mhurhangee/patent-ind-claim-en huggingface dataset:
Safety socket with a central shaft for a safety plug, with a current, a neutral and an earth conductor, which are arranged in the central shaft, wherein the shaft and the safety plug are dimensionally adapted to one another, with - an upper locking plate with openings for the plug contacts of a safety plug, - a lower locking plate with openings for the plug contacts of a safety plug and with a reset spring, - a locking element , which is arranged between the upper locking plate and the lower locking plate and covers the openings of the lower locking plate with a locking bar running along the line of the plug contacts, wherein the locking element is horizontally movable by the contacts of a safety plug and releasing the openings of the lower locking plate and is able to be reset to the starting position by the reset spring, - a contact take-up , arranged in the central shaft, for the contact sleeves for the plug contacts of a safety plug and earth conductor contacts , characterised by - a cover for concealing the contact sleeves, which is split centrally along the line of the plug contacts into two halves, wherein the cover is movable under the pressure of a safety plug in a vertical direction, the upper locking plate is vertically movable together with the cover and the lower locking plate is vertically movable together with the cover and the upper locking plate . - an upper locking plate with openings for the plug contacts of a safety plug, - a lower locking plate with openings for the plug contacts of a safety plug and with a reset spring, - a locking element , which is arranged between the upper locking plate and the lower locking plate and covers the openings of the lower locking plate with a locking bar running along the line of the plug contacts, wherein the locking element is horizontally movable by the contacts of a safety plug and releasing the openings of the lower locking plate and is able to be reset to the starting position by the reset spring, - a contact take-up , arranged in the central shaft, for the contact sleeves for the plug contacts of a safety plug and earth conductor contacts , characterised by - a cover for concealing the contact sleeves, which is split centrally along the line of the plug contacts into two halves, wherein the cover is movable under the pressure of a safety plug in a vertical direction, the upper locking plate is vertically movable together with the cover and the lower locking plate is vertically movable together with the cover and the upper locking plate .
Apparatus for the targeted application of flowable material to be scattered , such as seed, wherein the apparatus comprises a material application device having a housing having at least one internal guide surface and at least one exit opening for the exit of the material to be scattered , and a swirl device , arranged in the housing , for swirling the material to be scattered , characterised in that the housing of the material application device is cylindrical and has a circumferential cylindrical wall having an inner side and an outer side , and an exit opening which in the operating position is at the bottom, wherein the inner side of the circumferential cylindrical wall serves as the guide surface for the material to be scattered in order to direct the material to be scattered in the direction towards the bottom exit opening , there is provided and coupled with the swirl device at least one device for accelerating the material to be scattered in the form of an air stream, by means of which the material to be scattered is transportable or is transported, the swirl device serves to distribute the material to be scattered over the cross section of the housing and of the guide surface of the housing and comprises at least one baffle plate for deflecting and reducing the speed of travel of the material to be scattered , and the at least one guide surface of the housing of the material application device is so arranged relative to the at least one exit region of the material to be scattered from the swirl device that the material to be scattered , on exiting the swirl device , strikes the at least one guide surface , is deflected and limited in respect of its scatter circle, and the material to be scattered exits the material application device in a flowing manner in a region delimited by the diameter (d) of the at least one exit opening of the housing of the material application device for the areally delimited and uniform application of the material to be scattered to an area of ground beneath the material application device .
A security communication method, characterized by comprising: sending (S202), by a first station, a first medium access control, MAC, frame to a second station, wherein the first MAC frame carries a first link number and an indicating field, the first link number is used for identifying the identities of the first station and the second station, and the indicating field indicates, when set to a particular value, that the first MAC frame carries the first link number; receiving (S203), by the first station, a second MAC frame sent by the second station, wherein the second MAC frame carries a second link number and an indicating field, the second link number is used for identifying the identities of the first station and the second station, and the indicating field indicates, when set to a particular value, that the second MAC frame carries the second link number; wherein the indicating field is an address field of the first MAC frame and the second MAC frame; being the first MAC frame and the second MAC frame of the standard 802.11 format. sending (S202), by a first station, a first medium access control, MAC, frame to a second station, wherein the first MAC frame carries a first link number and an indicating field, the first link number is used for identifying the identities of the first station and the second station, and the indicating field indicates, when set to a particular value, that the first MAC frame carries the first link number; receiving (S203), by the first station, a second MAC frame sent by the second station, wherein the second MAC frame carries a second link number and an indicating field, the second link number is used for identifying the identities of the first station and the second station, and the indicating field indicates, when set to a particular value, that the second MAC frame carries the second link number; wherein the indicating field is an address field of the first MAC frame and the second MAC frame; being the first MAC frame and the second MAC frame of the standard 802.11 format.
A windshield wiper structure , comprising: a hooking seat ; and a carrying seat , combined on a bottom side of the hooking seat and comprising a carrying board and a carrying frame connected with the carrying board , the carrying board comprising a through slot , and the carrying frame comprising an accommodating slot ; an elastic piece , inserted in the through slot and extended to two sides of the carrying seat ; a waterproof cover , comprising a shell , an inner space defined in the shell and an outer space defined outside the shell , wherein the carrying seat is inserted in the inner space ; and a rubber wiper , comprising a piercing strip and a scraping strip connected to the piercing strip , wherein the piercing strip is inserted in the outer space , and the scraping strip is exposed from the waterproof cover , wherein a pair of end plugs are assembled on two ends of the shell and sealing the inner space ; and wherein the end plugs comprises an inner end plug and an outer end plug , and the inner end plug is bonded on the shell , and the outer end plug is adapted to sheathe the inner end plug . a hooking seat ; and a carrying seat , combined on a bottom side of the hooking seat and comprising a carrying board and a carrying frame connected with the carrying board , the carrying board comprising a through slot , and the carrying frame comprising an accommodating slot ; an elastic piece , inserted in the through slot and extended to two sides of the carrying seat ; a waterproof cover , comprising a shell , an inner space defined in the shell and an outer space defined outside the shell , wherein the carrying seat is inserted in the inner space ; and a rubber wiper , comprising a piercing strip and a scraping strip connected to the piercing strip , wherein the piercing strip is inserted in the outer space , and the scraping strip is exposed from the waterproof cover , wherein a pair of end plugs are assembled on two ends of the shell and sealing the inner space ; and wherein the end plugs comprises an inner end plug and an outer end plug , and the inner end plug is bonded on the shell , and the outer end plug is adapted to sheathe the inner end plug .
Method for predicting pressure oscillations in a vehicle tyre , wherein the vehicle tyre is rotatably mounted on a test bench rim via a wheel bearing, wherein the interior of the vehicle tyre is pressurized by means of a fluid, wherein a wheel load is applied to the vehicle tyre , wherein the vehicle tyre is accelerated to a final speed according to a predefinable speed ramp, wherein the fluid experiences an oscillation excitation in accordance with a tyre speed, and wherein the fluid reacts to the oscillation excitation with a pressure oscillation, wherein a force acting on the wheel bearing from the vehicle tyre on account of the pressure oscillation is continuously captured, and a data set describing the force against the tyre speed and against a frequency is generated by subjecting a time signal of the speed ramp to a Fourier transform, wherein the time signal is a change in the captured tyre force over time while running through the speed ramp, and a reference data set is generated in a similar manner using a vehicle rim instead of the test bench rim.
A method to control gloss of an ink composition, the method comprising: controlling the gloss of the ink composition comprising: a mono-functional monomer component comprising approximately 60 to 85 percent by weight of the ink composition; a photo-initiator component comprising approximately 8 to 18 percent by weight of the ink composition; and an additive component comprising no more than 2 percent by weight of the ink composition, the ink composition having a viscosity not greater than 20 centipoise at 45°C, and the ink composition having a degree of gloss in a range of approximately 10-100 gloss units at a measurement angle of 85°, by : producing the degree of gloss above 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy equal to or less than 50 mJ /cm 2 : producing the degree of gloss below 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy of greater than 100 mJ/cm 2 . controlling the gloss of the ink composition comprising: a mono-functional monomer component comprising approximately 60 to 85 percent by weight of the ink composition; a photo-initiator component comprising approximately 8 to 18 percent by weight of the ink composition; and an additive component comprising no more than 2 percent by weight of the ink composition, the ink composition having a viscosity not greater than 20 centipoise at 45°C, and the ink composition having a degree of gloss in a range of approximately 10-100 gloss units at a measurement angle of 85°, a mono-functional monomer component comprising approximately 60 to 85 percent by weight of the ink composition; a photo-initiator component comprising approximately 8 to 18 percent by weight of the ink composition; and an additive component comprising no more than 2 percent by weight of the ink composition, the ink composition having a viscosity not greater than 20 centipoise at 45°C, and the ink composition having a degree of gloss in a range of approximately 10-100 gloss units at a measurement angle of 85°, by : producing the degree of gloss above 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy equal to or less than 50 mJ /cm 2 : producing the degree of gloss below 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy of greater than 100 mJ/cm 2 . producing the degree of gloss above 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy equal to or less than 50 mJ /cm 2 : producing the degree of gloss below 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy of greater than 100 mJ/cm 2 . producing the degree of gloss below 60 gloss units at the measurement angle of 85°, by exposing the ink composition to a pinning energy of greater than 100 mJ/cm 2 .
A method of testing the function of a vibrating fork level switch configured to self-oscillate in a normal working mode by means of a closed feedback loop, said method comprising interrupting said normal working mode; driving said switch in an open-loop pulsed working mode with a test signal generated by a test facility integrated into said switch; and comparing amplitudes of received test signals at a set of times with predetermined amplitude thresholds at corresponding times, wherein said test signals are generated at a frequency related to a frequency observed in normal mode working prior to interruption thereof.
A method of scanning a surface of an object using a particle beam, wherein the method comprises: determining a surface portion of the surface of the object, wherein the surface portion is to be scanned; determining initial positions of a set of raster points within the surface portion based on a shape of the surface portion such that the raster points of the set are initially not arranged in a regular two-dimensional array; changing the positions of a subset of the set of raster points such that, in the interior of the surface portion, local deviations of a particle dose from a predetermined target dose occurring when the surface portion is scanned by directing the particle beam to the changed positions of the raster points of the set are smaller than local deviations of a particle dose from the predetermined target dose occurring when the surface portion were scanned by directing the particle beam to the initial positions of the raster points of the set, wherein the changing of the positions of the raster points of the subset is performed such that at least 80% of the raster points located on an edge of the surface portion are not contained in the subset; and then scanning the surface portion by directing the particle beam to the positions of the raster points of the set. determining a surface portion of the surface of the object, wherein the surface portion is to be scanned; determining initial positions of a set of raster points within the surface portion based on a shape of the surface portion such that the raster points of the set are initially not arranged in a regular two-dimensional array; changing the positions of a subset of the set of raster points such that, in the interior of the surface portion, local deviations of a particle dose from a predetermined target dose occurring when the surface portion is scanned by directing the particle beam to the changed positions of the raster points of the set are smaller than local deviations of a particle dose from the predetermined target dose occurring when the surface portion were scanned by directing the particle beam to the initial positions of the raster points of the set, wherein the changing of the positions of the raster points of the subset is performed such that at least 80% of the raster points located on an edge of the surface portion are not contained in the subset; and then scanning the surface portion by directing the particle beam to the positions of the raster points of the set.
A biopolymer crystallization substrate comprising: a noble metal vapor-deposited film having an absorption in a 500 to 1,000 nm wavelength range and formed in all or part of one surface of the substrate, wherein the noble metal vapor-deposited film has an average thickness of 5 to 50 nm, and wherein the noble metal vapor-deposited film is a continuous film with pits formed by vapor deposition in part of the film and surrounded by the continuous film, and the size of the pits, determined as a circle equivalent diameter of the aperture portion, is 200 nm to 5 μm, at least some of the pits have a depth that is more than a half of the average thickness of the noble metal vapor-deposited film, and the noble metal is gold, silver, platinum, and/or an alloy of these, wherein atomic force microscopy (AFM) is used to check the structure of the noble metal vapor-deposited film. a noble metal vapor-deposited film having an absorption in a 500 to 1,000 nm wavelength range and formed in all or part of one surface of the substrate, wherein the noble metal vapor-deposited film has an average thickness of 5 to 50 nm, and wherein the noble metal vapor-deposited film is a continuous film with pits formed by vapor deposition in part of the film and surrounded by the continuous film, and the size of the pits, determined as a circle equivalent diameter of the aperture portion, is 200 nm to 5 μm, at least some of the pits have a depth that is more than a half of the average thickness of the noble metal vapor-deposited film, and the noble metal is gold, silver, platinum, and/or an alloy of these, wherein atomic force microscopy (AFM) is used to check the structure of the noble metal vapor-deposited film.
Intermediate layer to be arranged between a rail and a sleeper , comprising a first region and a second region , wherein, in the mounted state, the first region is arranged below an edge region (RB) of the rail and the second region is arranged below a central region (Z) of the rail , the first region differing from the second region in shape, wherein, in order to differentiate in terms of shape, the first region has a first recess extending over the entire extent of the intermediate layer or the sleeper in the longitudinal direction of the rail and the second region has a second recess , the first recess has a first depth (T1) and the second recess has a second depth (T2), the first depth (T1) being smaller than the second depth (T2), characterised in that several first recesses and several second recesses are provided, the first recesses being arranged at a first distance (Al) from one another and the second recesses being spaced apart at a second distance (A2) from one another, as seen in the mounted state in the transverse direction (QR) of the rail, the first distance (Al) being greater than the second distance (A2). a sleeper , comprising a first region and a second region , wherein, in the mounted state, the first region is arranged below an edge region (RB) of the rail and the second region is arranged below a central region (Z) of the rail , the first region differing from the second region in shape, wherein, in order to differentiate in terms of shape, the first region has a first recess extending over the entire extent of the intermediate layer or the sleeper in the longitudinal direction of the rail and the second region has a second recess , the first recess has a first depth (T1) and the second recess has a second depth (T2), the first depth (T1) being smaller than the second depth (T2), characterised in that several first recesses and several second recesses are provided, the first recesses being arranged at a first distance (Al) from one another and the second recesses being spaced apart at a second distance (A2) from one another, as seen in the mounted state in the transverse direction (QR) of the rail, the first distance (Al) being greater than the second distance (A2).
A box-opening device configured to unfold a folded cardboard box sheet (FB) in which a first side (C11) and a second (C12) side surfaces overlap a third (C13) and a fourth (C14) side surfaces, and to form a square-tube-shaped cardboard box (TB) in which the first side surface (C11), the second side surface (C12), the third side surface (C13), and the fourth side surface (C14) are arranged in this order, the box-opening device comprising: a first grasping part that grasps the first side surface (C11); a first arm that has a second grasping part that grasps the fourth side surface (C14) and changes a posture while the second grasping part grasps the fourth side surface (C14); and a control part that controls a movement of the first arm so that an initial action, in which a gap is formed between the first (C11) and second (C12) side surfaces and the third (C13) and fourth (C14) side surfaces of the folded cardboard box sheet (FB) overlapping each other, and a main action, which is performed after the initial action and in which the cardboard box sheet is formed into a square tube shape, are executed as an action of unfolding the cardboard box sheet; the first arm moving at or slower than a predetermined speed in the initial action, and the first arm moving faster than the predetermined speed in the main action, and the control part controlling the movement of the first arm based on an angle (α) formed by the first side surface (C11) and the fourth side surface (C14) at completion of the initial action, wherein the angle (α) is determined by the control part according to a size of the cardboard box sheet or inputted by an operator. a first grasping part that grasps the first side surface (C11); a first arm that has a second grasping part that grasps the fourth side surface (C14) and changes a posture while the second grasping part grasps the fourth side surface (C14); and a control part that controls a movement of the first arm so that an initial action, in which a gap is formed between the first (C11) and second (C12) side surfaces and the third (C13) and fourth (C14) side surfaces of the folded cardboard box sheet (FB) overlapping each other, and a main action, which is performed after the initial action and in which the cardboard box sheet is formed into a square tube shape, are executed as an action of unfolding the cardboard box sheet; the first arm moving at or slower than a predetermined speed in the initial action, and the first arm moving faster than the predetermined speed in the main action, and the control part controlling the movement of the first arm based on an angle (α) formed by the first side surface (C11) and the fourth side surface (C14) at completion of the initial action, wherein the angle (α) is determined by the control part according to a size of the cardboard box sheet or inputted by an operator.