mhurhangee/ep-ind-claims huggingface dataset:
A programmable logic controller, PLC, system comprising: a power module configured to supply power; and a CPU module, wherein the CPU module includes: a micro controller unit, MCU,; a memory unit configured to back up user data stored in the MCU when the power supplied from the power module is interrupted; and a capacitor configured to be charged by the power module and supply accumulated power to the memory unit when the power supply from the power module to the MCU is interrupted; characterized in that the PLC system further comprises: a variable resistor unit connected between the power module and the capacitor; and a switching unit configured to alternatively connect either the power module or the capacitor to the memory unit depending on a state of power being supplied from the power module, wherein when the power module is recovered to resume the supply of the power during an operation of the backup of the memory unit, the switching unit is configured to connect the power module to the MCU and the memory unit only after the operation of the backup of the memory unit is finished. a power module configured to supply power; and a CPU module, wherein the CPU module includes: a micro controller unit, MCU,; a memory unit configured to back up user data stored in the MCU when the power supplied from the power module is interrupted; and a capacitor configured to be charged by the power module and supply accumulated power to the memory unit when the power supply from the power module to the MCU is interrupted; a micro controller unit, MCU,; a memory unit configured to back up user data stored in the MCU when the power supplied from the power module is interrupted; and a capacitor configured to be charged by the power module and supply accumulated power to the memory unit when the power supply from the power module to the MCU is interrupted; characterized in that the PLC system further comprises: a variable resistor unit connected between the power module and the capacitor; and a switching unit configured to alternatively connect either the power module or the capacitor to the memory unit depending on a state of power being supplied from the power module, a variable resistor unit connected between the power module and the capacitor; and a switching unit configured to alternatively connect either the power module or the capacitor to the memory unit depending on a state of power being supplied from the power module, wherein when the power module is recovered to resume the supply of the power during an operation of the backup of the memory unit, the switching unit is configured to connect the power module to the MCU and the memory unit only after the operation of the backup of the memory unit is finished.
A device comprising: means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223); and means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273), wherein the means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223) and the means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273) are each tuned such that a combined delay associated with down sampling and up sampling corresponds to a pre-defined delay, characterized in that the combined delay is a tunable parameter of the device, and in that the combined delay is tunable based on a sampling ratio of the means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223) and the means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273). means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223); and means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273), wherein the means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223) and the means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273) are each tuned such that a combined delay associated with down sampling and up sampling corresponds to a pre-defined delay, characterized in that the combined delay is a tunable parameter of the device, and in that the combined delay is tunable based on a sampling ratio of the means for down sampling (51; 135, 136; 145; 156; 162; 212, 214, 216; 221, 222, 223) and the means for up sampling (53; 138; 146; 157; 231; 261 263, 265; 271, 272, 273).
A method for attaching at least one application to a coating, such as a film coating, having telescopic folding, wherein the method comprises the following method steps: a) Pushing of one or more folds (L1, L2, L3) of a first layer of the coating onto a first folding aid; b) Fixing of the fold(s) of the first layer (L1, L2) preferably using a second folding aid; c) Unfolding of the coating up to the fixed fold(s) (L1, L2); d) Attachment of the at least one application onto or into the unfolded layer (L3, L4) of the coating; e) Folding back of the unfolded layer(s) (L3, L4) by folding in the first layer against an edge of the first folding aid to form a further fold; f) Opening of the fixing and removal of the folds (L1, L2, L3, L4) from the first folding aid; g) Pushing of the folds (L1, L2, L3, L4) onto the first folding aid and fixing of the folds; h) Repetition of method steps e) to g) until the coating is folded back. a) Pushing of one or more folds (L1, L2, L3) of a first layer of the coating onto a first folding aid; b) Fixing of the fold(s) of the first layer (L1, L2) preferably using a second folding aid; c) Unfolding of the coating up to the fixed fold(s) (L1, L2); d) Attachment of the at least one application onto or into the unfolded layer (L3, L4) of the coating; e) Folding back of the unfolded layer(s) (L3, L4) by folding in the first layer against an edge of the first folding aid to form a further fold; f) Opening of the fixing and removal of the folds (L1, L2, L3, L4) from the first folding aid; g) Pushing of the folds (L1, L2, L3, L4) onto the first folding aid and fixing of the folds; h) Repetition of method steps e) to g) until the coating is folded back.
A memory array comprising vertically-alternating tiers of insulative material and memory cells, the memory cells individually comprising a transistor comprising first and second source/drain regions having a channel region there-between and a gate operatively proximate the channel region; and a capacitor comprising first and second electrodes having a capacitor insulator there-between; the first electrode being electrically coupled to the first source/drain region; the memory array being characterised in that one of (a) a channel region of the transistor, or (b) the first and second electrodes (46, 48) of the capacitor, being directly above the other of (a) and (b); and in that the memory array further comprises a sense line electrically coupled to multiple of the second source/drain regions of individual of the transistors that are in different memory cell tiers; and a capacitor-electrode structure extending elevationally through the vertically-alternating tiers (12, 14), individual of the second electrodes of individual of the capacitors that are in different memory cell tiers being electrically coupled to the elevationally-extending capacitor-electrode structure. Z
Apparatus for cutting a moving receiver comprising a plurality of driven, movable and controlled cutting devices, characterized by: a. each cutting device comprising two parallel cutting wheels and a pressure wheel arranged so that the cutting wheels are pressed laterally against the pressure wheel to form two cutting areas and a chad area arranged laterally between the cutting areas; b. a drive mechanism for rotating the cutting wheels or pressure wheel of two or more of the plurality of cutting devices so that the rotating cutting wheels engage the moving receiver to cut the moving receiver parallel to its feed direction in the cutting areas, whereby one or more chads are cut out of the receiver; c. a transport mechanism for selectively moving the plurality of cutting devices perpendicular to the feed direction of the receiver; and d. a controller for receiving a job specification including two or more specified cut locations and causing the transport mechanism to laterally position two or more of the plurality of cutting devices to cut the moving receiver in the specified cut locations. a. each cutting device comprising two parallel cutting wheels and a pressure wheel arranged so that the cutting wheels are pressed laterally against the pressure wheel to form two cutting areas and a chad area arranged laterally between the cutting areas; b. a drive mechanism for rotating the cutting wheels or pressure wheel of two or more of the plurality of cutting devices so that the rotating cutting wheels engage the moving receiver to cut the moving receiver parallel to its feed direction in the cutting areas, whereby one or more chads are cut out of the receiver; c. a transport mechanism for selectively moving the plurality of cutting devices perpendicular to the feed direction of the receiver; and d. a controller for receiving a job specification including two or more specified cut locations and causing the transport mechanism to laterally position two or more of the plurality of cutting devices to cut the moving receiver in the specified cut locations.
A power receiving device for wireless charging comprising: a body having a receiving part formed therein; and a charging kit detachably receivable in the receiving part, and including a coil formed to receive power by magnetic coupling with a power supplying device, a charging circuit configured to charge a battery by induced electromotive force induced by the coil; wherein the charging kit is disposable in parallel with a main surface of the body; characterised in that the power receiving device further comprises a frame (311,316) enclosing the coil and the charging circuit, and in that the receiving part in which the charging kit is received is opened so as to be in communication with the outside. a body having a receiving part formed therein; and a charging kit detachably receivable in the receiving part, and including a coil formed to receive power by magnetic coupling with a power supplying device, a charging circuit configured to charge a battery by induced electromotive force induced by the coil; wherein the charging kit is disposable in parallel with a main surface of the body;
A method for producing a molded silicone rubber product comprising: a) feeding into a base feed line a liquid silicone rubber base comprising: i) at least one vinyl siloxane polymer; and ii) at least one hydride crosslinker; b) feeding into a catalyst feed line a catalyst master batch comprising: i) at least one catalyst; and ii) optionally, at least one vinyl siloxane polymer; c) feeding into an inhibitor feed line an inhibitor master batch comprising: i) at least one liquid injection molding inhibitor; and ii) optionally, at least one vinyl siloxane polymer; d) optionally feeding into an optional additive feed line an optional at least one additive; e) directing said liquid silicone rubber base, said catalyst master batch and said inhibitor master batch, and optionally directing said optional at least one additive into the barrel of an injection molding machine; f) operating said injection molding machine, thereby mixing said liquid silicone rubber base, said catalyst master batch, said optional inhibitor master batch, and said optional at least one additive; and g) curing said mixed liquid silicone rubber base, catalyst master batch, inhibitor master batch, and optional at least one additive by heating. a) feeding into a base feed line a liquid silicone rubber base comprising: i) at least one vinyl siloxane polymer; and ii) at least one hydride crosslinker; i) at least one vinyl siloxane polymer; and ii) at least one hydride crosslinker; b) feeding into a catalyst feed line a catalyst master batch comprising: i) at least one catalyst; and ii) optionally, at least one vinyl siloxane polymer; i) at least one catalyst; and ii) optionally, at least one vinyl siloxane polymer; c) feeding into an inhibitor feed line an inhibitor master batch comprising: i) at least one liquid injection molding inhibitor; and ii) optionally, at least one vinyl siloxane polymer; i) at least one liquid injection molding inhibitor; and ii) optionally, at least one vinyl siloxane polymer; d) optionally feeding into an optional additive feed line an optional at least one additive; e) directing said liquid silicone rubber base, said catalyst master batch and said inhibitor master batch, and optionally directing said optional at least one additive into the barrel of an injection molding machine; f) operating said injection molding machine, thereby mixing said liquid silicone rubber base, said catalyst master batch, said optional inhibitor master batch, and said optional at least one additive; and g) curing said mixed liquid silicone rubber base, catalyst master batch, inhibitor master batch, and optional at least one additive by heating.
A method for a user equipment comprising: receiving grouping information indicative of a timing advance group comprising a first cell and at least one second cell, wherein no cell in the timing advance group has reliable downlink transmission since downlink transmissions in the cells are subject to permission by a clear channel assessment procedure; obtaining reliability information comprising information related to the first cell and information related to the at least one second cell for use as reference cell for downlink timing and/or timing advance; selecting a cell in the timing advance group as a reference cell for downlink timing and/or timing advance based on the obtained reliability information. receiving grouping information indicative of a timing advance group comprising a first cell and at least one second cell, wherein no cell in the timing advance group has reliable downlink transmission since downlink transmissions in the cells are subject to permission by a clear channel assessment procedure; obtaining reliability information comprising information related to the first cell and information related to the at least one second cell for use as reference cell for downlink timing and/or timing advance; selecting a cell in the timing advance group as a reference cell for downlink timing and/or timing advance based on the obtained reliability information.
A charged particle emitting method for emitting charged particles from a charged particle emitting surface of a ferroelectric body which generates a potential difference due to irradiation onto an ultraviolet light receiving surface of the ferroelectric body with an ultraviolet light having a wavelength incapable of passing through the ferroelectric body, characterised in that the ultraviolet light is pulsed light and has a peak power of the pulsed light of 1MW or more, and wherein a preliminary potential difference is generated between the ultraviolet light receiving surface and the charged particle emitting surface of the ferroelectric body before irradiating the pulsed ultraviolet light, being the result of an auxiliary boosting.
An agricultural distribution machine, with at least one main control device for controlling and regulating a plurality of electrical control devices, which are each assigned to a functional unit of the machine, wherein the functional unit is designed in the form of a row unit, nozzle unit, or the like, by means of which the material to be distributed is spread on an agricultural area, wherein, by means of the control devices, in each case - various different metering organs and/or actuating elements can be switched on and/or switched off and/or be adjusted, - and/or sensor data can be detected, - and/or electrical loads can be switched, switched on and/or switched off, or be regulated, - and/or current-carrying lines can be switched, switched on and/or switched off, - and/or various different electrical elements can be operated, wherein the electrical and/or signal connections between the main control device and the plurality of control devices are formed by a CAN bus system and/or by a power supply system, characterised in that the electrical and/or signal connections of the CAN bus system and/or of the power supply system is/are designed as a ring circuit, which ring circuit is composed of a plurality of connecting lines, wherein a two-sided feed of signals and/or messages is carried out in each case from the main control device and/or from the power supply unit in the direction to the control devices or to the plurality of control devices. - various different metering organs and/or actuating elements can be switched on and/or switched off and/or be adjusted, - and/or sensor data can be detected, - and/or electrical loads can be switched, switched on and/or switched off, or be regulated, - and/or current-carrying lines can be switched, switched on and/or switched off, - and/or various different electrical elements can be operated, wherein the electrical and/or signal connections between the main control device and the plurality of control devices are formed by a CAN bus system and/or by a power supply system, characterised in that the electrical and/or signal connections of the CAN bus system and/or of the power supply system is/are designed as a ring circuit, which ring circuit is composed of a plurality of connecting lines, wherein a two-sided feed of signals and/or messages is carried out in each case from the main control device and/or from the power supply unit in the direction to the control devices or to the plurality of control devices.
An inductive heating element (10, 120) for an aerosol-generating system, the inductive heating element (10, 120) comprising: a cavity for receiving aerosol-forming substrate to be heated by the inductive heating element (10, 120); a first susceptor (12, 122, 312); a second susceptor (14, 124, 362); and an intermediate element (16, 128, 130, 324, 374) disposed between the first susceptor (12, 122, 312) and the second susceptor (14, 124, 362), the intermediate element (16, 128, 130, 324, 374) being gas permeable, wherein the intermediate element (16, 128, 130, 324, 374) comprises at least one of: a thermally insulative material for thermally insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362); and an electrically insulative material for electrically insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362). a cavity for receiving aerosol-forming substrate to be heated by the inductive heating element (10, 120); a first susceptor (12, 122, 312); a second susceptor (14, 124, 362); and an intermediate element (16, 128, 130, 324, 374) disposed between the first susceptor (12, 122, 312) and the second susceptor (14, 124, 362), the intermediate element (16, 128, 130, 324, 374) being gas permeable, wherein the intermediate element (16, 128, 130, 324, 374) comprises at least one of: a thermally insulative material for thermally insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362); and an electrically insulative material for electrically insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362). a thermally insulative material for thermally insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362); and an electrically insulative material for electrically insulating the first susceptor (12, 122, 312) from the second susceptor (14, 124, 362).
Aqueous solutions of reactive dichloric acids, characterised in that the anion of the dichloric acid Cl 2 O 6 dimer shows a signal in the mass spectrum of the solution at 189.0 m/z and obtainable by a method for preparing aqueous solutions of reactive dichloric acids, wherein (a) chlorine dioxide is reacted with an aqueous or water-containing solution of hydrogen peroxide or another hydrogen peroxide or peroxide at a pH value of >=6.5, (b) the pH value is reduced to between 3 and 6 by addition of an acid, (c) the gaseous free reactive chorine compound is expelled using a cooled gas and is collected in an alkaline solution with a pH value of >10, and (d) the collected reactive chlorine compound is incubated with an up to 100 times surplus, preferably up to 10 times surplus of chlorite at a pH value of between 6 and 8, preferably approximately 7. (a) chlorine dioxide is reacted with an aqueous or water-containing solution of hydrogen peroxide or another hydrogen peroxide or peroxide at a pH value of >=6.5, (b) the pH value is reduced to between 3 and 6 by addition of an acid, (c) the gaseous free reactive chorine compound is expelled using a cooled gas and is collected in an alkaline solution with a pH value of >10, and (d) the collected reactive chlorine compound is incubated with an up to 100 times surplus, preferably up to 10 times surplus of chlorite at a pH value of between 6 and 8, preferably approximately 7.
Multilayer polymer barrier film for food packaging providing a gas and water vapor barrier, wherein the film is comprised of thermoplastic polymers only and comprises at least four inner layers of ethylene vinyl alcohol (EVOH), and at least four layers of polyethylene or polypropylene that encapsulate said at least fourEVOH layers, wherein the film comprises at least 5wt% EVOH, based on the total weight of the film, wherein the multilayer polymer barrier film has an Oxygen Transmission Rate of at most 0.5 cc/m 2 /24h, as determined according to ASTM D3985 and wherein the multilayer polymer barrier film has a Water Vapor Transmission Rate (WVTR) of at most 3.8 g/m2/24h, as determined according to ASTM E398, wherein the multilayer barrier film is comprised of between 45 to 65 wt% PE and/or PP, 20 to 40 wt % adhesive polymers, and 7.5 to 20 wt% EVOH, based on the total weight of the film, and wherein the multilayer polymer barrier film further comprises at least six layers of adhesive polymers selected from the group consisting of maleic anhydride -grafted PE polymers, ethylene acrylic acid, ethylene methacrylic acid (EMAA), EMA (ethyl methacrylate), ethylene vinyl acetate, or blends thereof with LLDPE, preferably maleic anhydride -grafted PE polymers, more preferably maleic anhydride -grafted LLDPE, for providing adhesion between the at least four inner layers of EVOH and at least four layers of PP or PE that encapsulate said EVOH layers, and wherein the barrier film does not comprise metal and inorganic compounds.