mhurhangee/ep-ind-claims huggingface dataset:
Electronic appliance including a display device, the display device is connected to a power supply device generating at least one of a driving input voltage (Vin), a logic power voltage and a high potential power voltage (EVDD) from a an alternating current driving power to the display device, the display device comprises an organic light emitting display panel having a plurality of data lines and gate lines crossing each other, a plurality of pixels arranged in matrix form defined by the data and gate lines (DL, GL), a data driver connected to each of the data lines to output data voltage signals (Vdata) supplied to the plurality of pixels, a gate driver connected to each of the gate lines to output gate signals to the plurality of pixels, a timing controller adapted to generate control signals for controlling the operation timing of the data driver and the gate driver, wherein the power supply device is adapted to supply the high potential power voltage (EVDD) or the logic power voltage to a power supply unit which is adapted to supply the high potential power voltage (EVDD) or the logic power voltage to the plurality of pixels of the organic light emitting display panel; characterized in that the power supply device is adapted to generate a zero-cross signal corresponding to a zero-cross point in the driving power received from outside and to provide the zero-cross signal to the timing controller; and the timing controller is adapted to synchronize, during a display mode, each of the gate signals every frame with a zero crossing point of the driving power to match the control signals for driving of each gate line by the gate driver with the zero-cross signal of the driving power supplied from the power supply device for driving the organic light emitting display panel.
A washing or cleaning agent comprising a compound containing a structure according to Formula, in addition to conventional ingredients that are compatible therewith, wherein the structure of Formula can also be bridged as well as mono or polysubstituted.
A method performed by a User Equipment, UE, for handling an invalid System Information, SI, signature in a communication system, the method comprising: obtaining, from an access node (103, 104), SI and an associated SI signature for a cell served by the access node (103, 104) and which the UE can use; and characterized in: determining if the obtained SI signature is valid or invalid; if the signature is valid, determining to use the cell; if the SI signature is invalid, determining if the UE is configured to bar cells or not; if the SI signature is invalid and if the UE is not configured to bar cells with invalid SI signature, determining to use the cell; and if the SI signature is invalid and the UE is configured to bar cells with invalid SI signature, determining to bar the cell and select another cell to use. determining if the obtained SI signature is valid or invalid; if the signature is valid, determining to use the cell; if the SI signature is invalid, determining if the UE is configured to bar cells or not; if the SI signature is invalid and if the UE is not configured to bar cells with invalid SI signature, determining to use the cell; and if the SI signature is invalid and the UE is configured to bar cells with invalid SI signature, determining to bar the cell and select another cell to use.
A method for performing transmission by a terminal using a grant-free resource in a wireless communication system, the method comprising: generating uplink control information, UCI; and transmitting at least one of the generated UCI and data; wherein one or more of the UCI and the data is dropped or postponed according to a relationship between a time at which the UCI is generated and a time-domain position of the grant-free resource, wherein when the time at which the UCI is generated is after an end time of the grant-free resource, either the UCI or the data to be dropped is determined further considering a latency requirement, and when the UCI corresponds to a latency requirement shorter than a preset value and there is no available resource within the latency requirement, the terminal drops the UCI. generating uplink control information, UCI; and transmitting at least one of the generated UCI and data; wherein one or more of the UCI and the data is dropped or postponed according to a relationship between a time at which the UCI is generated and a time-domain position of the grant-free resource, wherein when the time at which the UCI is generated is after an end time of the grant-free resource, either the UCI or the data to be dropped is determined further considering a latency requirement, and when the UCI corresponds to a latency requirement shorter than a preset value and there is no available resource within the latency requirement, the terminal drops the UCI.
Method for producing a structural component from an organic sheet, wherein in a first step the organic sheet is preheated, introduced into a tool and subsequently shaped, characterized in that - in a second step a region (3.2) of the shaped organic sheet is heated, and - in a third step at least the heated region (3.2) of the shaped organic sheet is shaped further such that said region enters into a material bond with a further region of the organic sheet to form an at least partially closed hollow profile. - in a second step a region (3.2) of the shaped organic sheet is heated, and - in a third step at least the heated region (3.2) of the shaped organic sheet is shaped further such that said region enters into a material bond with a further region of the organic sheet to form an at least partially closed hollow profile.
A method for printing a plurality of scan lines with one or more inkjet heads (310, 320, 330; 310a, 320a, 330a); said method comprising: a. receiving at least one scanline of the plurality of scanlines; b. creating, from pixels of said at least one scanline, a plurality of bundles of a predetermined size, such that said plurality of bundles comprises first bundles and consecutive bundles, said first bundles and said consecutive bundles comprising pixels for which nozzles of the one or more inkjet heads have to be fired within a first time period and within a consecutive time period, respectively; and storing said plurality of bundles in a first memory; wherein the predetermined size of a bundle of the plurality of bundles is chosen in function of a second memory; c. transferring said plurality of bundles from the first memory to the second memory; d. repeating steps a-c until all pixels for which nozzles of the one or more inkjet heads have to be fired within the first time period are available in the second memory as the first bundles; e. firing nozzles of the one or more inkjet heads in accordance with the first bundles within the first time period; f. repeating steps d and e for consecutive bundles and associated respective consecutive time periods. a. receiving at least one scanline of the plurality of scanlines; b. creating, from pixels of said at least one scanline, a plurality of bundles of a predetermined size, such that said plurality of bundles comprises first bundles and consecutive bundles, said first bundles and said consecutive bundles comprising pixels for which nozzles of the one or more inkjet heads have to be fired within a first time period and within a consecutive time period, respectively; and storing said plurality of bundles in a first memory; wherein the predetermined size of a bundle of the plurality of bundles is chosen in function of a second memory; c. transferring said plurality of bundles from the first memory to the second memory; d. repeating steps a-c until all pixels for which nozzles of the one or more inkjet heads have to be fired within the first time period are available in the second memory as the first bundles; e. firing nozzles of the one or more inkjet heads in accordance with the first bundles within the first time period; f. repeating steps d and e for consecutive bundles and associated respective consecutive time periods.
A kit for deploying a bone implant at a surgical site, the kit comprising: a first sleeve having an interior surface that defines a channel; a second sleeve having an outer surface and an inner surface, the inner surface of the second sleeve defining an inner channel; and a bone implant comprising a mesh material, characterised in that the bone implant is disposed in a portion of the channel of the first sleeve or disposed in a portion of the inner channel of the second sleeve or disposed in both the portion of the channel of the first sleeve and the portion of the inner channel of the second sleeve, wherein the outer surface of the second sleeve is configured to slidably engage the interior surface of the channel of the first sleeve such that sliding the outer surface of the second sleeve deploys the bone implant at the surgical site. a first sleeve having an interior surface that defines a channel; a second sleeve having an outer surface and an inner surface, the inner surface of the second sleeve defining an inner channel; and a bone implant comprising a mesh material, characterised in that the bone implant is disposed in a portion of the channel of the first sleeve or disposed in a portion of the inner channel of the second sleeve or disposed in both the portion of the channel of the first sleeve and the portion of the inner channel of the second sleeve, wherein the outer surface of the second sleeve is configured to slidably engage the interior surface of the channel of the first sleeve such that sliding the outer surface of the second sleeve deploys the bone implant at the surgical site.
A composite resin material, comprising: a first organic resin having a phenylene ether structure; and a second organic resin having a main skeleton composed of a polyester structure, one of the first organic resin and the second organic resin forming a continuous phase, the other one thereof being present within the continuous phase, as organic resin particles having an average particle diameter of 1 um or less, characterized in that the second organic resin contains an alkoxy group. a first organic resin having a phenylene ether structure; and a second organic resin having a main skeleton composed of a polyester structure, one of the first organic resin and the second organic resin forming a continuous phase, the other one thereof being present within the continuous phase, as organic resin particles having an average particle diameter of 1 um or less, characterized in that the second organic resin contains an alkoxy group.
Surgical instrument for use in minimally invasive surgery, having a handgrip which is movable relative to a counter-grip to actuate the surgical instrument, having a push-push locking mechanism for releasably holding the surgical instrument in an actuated position, which locking mechanism has a pivotable latch and a closure piece behind which the latch engages in a locked position so that it holds the surgical instrument releasably in the actuated position, the latch being deflectable out of the locked position in two opposite directions, so that when the handgrip moves relative to the counter-grip the latch is able to move past the closure piece and thereby move into and out of engagement with the closure piece, wherein the push-push locking mechanism has a restoring spring which is tensioned by deflection of the latch and which urges the deflected latch, irrespective of its direction of deflection, back into a non-deflected position, and wherein the latch and the restoring spring are different parts, characterised in that a pivot axis of the latch runs in a plane of movement of the handgrip relative to the counter-grip and/or runs tangentially with respect to a circle concentric with a pivot axis of the handgrip.
An apparatus comprising: an amplifier circuit having an input terminal, an output terminal, and a power supply terminal; a first linear regulator coupled between a first power supply node and the power supply terminal of the amplifier circuit; and a second linear regulator coupled between a second power supply node and the power supply terminal of the amplifier circuit; wherein the first and second linear regulators are coupled to be responsive to an amplitude envelope signal for amplification of a phase modulated signal present at the input terminal of the amplifier circuit; and wherein the first linear regulator includes a first control circuit to provide current from the first power supply node to the power supply terminal when a voltage on the power supply terminal is below a voltage on the first power supply node; wherein the second linear regulator includes a second control circuit to provide current from the second power supply node to the power supply terminal when a voltage on the power supply terminal is above the voltage on the first power supply node; and wherein the second control circuit comprises a second transistor coupled source-to-drain between the second power supply node and the power supply terminal of the amplifier; and characterized in that the second linear regulator includes a voltage offset circuit arranged to keep the second transistor off when the amplitude envelope signal is less than the voltage on the first power supply node. an amplifier circuit having an input terminal, an output terminal, and a power supply terminal; a first linear regulator coupled between a first power supply node and the power supply terminal of the amplifier circuit; and a second linear regulator coupled between a second power supply node and the power supply terminal of the amplifier circuit; wherein the first and second linear regulators are coupled to be responsive to an amplitude envelope signal for amplification of a phase modulated signal present at the input terminal of the amplifier circuit; and wherein the first linear regulator includes a first control circuit to provide current from the first power supply node to the power supply terminal when a voltage on the power supply terminal is below a voltage on the first power supply node; wherein the second linear regulator includes a second control circuit to provide current from the second power supply node to the power supply terminal when a voltage on the power supply terminal is above the voltage on the first power supply node; and
A data storage apparatus, comprising: a cache layer, a non-volatile data store operable in a dual-use fashion to store both frequently accessed data and long-term data storage, and a processor communicatively coupled to the cache layer and the non-volatile data store, characterized by: a read counter to track a read count of read accesses to the non-volatile data store; a write counter to track a write count of write accesses to the non-volatile data store; and the processor to dynamically enable or disable the cache layer via a cache layer enable line based on a write-to-read ratio of the write and read counts wherein dirty data is written back from the cache layer to the data store prior to powering off the cache layer. a cache layer, a non-volatile data store operable in a dual-use fashion to store both frequently accessed data and long-term data storage, and a processor communicatively coupled to the cache layer and the non-volatile data store, characterized by: a read counter to track a read count of read accesses to the non-volatile data store; a write counter to track a write count of write accesses to the non-volatile data store; and the processor to dynamically enable or disable the cache layer via a cache layer enable line based on a write-to-read ratio of the write and read counts wherein dirty data is written back from the cache layer to the data store prior to powering off the cache layer. a read counter to track a read count of read accesses to the non-volatile data store; a write counter to track a write count of write accesses to the non-volatile data store; and the processor to dynamically enable or disable the cache layer via a cache layer enable line based on a write-to-read ratio of the write and read counts wherein dirty data is written back from the cache layer to the data store prior to powering off the cache layer.
A power converter circuit comprising at least two submodules which, on the input side, are connected via an inductor in a first series connection to a battery circuit containing a battery, - wherein each submodule comprises a single-phase half-bridge on the input side and a single-phase full-bridge on the load side for supplying electrical energy to a motor phase of an electric motor, and - wherein, on the DC voltage side, the half-bridge and the full-bridge parallel to each other and together with an intermediate circuit capacitor are connected to an intermediate circuit, characterized by a supply module (50a, 50b) or a second series connection of a plurality of supply modules (50a, 50b) for storing or supplying electrical energy, the supply module (50a, 50b) or the second series connection being connected in parallel to the first series connection, wherein said or any respective supply module (50a, 50b) per se does not supply a load device, wherein said or any supply module (50a, 50b) comprises a single-phase half-bridge on the input side, to which, on the DC voltage side, an intermediate circuit capacitor and another converter (40, 51) are connected in parallel via an intermediate circuit, wherein an additional electrical power source (46, 52) is being connected or is connectable to said other converter (40, 51). - wherein each submodule comprises a single-phase half-bridge on the input side and a single-phase full-bridge on the load side for supplying electrical energy to a motor phase of an electric motor, and - wherein, on the DC voltage side, the half-bridge and the full-bridge parallel to each other and together with an intermediate circuit capacitor are connected to an intermediate circuit,
A disposable self-integrated negative pressure wound therapy device, comprising: a housing (20; 120; 220; 420; 520; 520a; 520b; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640; 640'; 840) positioned inside of the housing, wherein the liquid-retention chamber comprises a porous structure for retaining liquid; a vacuum connection (30; 130; 232; 432) for coupling to a vacuum source, the vacuum connection in gaseous communication with the liquid-retention chamber, the vacuum connection being separated from the liquid-retention chamber by a liquid barrier (36; 136; 236; 436; 636; 636'); and wherein the vacuum connection is coupled to a micro-vacuum pump located within or adjacent to the housing; and further comprising a seal for sealing the housing to a body surface of a patient; characterized in that the liquid barrier is a porous hydrophobic structure that serves to prevent travel of liquid from the liquid-retention chamber to the vacuum connection. a housing (20; 120; 220; 420; 520; 520a; 520b; 820) configured to cover at least a portion of a wound; a liquid-retention chamber (40; 140; 240; 440; 540; 640; 640'; 840) positioned inside of the housing, wherein the liquid-retention chamber comprises a porous structure for retaining liquid; a vacuum connection (30; 130; 232; 432) for coupling to a vacuum source, the vacuum connection in gaseous communication with the liquid-retention chamber, the vacuum connection being separated from the liquid-retention chamber by a liquid barrier (36; 136; 236; 436; 636; 636'); and wherein the vacuum connection is coupled to a micro-vacuum pump located within or adjacent to the housing; and further comprising a seal for sealing the housing to a body surface of a patient; characterized in that the liquid barrier is a porous hydrophobic structure that serves to prevent travel of liquid from the liquid-retention chamber to the vacuum connection.
A lighting device comprising several LED filaments disposed inside an outer container at least partially transparent and connected to anode and cathode output terminals (40, 50; 43, 53) disposed outside the outer container, each LED filament comprising a longilineal substrate, a plurality of light-emitting diodes (11, 12) regularly distributed in line on the substrate, said diodes (11, 12) being connected successively in sequence and in series, an envelope overmolded around the diodes (11, 12) and the substrate, and two metal electrodes forming respectively the anode and the cathode of the LED filament projecting from said envelope, said electrodes (15, 16) being fastened respectively to the two opposite ends of the substrate and being electrically connected respectively to the first and last diodes placed on the substrate, wherein the outer container forms a hollow and longilineal part provided with two opposite ends, and wherein the LED filaments are distributed along at least one lighting line, wherein the or each lighting line comprises several LED filaments disposed in successive alignment,), said lighting device being characterized in that, in the or each lighting line, the LED filaments are connected in parallel such that their anodes are connected to the anode output terminal and their cathodes are connected to the cathode output terminal, and in that said lighting device further comprises at least one opaque reflector, having a reflective inner surface, disposed on a circumference of the outer container and having a longitudinal slot provided for the passage of the light emitted by the LED filaments.
A data processing apparatus operable to map input symbols to be communicated onto a predetermined number of sub-carrier signals of Orthogonal Frequency Division Multiplexed (OFDM) symbols, the data processing apparatus comprising an interleaver operable to read-into a memory the predetermined number of data symbols for mapping onto the OFDM sub-carrier signals, and to read-out of the memory the data symbols for the OFDM sub-carriers to effect the mapping, the read-out being in a different order than the read-in, the order being determined from a set of addresses, with the effect that the data symbols are interleaved on the sub-carrier signals, an address generator operable to generate the set of addresses, an address being generated for each of the input symbols for mapping the input data symbol on to one of the sub-carrier signals, the address generator comprising a linear feedback shift register including a predetermined number of register stages and being operable to generate a pseudo-random bit sequence in accordance with a generator polynomial, a permutation circuit operable to receive the content of the shift register stages and to permute the order of the bits present in the register stages in accordance with a permutation code to form an address, and a control unit operable in combination with an address check circuit to re-generate an address when a generated address exceeds a predetermined maximum valid address, wherein the predetermined maximum valid address is approximately two thousand, the linear feedback shift register has ten register stages with a generator polynomial for the linear feedback shift register of R i ′ 9 = R i − 1 ′ 0 ⊕ R i − 1 ′ 3, and the permutation code forms, with an additional bit, an eleven bit address, characterised in that the permutation circuit is arranged to change the permutation code, which permutes the order of the bits of the register stages to form the addresses from one OFDM symbol to another.