mhurhangee/ep-ind-claims huggingface dataset:
A lever assembly comprising: - a control lever having at least one lever coupling portion which delimits a lever rotation seat; - a lever support comprising at least one support tooth (6; 7), said at least one support tooth (6; 7) delimits a tooth seat (8; 9); - an articulation pin received in said tooth seat (8; 9) of at least one support tooth (6; 7) and received in said lever rotation seat, for the rotation of the control lever with respect to said lever support; wherein - said lever assembly comprises at least one cover connected to said lever support, thus at least partly closing at least one among said tooth seat and rotation seat to prevent the exit of the pin from said seats (4, 8), thus rotatably constraining the lever to the support, characterized in that - said at least one support tooth (6; 7) which delimits a tooth seat (8; 9) comprises an insertion seat end and an opposite abutment seat end; and wherein - said opposite abutment seat end comprises a tooth support surface which allows supporting the articulation pin so as to prevent an exit thereof from the side opposite to the insertion seat end or side opposite to said cover and insertion side; and wherein - said opposite abutment seat end comprises a maneuvering opening which prevents the pin from exiting but allows a tool to extract the pin from the seats (4, 8; 9) when the cover has been removed. - a control lever having at least one lever coupling portion which delimits a lever rotation seat; - a lever support comprising at least one support tooth (6; 7), said at least one support tooth (6; 7) delimits a tooth seat (8; 9); - an articulation pin received in said tooth seat (8; 9) of at least one support tooth (6; 7) and received in said lever rotation seat, for the rotation of the control lever with respect to said lever support; wherein - said lever assembly comprises at least one cover connected to said lever support, thus at least partly closing at least one among said tooth seat and rotation seat to prevent the exit of the pin from said seats (4, 8), thus rotatably constraining the lever to the support, characterized in that - said at least one support tooth (6; 7) which delimits a tooth seat (8; 9) comprises an insertion seat end and an opposite abutment seat end; and wherein - said opposite abutment seat end comprises a tooth support surface which allows supporting the articulation pin so as to prevent an exit thereof from the side opposite to the insertion seat end or side opposite to said cover and insertion side; and wherein - said opposite abutment seat end comprises a maneuvering opening which prevents the pin from exiting but allows a tool to extract the pin from the seats (4, 8; 9) when the cover has been removed.
A method of providing a Graphical User Interface, GUI, for changing a reproducing time point of a moving image, the method comprising: reproducing the moving image on a display; displaying a progress bar representing a current reproduction time of the moving image; based on a first input selecting a specific time point on the progress bar being received, displaying a first image representing the specific time point of the moving image and at least one second image representing at least one time point in a specific time period including the specific time point, wherein the first image and the at least one second image are displayed on an upper side of the progress bar, respectively; and based on a second input to select one of the first image and the at least one second image, replay the moving image from a time point corresponding to the selected image. reproducing the moving image on a display; displaying a progress bar representing a current reproduction time of the moving image; based on a first input selecting a specific time point on the progress bar being received, displaying a first image representing the specific time point of the moving image and at least one second image representing at least one time point in a specific time period including the specific time point, wherein the first image and the at least one second image are displayed on an upper side of the progress bar, respectively; and based on a second input to select one of the first image and the at least one second image, replay the moving image from a time point corresponding to the selected image.
Device for pneumatically driving a rotor in a balancing machine, having at least one drive nozzle, which is connectable to a compressed-air line and which serves for generating a driving air stream which can be directed onto the rotor, and at least one braking nozzle, which is connectable to a compressed-air line and which serves for generating a braking air flow which can be directed onto the rotor in a direction opposite to the direction of rotation of the rotor, characterised in that said device also having a base plate which is arrangeable with a spacing to the rotor and on which the nozzles are movably arranged, such that the spacing between the nozzles and the rotor is adjustable.
A helmet shield attaching mechanism comprising a shield attaching base member attaching to a head protecting body, and a shield whose region including one of a left end and a right end and a vicinity thereof rotatably attaches to said shield attaching base member, said shield attaching base member comprising a stationary base member attaching to said head protecting body, and a movable base member attaching to said stationary base member so as to be movable forward and backward substantially in a back-and-forth direction with respect to said stationary base member, and said shield being substantially rotatably supportable by said movable base member, characterized in that said stationary base member comprises stopper means, said movable base member comprises stopped means (104a - 104e) whose position can be held by said stopper means in an at least substantially fully-closed state of said shield, and when a holding position of said stopped means (104a - 104e) whose position is held by said stopper means in the at least substantially fully-closed state of said shield is selected from one of a plurality of portions of said movable base member substantially in the back-and-forth direction, the holding position substantially in the back-and-forth direction of said shield with respect to said head protecting body in the at least substantially fully-closed state can be selected.
A fire extinguishing apparatus comprising: a structure defining a first chamber containing an electrically operable explosive device; a piezoelectric cell electrically coupled to the electrically operable explosive device and capable of producing an electrical output in response to an impact upon the piezoelectric cell; a pressure container with a fire suppressant or fire retardant material therein; a valve assembly arranged to control the release of the contents of the pressure container; and a temperature activated force mechanism including a temperature sensing apparatus for producing a mechanical force at an established temperature sensed by the temperature sensing apparatus; the temperature activated force mechanism being arranged to apply the mechanical force produced by the temperature activated force mechanism to make the impact upon the piezoelectric cell to produce the electrical output to actuate the electrically operable explosive device to cause the valve assembly to open and release the contents of the pressure container. a structure defining a first chamber containing an electrically operable explosive device; a piezoelectric cell electrically coupled to the electrically operable explosive device and capable of producing an electrical output in response to an impact upon the piezoelectric cell; a pressure container with a fire suppressant or fire retardant material therein; a valve assembly arranged to control the release of the contents of the pressure container; and a temperature activated force mechanism including a temperature sensing apparatus for producing a mechanical force at an established temperature sensed by the temperature sensing apparatus; the temperature activated force mechanism being arranged to apply the mechanical force produced by the temperature activated force mechanism to make the impact upon the piezoelectric cell to produce the electrical output to actuate the electrically operable explosive device to cause the valve assembly to open and release the contents of the pressure container.
Target for physical vapour deposition with the following chemical composition: - at least 95 mol% of a mixture of at least two of the following compounds: tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride - 0.01 mol% to 5 mol% of carbon - in particular less than 0.01 mol% of borides other than tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride wherein, in relation to metallic purity, the sum of the mixture of tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride and the carbon is at least 99.8 mol%, and with the following physical properties: - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride of less than 10 μm, preferably less than 3 μm. - at least 95 mol% of a mixture of at least two of the following compounds: tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride - 0.01 mol% to 5 mol% of carbon - in particular less than 0.01 mol% of borides other than tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride wherein, in relation to metallic purity, the sum of the mixture of tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride and the carbon is at least 99.8 mol%, and with the following physical properties: - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride of less than 10 μm, preferably less than 3 μm. - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of tantalum diboride (TaB 2) and/or tungsten boride and/or mixed phases of tantalum diboride (TaB 2) and tungsten boride of less than 10 μm, preferably less than 3 μm.
A component for a CMP tool, the component comprising: a body (301, 413, 501, 607, 619, 703) having a surface that will be exposed to a polishing fluid when the CMP tool is polishing a substrate; and a hydrophobic layer (324, 425, 508, 604, 614, 714) disposed on the surface of the body (301, 413, 501, 607, 619, 703), the hydrophobic layer (324, 425, 508, 604, 614, 714) having a fluid contact angle of at least 90°, wherein the thickness of the hydrophobic layer (324, 425, 508, 604, 614, 714) ranges from 400 nm to 1600 nm. a body (301, 413, 501, 607, 619, 703) having a surface that will be exposed to a polishing fluid when the CMP tool is polishing a substrate; and a hydrophobic layer (324, 425, 508, 604, 614, 714) disposed on the surface of the body (301, 413, 501, 607, 619, 703), the hydrophobic layer (324, 425, 508, 604, 614, 714) having a fluid contact angle of at least 90°, wherein the thickness of the hydrophobic layer (324, 425, 508, 604, 614, 714) ranges from 400 nm to 1600 nm.
A work machine comprising: a bucket; and a controller; characterized in that the controller determines a period in which a parameter related to a load weight in the bucket fluctuates with respect to time, and averages a plurality of the load weights at a plurality of time points within the period to calculate an average load weight; and the controller averages the load weights in a time period from a peak of the parameter to a next peak of the parameter. a bucket; and a controller; characterized in that the controller determines a period in which a parameter related to a load weight in the bucket fluctuates with respect to time, and averages a plurality of the load weights at a plurality of time points within the period to calculate an average load weight; and the controller averages the load weights in a time period from a peak of the parameter to a next peak of the parameter.
A melt-molding material comprising a lubricant and a mixture of two or more types of saponified ethylene-vinyl ester copolymer pellets, the types of pellets differing in their ethylene unit content, wherein the saponified ethylene-vinyl ester copolymer has an ethylene unit content of 20 to 60mol% and wherein the type of saponified ethylene-vinyl ester copolymer pellets having the lowest ethylene unit content in the mixture contains more than 75 % by weight of the lubricant.
A video apparatus, comprising: a conversion section for converting a frame rate of a video using motion estimation and motion compensation, MEMC; a combination section for combining a still image generated without using MEMC with a predetermined area of the converted frame rate video; a display unit to display images according to the still image combined with the converted frame rate video, wherein the still image generated without using MEMC is combined with the video after the frame rate conversion using MEMC is performed on the video; and a control section to control the combination section to provide a desired video to the display unit. a conversion section for converting a frame rate of a video using motion estimation and motion compensation, MEMC; a combination section for combining a still image generated without using MEMC with a predetermined area of the converted frame rate video; a display unit to display images according to the still image combined with the converted frame rate video, wherein the still image generated without using MEMC is combined with the video after the frame rate conversion using MEMC is performed on the video; and a control section to control the combination section to provide a desired video to the display unit.
A system comprising: a display (600,160); an input device; an endoscopic device having a flexible body, steerable tip, and electromechanical interface; an image capturing device positioned at a distal end of the steerable tip of the endoscopic device so as to capture images from a perspective of the distal end; a memory device; and one or more processors (130, 140, 150) adapted to control bending of the flexible body and steering of the steerable tip of the endoscopic device in response to manipulation of the input device, said one or more processors being characterized in that they are further adapted to reference a computer model of a patient to a reference frame, determine a current position and shape of the endoscopic device relative to the reference frame, generate a computer model of the endoscopic device according to the determined current position and shape, capture a plurality of images with the image capturing device, store the plurality of captured images in the memory device, determine and store positions of the image capturing device at the times of such image capturing and display the computer models of the endoscopic device and patient on the display (600,160) and a synthetic view generated by assembling the plurality of captured images into a panoramic image by mosaicing the plurality of images together so as to provide endoscopic navigation assistance to an operator of the system. a display (600,160); an input device; an endoscopic device having a flexible body, steerable tip, and electromechanical interface; an image capturing device positioned at a distal end of the steerable tip of the endoscopic device so as to capture images from a perspective of the distal end; a memory device; and one or more processors (130, 140, 150) adapted to control bending of the flexible body and steering of the steerable tip of the endoscopic device in response to manipulation of the input device, said one or more processors being characterized in that they are further adapted to reference a computer model of a patient to a reference frame, determine a current position and shape of the endoscopic device relative to the reference frame, generate a computer model of the endoscopic device according to the determined current position and shape, capture a plurality of images with the image capturing device, store the plurality of captured images in the memory device, determine and store positions of the image capturing device at the times of such image capturing and display the computer models of the endoscopic device and patient on the display (600,160) and a synthetic view generated by assembling the plurality of captured images into a panoramic image by mosaicing the plurality of images together so as to provide endoscopic navigation assistance to an operator of the system.
A nutritional system comprising a synthetic nutritional composition tailored for an infant of up to 2 months of age wherein the cholesterol concentration is 30.34 to 100.19 μg/ml, and a synthetic nutritional composition tailored for an infant from 2 months of age wherein the cholesterol concentration is 14 to 114.26 μg/ml, wherein, the cholesterol concentration in said synthetic nutritional composition tailored for an infant of up to 2 months of age is higher than that of said synthetic nutritional composition tailored for an infant from 2 months of age, and wherein wherein the synthetic nutritional compositions tailored for an infant of up to 2 months of age comprises 12 to 47 μg/ml more cholesterol than the synthetic nutritional compositions tailored for an infant from 2 months of age, and wherein a nutritional system is a collection of more than one synthetic nutritional composition and wherein the synthetic nutritional composition tailored for an infant of a specific age is infant formula.
Arrangement for topical stimulation of ossification/osteogenesis/soft tissue formation and/or suppression of microbial inflammation, and for osseointegration of implants, comprising: - sensors and actuators, which are arranged in fixed relation to one another in defined regions around a bone defect, tissue defect and/or neuronal defect of traumatic origin in a non-invasive manner and in accordance with a defined basic arrangement, wherein - bioelectrical, biomechanical, biochemical and/or biothermal endogenous signals can be detected by means of the sensors, and - the actuators are suitable for topically applying generated signals, - a signal processing system which has a signal processing unit and a signal generator unit, characterised in that - by means of the signal processing unit the signals detected by the sensor are processed and are supplied to the signal generator unit and by means of the signal generator unit signals to be applied are generated from the signals supplied and are transmitted to the actuators, so that bioelectrical, biomechanical, biochemical and/or biothermal and/or other body-like energy in the form of fields, pulses and gradients is applied topically suppressively or stimulatively. - sensors and actuators, which are arranged in fixed relation to one another in defined regions around a bone defect, tissue defect and/or neuronal defect of traumatic origin in a non-invasive manner and in accordance with a defined basic arrangement, wherein - bioelectrical, biomechanical, biochemical and/or biothermal endogenous signals can be detected by means of the sensors, and - the actuators are suitable for topically applying generated signals, - bioelectrical, biomechanical, biochemical and/or biothermal endogenous signals can be detected by means of the sensors, and - the actuators are suitable for topically applying generated signals, - a signal processing system which has a signal processing unit and a signal generator unit, characterised in that - by means of the signal processing unit the signals detected by the sensor are processed and are supplied to the signal generator unit and by means of the signal generator unit signals to be applied are generated from the signals supplied and are transmitted to the actuators, so that bioelectrical, biomechanical, biochemical and/or biothermal and/or other body-like energy in the form of fields, pulses and gradients is applied topically suppressively or stimulatively. - by means of the signal processing unit the signals detected by the sensor are processed and are supplied to the signal generator unit and by means of the signal generator unit signals to be applied are generated from the signals supplied and are transmitted to the actuators, so that bioelectrical, biomechanical, biochemical and/or biothermal and/or other body-like energy in the form of fields, pulses and gradients is applied topically suppressively or stimulatively.
An actuation system for an aircraft, featuring a guiding device (A11, A12, B11, B12, A21, A22, B21, B22) for an adjustable regulating flap (K; A1, A2; B1, B2) with a load sensor (S-D) and a monitoring device with a function for monitoring the guiding device (A11, A12, B11, B12, A21, A22, B21, B22), wherein an interface to the load sensor (S-D) and an interface to a driving device (P; PA1, PA2, PB1, PB2) for adjusting the regulating flap are integrated into the monitoring device, - wherein the monitoring device is realized in such a way that it determines or receives inflight information that actively signals a predefined flight attitude and/or a predefined operational state of the aircraft, - wherein the monitoring device comprises a comparing function for carrying out a comparison between a load value that corresponds to a sensor value acquired by the load sensor and a limiting value that corresponds to a minimum operational load for the predefined flight attitude and/or the predefined operational state of the aircraft, and - wherein the monitoring function is realized in such a way that it assigns a fault mode to the regulating flap if it is determined that the predefined flight attitude and/or the predefined operational state of the aircraft exists as a result of the comparison showing that the limiting value corresponding to the minimum operational load is not reached, characterized in that the limiting value that corresponds to a minimum operational load has the value of a cruising load at the location of the load sensor that is acquired during the same flight by means of the at least one load sensor (S-D). - wherein the monitoring device is realized in such a way that it determines or receives inflight information that actively signals a predefined flight attitude and/or a predefined operational state of the aircraft, - wherein the monitoring device comprises a comparing function for carrying out a comparison between a load value that corresponds to a sensor value acquired by the load sensor and a limiting value that corresponds to a minimum operational load for the predefined flight attitude and/or the predefined operational state of the aircraft, and - wherein the monitoring function is realized in such a way that it assigns a fault mode to the regulating flap if it is determined that the predefined flight attitude and/or the predefined operational state of the aircraft exists as a result of the comparison showing that the limiting value corresponding to the minimum operational load is not reached,