mhurhangee/ep-ind-claims huggingface dataset:
Box body for a commercial vehicle, wherein the box body has at least one surface element having at least one panel, which, when viewed in the cross-section, has a structure that is symmetrical in relation to a core layer arranged centrally and formed by a foamed plastic, in which, on two opposing sides of the core layer, in each case there is an intermediate layer (8a, 8b) formed by more than one ply and connected in a materially-bonded manner to the core layer and, located on the side of the respective intermediate layer (8a, 8b) facing away from the core layer, in each case there is a rigid structure layer (12a, 12b) connected in a materially-bonded manner to the intermediate layer (8a, 8b), characterised in that the intermediate layers (8a, 8b) have a thickness that is in each case less than the thickness of the structure layers (12a, 12b), in that the intermediate layers (8a, 8b) each comprise two terminal plies (9, 11) consisting of a polymer material and of which the one terminal ply is connected to the structure layer (12a, 12b) in a materially-bonded manner and the other terminal ply is connected to the core layer in a materially-bonded manner, and in that between the terminal plies (9, 11) of the intermediate layer (8a, 8b) is arranged a gas-impermeable barrier ply of the intermediate layer (8a, 8b), which is connected to the terminal plies (9, 11) resting thereon in a materially-bonded manner and has a thickness which is at most equal to the thickness (D9, 11) of the terminal plies (9, 11).
An ink jet recording method comprising: adhering a reaction solution containing a coagulant for coagulating components of an ink composition onto a recording medium; and adhering the ink composition onto the recording medium by discharging the ink composition from an ink jet head, wherein the ink composition is an aqueous ink jet composition which contains a first wax having a melting point of 100°C or higher, a second wax having a melting point of 70°C or lower, and water; wherein the recording medium has non-absorbency or low absorbency; wherein the adhering of the ink composition is performed on the heated recording medium; and characterized in that: in the adhering of the ink composition, a surface temperature of the recording medium is from 30°C to 45°C. adhering a reaction solution containing a coagulant for coagulating components of an ink composition onto a recording medium; and adhering the ink composition onto the recording medium by discharging the ink composition from an ink jet head, wherein the ink composition is an aqueous ink jet composition which contains a first wax having a melting point of 100°C or higher, a second wax having a melting point of 70°C or lower, and water; wherein the recording medium has non-absorbency or low absorbency; wherein the adhering of the ink composition is performed on the heated recording medium; and characterized in that: in the adhering of the ink composition, a surface temperature of the recording medium is from 30°C to 45°C.
A server apparatus for enriching a representation of a parking location, the apparatus comprising a processing resource and a mass storage device, the mass storage device comprising: a plurality of log files received from a plurality of navigation devices, each log file comprising location data and temporal data providing a record of changes of location of a navigation device with time; and a database of parking locations, the processing resource being operably connected to the mass storage device and supporting a plurality of modules comprising: a stay duration analysis module arranged to access the plurality of log files and, for each of the plurality of log files, to analyse the temporal information in the context of the location information to identify one or more periods of time where the navigation device is substantially stationary for at least a predetermined period of time, and the module being further arranged to query the database of parking locations to determine if the location at which the navigation device is substantially stationary corresponds to a parking location in the database; a data binning module arranged to bin the identified one or more periods of time for locations at which the navigation is substantially stationary that correspond to parking locations in the database according to a plurality of time intervals to obtain binned temporal information concerning occupation of the parking locations; and a probability generator module arranged to use the binned temporal information to generate, for each of the parking locations, a probability of the parking location being occupied during each time interval. a stay duration analysis module arranged to access the plurality of log files and, for each of the plurality of log files, to analyse the temporal information in the context of the location information to identify one or more periods of time where the navigation device is substantially stationary for at least a predetermined period of time, and the module being further arranged to query the database of parking locations to determine if the location at which the navigation device is substantially stationary corresponds to a parking location in the database; a data binning module arranged to bin the identified one or more periods of time for locations at which the navigation is substantially stationary that correspond to parking locations in the database according to a plurality of time intervals to obtain binned temporal information concerning occupation of the parking locations; and a probability generator module arranged to use the binned temporal information to generate, for each of the parking locations, a probability of the parking location being occupied during each time interval.
Dishwasher, in particular domestic dishwasher, with a dishwasher cavity for receiving dishes, cutlery or similar items to be washed, which dishwasher cavity can be closed on its front side facing towards a user by a door which can be moved with respect to the dishwasher cavity, wherein at least one door seal is provided to seal a gap between in particular the lower region of the door and the dishwasher cavity and wherein the door seal is fixed at least at an inner region of the door facing towards the dishwasher cavity, the so-called inner door, and at a raised edge region of a base region of the dishwasher cavity located in the vicinity of the front side, the so-called container lip, wherein the door seal is embodied as uniformly continuous at least at its end fixed to the edge region of the dishwasher cavity over its profile transverse to the dishwasher, characterised in that a graduated structure is arranged before the edge region of the cavity towards the front side, which structure protrudes over the height of the upper edge of the edge region in at least one sealing region and ends at a maximum of the same height as the door seal at its connection to the edge region.
Electrical energy store in the form of a rechargeable oxide battery comprising a storage cell, which in turn comprises an air electrode, which is connected to air channels of an air inlet apparatus, and a storage electrode, wherein the storage electrode adjoins a storage structure comprising a porous energy storage medium, wherein electrical contacts rest on the storage electrode, characterized in that contact pins are integrated in the storage structure, said contact pins protruding out of a surface of the storage structure and being in electrical contact with the storage electrode.
Electrical component with the features that: - there is a base body, which comprises a sequence of ceramic layers stacked one on top of the other, - there are a number of inner electrodes (10A, 10B, 15A, 15B), respectively arranged between two ceramic layers, - arranged on the surface of the base body are contact areas (2, 3), which are connected in an electrically conducting manner to the inner electrodes (10A, 10B, 15A, 15B), inner electrodes that are connected to the same contact area forming an electrode stack (10, 15), there is at least one interconnection structure, which interconnects two electrode stacks (10, 15),wherein the at least one interconnection structure directly interconnects two contact areas (2, 3) of the electrode stacks, a first and a second electrode stack overlap with a third electrode stack, wherein the inner electrodes of the first and second electrode stacks are arranged between two inner electrodes of the third electrode stack, characterized in that the at least one interconnection structure is formed from a material that has a higher electrical resistance than the inner electrodes and - the component is formed symmetrically with respect to the at least one interconnection structure and inner electrodes in relation to a first plane and a second plane, the first plane running parallel and the second plane running perpendicular to a ceramic layer. - there is a base body, which comprises a sequence of ceramic layers stacked one on top of the other, - there are a number of inner electrodes (10A, 10B, 15A, 15B), respectively arranged between two ceramic layers, - arranged on the surface of the base body are contact areas (2, 3), which are connected in an electrically conducting manner to the inner electrodes (10A, 10B, 15A, 15B), inner electrodes that are connected to the same contact area forming an electrode stack (10, 15), - the component is formed symmetrically with respect to the at least one interconnection structure and inner electrodes in relation to a first plane and a second plane, the first plane running parallel and the second plane running perpendicular to a ceramic layer.
An osmosis element comprising a central permeate tube and a membrane element, the membrane element having a first part and a second part, the first part having a top edge for location adjacent the central tube, the second part being disposed at the opposite edge, the first part comprising a material to allow water to flow therethrough, the second part comprising at least two adjacent permeate spacers extending from the first part to allow water to flow therethrough, the permeate spacers having a semi-permeable membrane attached to opposed faces of the two adjacent permeate spacers, the first part comprising a barrier extending from the vicinity of the top edge, the central tube comprising an external wall and a longitudinally extending internal separator defining at least one first channel and at least one second channel each extending longitudinally of the central permeate tube, at least one first aperture extending from the at least one first channel though the external wall and at least one second aperture extending from the at least one second channel through the external wall, the first and second apertures being longitudinally offset, wherein the membrane element is wrapped around the central permeate tube such that water may pass between the at least one first channel and the membrane element and the at least one second channel and the membrane element, and the barrier is disposed to prevent water flow through the first part between the at least one first aperture and the at least one second aperture.
A video encoding method for dividing each frame of a video into macroblocks of a predetermined size, and for encoding each of the blocks by combining temporal compression using pixel difference data and motion compensation, an orthogonal transform for transforming spatial information into frequency information, and quantization of an orthogonal transform coefficient, by using a quantization parameter defined corresponding to the blocks of the predetermined size, the video encoding method comprising: further dividing the blocks of the predetermined size into sub-blocks of a size smaller than the predetermined size; deciding a quantization parameter for each of the sub-blocks according to an image property; quantizing the orthogonal transform coefficient with the quantization parameter for each of the sub-blocks; and encoding the decided quantization parameter, wherein each of the sub-blocks for which the quantization parameter is decided has a size equal to or larger than a block size that is a unit of processing in the orthogonal transform, characterized in that a difference between a quantization parameter of an encoding sub-block and a median value of the plurality of encoded quantization parameters for a plurality of blocks that include any one of a sub-block and block of the predetermined size that are adjacent to a left end and an upper end is encoded, wherein the median value is obtained with reference to a plurality of neighboring sub-blocks. further dividing the blocks of the predetermined size into sub-blocks of a size smaller than the predetermined size; deciding a quantization parameter for each of the sub-blocks according to an image property; quantizing the orthogonal transform coefficient with the quantization parameter for each of the sub-blocks; and encoding the decided quantization parameter, wherein each of the sub-blocks for which the quantization parameter is decided has a size equal to or larger than a block size that is a unit of processing in the orthogonal transform, characterized in that a difference between a quantization parameter of an encoding sub-block and a median value of the plurality of encoded quantization parameters for a plurality of blocks that include any one of a sub-block and block of the predetermined size that are adjacent to a left end and an upper end is encoded, wherein the median value is obtained with reference to a plurality of neighboring sub-blocks.
An elevator car comprising: a cab having a top, a bottom, a left side, a right side, a front, and a back, the front having a door; and a frame supporting the cab, wherein; the cab comprises a perimeter shroud protruding above an upper surface of the top and leaving a well exposing a central portion of the upper surface of the top; the perimeter shroud protrudes above the upper surface of the top; and the perimeter shroud has, in vertical section, a curved portion; characterized in that: the elevator car comprises a fan; the perimeter shroud covers the fan; and the fan is positioned to drive an air flow through ports in the perimeter shroud. a cab having a top, a bottom, a left side, a right side, a front, and a back, the front having a door; and a frame supporting the cab, the cab comprises a perimeter shroud protruding above an upper surface of the top and leaving a well exposing a central portion of the upper surface of the top; the perimeter shroud protrudes above the upper surface of the top; and the perimeter shroud has, in vertical section, a curved portion; the elevator car comprises a fan; the perimeter shroud covers the fan; and the fan is positioned to drive an air flow through ports in the perimeter shroud.
A ventilation system, comprising: air supply means configured for supplying air from outdoors to indoors; exhaust means configured for exhausting air from the indoors to the outdoors; an indoor sensor configured to detect one or more of action and a position of a person indoors, indoor sound, and change of indoor air pressure as an indoor pollution influential factor that influences a pollution level of indoor air; outdoor pollution level acquisition means configured for acquiring an outdoor pollution level that is a pollution level of outdoor air; and control means configured for controlling an air supply amount of the air supply means and an exhaust amount of the exhaust means, wherein the air supply amount of the air supply means and the exhaust amount of the exhaust means can be changed independently of each other, and the air supply amount of the air supply means and the exhaust amount of the exhaust means are changed based on influence on the pollution level of the indoor air by pollution inflow from the outdoors to the indoors corresponding to the outdoor pollution level and the air supply amount of the air supply means as well as influence on the pollution level of the indoor air by the indoor pollution influential factor. air supply means configured for supplying air from outdoors to indoors; exhaust means configured for exhausting air from the indoors to the outdoors; an indoor sensor configured to detect one or more of action and a position of a person indoors, indoor sound, and change of indoor air pressure as an indoor pollution influential factor that influences a pollution level of indoor air; outdoor pollution level acquisition means configured for acquiring an outdoor pollution level that is a pollution level of outdoor air; and control means configured for controlling an air supply amount of the air supply means and an exhaust amount of the exhaust means, wherein the air supply amount of the air supply means and the exhaust amount of the exhaust means can be changed independently of each other, and the air supply amount of the air supply means and the exhaust amount of the exhaust means are changed based on influence on the pollution level of the indoor air by pollution inflow from the outdoors to the indoors corresponding to the outdoor pollution level and the air supply amount of the air supply means as well as influence on the pollution level of the indoor air by the indoor pollution influential factor.
A method comprising: forming a Faraday cage around a first structure by fully encapsulating the first structure with at least one second structure to form a hybrid spectral sensor, wherein the first structure is a first quantum dot, wherein the at least one second structure is at least one second quantum dot different from the first quantum dot, wherein the Faraday cage is configured to block one or both of: an excitation radiation from reaching the first quantum dot structure; and a portion of an emitted radiation emitted by the first quantum dot structure; and incorporating the hybrid spectral sensor into a part, such that changes in the structure of the part cause a change in the structure of the Faraday cage. forming a Faraday cage around a first structure by fully encapsulating the first structure with at least one second structure to form a hybrid spectral sensor, wherein the first structure is a first quantum dot, wherein the at least one second structure is at least one second quantum dot different from the first quantum dot, wherein the Faraday cage is configured to block one or both of: an excitation radiation from reaching the first quantum dot structure; and a portion of an emitted radiation emitted by the first quantum dot structure; and an excitation radiation from reaching the first quantum dot structure; and a portion of an emitted radiation emitted by the first quantum dot structure; and incorporating the hybrid spectral sensor into a part, such that changes in the structure of the part cause a change in the structure of the Faraday cage.
An electrode for a lithium secondary battery, the electrode comprising a current collector; a first active material layer formed on the current collector; and a second active material layer formed on the first active material layer, wherein the first active material layer and the second active material layer include, as active materials, an active material A having a D50 particle size of 7 μm to 15 μm and an active material B having a D50 particle size of 2 μm or more to less than 7 μm, the first and second active material layers are different from each other in term of a weight ratio of the active material A: the active material B, and a ratio of the active material A in the second active material layer is higher than that in the first active material layer, and the weight ratio of the active material A: the active material B in the second active material layer is more than 70:30. wherein the first active material layer and the second active material layer include, as active materials, an active material A having a D50 particle size of 7 μm to 15 μm and an active material B having a D50 particle size of 2 μm or more to less than 7 μm, the first and second active material layers are different from each other in term of a weight ratio of the active material A: the active material B, and a ratio of the active material A in the second active material layer is higher than that in the first active material layer, and the weight ratio of the active material A: the active material B in the second active material layer is more than 70:30.
Pneumatic vehicle tyre with sidewalls and with a profiled tread of a directional design such that the pneumatic vehicle tyre can be fitted on the vehicle with a specific rolling direction during forward travel, wherein the tread has within its ground contact area at least one shoulder-side row of tread bars, which is divided into tread bars by transverse grooves and has outside the ground contact area a shoulder flank, in which there extend as a continuation of the transverse grooves, and extending in the radial direction, transverse groove runouts (5, 5'), the depth of which decreases in the direction of the sidewall, wherein the transverse groove runouts (5, 5') are adjoined via a respective vertex point by flank grooves (6, 6', 6''), which extend counter to the rolling direction during forward travel when the pneumatic vehicle tyre is fitted on the vehicle, characterized in that the flank grooves (6, 6', 6'') adjoin at an obtuse angle (α) to the transverse groove runouts (5, 5') and have groove walls (6a, 6b) which extend to the outer side of the shoulder flank, of which one groove wall, located further away from the tread, extends to the outer side of the shoulder flank at a smaller angle (γ') to a perpendicular than the other groove wall. wherein the tread has within its ground contact area at least one shoulder-side row of tread bars, which is divided into tread bars by transverse grooves and has outside the ground contact area a shoulder flank, in which there extend as a continuation of the transverse grooves, and extending in the radial direction, transverse groove runouts (5, 5'), the depth of which decreases in the direction of the sidewall, wherein the transverse groove runouts (5, 5') are adjoined via a respective vertex point by flank grooves (6, 6', 6''), which extend counter to the rolling direction during forward travel when the pneumatic vehicle tyre is fitted on the vehicle, characterized in that the flank grooves (6, 6', 6'') adjoin at an obtuse angle (α) to the transverse groove runouts (5, 5') and have groove walls (6a, 6b) which extend to the outer side of the shoulder flank, of which one groove wall, located further away from the tread, extends to the outer side of the shoulder flank at a smaller angle (γ') to a perpendicular than the other groove wall.