mhurhangee/ep-ind-claims huggingface dataset:
Heat exchange system, with - at least one heat exchange chamber with heat exchange chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber and - at least one charging unit for heating the heat transfer fluid, wherein - the heat exchange chamber boundaries comprise at least one first opening for guiding in an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one second opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; - the heat exchange system is equipped with at least one flow adjusting element for adjusting a mass flow of the heat exchange flow of the heat transfer fluid through the heat exchange chamber interior depending on a heat charge status of the heat exchange system; characterised in that the heat exchange system is arranged such that an energy consumption of the heat exchange system during a charging mode is kept approximately constant. - at least one heat exchange chamber with heat exchange chamber boundaries which surround at least one heat exchange chamber interior of the heat exchange chamber and - at least one charging unit for heating the heat transfer fluid, wherein - the heat exchange chamber boundaries comprise at least one first opening for guiding in an inflow of at least one heat transfer fluid into the heat exchange chamber interior and at least one second opening for guiding out an outflow of the heat transfer fluid out of the heat exchange chamber interior; - at least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid; - the heat exchange system is equipped with at least one flow adjusting element for adjusting a mass flow of the heat exchange flow of the heat transfer fluid through the heat exchange chamber interior depending on a heat charge status of the heat exchange system; characterised in that the heat exchange system is arranged such that an energy consumption of the heat exchange system during a charging mode is kept approximately constant.
A method of compressing a compact of at least two different metallic and/or ceramic powdery and/or granular materials (p1, p2, p3), wherein - a first such material (p1; p2) is filled into a die opening of a die (1; 4), - at least two top punches (22, 24) are at least temporarily placed on the material (p1; p2) in the die opening (2; 5), - bottom and top punches (22, 23, 24, 25) together with interposed material columns are adjusted to different heights along a pressing direction (2 - 3; 5 - 6), - after lifting off the top punches (24, 25) the second material (p2; p3) is filled into the die opening, - the material (p1; p2) is finally end-compacted by the at least two top punches (24, 25) (9 - 10), - wherein the material columns are pre-compacted between the bottom and top punches (22, 23, 24, 25) prior to a first adjustment relative to each other (2 - 3). - a first such material (p1; p2) is filled into a die opening of a die (1; 4), - at least two top punches (22, 24) are at least temporarily placed on the material (p1; p2) in the die opening (2; 5), - bottom and top punches (22, 23, 24, 25) together with interposed material columns are adjusted to different heights along a pressing direction (2 - 3; 5 - 6), - after lifting off the top punches (24, 25) the second material (p2; p3) is filled into the die opening, - the material (p1; p2) is finally end-compacted by the at least two top punches (24, 25) (9 - 10), - wherein the material columns are pre-compacted between the bottom and top punches (22, 23, 24, 25) prior to a first adjustment relative to each other (2 - 3).
A material with the γ-argyrodite structure for thermoelectric conversion is characterized by the chemical formula of Cu 8-δ SiS x Se 6-x for 0.1 ≤ x ≤ 3 and 0 ≤ δ ≤ 0.5
An insulation holder, which has a central hollow shank, provided with a stepped longitudinal hole for guiding through a screw, for fastening insulating boards or similar insulating material to a substrate, wherein the rear shank end in the mounting direction is constructed for the rotationally-fixed placement of a mounting tool with a rotationally driving polygonal socket wrench and the hollow shank is provided with at least one screw-surface-like circumferential cutting helix (6; 6a, 6b), and wherein after drilling through the insulating board up to and including into the substrate, the front end of the insulation holder, premounted with the screw, in the mounting direction thereof is placed onto the hole inlet opening of the insulating board for rotational driving into the pilot-drilled hole, characterized in that the insulation holder is constructed with at least one guiding and centring means (7; 7a, 7b), which leads in the mounting direction with respect to the hollow shank, is annular, cuts into the insulating material, and has a larger external diameter (D1, D2) than the pilot-drilled hole and an internal diameter at least corresponding to the nominal thread diameter of the screw, wherein the insulation holder for mounting, premounted with the screw and with the guiding and centring means (7; 7a, 7b) is already placed during the placement of the insulation holder onto the insulating board and concentrically encloses the inlet opening of the pilot-drilled hole.
A method of decoding video data according to a merge mode, the method comprising: obtaining an index value for a current video block coded in the merge mode, the index value identifying, in a subset of candidate predictive video blocks, a selected predictive video block; obtaining a prediction unit shape and prediction unit index for the current video block, wherein the prediction unit index specifies the relative location of the prediction unit within the current video block; generating an ordered set of candidate predictive video blocks based on spatial and temporal neighbors to the current video block, wherein the order of the candidate predictive video blocks is based on the prediction unit shape and prediction unit index; limiting the ordered set of candidate predictive blocks to a subset of the candidate predictive video blocks; selecting a predictive video block from the subset based on the index value; and generating motion information for the current video block according to the merge mode based on motion information of the predictive video block, wherein generating the motion information for the current video block comprises inheriting motion information from the predictive video block. obtaining an index value for a current video block coded in the merge mode, the index value identifying, in a subset of candidate predictive video blocks, a selected predictive video block; obtaining a prediction unit shape and prediction unit index for the current video block, wherein the prediction unit index specifies the relative location of the prediction unit within the current video block; generating an ordered set of candidate predictive video blocks based on spatial and temporal neighbors to the current video block, wherein the order of the candidate predictive video blocks is based on the prediction unit shape and prediction unit index; limiting the ordered set of candidate predictive blocks to a subset of the candidate predictive video blocks; selecting a predictive video block from the subset based on the index value; and generating motion information for the current video block according to the merge mode based on motion information of the predictive video block, wherein generating the motion information for the current video block comprises inheriting motion information from the predictive video block.
A system for analysing, by reflectometry, faults in a transmission line, the system comprising a test signal generator, a coupler for injecting the test signal into the transmission line and sampling the signal back-propagated in the transmission line, a control unit (CTRL) configured to generate a calibration signal, the samples of which are equal to the opposite of the samples of the test signal and to control the phase and the amplitude of the calibration signal, at least one combiner (COMB) for combining the calibration signal and the signal sampled by the coupler into a corrected signal, an amplifier for amplifying the corrected signal and a correlator (CORR) for correlating the corrected signal and the test signal to produce a reflectogram, the control unit (CTRL) being further configured to make the amplitude and the phase of the calibration signal vary so as to eliminate, in the signal sampled by the coupler, at least one echo of the test signal on at least one point of impedance mismatch of the transmission line.
An intermediate layer film for composite glazing units made up of at least a first and at least a second partial film comprising a polyvinyl acetal containing plasticizers, having a different plasticizer content in each case, characterized in that the first partial film is made up of polyvinyl acetal containing plasticizer with a polyvinyl alcohol content of 17 to 22 % by wt. and a plasticizer content of 20 to 27 % by wt. and the second partial film is made of polyvinyl acetal with a polyvinyl alcohol content of 11 to 14 % by wt. and a plasticizer content of 30 to 38 % by wt. and the intermediate layer film has a total plasticizer content of less than 28 % by wt.
A wind turbine system comprising: a wind turbine including turbine blades, a rotor and a control system; a generator coupled to the turbine blades; a generator converter coupled to the generator and connectable to a utility power grid; characterised in that: said control system further comprises a grid loss detector for detecting if the utility power grid loses power; at least one dump resistor coupled to the generator and generator converter, and the wind turbine system being configured such that if the utility power grid loses power, the dump resistor applies an electrical load to the generator converter until a speed of the rotor is reduced. a wind turbine including turbine blades, a rotor and a control system; a generator coupled to the turbine blades; a generator converter coupled to the generator and connectable to a utility power grid; characterised in that: said control system further comprises a grid loss detector for detecting if the utility power grid loses power; at least one dump resistor coupled to the generator and generator converter, and the wind turbine system being configured such that if the utility power grid loses power, the dump resistor applies an electrical load to the generator converter until a speed of the rotor is reduced. said control system further comprises a grid loss detector for detecting if the utility power grid loses power; at least one dump resistor coupled to the generator and generator converter, and the wind turbine system being configured such that if the utility power grid loses power, the dump resistor applies an electrical load to the generator converter until a speed of the rotor is reduced.
A container handling vehicle for picking up storage containers from a three-dimensional grid of an underlying storage system, comprising - a first set of wheels arranged at opposite portions of a vehicle body of the container handling vehicle, for moving the vehicle along a first direction on a rail system of the grid; and - a second set of wheels arranged at opposite portions of the vehicle body, for moving the vehicle along a second direction on the rail system of the grid, the second direction being perpendicular to the first direction; wherein the vehicle body comprises walls on all sides forming a footprint defined by horizontal peripheries in the first and second directions (X,Y) of the vehicle body, and the container handling vehicle further comprises: - a first section and a second section arranged side-by-side such that a centre point of a footprint of the first section is arranged off centre relative a centre point of the footprint of the vehicle body, and - wherein a size ratio of the footprint of the first section relative a footprint of the second section is at least 2:1, and wherein - the first section is configured to accommodate a storage container, - the second section comprises an assembly of motors for driving at least one wheel (201',201",201′′′,201ʺʺ,202',202",202′′′,202ʺʺ) of each of the sets of wheels (22,23). - a first set of wheels arranged at opposite portions of a vehicle body of the container handling vehicle, for moving the vehicle along a first direction on a rail system of the grid; and - a second set of wheels arranged at opposite portions of the vehicle body, for moving the vehicle along a second direction on the rail system of the grid, the second direction being perpendicular to the first direction; - a first section and a second section arranged side-by-side such that a centre point of a footprint of the first section is arranged off centre relative a centre point of the footprint of the vehicle body, and - wherein a size ratio of the footprint of the first section relative a footprint of the second section is at least 2:1, and wherein - the first section is configured to accommodate a storage container, - the second section comprises an assembly of motors for driving at least one wheel (201',201",201′′′,201ʺʺ,202',202",202′′′,202ʺʺ) of each of the sets of wheels (22,23).
A variable area fan nozzle for a high-bypass gas turbine engine comprising: a hinge beam; a first track slider movable relative to said hinge beam along a first interface; a second track slider movable relative to said first track slider along a second interface that includes a bearing assembly; and a VAFN cowl mounted to said second track slider, said second interface includes a male section of said second track slider and a female section of said first track slider, and said bearing assembly is mounted between said male section and said female section, said male section is a semi-circle in cross section, and characterised in that said bearing assembly includes a multiple of ball bearings arranged in rows spaced about the circumference of the male section. a hinge beam; a first track slider movable relative to said hinge beam along a first interface; a second track slider movable relative to said first track slider along a second interface that includes a bearing assembly; and a VAFN cowl mounted to said second track slider, said second interface includes a male section of said second track slider and a female section of said first track slider, and said bearing assembly is mounted between said male section and said female section, said male section is a semi-circle in cross section, and characterised in that said bearing assembly includes a multiple of ball bearings arranged in rows spaced about the circumference of the male section.
Adapter device for connecting at least one electrical device configured for a busbar subsystem (11, 12) to a busbar main system, the adapter device comprising an adapter housing, the adapter housing of the adapter device having, on a rear housing face, a busbar main interface for electromechanically contacting busbars of the busbar main system and, on a front housing face, one or more busbar sub-interfaces, provided for placing the at least one electrical device on the adapter device and for electrically connecting it to the busbar main system via busbars (15, 16), integrated into or attached to the adapter housing, of the relevant busbar subsystem (11, 12) and via electrical conductors contained in the adapter housing, characterised in that the busbars (15, 16), integrated into the adapter housing, of the busbar subsystems (11, 12) each comprise slot busbars, hybrid busbars or solid busbars, and a wall on the front housing face of the adapter housing having, in the region of the busbar sub-interface, through-slots (17, 18) for passing through electrical contacts of an electrical device to be connected, which are introducible into contact slots, positioned below, of a slot busbar or hybrid busbar (15, 16) integrated into the adapter housing for electrically contacting the busbars of the busbar main system. the adapter device comprising an adapter housing, the adapter housing of the adapter device having, on a rear housing face, a busbar main interface for electromechanically contacting busbars of the busbar main system and, on a front housing face, one or more busbar sub-interfaces, provided for placing the at least one electrical device on the adapter device and for electrically connecting it to the busbar main system via busbars (15, 16), integrated into or attached to the adapter housing, of the relevant busbar subsystem (11, 12) and via electrical conductors contained in the adapter housing, characterised in that the busbars (15, 16), integrated into the adapter housing, of the busbar subsystems (11, 12) each comprise slot busbars, hybrid busbars or solid busbars, and a wall on the front housing face of the adapter housing having, in the region of the busbar sub-interface, through-slots (17, 18) for passing through electrical contacts of an electrical device to be connected, which are introducible into contact slots, positioned below, of a slot busbar or hybrid busbar (15, 16) integrated into the adapter housing for electrically contacting the busbars of the busbar main system.
A method for producing cladding or facade glass tiles from waste cathode ray tube glass, characterised in that at first, an anti-sedimentation agent is added to the basic matter comprising at least 95 % by weight of waste cathode ray tube glass and no more than 5 % by weight of a mineral binder having illite content within the range of 22-38 % by weight, mixed to obtain a homogeneous mixture and wet-ground to obtain a particle size distribution, wherein the particle substitute diameter D(v,0.9) determined by laser grain size analysis is contained within the range of 24-32 μm, and the particle substitute diameter D(v.0.5) is contained within the range of 5.26.-8.30 μm, subsequently, magnesium stearate in amount of 0.27-0.30 % by weight with respect to dry basic matter and a binding agent in the amount of 0-0.25 % by weight with respect to dry basic matter are added to the ground mixture, the binding agent being used in form of an aqueous solution, the resulting suspension is spray dried to obtain granules, the granules are placed in moulds and dry pressed to produce tiles, and then the tiles are fired at a temperature ranging from 780 to 900°C. at first, an anti-sedimentation agent is added to the basic matter comprising at least 95 % by weight of waste cathode ray tube glass and no more than 5 % by weight of a mineral binder having illite content within the range of 22-38 % by weight, mixed to obtain a homogeneous mixture and wet-ground to obtain a particle size distribution, wherein the particle substitute diameter D(v,0.9) determined by laser grain size analysis is contained within the range of 24-32 μm, and the particle substitute diameter D(v.0.5) is contained within the range of 5.26.-8.30 μm, subsequently, magnesium stearate in amount of 0.27-0.30 % by weight with respect to dry basic matter and a binding agent in the amount of 0-0.25 % by weight with respect to dry basic matter are added to the ground mixture, the binding agent being used in form of an aqueous solution, the resulting suspension is spray dried to obtain granules, the granules are placed in moulds and dry pressed to produce tiles, and then the tiles are fired at a temperature ranging from 780 to 900°C.
A taped absorbent article comprising: a chassis comprising: a topsheet; a backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and an outer cover nonwoven material joined to the backsheet, wherein the outer cover nonwoven material comprises a first mechanical bond pattern; and a discrete ear laminate joined to the chassis, wherein the discrete ear laminate comprises: a first nonwoven material comprising a garment-facing surface; a second nonwoven material comprising a wearer-facing surface; an elastic member positioned at least partially intermediate the first and second nonwoven materials; and a plurality of ultrasonic bonds; wherein the garment-facing surface of the first nonwoven material comprises a second mechanical bond pattern, and wherein the first and second mechanical bond patterns are substantially the same, and wherein the outer cover nonwoven material is substantially the same as the first nonwoven material. a chassis comprising: a topsheet; a backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and an outer cover nonwoven material joined to the backsheet, wherein the outer cover nonwoven material comprises a first mechanical bond pattern; and a topsheet; a backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and an outer cover nonwoven material joined to the backsheet, wherein the outer cover nonwoven material comprises a first mechanical bond pattern; and a discrete ear laminate joined to the chassis, wherein the discrete ear laminate comprises: a first nonwoven material comprising a garment-facing surface; a second nonwoven material comprising a wearer-facing surface; an elastic member positioned at least partially intermediate the first and second nonwoven materials; and a plurality of ultrasonic bonds; wherein the garment-facing surface of the first nonwoven material comprises a second mechanical bond pattern, and wherein the first and second mechanical bond patterns are substantially the same, and wherein the outer cover nonwoven material is substantially the same as the first nonwoven material. a first nonwoven material comprising a garment-facing surface; a second nonwoven material comprising a wearer-facing surface; an elastic member positioned at least partially intermediate the first and second nonwoven materials; and a plurality of ultrasonic bonds; wherein the garment-facing surface of the first nonwoven material comprises a second mechanical bond pattern, and wherein the first and second mechanical bond patterns are substantially the same, and wherein the outer cover nonwoven material is substantially the same as the first nonwoven material.
An ink aerosol filtration system, comprising: an inlet; a filtration chamber communicated with the inlet and including at least one filter member; and an airflow source communicated with the filtration chamber to generate flow into the inlet, through the filtration chamber and through the at least one filter member, characterised in that the airflow source is controlled to maintain substantially constant pressure at the inlet. an inlet; a filtration chamber communicated with the inlet and including at least one filter member; and an airflow source communicated with the filtration chamber to generate flow into the inlet, through the filtration chamber and through the at least one filter member, characterised in that the airflow source is controlled to maintain substantially constant pressure at the inlet.