mhurhangee/ep-ind-claims huggingface dataset:
A vacuum gripper, comprising: a main body; a plurality of first vacuum pads (35a-35h) attached directly or indirectly to the main body and configured to suction an uppermost workpiece among a plurality of stacked workpieces in a state in which the first vacuum pads (35a-35h) make contact with positions on a surface of the uppermost workpiece; a slider configured to slide in an outward direction of the main body; and a second vacuum pad attached to the slider; the vacuum gripper being characterized by further comprising: a sensor attached to the slider and configured to detect an end portion of the uppermost workpiece when the slider slides to protrude in the outward direction of the main body while the first vacuum pads (35a-35h) are suctioning the uppermost workpiece; wherein the second vacuum pad is configured to hold up the end portion of the uppermost workpiece by suctioning the uppermost workpiece in a state in which the second vacuum pad makes contact with a position outside the positions at which the first vacuum pads (35a-35h) make contact on a same surface of the uppermost workpiece while the sensor detects the end portion of the uppermost workpiece and the slider is stopped. a main body; a plurality of first vacuum pads (35a-35h) attached directly or indirectly to the main body and configured to suction an uppermost workpiece among a plurality of stacked workpieces in a state in which the first vacuum pads (35a-35h) make contact with positions on a surface of the uppermost workpiece; a slider configured to slide in an outward direction of the main body; and a second vacuum pad attached to the slider; the vacuum gripper being characterized by further comprising: a sensor attached to the slider and configured to detect an end portion of the uppermost workpiece when the slider slides to protrude in the outward direction of the main body while the first vacuum pads (35a-35h) are suctioning the uppermost workpiece; wherein the second vacuum pad is configured to hold up the end portion of the uppermost workpiece by suctioning the uppermost workpiece in a state in which the second vacuum pad makes contact with a position outside the positions at which the first vacuum pads (35a-35h) make contact on a same surface of the uppermost workpiece while the sensor detects the end portion of the uppermost workpiece and the slider is stopped. a sensor attached to the slider and configured to detect an end portion of the uppermost workpiece when the slider slides to protrude in the outward direction of the main body while the first vacuum pads (35a-35h) are suctioning the uppermost workpiece; wherein the second vacuum pad is configured to hold up the end portion of the uppermost workpiece by suctioning the uppermost workpiece in a state in which the second vacuum pad makes contact with a position outside the positions at which the first vacuum pads (35a-35h) make contact on a same surface of the uppermost workpiece while the sensor detects the end portion of the uppermost workpiece and the slider is stopped.
A touch apparatus (100, 100A~ 100J), comprising: a plurality of first sensing electrodes, extending along a first direction (x); a plurality of second sensing electrodes, electrically isolated from the first sensing electrodes, and extending along a second direction (y) different from the first direction (x); a plurality of third sensing electrodes, electrically isolated from the second sensing electrodes, and extending along the first direction (x), wherein the first sensing electrodes, the second sensing electrodes, and the third sensing electrodes are formed at different plurality of film layers respectively, wherein the touch apparatus further comprises a control unit, electrically connected to the first sensing electrodes, the second sensing electrodes, and the third sensing electrodes, characterised in that at a first time point, the control unit is configured to read signals on the first sensing electrodes and signals on the third sensing electrodes at the same time, so as to obtain a first signal difference, wherein the first and third sensing electrodes receive signals sent by a stylus; at a second time point different from the first time point, the control unit is configured to read the signals on the first sensing electrodes and the signals on the third sensing electrodes at the same time, so as to obtain a second signal difference; and the control unit is configured to compare the first signal difference and the second signal difference, so as to determine a change of orientation of the stylus. a plurality of first sensing electrodes, extending along a first direction (x); a plurality of second sensing electrodes, electrically isolated from the first sensing electrodes, and extending along a second direction (y) different from the first direction (x); a plurality of third sensing electrodes, electrically isolated from the second sensing electrodes, and extending along the first direction (x), wherein the first sensing electrodes, the second sensing electrodes, and the third sensing electrodes are formed at different plurality of film layers respectively, wherein the touch apparatus further comprises a control unit, electrically connected to the first sensing electrodes, the second sensing electrodes, and the third sensing electrodes, characterised in that at a first time point, the control unit is configured to read signals on the first sensing electrodes and signals on the third sensing electrodes at the same time, so as to obtain a first signal difference, wherein the first and third sensing electrodes receive signals sent by a stylus; at a second time point different from the first time point, the control unit is configured to read the signals on the first sensing electrodes and the signals on the third sensing electrodes at the same time, so as to obtain a second signal difference; and the control unit is configured to compare the first signal difference and the second signal difference, so as to determine a change of orientation of the stylus.
Air-conditioning device having a heat exchanger at a low-pressure side of the air-conditioning device and a heat exchanger at a high-pressure side of the air-conditioning device, wherein a cooling medium which is located in a cooling circuit of the air-conditioning device at the high-pressure side is under a higher pressure than at the low-pressure side, wherein the heat exchanger at the low-pressure side is arranged in a first housing portion of the air-conditioning device and the heat exchanger at the high-pressure side is arranged in a second housing portion of the air-conditioning device, characterized in that - there is arranged between the first and second housing portions (81, 82) a smoke removal opening which is closed during normal operation of the air conditioning device and which can be opened in the event of a fire and which can enable an air flow from the first housing portion into the second housing portion (81, 82). - there is arranged between the first and second housing portions (81, 82) a smoke removal opening which is closed during normal operation of the air conditioning device and which can be opened in the event of a fire and which can enable an air flow from the first housing portion into the second housing portion (81, 82).
An instrument display system in an aircraft for imaging, on a bit-mapped display formed of a multiplicity of individually addressable pixels at locations throughout the bit mapped display and actuatable to create images on the bit mapped display, aircraft flight information based on a common set of aircraft and environmental sensor data that is entered via a display system input to the display system, said aircraft instrument display system including a video graphics processor; a common processor operatively connected between said video graphics processor and said display system input, said common processor incorporating means for providing both an integrity checking function and a graphics rendering function, said graphics rendering function being arranged to generate images in said bit mapped display, on a display screen via a shared memory of said system and said video graphics processor said integrity checking function being arranged to check directly said images generated by said graphics rendering function for verifying proper functionality of said video graphics processor, said graphics rendering function being arranged to use said common set of aircraft and environmental sensor data provided to said common processor for generating display output information for creating said bit-mapped display via said video graphics processor, said integrity checking function being arranged to use said sensor data for generating a pixel verification map for said bit mapped display, said pixel verification map comprising at least one check pixel, said graphics rendering function being arranged to generate rendering calls to said video graphics processor, said video graphics processor being arranged to generate said bit mapped display images as a graphical display of said aircraft flight information for use by flight crew of the aircraft in operating the aircraft, said integrity checking function being arranged to use said pixel verification map for detecting discrepancies between said check pixel of the pixel verification map against a corresponding rendered pixel of the multiplicity of individually addressable pixels of the bit mapped display.
A laundry machine, particularly of the front loading type, comprising a cabinet with a front panel having a laundry loading/unloading opening, a door for closing the laundry loading/unloading opening, a washing tub accommodated within the cabinet and having an opening in correspondence of the laundry loading/unloading opening, a drum rotatably arranged within the washing tub in such a way that a frontal rim of the drum faces the laundry loading/unloading opening, and a bellows connecting a rim of the laundry loading/unloading opening to the opening of the washing tub, wherein the bellows comprises a first and a second lips (225, 230) protruding towards the rotation axis of said drum, the first lip being closer to the front panel than the second lip and being adapted to hinder the passage of foreign bodies from the drum to the washing tub through a gap between the drum and the washing tub, said second lip being adapted to hinder the passage through said gap of foreign bodies possibly trespassing said first lip, said first lip comprises a first lip end having a distance from said rotation axis greater than the distance of the frontal rim of said drum from said rotation axis, so that said first lip end is close to, but spaced apart from said frontal rim, characterized in that said frontal rim of said drum being located between the first and second lips ( 225, 230).
A method of manufacturing a rotor blade for a wind turbine, the method comprising forming an outer shell portion of the rotor blade at least partially surrounding a cavity; arranging a deformable material in the cavity; melting the deformable material before hardening the deformable material; and hardening the deformable material in the cavity; wherein the shape of the deformable material adapts to the shape of the cavity. forming an outer shell portion of the rotor blade at least partially surrounding a cavity; arranging a deformable material in the cavity; melting the deformable material before hardening the deformable material; and hardening the deformable material in the cavity;
Hearse having a driver's compartment and a transport compartment provided for behind the driver's compartment to accommodate at least one coffin and having a vehicle body, where the vehicle body incorporates a side window on each side of the vehicle in the area of the transport compartment, characterised in that the side window is designed as a decorative window that incorporates a panel in the style of a glass pane and a sight screen to prevent a view into the interior of the transport compartment, where a supporting structure and/or the vehicle body is arranged behind the decorative window.
An amniotic fluid and/or an extract thereof for use in a method for treatment of myocardial ischemic necrosis; wherein the amniotic fluid is derived from chicken eggs at an embryo age of 5-12 days, from duck eggs at an embryo age of 6-15 days, from goose eggs at an embryo age of 6-15 days, or from embryos of rodents at a gestational age of 8-20 days; and wherein the extract does not bind with an ion exchange column at pH 5.8-8.0, and the molecular weight of the components contained in the extract is in the range of 500-1200 Daltons. wherein the amniotic fluid is derived from chicken eggs at an embryo age of 5-12 days, from duck eggs at an embryo age of 6-15 days, from goose eggs at an embryo age of 6-15 days, or from embryos of rodents at a gestational age of 8-20 days; and wherein the extract does not bind with an ion exchange column at pH 5.8-8.0, and the molecular weight of the components contained in the extract is in the range of 500-1200 Daltons.
Burner which is equipped with at least one fuel channel and at least one oxidant channel, which are assigned to a burner housing intended for installation in the wall of a metallurgical treatment chamber and which open out at a common burner mouth, and with an ignition device for igniting a fuel/oxidant mixture that forms upstream of the burner mouth in the treatment chamber, wherein the ignition device has at least one rotatably mounted ignition disc, which is connected via a shaft, and an ignition element, which is pressed along a friction surface against the ignition disc, wherein ignition disc and ignition element are manufactured from in each case different materials, one of which is a spark-striking material and the other of which is a spark-supplying material, characterized in that the burner has a motor to which the ignition disc is connected via the shaft, and in that the ignition disc is mounted on an axle running substantially perpendicular to the burner axis.
A light-beam scanning micro-spectrometry device comprising at least one light source adapted to emit an excitation light beam, a microscope objective arranged along a main optical axis of the micro-spectrometry device, the microscope objective having an object focal plane and an image focal plane, a system for moving the excitation light beam along two spatial directions (X, Y) transverse to the optical axis of the beam, the microscope objective and the movement system being adapted to move the excitation light beam on a sample and an optical system (5, 15) adapted to collect a light beam (30, 70, 72) formed by reflection, scattering and/or transmission of the excitation light beam on the sample, and a spectrometric detection system adapted to receive the light beam (30, 70, 72) formed by reflection, scattering and/or transmission, characterized in that the excitation light beam movement system comprises: a first focusing optical component (M1, L1) adapted to receive and focus the excitation light beam to a focusing point in an intermediate focal plane, another focusing optical component (M3, L3) arranged on an optical path of the beam between the intermediate focal plane and the microscope objective, the other focusing optical component (M3, L3) being adapted to form an image of the intermediate focal plane in the object focal plane or, respectively, in the image focal plane of the microscope objective, and a single scanning mirror arranged on the optical path of the excitation light beam, the scanning mirror being planar and mounted on a stage rotatable about two transverse axes of rotation, the two axes of rotation being in the plane of the scanning mirror, the scanning mirror being adapted to move the focusing point along two transverse directions in the intermediate focal plane in such a way as to move the image of the focusing point (61, 62) along two transverse directions in the object focal plane or, respectively, in the image focal plane of the microscope objective, characterized in that the scanning mirror is arranged on the optical path of the excitation light beam between the first focusing optical component (M1, L1) and the intermediate focal plane.
Operating device for an in particular hand-guided gardening machine, in particular a push-type lawnmower, having at least one actuating unit which is provided for activating at least one drive (12, 42) of the gardening machine and which has at least one first movably mounted actuating element, which is provided for the activation of a standby operating state of the gardening machine, and having at least one setting unit, which has at least one setting element for setting a feed support parameter, wherein, in at least one operating state, the setting unit is provided to automatically reset the feed support parameter of the setting element, characterized in that the setting unit is formed by a rotary sleeve, in particular a rotary handle, which has no stop.
A process for the manufacture of a reflective conductive film comprising: (i) a reflective polymeric substrate comprising a polymeric base layer, a polymeric binding layer and one or more reflective agent(s), wherein the polymeric material of the base layer has a softening temperature T S-B, and the polymeric material of the binding layer has a softening temperature T S-HS; and (ii) a conductive layer comprising a plurality of nanowires, wherein said nanowires are conductive elements having an aspect ratio in the range of 10 to 100,000 and wherein said nanowires are bound by the polymeric matrix of the binding layer such that the nanowires are dispersed at least partially in the polymeric matrix of the binding layer, said process comprising the steps of providing a reflective polymeric substrate comprising a polymeric base layer and a polymeric binding layer; disposing said nanowires on the exposed surface of the binding layer; and heating the composite film to a temperature T 1 wherein T 1 is equal to or greater than T S-HS, and T 1 is at least about 5 °C below T S-B; wherein said reflective conductive film exhibits a reflectance at 540nm of at least 60% and wherein said reflectance is reflectance, measured perpendicular to the surface, of light of wavelength 540nm which is incident at 45° to said surface; and wherein the softening temperature is the minimum temperature at which the heat-seal strength to itself of a layer in said substrate is equal to or higher than 100g/25mm. (i) a reflective polymeric substrate comprising a polymeric base layer, a polymeric binding layer and one or more reflective agent(s), wherein the polymeric material of the base layer has a softening temperature T S-B, and the polymeric material of the binding layer has a softening temperature T S-HS; and (ii) a conductive layer comprising a plurality of nanowires, wherein said nanowires are conductive elements having an aspect ratio in the range of 10 to 100,000 and wherein said nanowires are bound by the polymeric matrix of the binding layer such that the nanowires are dispersed at least partially in the polymeric matrix of the binding layer, said process comprising the steps of providing a reflective polymeric substrate comprising a polymeric base layer and a polymeric binding layer; disposing said nanowires on the exposed surface of the binding layer; and heating the composite film to a temperature T 1 wherein T 1 is equal to or greater than T S-HS, and T 1 is at least about 5 °C below T S-B; wherein said reflective conductive film exhibits a reflectance at 540nm of at least 60% and wherein said reflectance is reflectance, measured perpendicular to the surface, of light of wavelength 540nm which is incident at 45° to said surface; and wherein the softening temperature is the minimum temperature at which the heat-seal strength to itself of a layer in said substrate is equal to or higher than 100g/25mm.
Method for the recovery and regeneration of metal powders in EBM (Electron Beam Melting) applications, comprising a step for recovery of weakly sintered powders inside a cleaning chamber including at least one compressed-air nozzle for supplying powder for sandblasting three-dimensional objects obtained by means of EBM sintering of said metal powders, wherein a path for recovery and regeneration of said powders is included, said path comprising at least a first buffer tank inside which the regenerated powders are deposited, and wherein metal powders (ELI, ELI*) with a predetermined oxygen content of less than 0.12% by weight are supplied at an access point along said recovery and regeneration path, and wherein a second buffer tank is connected downstream of and supplied by the first buffer tank for topping up one or more hoppers or tanks of a corresponding EBM sintering apparatus, and wherein the regenerated powders of said second buffer tank undergo certification of the percentage oxygen content.
A changeover device for an intermittent packaging machine with wrapping material constituted by a flexible film for successive welding, forming and work operations of envelopes for containing the packed product, the machine comprising a plurality of mobile stations at adjustable interdistances, which stations are suitable for performing, in succession, operations of welding, forming and processing of the envelopes, even where the envelopes are of different formats, each of which stations is constituted by a substantially vertically-arranged frame, slidably positioned on fixed guide rails, characterised in that each single station is provided with a brake group able to maintain a single station blocked in a predetermined position along all the work line and in that adjustment of the interdistance between the stations is realised by means of a motorised shuttle which moves by action of a linear actuator along the work line, the shuttle being provided: - with a sensor connected to an appropriate software control program for recognising each single station and a relative position thereof, - with an engaging device of the station able to move the station during the adjustment steps, and - with a brake release device for disengaging the brake so as to enable translation of each single station and return each single station into the blocked position once adjustment is complete. - with a sensor connected to an appropriate software control program for recognising each single station and a relative position thereof, - with an engaging device of the station able to move the station during the adjustment steps, and - with a brake release device for disengaging the brake so as to enable translation of each single station and return each single station into the blocked position once adjustment is complete.
A trailer for a lugger train with a pick-up region for a carriage to be carried along and with a lifting device, by which the carriage located in the pick-up region can be lifted, characterised in that the pick-up region comprises at least one pick-up profile connected to the lifting device crosswise to the long side direction of the trailer and having a groove, wherein when the lifting device is in the lowered condition, the carriage can be inserted into the groove or pushed out of it with a holding profile, and can be lifted in the inserted condition via the lifting device.