mhurhangee/ep-ind-claims huggingface dataset:
Method for receiving an input on a touch-sensitive panel, wherein the panel is designed to determine the location of a touch (5, 6) of the panel by the finger of a user, wherein the touch-sensitive panel comprises a tactile threshold, wherein the threshold is arranged such that at least one area of the touch-sensitive panel lies on each of both its sides and wherein the method comprises: detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement (5, 6) of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion. wherein the panel is designed to determine the location of a touch (5, 6) of the panel by the finger of a user, wherein the touch-sensitive panel comprises a tactile threshold, wherein the threshold is arranged such that at least one area of the touch-sensitive panel lies on each of both its sides and wherein the method comprises: detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement (5, 6) of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion. detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement (5, 6) of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion.
Combined agricultural machine comprising at least one seeding unit and a soil-working unit, the seeding unit including a precision seeder element and a chassis, the precision seeder element including a deformable mechanism, the deformable mechanism having two arms (52, 53), a front upright and two front pivots (57, 58), each of the two arms (52, 53) being connected to the front upright by a respective front pivot (57, 58), the chassis having a hitching support, the front upright being mounted on the hitching support, where the axis of the upper front pivot is arranged underneath a horizontal plane (Hb) passing through the lower point of the hitching support, and where the axis of the upper front pivot is arranged in front of a vertical plane (Ha) passing through the hindmost point of the hitching support.
A container inspection device for inspecting containers in a container treatment plant, comprising at least one light fixture (11 to 15) for illuminating containers at a predetermined inspection instant of time for inspecting the containers, the containers being moved by a transport device through the container inspection device, at least one recording unit (21 to 24) for recording at least one image of the containers, and an electrical line for connecting the at least one light fixture (11 to 15) to an electrical energy supply and to a bus system, so that the electrical line serves both to supply the at least one light fixture (11 to 15) with electrical energy and to connect with a real time data network, wherein the container inspection device is configured to illuminate the moving containers with the at least one light fixture (11 to 15) such that the at least one recording unit (21 to 24) is able to optically detect one of the moving containers, when the containers are positioned individually and one after the other in a row in a container stream, and wherein the bus system is configured to trigger the illumination of the containers with the at least one light fixture (11 to 15) and to trigger the at least one recording unit (21 to 24) for recording at least one image of the containers.
A metallocene catalyst complex of formula: wherein Mt is Hf or Zr; each X is a sigma-ligand, each R 1 independently are the same or can be different and are a CH 2 -R 7 group, with R 7 being H or linear or branched C 1 - 6 -alkyl group, C 3-8 cycloalkyl group, C 6-10 aryl group, each R 2 is independently a -CH=, -CY=, -CH 2 -, -CHY- or -CY 2 - group, wherein Y is a C 1 - 10 hydrocarbyl group and where n is 2-6, each R 3 and R 4 are independently the same or can be different and are hydrogen, a linear or branched C 1 -C 6 -alkyl group, an OY group or a C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 - 20 aryl group, whereby at least one R 3 per phenyl group and at least one R 4 is not hydrogen, and optionally two adjacent R 3 or R 4 groups can be part of a ring including the phenyl carbons to which they are bonded, R 5 is a linear or branched C 1 -C 6 -alkyl group, C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 -C 20 -aryl group, R 6 is a C(R 8) 3 group, with R 8 being a linear or branched C 1 -C 6 alkyl group, each R is independently a C 1 -C 20 -hydrocarbyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl. Mt is Hf or Zr; each X is a sigma-ligand, each R 1 independently are the same or can be different and are a CH 2 -R 7 group, with R 7 being H or linear or branched C 1 - 6 -alkyl group, C 3-8 cycloalkyl group, C 6-10 aryl group, each R 2 is independently a -CH=, -CY=, -CH 2 -, -CHY- or -CY 2 - group, wherein Y is a C 1 - 10 hydrocarbyl group and where n is 2-6, each R 3 and R 4 are independently the same or can be different and are hydrogen, a linear or branched C 1 -C 6 -alkyl group, an OY group or a C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 - 20 aryl group, whereby at least one R 3 per phenyl group and at least one R 4 is not hydrogen, and optionally two adjacent R 3 or R 4 groups can be part of a ring including the phenyl carbons to which they are bonded, R 5 is a linear or branched C 1 -C 6 -alkyl group, C 7 - 20 arylalkyl, C 7 - 20 alkylaryl group or C 6 -C 20 -aryl group, R 6 is a C(R 8) 3 group, with R 8 being a linear or branched C 1 -C 6 alkyl group, each R is independently a C 1 -C 20 -hydrocarbyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl.
A stator frame of an electrical machine, the stator frame having a first end and a second opposite end, and a flange protruding from the first end and surrounding the first end, the stator frame having cooling fluid channels and cooling fins on the outer surface of the stator frame extending from the first end to the second end, and the stator frame being formed as a single piece, the mounting direction of the stator frame being an upright position in the length direction of the frame, and the first end of the stator frame being underneath the second end of the stator frame, characterized in that the ends of the outer walls of the cooling fluid channels in the first end are connected to the flange and that the cooling fins extend to the junction of the flange and the first end of the stator frame, and that the thickness of the outer walls of the cooling fluid channels increases towards the first end of the stator frame in a length direction of the stator frame.
An endoscope tray comprising an interior for storage of an endoscope, the tray having a lid configured to cover the tray, the lid having an exterior surface having a plurality of square shaped projections, and the tray having a bottom exterior surface having a plurality of square shaped recesses such that the projections of the lid are configured to mate with the square shaped recesses of the bottom exterior surface of the tray, wherein the tray is re-usable and comprises a base and surrounding sidewalls upstanding therefrom and a peripheral lip disposed at least partially around the surrounding sidewalls and extending outwardly therefrom, the tray being formed of a semi-rigid polymeric material capable of withstanding repeated reprocessing and dimensioned to provide support for a flexible medical endoscope coiled in a stress-free state.
Computer-implemented method of segmenting anatomical structures in a 3D medical image representation by applying a trained neural network, wherein applying the trained neural network comprises the steps of - 1) selecting an odd lengthed sequence of 2D slices derived from said 3D medical image representation, - 2) passing said sequence through a contraction block consisting of a number of repeated time-distributed convolution and max-pooling layers, - 3) feeding the output of the contraction block for each of the slices of said sequence of 2D slices to a first bidirectional convolutional Long Short Term Memory, LSTM, block - 4) passing the output of said first bidirectional convolutional LSTM block to an expansion block, consisting of a number of time-distributed convolution and upsampling layers repeated until the spatial resolution of concatenated features reaches a present size, said expansion block being arranged to concatenate features input to said expansion block with corresponding features output by said contraction block, - 5) passing the sequence of features output by said expansion block to a second bidirectional convolutional LSTM block, wherein the sequence is processed bidirectionally and the outputs of processing the sequence in each direction are combined, - 6) applying features resulting from the previous step to a 1×1 convolutional layer, - 7) subjecting each pixel of the result of the application of said 1×1 convolutional layer individually to an activation by a sigmoid function so as to obtain a mask in the [0, 1] range resulting in a segmentation mask of the middle slice of said odd lengthed sequence of 2D slices. - 1) selecting an odd lengthed sequence of 2D slices derived from said 3D medical image representation, - 2) passing said sequence through a contraction block consisting of a number of repeated time-distributed convolution and max-pooling layers, - 3) feeding the output of the contraction block for each of the slices of said sequence of 2D slices to a first bidirectional convolutional Long Short Term Memory, LSTM, block - 4) passing the output of said first bidirectional convolutional LSTM block to an expansion block, consisting of a number of time-distributed convolution and upsampling layers repeated until the spatial resolution of concatenated features reaches a present size, said expansion block being arranged to concatenate features input to said expansion block with corresponding features output by said contraction block, - 5) passing the sequence of features output by said expansion block to a second bidirectional convolutional LSTM block, wherein the sequence is processed bidirectionally and the outputs of processing the sequence in each direction are combined, - 6) applying features resulting from the previous step to a 1×1 convolutional layer, - 7) subjecting each pixel of the result of the application of said 1×1 convolutional layer individually to an activation by a sigmoid function so as to obtain a mask in the [0, 1] range resulting in a segmentation mask of the middle slice of said odd lengthed sequence of 2D slices.
A mobile terminal, comprising: a terminal body; a touch screen; a plurality of magnetic sensors (143a, 143b) configured to detect a spatial position of an input device having a magnetic field generating unit; and a controller configured to: display a first graphic object on an edge area of the touch screen corresponding to the detected spatial position of the input device when the spatial position of the input device is detected adjacent to an edge of the terminal body outside of the touch screen and without contacting the touch screen, and display a second graphic object corresponding to a hidden function on a displayed area of the first graphic object when the detected spatial position of the input device is fixed for a predetermined time. a terminal body; a touch screen; a plurality of magnetic sensors (143a, 143b) configured to detect a spatial position of an input device having a magnetic field generating unit; and a controller configured to: display a first graphic object on an edge area of the touch screen corresponding to the detected spatial position of the input device when the spatial position of the input device is detected adjacent to an edge of the terminal body outside of the touch screen and without contacting the touch screen, and display a second graphic object corresponding to a hidden function on a displayed area of the first graphic object when the detected spatial position of the input device is fixed for a predetermined time. display a first graphic object on an edge area of the touch screen corresponding to the detected spatial position of the input device when the spatial position of the input device is detected adjacent to an edge of the terminal body outside of the touch screen and without contacting the touch screen, and display a second graphic object corresponding to a hidden function on a displayed area of the first graphic object when the detected spatial position of the input device is fixed for a predetermined time.
An elevator brake comprising: a frame part comprising an electromagnet; a moving armature movably supported on the frame part; at least one thrust spring (110a, 110b) arranged between the frame part and the moving armature; a friction lining associated with the moving armature and fitted to engage a braking surface with a normal force originating from the at least one thrust spring (110a, 100b), to brake movement of an elevator car or to hold the elevator car standstill; characterised in that it further comprises: a hollow carrier coupled to or integrated with the moving armature and adapted to bend when a force is introduced to the friction lining; and a sensor system comprising one or more sensors mounted into the elevator brake and adapted to directly measure normal force of the friction lining, wherein at least one sensor of the sensor system is mounted inside the hollow carrier and adapted to directly measure the normal force of the friction lining. a frame part comprising an electromagnet; a moving armature movably supported on the frame part; at least one thrust spring (110a, 110b) arranged between the frame part and the moving armature; a friction lining associated with the moving armature and fitted to engage a braking surface with a normal force originating from the at least one thrust spring (110a, 100b), to brake movement of an elevator car or to hold the elevator car standstill; characterised in that it further comprises: a hollow carrier coupled to or integrated with the moving armature and adapted to bend when a force is introduced to the friction lining; and a sensor system comprising one or more sensors mounted into the elevator brake and adapted to directly measure normal force of the friction lining, wherein at least one sensor of the sensor system is mounted inside the hollow carrier and adapted to directly measure the normal force of the friction lining. a hollow carrier coupled to or integrated with the moving armature and adapted to bend when a force is introduced to the friction lining; and a sensor system comprising one or more sensors mounted into the elevator brake and adapted to directly measure normal force of the friction lining, wherein at least one sensor of the sensor system is mounted inside the hollow carrier and adapted to directly measure the normal force of the friction lining.
A packaging container (1; 100) comprising: a container body (2; 120) having a body portion (25; 122) in which an engaging wall is provided, and a bottom portion (24; 121) provided at a first end of the body portion (25; 122), the body portion (25; 122) has a tapered shape in which a diameter is increased from the first end toward the second end; a funnel part (3; 130) having a funnel shape, and inserted into the body portion (25; 122), and a wide opening end thereof is restricted from moving toward at least the first end by the engaging wall; and a sealing lid (4; 160) sealed to an opening portion which serves as a second end of the body portion (25; 122) while being in contact with a narrow opening end of the funnel part (3; 130) to seal the container body (2; 120). characterized in that the engaging wall is an engaging groove projected outward relative to the tapered shape of the body portion (25; 122), and the funnel part (3; 130) includes an engaging portion having a projection projected outward at a wide opening end thereof, and the projection is engaged with the engaging groove to further restrict a wide opening end of the funnel part (3; 130) from moving toward the second end. a container body (2; 120) having a body portion (25; 122) in which an engaging wall is provided, and a bottom portion (24; 121) provided at a first end of the body portion (25; 122), the body portion (25; 122) has a tapered shape in which a diameter is increased from the first end toward the second end; a funnel part (3; 130) having a funnel shape, and inserted into the body portion (25; 122), and a wide opening end thereof is restricted from moving toward at least the first end by the engaging wall; and a sealing lid (4; 160) sealed to an opening portion which serves as a second end of the body portion (25; 122) while being in contact with a narrow opening end of the funnel part (3; 130) to seal the container body (2; 120). characterized in that the engaging wall is an engaging groove projected outward relative to the tapered shape of the body portion (25; 122), and the funnel part (3; 130) includes an engaging portion having a projection projected outward at a wide opening end thereof, and the projection is engaged with the engaging groove to further restrict a wide opening end of the funnel part (3; 130) from moving toward the second end.
Spectrophotometer comprising - a housing wherein the housing comprises a measuring compartment and a source of monochromatic radiation, comprising a radiation source, a monochromator, - an assembly of polarizers, a measuring channel with an assembly of photodetectors and a lens, a reference channel with an assembly of photodetectors and a lens, - a mirror element configured to divide the light beam coming out of the monochromator into the measuring channel, the reference channel, - a rotary object table with a specimen for measurements, wherein the rotary object table is configured to provide an exposure of the specimen during measurements, wherein - the rotary object table is configured to rotate around its own rotation shaft clockwise or counterclockwise until the moment of intersection of the end face of specimen with the light beam coming out from the monochromator, and - the measuring channel is configured to rotate around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam coming out from the monochromator, characterized in that the measuring channel has a further rotation shaft oriented in parallel to the shaft of the rotary table, the further shaft being different from the rotation shaft of the rotary object table, and the measuring channel assembly is configured to rotate around the further rotation shaft, independent from the rotation around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam entering the lens of the photodetectors of the measuring channel, thereby ensuring the reception of the light beam into the lens of the photodetectors and the light beam passing through the measured specimen or reflected from the measured specimen light beam exactly along the normal, with or without displacement of the light beam. - a housing wherein the housing comprises a measuring compartment and a source of monochromatic radiation, comprising a radiation source, a monochromator, - an assembly of polarizers, a measuring channel with an assembly of photodetectors and a lens, a reference channel with an assembly of photodetectors and a lens, - a mirror element configured to divide the light beam coming out of the monochromator into the measuring channel, the reference channel, - a rotary object table with a specimen for measurements, wherein the rotary object table is configured to provide an exposure of the specimen during measurements, wherein - the rotary object table is configured to rotate around its own rotation shaft clockwise or counterclockwise until the moment of intersection of the end face of specimen with the light beam coming out from the monochromator, and - the measuring channel is configured to rotate around the rotation shaft of the rotary object table clockwise or counterclockwise until the moment of intersection with the light beam coming out from the monochromator,
Method for forming a lithium-ion battery cell comprising a positive electrode material having a level of porosity in the range from 20 to 35% and comprising at least one sacrificial salt, a negative electrode material, a separator and an electrolyte, characterized in that it comprises the following successive steps: (a) heating the cell to a temperature T 1 in the range from 30 to 45°C; (b) charging the cell to a potential less than or equal to 4.8 V, preferably from 4.6 to 4.8 V, more preferably from 4.7 to 4.8 V. (a) heating the cell to a temperature T 1 in the range from 30 to 45°C; (b) charging the cell to a potential less than or equal to 4.8 V, preferably from 4.6 to 4.8 V, more preferably from 4.7 to 4.8 V.
A tank wall including a thermally insulating barrier and a sealing membrane resting on the thermally insulating barrier, the said tank wall being characterized in that the sealing membrane includes a corrugation having a curvilinear portion developed in a curvilinear direction and at least one curvilinear reinforcement device arranged inside the curvilinear portion, between the sealing membrane and the thermally insulating barrier, in such a manner as to reinforce said curvilinear portion, said curvilinear reinforcement device including a plurality of reinforcement sections (42, 43, 44) that each have a profiled shape developed in a rectilinear direction (d2, d3, d4), the curvilinear reinforcement device further including a connection member connecting said reinforcement sections (42, 43, 44) in such a manner as to keep them in a position in which, projected in a plane parallel to the tank wall, the rectilinear direction (d2, d3, d4) of each of the reinforcement sections (42, 43, 44) is oriented tangentially to the curvilinear direction.