mhurhangee/ep-ind-claims huggingface dataset:
A permanent magnet DC electromagnetic heteropolar motor, including: (a) at least one permanent magnet rotor; (b) a shaft in mechanical communication with the rotor such that axial rotation of the rotor causes axial rotation of the shaft; (c) a stator including at least one stator winding; and (d) a plurality of switches, each functioning to provide commutation switching for the stator so as to generate a torque on the rotor and thereby cause said axial rotation of the shaft, wherein the stator includes a planar stator disc having circumferentially distributed and radially directed slots therein that define corresponding radially directed elongate electrically conductive bars, wherein said at least one stator winding is formed by said bars, said bars being planar and extending radially from a common inner conducting ring, wherein a terminal voltage of said machine is equal to the voltage of one electrochemical cell, wherein the power of said machine is at least 1kW. (a) at least one permanent magnet rotor; (b) a shaft in mechanical communication with the rotor such that axial rotation of the rotor causes axial rotation of the shaft; (c) a stator including at least one stator winding; and (d) a plurality of switches, each functioning to provide commutation switching for the stator so as to generate a torque on the rotor and thereby cause said axial rotation of the shaft,
A self-moving device (100,300) adapted to automatically recognize an object in front, wherein the self-moving device (100,300) comprises a signal transmission module, a gradient determination module, a width determination module and a control module (16,440), wherein: the signal transmission module being adapted to transmit recognition signals propagated along at least two different forward paths; the gradient determination module being adapted to obtain, according to reflected recognition signals received at the self-moving device, a first determination result indicating whether an object in front is a slope; the width determination module being adapted to obtain a width of the object in front according to the recognition signals, and to obtain, according to the width of the object in front, a further determination result indicating whether the self-moving device can pass the object in front; and the control module (16,440) being adapted to control a traveling path of the self-moving device (100,300) according to the first determination result and the further determination result. the signal transmission module being adapted to transmit recognition signals propagated along at least two different forward paths; the gradient determination module being adapted to obtain, according to reflected recognition signals received at the self-moving device, a first determination result indicating whether an object in front is a slope; the width determination module being adapted to obtain a width of the object in front according to the recognition signals, and to obtain, according to the width of the object in front, a further determination result indicating whether the self-moving device can pass the object in front; and the control module (16,440) being adapted to control a traveling path of the self-moving device (100,300) according to the first determination result and the further determination result.
Presentation device for presenting a label, having a first presentation roller which is contacted by a first side of the label during operation, a second presentation roller which is arranged directly beside the first presentation roller in an axially parallel manner with respect to the first presentation roller and which at the same time is contacted by the other side of the label during operation at a contact location and determines with the first presentation roller a label advance direction which extends along a first common tangent plane of the two presentation rollers (2, 3), a label holder which is arranged in the label advance direction spaced apart from the first presentation roller and in addition offset from the first tangent plane away from the second presentation roller, a first housing component in which the first presentation roller and the label holder are secured and which can be pivoted about a rotation axis, characterised in that the first housing component has a slotted bearing which supports the second presentation roller and which has a first slotted flank facing away from the rotation axis, a second slotted flank which is arranged in a V-shaped manner with respect to the first slotted flank and a recess, which extends from a first transition of the first slotted flank to the recess as far as a second transition of the second slotted flank to the recess, wherein the first slotted flank extends substantially along a second tangent plane, in which the first transition is located, and which is perpendicular to a first plane in which the first transition and the rotation axis are located, and wherein the second slotted flank starting from the second transition is inclined towards a second plane which is located in the rotation axis of the second presentation roller and which is perpendicular to a third plane which is defined by the contact location and the label holder.
Ironing device for ironing laundry to be ironed, comprising: - a heated ironing bed, preferably formed between at least one ironing roller and at least one trough; - a supply conveyor bed for conveying the laundry to be ironed to the ironing bed; - a discharge conveyor bed for conveying the laundry to be ironed away from the ironing bed; - a preheater for preheating the laundry to be ironed on the supply conveyor bed; - a heat recovery device for recovering heat emanating from the laundry to be ironed on the discharge conveyor bed; - a heat transfer device for transferring heat from the heat recovery device to the preheater; and characterized in that: the heat recovery device is configured for accommodating an air stream or gas stream over and/or through the laundry to be ironed, preferably the laundry to be ironed on the discharge conveyor bed; wherein the preheater is configured for accommodating an air stream or gas stream over and/or through the laundry to be ironed, preferably the laundry to be ironed on the supply conveyor bed; and wherein the heat transfer device comprises an air duct configured for supplying to the preheater at least some of the air stream or the gas stream over and/or through the laundry to be ironed from the heat recovery device. - a heated ironing bed, preferably formed between at least one ironing roller and at least one trough; - a supply conveyor bed for conveying the laundry to be ironed to the ironing bed; - a discharge conveyor bed for conveying the laundry to be ironed away from the ironing bed; - a preheater for preheating the laundry to be ironed on the supply conveyor bed; - a heat recovery device for recovering heat emanating from the laundry to be ironed on the discharge conveyor bed; - a heat transfer device for transferring heat from the heat recovery device to the preheater; the heat recovery device is configured for accommodating an air stream or gas stream over and/or through the laundry to be ironed, preferably the laundry to be ironed on the discharge conveyor bed; wherein the preheater is configured for accommodating an air stream or gas stream over and/or through the laundry to be ironed, preferably the laundry to be ironed on the supply conveyor bed; and wherein the heat transfer device comprises an air duct configured for supplying to the preheater at least some of the air stream or the gas stream over and/or through the laundry to be ironed from the heat recovery device.
A computer-implemented method comprising: storing, at a computing device, application metadata corresponding to one or more identification tokens (734, 806) embedded in an application (720, 800) installed at the computing device; challenging the application to provide a response prior to granting the application access to a computing resource; generating an expected response that is based, at least in part, on the application metadata (718, 822) stored at the computing device; comparing the expected response to the response received from the application; and either granting or denying the application access to the computing resource based on whether the expected response matches the response received. storing, at a computing device, application metadata corresponding to one or more identification tokens (734, 806) embedded in an application (720, 800) installed at the computing device; challenging the application to provide a response prior to granting the application access to a computing resource; generating an expected response that is based, at least in part, on the application metadata (718, 822) stored at the computing device; comparing the expected response to the response received from the application; and either granting or denying the application access to the computing resource based on whether the expected response matches the response received.
A combusting system comprising a plurality of combustors (3a, 3b) each including a fuel pipe (106, 107) that supplies fuel to a fuel nozzle, and a fuel purge system connected to the fuel pipe (106, 107), whereby adjacent ones of the plurality of combustors (3a, 3b) are interconnected through a cross fire tube, and some of the plurality of combustors (3a, 3b) each include an igniter, characterized in that means are provided for delaying fuel injection from the combustion nozzle of the combustor with the igniter compared to fuel injection from the combustion nozzle of the combustor without the igniter in an event of ignition. a plurality of combustors (3a, 3b) each including a fuel pipe (106, 107) that supplies fuel to a fuel nozzle, and a fuel purge system connected to the fuel pipe (106, 107), whereby adjacent ones of the plurality of combustors (3a, 3b) are interconnected through a cross fire tube, and some of the plurality of combustors (3a, 3b) each include an igniter, characterized in that means are provided for delaying fuel injection from the combustion nozzle of the combustor with the igniter compared to fuel injection from the combustion nozzle of the combustor without the igniter in an event of ignition.
A method for scheduling communications in wireless networks using traffic aggregation, comprising: communicating, by a user equipment, UE, with a first access point using a first RAT to access a first wireless wide area network; communicating, by the UE, with a second access point using a second RAT to access a second wireless local area network, wherein communicating with the second access point comprises accessing the first wireless wide area network via the second wireless local area network to implement traffic aggregation, wherein the first access point is configured to aggregate traffic to communicate with both of the first access point and the second access point; receiving, from the first access point after the traffic aggregation is configured, one or more parameters for scheduling, by the UE, communications with the second access point, using the second RAT, over the second wireless local area network; determining, by the UE, an amount of data to transmit over the second wireless local area network based at least in part on the one or more parameters; and configuring, by the UE, the amount of data for communications with the second access point. communicating, by a user equipment, UE, with a first access point using a first RAT to access a first wireless wide area network; communicating, by the UE, with a second access point using a second RAT to access a second wireless local area network, wherein communicating with the second access point comprises accessing the first wireless wide area network via the second wireless local area network to implement traffic aggregation, wherein the first access point is configured to aggregate traffic to communicate with both of the first access point and the second access point; receiving, from the first access point after the traffic aggregation is configured, one or more parameters for scheduling, by the UE, communications with the second access point, using the second RAT, over the second wireless local area network; determining, by the UE, an amount of data to transmit over the second wireless local area network based at least in part on the one or more parameters; and configuring, by the UE, the amount of data for communications with the second access point.
An optical fiber distributed sensor system, comprising: an optical source arranged in use to produce optical signal pulses; an optical fiber deployable in use in an environment to be sensed and arranged in use to receive the optical signal pulses; and sensing apparatus arranged in use to detect light from the optical signal pulses reflected back along the optical fiber and to determine any one or more of an acoustic, vibration, temperature or other parameter that perturbs the path length of the optical fiber in dependence on the reflected light; wherein the optical fiber comprises a plurality of macroscopic separate sensing regions each having a plurality of microscopic reflector portions distributed along their lengths, and a plurality of pulse transmission portions each being a section of optical fiber in which no reflector portions are provided, the plurality of sensing regions being separated and connected by the pulse transmission portions, and at least one pulse transmission portion being located between the optical source and a first sensing region, configured in use to transport the optical signal pulses from the optical source to the first sensing region having the reflectors; wherein the system is an optical fiber distributed acoustic sensor system arranged to sense acoustic signals incident upon the optical fiber. an optical source arranged in use to produce optical signal pulses; an optical fiber deployable in use in an environment to be sensed and arranged in use to receive the optical signal pulses; and sensing apparatus arranged in use to detect light from the optical signal pulses reflected back along the optical fiber and to determine any one or more of an acoustic, vibration, temperature or other parameter that perturbs the path length of the optical fiber in dependence on the reflected light; wherein the optical fiber comprises a plurality of macroscopic separate sensing regions each having a plurality of microscopic reflector portions distributed along their lengths, and a plurality of pulse transmission portions each being a section of optical fiber in which no reflector portions are provided, the plurality of sensing regions being separated and connected by the pulse transmission portions, and at least one pulse transmission portion being located between the optical source and a first sensing region, configured in use to transport the optical signal pulses from the optical source to the first sensing region having the reflectors; wherein the system is an optical fiber distributed acoustic sensor system arranged to sense acoustic signals incident upon the optical fiber.
A method for treatment of organic waste by means of hydrothermal carbonization, in which method organic waste is fed from at least one source of organic waste to at least one wet waste tank (1, 2), organic waste is fed from the at least one wet waste tank to a wet waste mixing tank, a first batch of mixed wet waste is fed from the wet waste mixing tank to a first thermal reactor, in which the first batch of mixed wet waste is subjected to heating and pressurizing under continuous mixing of the mixed wet waste under given process conditions in a thermal hydrolysis process, whereby when the process in the first thermal reactor is completed, bio-char sludge is deposited as a sediment on the bottom of the first thermal reactor, after which a second batch of mixed wet waste is fed from the wet waste mixing tank to a second thermal reactor, in which the second batch of mixed wet waste is subjected to heating and pressurizing under continuous mixing of the mixed wet waste under given process conditions in a thermal hydrolysis process, whereby when the process in the second thermal reactor is completed, bio-char sludge is deposited as a sediment on the bottom of the second thermal reactor, whereby after bio-char sludge is deposited on the bottom of the first thermal reactor and on the bottom of the second thermal reactor, bio-char sludge is discharged from the first thermal reactor and the second thermal reactor in an alternating manner to a bio-char cooler for cooling the bio-char sludge, whereby the process sequences continue in an alternating manner from reactor to reactor, in which method heating and pressurizing for the thermal hydrolysis process is carried out by supplying steam from an upper part of the first thermal reactor through a steam conduit provided with a two-way valve to a lower part of the second thermal reactor and subsequently from an upper part of the second thermal reactor through a steam conduit provided with a two-way valve to a lower part of the first thermal reactor in an alternating manner for the respective hydrolysis process, characterized in that after steam from the first thermal reactor has been supplied to the second thermal reactor hot and pressurized water from the first thermal reactor is supplied to the second thermal reactor by means of a water conduit, which provides a connection between the water levels of the first thermal reactor and the second thermal reactor, provided with a pump for achieving the given process conditions and subsequently after steam has been supplied from the second thermal reactor to the first thermal reactor hot and pressurized water from the second thermal reactor is supplied to the first thermal reactor by means of a water conduit, which provides a connection between the water levels of the second thermal reactor and the first thermal reactor, provided with a pump for achieving the given process conditions in an alternating manner for the respective hydrolysis process.
A method of transmitting data in a multi carrier communication system, the method comprising: performing a serial to parallel, S/P, conversion on input data, the input data being converted into K sequential data blocks, each having a uniform size M; performing an inverse fast fourier transform, IFFT, operation on the sequential data blocks to generate IFFT performed data blocks, wherein the performing comprises storing K-1 IFFT performed data blocks in a memory with K-1 memory blocks and outputting in parallel the stored K-1 data blocks and one last IFFT performed data block; multiplying the outputted IFFT performed data blocks and K × M time axis filter coefficients of a filter with filter order K to generate multiplied data blocks; summing the multiplied data blocks; and transmitting a multi carrier signal, the multi carrier signal being generated based on the sum of the multiplied data blocks, wherein a size of an IFFT is fixed to the uniform size of the sequential data blocks. performing a serial to parallel, S/P, conversion on input data, the input data being converted into K sequential data blocks, each having a uniform size M; performing an inverse fast fourier transform, IFFT, operation on the sequential data blocks to generate IFFT performed data blocks, wherein the performing comprises storing K-1 IFFT performed data blocks in a memory with K-1 memory blocks and outputting in parallel the stored K-1 data blocks and one last IFFT performed data block; multiplying the outputted IFFT performed data blocks and K × M time axis filter coefficients of a filter with filter order K to generate multiplied data blocks; summing the multiplied data blocks; and transmitting a multi carrier signal, the multi carrier signal being generated based on the sum of the multiplied data blocks, wherein a size of an IFFT is fixed to the uniform size of the sequential data blocks.
An air pollution control apparatus comprising: a stack that discharges flue gas, discharged from an industrial facility, outside; a blower that is provided downstream of the stack and draws in the flue gas; and a CO 2 recovering apparatus that recovers CO 2 in the flue gas drawn in by the blower, the stack includes a controlling unit that suppresses inflow of atmosphere to the stack, characterized in that the controlling unit is a leak suppressing unit, and the leak suppressing unit is at least three resistive parts that are provided on a wall surface of the stack, and extend toward an exit of the stack when viewed from a cross-sectional direction in a longitudinal direction of the stack. a stack that discharges flue gas, discharged from an industrial facility, outside; a blower that is provided downstream of the stack and draws in the flue gas; and a CO 2 recovering apparatus that recovers CO 2 in the flue gas drawn in by the blower, the stack includes a controlling unit that suppresses inflow of atmosphere to the stack, characterized in that the controlling unit is a leak suppressing unit, and the leak suppressing unit is at least three resistive parts that are provided on a wall surface of the stack, and extend toward an exit of the stack when viewed from a cross-sectional direction in a longitudinal direction of the stack.
A method for manufacturing a metal smart card (1A, 1B) comprising a metal insert having a peripheral edge extending to the peripheral edge of the card and at least one printed cover sheet, said method comprising the following steps: - assembling a printed support sheet and at least one insert using an assembly tray comprising elements (15, 16) for positioning the support sheet and each insert, - extracting each metal smart card (1A, 1B) from the printed support sheet by cutting or machining the sheet around a periphery of the insert, characterised in that it comprises the use of a thickness compensation sheet for each insert, said compensation sheet comprising at least one housing configured to the dimensions of the insert in order to receive the insert during assembly, and perforations (25, 26) configured to engage with said positioning elements (15, 16) of the assembly tray in order to position them with respect to the insert. - assembling a printed support sheet and at least one insert using an assembly tray comprising elements (15, 16) for positioning the support sheet and each insert, - extracting each metal smart card (1A, 1B) from the printed support sheet by cutting or machining the sheet around a periphery of the insert, characterised in that it comprises the use of a thickness compensation sheet for each insert, said compensation sheet comprising at least one housing configured to the dimensions of the insert in order to receive the insert during assembly, and perforations (25, 26) configured to engage with said positioning elements (15, 16) of the assembly tray in order to position them with respect to the insert.