mhurhangee/ep-ind-claims huggingface dataset:
A cooler apparatus for cooling, by using cooling air, a high-temperature granular conveyed material that is deposited to form a layer while conveying the granular conveyed material in a conveying direction, the cooler apparatus comprising: a plurality of cooling grate lines that are arranged adjacently to each other in a width direction orthogonal to the conveying direction, the plurality of cooling grate lines supporting the granular conveyed material via a dead layer formed by a granular buried material having a lower temperature than a temperature of the granular conveyed material, and to move in a reciprocating manner in the conveying direction and a reverse direction thereto to convey the granular conveyed material; and a damming member disposed above at least one of the plurality of cooling grate lines and buried in the layer of the granular conveyed material, characterized in that the damming member is configured to move in the conveying direction and the reverse direction relative to the at least one cooling grate line when the at least one cooling grate line moves in the reciprocating manner, and the damming member is configured such that the granular conveyed material moves onto and beyond the damming member more easily when the at least one cooling grate line moves in the conveying direction relative to the damming member than when the at least one cooling grate line moves in the reverse direction relative to the damming member. a plurality of cooling grate lines that are arranged adjacently to each other in a width direction orthogonal to the conveying direction, the plurality of cooling grate lines supporting the granular conveyed material via a dead layer formed by a granular buried material having a lower temperature than a temperature of the granular conveyed material, and to move in a reciprocating manner in the conveying direction and a reverse direction thereto to convey the granular conveyed material; and a damming member disposed above at least one of the plurality of cooling grate lines and buried in the layer of the granular conveyed material, characterized in that the damming member is configured to move in the conveying direction and the reverse direction relative to the at least one cooling grate line when the at least one cooling grate line moves in the reciprocating manner, and the damming member is configured such that the granular conveyed material moves onto and beyond the damming member more easily when the at least one cooling grate line moves in the conveying direction relative to the damming member than when the at least one cooling grate line moves in the reverse direction relative to the damming member.
A molten metal pouring apparatus comprising a reservoir capable of holding a molten metal, a stirrer disposed in the reservoir, and a rotational drive mechanism drivingly connected to the stirrer, the apparatus being characterized in that the rotational drive mechanism comprises an air motor, in that the apparatus includes a gas supply line connected to an exhaust port of the air motor and communicating with the interior of the reservoir and in that the apparatus includes an inactive gas supply connected to an inlet of the air motor.
A circuit for counting pulses supplied by a circuit having a first terminal providing a first pule signal and a second terminal providing a second pulse signal representing the inverse of the first signal, comprising: a first counter of the pulses of the first pulse signal supplying a first count; a second counter of the pulses of the second pulse signal supplying a second count; and an element for selecting one of the counts; and upstream of each counter, a pulse shaping circuit comprising a flip-flop having an input forced to the high state and having a non-inverted output defining an output supplying a shaped signal, the concerned pulse signal being applied to a clock input of the flip-flop and an inverted output of the flip-flop being connected, via a non-inverting delay element, to a first input of an AND-type logic gate having an output connected to a reset input of the flip-flop. a first counter of the pulses of the first pulse signal supplying a first count; a second counter of the pulses of the second pulse signal supplying a second count; and an element for selecting one of the counts; and upstream of each counter, a pulse shaping circuit comprising a flip-flop having an input forced to the high state and having a non-inverted output defining an output supplying a shaped signal, the concerned pulse signal being applied to a clock input of the flip-flop and an inverted output of the flip-flop being connected, via a non-inverting delay element, to a first input of an AND-type logic gate having an output connected to a reset input of the flip-flop.
A wheelchair for nigh-impassable paths, such as those encountered when mountaineering and practising mountain climbing or climbing, which has a seat carried by a series of wheels (2, 3, 4); a longitudinal front extension that supports: a handle fixed in a position facing the seat a front wheel disposed in front of the seat and which idles; and a push wheel on each side of the seat for self-propulsion; characterized in that it also has two tilted rear wheels, disposed behind the seat, and converging on its rear upper portion. a handle fixed in a position facing the seat a front wheel disposed in front of the seat and which idles; and a push wheel on each side of the seat for self-propulsion;
Method for coding a current block of pixels of an image comprising: - determining (E1 to E4) a prediction block of a current block of an image according to a spatial prediction mode, - determining a residual block from said current block and said prediction block, - transforming and quantizing the residual block according to a quantization step size, and - entropy coding the quantized residual block and an index representative of said spatial prediction mode in a data stream, characterized in that determining the prediction block of the current block comprises: - detecting, in a plurality of spatial prediction modes, redundant spatial prediction modes generating similar prediction blocks, wherein the detection of the redundant spatial prediction modes is carried out from values, in luminance and/or in chrominance, of neighbouring pixels of the current block on which said spatial prediction modes are based, and - generating, for each pair of redundant spatial prediction modes, an additional spatial prediction mode distinct from the spatial prediction modes of said plurality of spatial prediction modes and replacing one of the redundant spatial prediction modes by the additional spatial prediction mode, - determining a prediction block of the current block according to each spatial prediction mode of the plurality of spatial prediction modes, and - selecting one of said prediction blocks. - determining (E1 to E4) a prediction block of a current block of an image according to a spatial prediction mode, - determining a residual block from said current block and said prediction block, - transforming and quantizing the residual block according to a quantization step size, and - entropy coding the quantized residual block and an index representative of said spatial prediction mode in a data stream, - detecting, in a plurality of spatial prediction modes, redundant spatial prediction modes generating similar prediction blocks, wherein the detection of the redundant spatial prediction modes is carried out from values, in luminance and/or in chrominance, of neighbouring pixels of the current block on which said spatial prediction modes are based, and - generating, for each pair of redundant spatial prediction modes, an additional spatial prediction mode distinct from the spatial prediction modes of said plurality of spatial prediction modes and replacing one of the redundant spatial prediction modes by the additional spatial prediction mode, - determining a prediction block of the current block according to each spatial prediction mode of the plurality of spatial prediction modes, and - selecting one of said prediction blocks.
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 53°C or higher and 58°C or less as measured using a differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 53°C or higher and 58°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 53°C or higher and 58°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 53°C or higher and 58°C or less as measured using a differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 53°C or higher and 58°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 53°C or higher and 58°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
A motor vehicle including: - a body, - a mudguard integral with the body, - a fuel flap, said mudguard including a gutter having a collector and a channel, the collector being placed plumb with the fuel flap, said motor vehicle being characterized in that the gutter extends along the mudguard from a transverse wall up to an end of the mudguard, the transverse wall extending on an upper face of the mudguard along an axis Y defining a transverse direction, horizontal and perpendicular to a general direction of movement of the motor vehicle. - a body, - a mudguard integral with the body, - a fuel flap, said mudguard including a gutter having a collector and a channel, the collector being placed plumb with the fuel flap, said motor vehicle being characterized in that the gutter extends along the mudguard from a transverse wall up to an end of the mudguard, the transverse wall extending on an upper face of the mudguard along an axis Y defining a transverse direction, horizontal and perpendicular to a general direction of movement of the motor vehicle.
A process for selective removal of a gaseous product from a gaseous system comprising said product and other components (R1, R2), wherein the gaseous system is admitted to a first environment, which is separated from a second environment by a boundary wall, and a permeation membrane (3, 300) forms at least part of said boundary wall; a spatially non-uniform electric field is generated between a first electrode or first plurality of electrodes (1, 301) located in the first environment and a second electrode or second plurality of electrodes (2, 302) located in the second environment, so that field lines of said non-uniform electric field cross said membrane, and a dielectrophoretic force generated on particles of said gaseous product is a driving force of the permeation through said membrane, an amount of said product being selectively removed from the first environment and collected in the second environment, the particles of said product having a permanent electric dipole moment which is greater than the electric dipole moment of particles of other components (R 1, R 2) of the gaseous system or the particles of said product having a polarizability which is greater than the polarizability of particles of other components (R 1, R 2) of the gaseous system, so that electric dipole moment induced on the particles of said product by the non-uniform electric field is greater than the electric dipole moment induced by the same field on the other components of the system.
A getter structure, comprising: a substrate; a plurality of nucleation sites formed of a seed material on a surface of the substrate; and a plurality of getter material members projecting outwardly from the nucleation sites, wherein the seed material is tungsten, tantalum, titanium-tungsten, vanadium, zirconium, ruthenium, molybdenum, hafnium, chromium, or an oxide thereof; and wherein the getter material is titanium. a substrate; a plurality of nucleation sites formed of a seed material on a surface of the substrate; and a plurality of getter material members projecting outwardly from the nucleation sites, wherein the seed material is tungsten, tantalum, titanium-tungsten, vanadium, zirconium, ruthenium, molybdenum, hafnium, chromium, or an oxide thereof; and wherein the getter material is titanium.
Device for controlling a shadowing system for a motor vehicle, in which a rear window and/or one or more side windows of the vehicle can be shadowed/shaded, comprising: - a camera system for capturing image data BD1 from the head and/or the posture of a driver of the vehicle, - an evaluation device for evaluating the image data BD1 in order to determine a line of sight BR(t) of the driver, either as a function F of a current pose POSE K (t) of the head determined on the basis of the image data BD1 and/or the posture of the driver BR(t) = F(POSE K (t)), and/or as a function F2 of eye positions AP(t) of the driver BR(t) = F2(AP(t)) determined on the basis of the image data BD1, characterised by - a control unit arranged and designed to control the shadowing system in such a way under the following conditions: - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - that a current shadowing/shading of the rear window and/or a current shadowing/shading of the side window in the line of sight BR(t) of the driver is cancelled/disabled. - a camera system for capturing image data BD1 from the head and/or the posture of a driver of the vehicle, - an evaluation device for evaluating the image data BD1 in order to determine a line of sight BR(t) of the driver, either as a function F of a current pose POSE K (t) of the head determined on the basis of the image data BD1 and/or the posture of the driver BR(t) = F(POSE K (t)), and/or as a function F2 of eye positions AP(t) of the driver BR(t) = F2(AP(t)) determined on the basis of the image data BD1, characterised by - a control unit arranged and designed to control the shadowing system in such a way under the following conditions: - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - that a current shadowing/shading of the rear window and/or a current shadowing/shading of the side window in the line of sight BR(t) of the driver is cancelled/disabled.
A robotic vehicle, comprising: a processor configured to: generate a pick list from an order, wherein the pick list is a list of items to be picked in a storage facility; and generate from the pick list a route within an electronic map of the storage facility, the robot vehicle being characterized by: the electronic map including locations within the storage facility for storing items arranged as pick faces, wherein the route includes a plurality of pick faces associated with the items of the pick list; a load platform configured to be loaded with the items from the pick list; and a vehicle control system configured to self-navigate the robotic vehicle through the storage facility using the route, including: stopping or slowing at each of the plurality of pick faces to enable loading of the items from the pick list onto the load platform. a processor configured to: generate a pick list from an order, wherein the pick list is a list of items to be picked in a storage facility; and generate from the pick list a route within an electronic map of the storage facility, the robot vehicle being characterized by: the electronic map including locations within the storage facility for storing items arranged as pick faces, wherein the route includes a plurality of pick faces associated with the items of the pick list; generate a pick list from an order, wherein the pick list is a list of items to be picked in a storage facility; and generate from the pick list a route within an electronic map of the storage facility, the robot vehicle being characterized by: the electronic map including locations within the storage facility for storing items arranged as pick faces, wherein the route includes a plurality of pick faces associated with the items of the pick list; a load platform configured to be loaded with the items from the pick list; and a vehicle control system configured to self-navigate the robotic vehicle through the storage facility using the route, including: stopping or slowing at each of the plurality of pick faces to enable loading of the items from the pick list onto the load platform.
An elevator cabin comprising: an elevator cabin structural plate; and an elevator cabin seal system; the elevator cabin structural plate has a bottom surface, a top surface and an edge that integrates the top surface with the bottom surface, and the elevator cabin structural plate being attached to a top portion of an elevator cabin lateral surface; the elevator cabin seal system comprises a first liner comprising a bumper; characterized in that the first liner is attached to the edge of the elevator cabin structural plate wherein the bumper impacts an internal surface of an elevator cylinder; the first liner has a cutout on its back side having a lip directly attached to the edge of the elevator cabin structural plate; and a ledge of the first liner is attached to the bottom surface of the elevator cabin structural plate, the ledge being proximal to the lip. an elevator cabin structural plate; and an elevator cabin seal system; the elevator cabin structural plate has a bottom surface, a top surface and an edge that integrates the top surface with the bottom surface, and the elevator cabin structural plate being attached to a top portion of an elevator cabin lateral surface; the elevator cabin seal system comprises a first liner comprising a bumper; characterized in that the first liner is attached to the edge of the elevator cabin structural plate wherein the bumper impacts an internal surface of an elevator cylinder; the first liner has a cutout on its back side having a lip directly attached to the edge of the elevator cabin structural plate; and a ledge of the first liner is attached to the bottom surface of the elevator cabin structural plate, the ledge being proximal to the lip.
Vehicle staircase or machine staircase, comprising a support and also tread elements (3, 3a, 3b), wherein, upon the action of a weight force on a tread element (3, 3a, 3b), a distance of at least one tread element from the ground can be reduced, wherein, to set a speed of the movement of the at least one tread element (3, 3a, 3b), the support comprises at least one assembly, which assembly comprises at least one dynamic braking means, characterized in that the dynamic braking means takes the form of an eddy current brake.
A method for transmitting an acquisition signal in a wireless communication system (100, 200, 1200, 1300), comprising: generating a plurality of symbols of an acquisition signal, the acquisition signal associated with timing information for an access terminal to communicate with a base station; assigning transmission of the acquisition signal to a number of subcarriers that is less than all of a bandwidth of a subset of a plurality of carriers available for communication, the subset comprising more than one carrier of the plurality of carriers and less than all the carriers of the plurality of carriers, wherein each carrier of the plurality of carriers corresponds to a substantially non-overlapping portion of an available bandwidth in the wireless communication system (100, 200, 1200, 1300) or in a sector of the wireless communication system; and transmitting the acquisition signal to the access terminal over the assigned subcarriers. generating a plurality of symbols of an acquisition signal, the acquisition signal associated with timing information for an access terminal to communicate with a base station; assigning transmission of the acquisition signal to a number of subcarriers that is less than all of a bandwidth of a subset of a plurality of carriers available for communication, the subset comprising more than one carrier of the plurality of carriers and less than all the carriers of the plurality of carriers, wherein each carrier of the plurality of carriers corresponds to a substantially non-overlapping portion of an available bandwidth in the wireless communication system (100, 200, 1200, 1300) or in a sector of the wireless communication system; and transmitting the acquisition signal to the access terminal over the assigned subcarriers.
A method of sky segmentation, comprising receiving a first image; detecting a plurality of edges (410, 420, 430) in the first image; connecting the edges (410, 420, 430); identifying a largest contour in the first image based at least partially upon the connected edges (410, 420, 430); determining a convex hull of the largest contour; and generating a second image comprising the convex hull. receiving a first image; detecting a plurality of edges (410, 420, 430) in the first image; connecting the edges (410, 420, 430); identifying a largest contour in the first image based at least partially upon the connected edges (410, 420, 430); determining a convex hull of the largest contour; and generating a second image comprising the convex hull.
Balcony laundry dryer having an additional function, wherein the balcony laundry dryer has a multiplicity of parallel laundry holders arranged in a frame, wherein the frame is configured as a frame of the balcony laundry dryer, wherein, furthermore, the balcony laundry dryer comprises a table surface, wherein the table surface has clips distributed at points on its underside, via which clips the table surface is able to be reversibly clip-fastened onto the balcony laundry dryer in a manner at least partially covering the laundry holders, characterized in that, with the table surface clip-fastened on, the clips are arranged in a manner engaging around only laundry holders and the frame is arranged in a manner slightly overtopping the table surface, with the result that the table surface is secured laterally against being pushed out both by a flush-encircling and upwardly terminating frame and by the clips on the underside.