mhurhangee/ep-ind-claims huggingface dataset:
A display apparatus comprising: a display panel; a chassis covering a rear surface of the display panel and including a coupling protrusion protruding towards the surface of the display panel; a reflective sheet including a fixing hole through which the coupling protrusion is inserted, so that the reflective sheet is rested on a front surface of the chassis; a substrate coupled to the chassis with the reflective sheet between the substrate and the chassis, such that the reflective sheet is prevented from being separated from the chassis; and a plurality of light sources mounted on the substrate to irradiate light towards the display panel, wherein the substrate includes a coupling hole in which the coupling protrusion passing through the fixing hole is inserted, wherein the substrate is coupled to the chassis by sliding the coupling protrusion in the coupling hole, and wherein the reflective sheet further includes a plurality of heat dissipation holes respectively corresponding to the plurality of light sources, and the chassis further includes a plurality of heat dissipation grooves on its rear surface, formed by depressing the portions of the chassis corresponding to each of the heat dissipation holes toward the substrate, such that the portions of the chassis are passed through the plurality of heat dissipation holes, respectively, to contact a rear surface of the substrate, thereby transferring heat generated from the substrate to the chassis. a display panel; a chassis covering a rear surface of the display panel and including a coupling protrusion protruding towards the surface of the display panel; a reflective sheet including a fixing hole through which the coupling protrusion is inserted, so that the reflective sheet is rested on a front surface of the chassis; a substrate coupled to the chassis with the reflective sheet between the substrate and the chassis, such that the reflective sheet is prevented from being separated from the chassis; and a plurality of light sources mounted on the substrate to irradiate light towards the display panel, wherein the substrate includes a coupling hole in which the coupling protrusion passing through the fixing hole is inserted, wherein the substrate is coupled to the chassis by sliding the coupling protrusion in the coupling hole, and wherein the reflective sheet further includes a plurality of heat dissipation holes respectively corresponding to the plurality of light sources, and the chassis further includes a plurality of heat dissipation grooves on its rear surface, formed by depressing the portions of the chassis corresponding to each of the heat dissipation holes toward the substrate, such that the portions of the chassis are passed through the plurality of heat dissipation holes, respectively, to contact a rear surface of the substrate, thereby transferring heat generated from the substrate to the chassis.
A discharge system for controlling the discharge of a load through an outlet in a hopper, whereby the discharge system comprises; a cover comprising a first side door and an opposing second side door, whereby the opposing side doors are rotatable between an open position, where the outlet is substantially open and a closed position where the outlet is substantially closed; actuating means for driving the first side door and second side door (D1, D2) between the open position and the closed position; a first spillage barrier rotatably mountable to a first end edge of the outlet, characterised in that the first spillage barrier is slidably coupled to the first side door and the second side door; whereby, the first spillage barrier is driven to slide along the first side door and second side door and thereby rotate between a projected position and a retracted position as the first door and second door are driven to rotate by the actuating means between the open position and the closed position respectively.
An apparatus for sawing cured slipform cast concrete products, which apparatus comprises a frame with wheels (3, 3') for moving the apparatus along a casting bed, and a concrete saw connected movably to the frame, characterized in that the apparatus comprises a brushing unit for cleaning slipform casting bed, wherein the brushing unit is connected to the frame of the apparatus vertically adjustably for allowing the brushing unit to be used in cleaning the upper surface of a cast concrete product on a slipform casting bed, and in that the apparatus further comprises means for attaching ends of pretensioning strands to the apparatus, said means comprising a strand pulling comb.
A method for delivering coordinated signal injections into a utility grid, comprising: receiving spatial and temporal reaches for a plurality of signal injections; selecting times and locations for the plurality of signal injections to be implemented into a utility grid such that the spatial and temporal reaches of the signal injections do not overlap; and implementing the signal injections into the utility grid at the selected times and locations; wherein the spatial reach is computed based on a database of utility grid response to prior signal injections and wherein the temporal reach is computed based on a database of utility grid response to prior signal injections. receiving spatial and temporal reaches for a plurality of signal injections; selecting times and locations for the plurality of signal injections to be implemented into a utility grid such that the spatial and temporal reaches of the signal injections do not overlap; and implementing the signal injections into the utility grid at the selected times and locations; wherein the spatial reach is computed based on a database of utility grid response to prior signal injections and wherein the temporal reach is computed based on a database of utility grid response to prior signal injections.
Valve unit (1, 1') for modulating the pressure in a pneumatic brake system, having a brake pressure inlet, a brake pressure outlet and a venting outlet, together with at least one pneumatically controllable main valve (6, 7) and a pilot valve (8, 9), embodied as a solenoid valve and assigned to the main valve (6, 7), which are arranged in a valve housing (2, 2'), which is subdivided by a plane of division, largely horizontal in the fitted position, into a main housing (11, 11') and a housing cover, wherein the brake pressure inlet, the brake pressure outlet and the venting outlet are arranged in the main housing, the main valve (6, 7) is arranged in the main housing between the brake pressure inlet and the brake pressure outlet with an actuation axis (14, 15) oriented perpendicular to the plane of division, the pilot valve (8, 9) is arranged in the housing cover, and at least one control chamber (51, 52) of the main valve (6, 7) is defined by an inside wall of the housing cover facing the plane of division, characterized in that a bracket element (62.1, 62.2, 62.3) is provided for fixing the housing cover on the main housing (11, 11'), which in the assembled state is fixed to the main housing (11, 11'), and which bears with a largely plane pressure plate generating an elastic prestressing force on a plane outside wall of the housing cover oriented parallel to the plane of division of the valve housing (2, 2').
A test and measurement instrument, comprising: an input port (105/201/301) configured to receive an input signal; one or more divider circuits (205/305) employing a plurality of divide ratios such that each divide ratio scales an event signal indicating events in the input signal by a predetermined integer value; a control system (210/310) configured to: iteratively determine an estimated signal frequency of the event signal, and automatically select a divide ratio for the event signal based on the estimated signal frequency; and a frequency range counter (209/309) configured to count a number of trigger events in the event signal and forward the count to the control system, wherein the control system is further configured to determine an elapsed time result based on the counted number of trigger events, and wherein the control system determines the estimated signal frequency based on the determined elapsed time result. an input port (105/201/301) configured to receive an input signal; one or more divider circuits (205/305) employing a plurality of divide ratios such that each divide ratio scales an event signal indicating events in the input signal by a predetermined integer value; a control system (210/310) configured to: iteratively determine an estimated signal frequency of the event signal, and automatically select a divide ratio for the event signal based on the estimated signal frequency; and iteratively determine an estimated signal frequency of the event signal, and automatically select a divide ratio for the event signal based on the estimated signal frequency; and a frequency range counter (209/309) configured to count a number of trigger events in the event signal and forward the count to the control system, wherein the control system is further configured to determine an elapsed time result based on the counted number of trigger events, and wherein the control system determines the estimated signal frequency based on the determined elapsed time result.
A two-dimensional code generation method, applied to an electronic device, wherein a secure element is disposed in the electronic device, and the method comprises: obtaining, using the secure element, two-dimensional code generation data stored in the secure element when a two-dimensional code generation request is received, wherein the two-dimensional code generation data comprises account data of a user corresponding to the electronic device and timestamp data of the electronic device; generating digest data corresponding to the two-dimensional code generation data based on the two-dimensional code generation data, wherein the digest data is to-be-signed data; obtaining signature data by adding a digital signature to the to-be-signed data based on a predetermined signature algorithm stored in the secure element; and generating a target two-dimensional code based on the two-dimensional code generation data and the signature data. obtaining, using the secure element, two-dimensional code generation data stored in the secure element when a two-dimensional code generation request is received, wherein the two-dimensional code generation data comprises account data of a user corresponding to the electronic device and timestamp data of the electronic device; generating digest data corresponding to the two-dimensional code generation data based on the two-dimensional code generation data, wherein the digest data is to-be-signed data; obtaining signature data by adding a digital signature to the to-be-signed data based on a predetermined signature algorithm stored in the secure element; and generating a target two-dimensional code based on the two-dimensional code generation data and the signature data.
A hydraulic manifold for a hydraulic heating and/or cooling system which comprises a feed conduit and a return conduit, wherein the feed conduit comprises at least one feed connection and the return conduit comprises at least one return connection, for the connection of a load circuit, wherein the manifold is constructed in a modular manner with a main module and at least one load module which is joined onto the main module (102; 202), the main module comprises at least one section of the feed conduit (152; 212) and/or of the return conduit, as well as an electric connection, the at least one load module comprises a section of the feed conduit with a feed connection and a section of the return conduit with a return connection as well as at least one regulating device for regulating the flow through a load circuit which is connected to the feed connection and to the return connection, wherein the main module comprises a circulation pump assembly in the section of the feed conduit or in the section of the return conduit, and the main module comprises a manifold control device which is designed for the control of the circulation pump assembly and of the regulating device in the at least one and preferably in several load modules, characterised in that the manifold control device is integrated into a motor housing of the circulation pump assembly or into an electronics housing of the circulation pump assembly.
A method of separating a phosgene- and hydrogen chloride-comprising stream (5; 35), wherein said method comprises conveying the hydrogen chloride- and phosgene-comprising stream (5; 35) into a distillation column, withdrawing at the bottom of the distillation column a phosgene-comprising stream and withdrawing at the top of the distillation column a hydrogen chloride-comprising stream, wherein at least a portion of the stream withdrawn at the top is compressed and at least partially condensed and at least a portion of the liquid and compressed hydrogen chloride-comprising stream is decompressed and recycled into the top of the distillation column as reflux.
A pyrotechnic circuit breaker, in particular for a motor vehicle, comprising a housing, a current carrying sheet metal with at least two terminal elements as well as a pyrotechnic unit for cutting through at least a part of the current carrying sheet metal, wherein one of the at least two terminal elements of the current carrying sheet metal is formed as an input terminal for a current supply line and the other of the at least two terminal elements is formed as an output terminal for a current discharge line, characterised, in that all terminal elements of the current carrying sheet metal are formed as plug contacts of a plug connection and all terminal elements of the input terminal as well as of the output terminal are arranged on one side in a border area of the current carrying sheet metal and form a plug unit and in that the current carrying sheet metal has at least two sheet metal strips, which are aligned substantially parallel to one another in the operating area of the pyrotechnic unit, wherein one of the at least two sheet metal strips is connected to the input terminal in an electrically conductive manner as part of an input current path and wherein the other of the at least two sheet metal strips is connected to the output terminal in an electrically conductive manner as part of an output current path, wherein the sheet metal strips are connected together outside of the operating area of the pyrotechnic unit, wherein the pyrotechnic unit comprises a hammer element, which is driven towards an anvil element in the case of triggering, and wherein the hammer element is designed such that, in the case of triggering, the two sheet metal strips are struck and cut through by the hammer element in a time-delayed manner.
A station for recovering, recycling and reloading a fluid coolant of a refrigerating module, said station comprising an inner circuit for circulating said fluid coolant, said inner circuit comprising: - a low pressure inlet to be connected to the low-pressure outlet of said refrigerating module, - a separator capable of separating the fluid coolant and the oil recovered from the refrigerating module through the low-pressure inlet, - a condenser capable of condensing the coolant separated by the separator, - a fluid coolant storage tank, - a weighing cell having the tank mounted thereto and which is capable of weighing said tank, - a high pressure outlet to be connected to the high-pressure inlet of the refrigerating module, - a group of solenoid valves connected to the low-pressure inlet, to the separator, to the condenser, to the tank and to the high-pressure outlet in order to enable operation of the station at least in a recovery mode and a reloading mode, the station being characterised in that the separator and the condenser are mounted to the tank. - a low pressure inlet to be connected to the low-pressure outlet of said refrigerating module, - a separator capable of separating the fluid coolant and the oil recovered from the refrigerating module through the low-pressure inlet, - a condenser capable of condensing the coolant separated by the separator, - a fluid coolant storage tank, - a weighing cell having the tank mounted thereto and which is capable of weighing said tank, - a high pressure outlet to be connected to the high-pressure inlet of the refrigerating module, - a group of solenoid valves connected to the low-pressure inlet, to the separator, to the condenser, to the tank and to the high-pressure outlet in order to enable operation of the station at least in a recovery mode and a reloading mode, the station being characterised in that the separator and the condenser are mounted to the tank.
A round column with an adapter rail for attaching structural components to the round column, wherein the adapter rail has a square profile with hooks for engaging in openings of the round column, characterised in that the square profile is open at exactly one its four corners and the free edges of the legs defining the open corner are provided with the hooks, wherein the distance between the free edges of the legs is smaller than the length of a quarter circle chord of the round column.
A biomimetic endodontic cement composition comprising: a Paste A comprising, by weight, about 23-27% calcined and heat treated magnesium oxide, 0.08-1.2% calcium hydroxide, 47-51% zirconium oxide, and 0.08-2.2% bioactive glass in a non-aqueous hydrophilic carrier at about 24-26% by weight; and a Paste B comprising 8-28% milled monobasic calcium phosphate, 50- 60% zirconium oxide, 0.001-0.005% polyacrylic acid or polyamidoamine carboxylate or sulfonic dendrimers in a non-aqueous hydrophilic carrier at about 24-26% by weight; wherein the biomimetic endodontic cement composition is suitable to form a biomimetic endodontic cement by hydration of a mixture of Paste A and Paste B in an aqueous environment, the endodontic cement being biomimetic, radiopaque, and antimicrobial. a Paste A comprising, by weight, about 23-27% calcined and heat treated magnesium oxide, 0.08-1.2% calcium hydroxide, 47-51% zirconium oxide, and 0.08-2.2% bioactive glass in a non-aqueous hydrophilic carrier at about 24-26% by weight; and a Paste B comprising 8-28% milled monobasic calcium phosphate, 50- 60% zirconium oxide, 0.001-0.005% polyacrylic acid or polyamidoamine carboxylate or sulfonic dendrimers in a non-aqueous hydrophilic carrier at about 24-26% by weight; wherein the biomimetic endodontic cement composition is suitable to form a biomimetic endodontic cement by hydration of a mixture of Paste A and Paste B in an aqueous environment, the endodontic cement being biomimetic, radiopaque, and antimicrobial.
Method for producing a Peltier element of a heat exchanger for regulating the temperature of a fluid, which has a flow chamber through which a fluid, the temperature of which is to be regulated, can flow, wherein - the Peltier element has a plurality of alternately arranged p-doped P-semiconductors and n-doped N-semiconductors, - wherein the semiconductors (5, 6) are electrically contacted on their side facing the flow chamber by a connecting structure which has connecting elements electrically contacting two such semiconductors (5, 6), - wherein the connecting elements are electrically insulated from one another, - wherein the semiconductors (5, 6) are contacted electrically on their side facing away from the flow chamber by a contacting structure, which has contact elements electrically contacting two such semiconductors (5, 6), - wherein the contact elements are electrically insulated from one another, - wherein at least one such connecting element is arranged in the flow chamber, characterised by the method steps: - providing an electroconductive band, - alternately providing the band with p-doped P-semiconductors and n-doped N-semiconductors along the band, - separating the band to produce the electrically insulated connecting elements. - the Peltier element has a plurality of alternately arranged p-doped P-semiconductors and n-doped N-semiconductors, - wherein the semiconductors (5, 6) are electrically contacted on their side facing the flow chamber by a connecting structure which has connecting elements electrically contacting two such semiconductors (5, 6), - wherein the connecting elements are electrically insulated from one another, - wherein the semiconductors (5, 6) are contacted electrically on their side facing away from the flow chamber by a contacting structure, which has contact elements electrically contacting two such semiconductors (5, 6), - wherein the contact elements are electrically insulated from one another, - wherein at least one such connecting element is arranged in the flow chamber, - providing an electroconductive band, - alternately providing the band with p-doped P-semiconductors and n-doped N-semiconductors along the band, - separating the band to produce the electrically insulated connecting elements.
A method for transmitting control information comprising uplink control information over L Multiple Input Multiple Output, MIMO layers, where L is an integer value greater than one, the method comprising: generating (1410, 1510) a plurality of control modulation symbols from the control information, wherein the control information comprises a first group of control information and a second group of control information, wherein the first group of control information is generated using a modulation and coding scheme, MCS, level; and a number of the control modulation symbols generated from the second group of control information is determined by the MCS, level of the first group of control information, wherein the first group of control information comprises channel quality information, a precoding matrix indicator, or a combination thereof; filling (1415, 1515) the L MIMO layers by mapping the plurality of control modulation symbols to the L MIMO layers; and transmitting (1420, 1535) over the L MIMO layers. generating (1410, 1510) a plurality of control modulation symbols from the control information, wherein the control information comprises a first group of control information and a second group of control information, wherein the first group of control information is generated using a modulation and coding scheme, MCS, level; and a number of the control modulation symbols generated from the second group of control information is determined by the MCS, level of the first group of control information, wherein the first group of control information comprises channel quality information, a precoding matrix indicator, or a combination thereof; filling (1415, 1515) the L MIMO layers by mapping the plurality of control modulation symbols to the L MIMO layers; and transmitting (1420, 1535) over the L MIMO layers.
An implantable medical device, comprising: a charging coil for receiving power from an external charger; a telemetry coil for receiving data from an external controller and/or transmitting data to an external controller; and decoupling circuitry connected to the charging coil and controllable upon assertion of at least one control signal in the implantable medical device to reduce or remove a current in the charging coil, wherein the at least one control signal is asserted when the telemetry coil is enabled to receive data from the external controller and/or transmit data to the external controller, or when the telemetry coil is actually receiving data from the external controller and/or transmitting data to the external controller. a charging coil for receiving power from an external charger; a telemetry coil for receiving data from an external controller and/or transmitting data to an external controller; and decoupling circuitry connected to the charging coil and controllable upon assertion of at least one control signal in the implantable medical device to reduce or remove a current in the charging coil,