is an alkyl group having 1 to 4 carbon atoms;; - R' is independently selected from an alkyl group having 1 to 4 carbon atoms; - R 1 and R 2 , equal to or different from each other, are independently selected from an alkyl group having 1 to 6 carbon atoms; (ii) at least one fertilizer [fertilizer (Z), herein after], wherein the fertilizer (Z) is an organic fertilizer [organic fertilizer (Z O ), herein after] or an organo-mineral fertilizer [fertilizer (Z OM ), herein after], wherein said organic fertilizer (Z O ) and organo-mineral fertilizer (Z OM ) comprise a weight ratio of nitrogen atoms to phosphorus atoms and potassium atoms respectively and/or a weight ratio of potassium atoms to nitrogen atoms and phosphorus atoms respectively and/or a weight ratio of phosphorus atoms to nitrogen atoms and potassium atoms respectively, which is equal to or at least 2 or mixtures thereof; (iii) optionally at least one additional ingredient [ingredient (I F ), herein after] wherein the compound (A) is present in an amount of at least 0.4 weight percent [wt. %, herein after], relative to the total weight of the formulation (F). (i) at least one composition [composition (C), herein after] wherein said composition (C) comprises at least one compound (A) of formulae (I a ) herein below: wherein - R 3 is independently selected from hydrogen; an alkyl group having 1 to 4 carbon atoms; -C(O)-R α wherein R α is an alkyl group having 1 to 4 carbon atoms;; - R' is independently selected from an alkyl group having 1 to 4 carbon atoms; - R 1 and R 2 , equal to or different from each other, are independently selected from an alkyl group having 1 to 6 carbon atoms; - R 3 is independently selected from hydrogen; an alkyl group having 1 to 4 carbon atoms; -C(O)-R α wherein R α is an alkyl group having 1 to 4 carbon atoms;; - R' is independently selected from an alkyl group having 1 to 4 carbon atoms; - R 1 and R 2 , equal to or different from each other, are independently selected from an alkyl group having 1 to 6 carbon atoms; (ii) at least one fertilizer [fertilizer (Z), herein after], wherein the fertilizer (Z) is an organic fertilizer [organic fertilizer (Z O ), herein after] or an organo-mineral fertilizer [fertilizer (Z OM ), herein after], wherein said organic fertilizer (Z O ) and organo-mineral fertilizer (Z OM ) comprise a weight ratio of nitrogen atoms to phosphorus atoms and potassium atoms respectively and/or a weight ratio of potassium atoms to nitrogen atoms and phosphorus atoms respectively and/or a weight ratio of phosphorus atoms to nitrogen atoms and potassium atoms respectively, which is equal to or at least 2 or mixtures thereof; (iii) optionally at least one additional ingredient [ingredient (I F ), herein after]
A computer implemented method of modifying a 2D image representing a 3D scene in order to preserve perceptual constancy of objects in the scene the method including the steps: processing an image of a 3D scene to generate an unmodified view of the 3D scene and one or more objects within the scene, wherein the unmodified view of the 3D scene and the one or more objects are generated using a standard geometry, the standard geometry including linear or curvilinear perspective; selecting one or more objects from within the 3D scene; determining a perceptually constant view of the one or more objects; comparing the perceptually constant view of the one or more objects with the unmodified view of the one or more objects; interpolating one or more stages between the unmodified view and perceptually constant view of the one or more objects; selecting an interpolation stage for the one or more objects; generating a new view of the 3D scene with the selected interpolated one or more objects; and, projecting and rendering the new view of the 3D scene into a 2D image onto a display. processing an image of a 3D scene to generate an unmodified view of the 3D scene and one or more objects within the scene, wherein the unmodified view of the 3D scene and the one or more objects are generated using a standard geometry, the standard geometry including linear or curvilinear perspective; selecting one or more objects from within the 3D scene; determining a perceptually constant view of the one or more objects; comparing the perceptually constant view of the one or more objects with the unmodified view of the one or more objects; interpolating one or more stages between the unmodified view and perceptually constant view of the one or more objects; selecting an interpolation stage for the one or more objects; generating a new view of the 3D scene with the selected interpolated one or more objects; and, projecting and rendering the new view of the 3D scene into a 2D image onto a display.
Device for producing three-dimensional objects by successively solidifying layers of a build material that can be solidified using radiation on the positions corresponding to the respective cross-section of the object, comprising - a housing comprising a process chamber, - a build container housed therein, - an irradiation device for irradiating layers of the build material on the positions corresponding to the respective cross-section of the object, - an application device for applying the layers of the build material onto a support device within the build container or a previously formed layer, - a metering device for supplying the build material, wherein the application device comprises a coater element which distributes the build material delivered by the metering device as a thin layer in an application area along a linear application movement, characterized in that the coater element can perform an evasive return movement (A,R,Z) at the end of a coating process for a layer when returning the coater element to a coating starting position, in which the coater element does not cross the scanner beam spatial area between the irradiation device and an applied layer, wherein - the coater element is supported pivotably about at least one axis on one side and/or - the evasive return movement (A, R, Z) includes a pivot movement, in which the coater element is guided rotatably about a pivot axis outside the build surface to be exposed. - a housing comprising a process chamber, - a build container housed therein, - an irradiation device for irradiating layers of the build material on the positions corresponding to the respective cross-section of the object, - an application device for applying the layers of the build material onto a support device within the build container or a previously formed layer, - a metering device for supplying the build material, wherein the application device comprises a coater element which distributes the build material delivered by the metering device as a thin layer in an application area along a linear application movement, characterized in that the coater element can perform an evasive return movement (A,R,Z) at the end of a coating process for a layer when returning the coater element to a coating starting position, in which the coater element does not cross the scanner beam spatial area between the irradiation device and an applied layer, wherein - the coater element is supported pivotably about at least one axis on one side and/or - the evasive return movement (A, R, Z) includes a pivot movement, in which the coater element is guided rotatably about a pivot axis outside the build surface to be exposed.