mhurhangee/patent-ind-claim-en huggingface dataset:
Electromagnetic assembly for an LLC resonant converter, comprising a ferrite structure (S), said ferrite structure (S) comprising: - a first compartment housing a single-phase transformer, said single-phase transformer comprising a secondary winding (L2) wound around a first magnetic core (N1) and a primary winding (L1) wound around said secondary winding (L2), - a second compartment housing the series inductance of said LLC resonant converter, the series inductance comprising a winding wound around a second magnetic core (N2), said electromagnetic assembly being characterized in that said winding of said series inductance comprises a first coil (Lr1) wound around said second magnetic core (N2) and connected electrically to a terminal of said primary winding (L1), the other terminal of said primary winding (L1) being connected electrically to a second coil (Lr2) of said series inductance, said second coil (Lr2) being wound around said first coil (Lr1), the terminals of the series inductance and primary winding (L1) assembly being formed by a terminal of said first coil (Lr1) and a terminal of said second coil (Lr2). - a first compartment housing a single-phase transformer, said single-phase transformer comprising a secondary winding (L2) wound around a first magnetic core (N1) and a primary winding (L1) wound around said secondary winding (L2), - a second compartment housing the series inductance of said LLC resonant converter, the series inductance comprising a winding wound around a second magnetic core (N2),
A method of processing optical signal, the method comprising: receiving, by a multistage semiconductor demultiplexer having integrated semiconductor filters and integrated semiconductor amplifiers , an input signal having multiple optical signals, the integrated semiconductor filters comprising a Mach-Zehnder interferometer filter in an initial stage of the multistage semiconductor demultiplexer and additional Mach-Zehnder interferometer filters in an additional stage of the multistage semiconductor demultiplexer, the integrated semiconductor amplifiers comprising semiconductor optical amplifiers between the initial stage and the additional stage; separating the multiple optical signals using the Mach-Zehnder interferometer filter in the initial stage; generating, within the multistage semiconductor demultiplexer and using the semiconductor optical amplifiers, amplified optical signals by amplifying the multiple optical signals that have been separated by the Mach-Zehnder interferometer filter in the initial stage; and generating filtered optical signals by filtering the amplified optical signals using the additional Mach-Zehnder interferometer filters in the additional stage. receiving, by a multistage semiconductor demultiplexer having integrated semiconductor filters and integrated semiconductor amplifiers , an input signal having multiple optical signals, the integrated semiconductor filters comprising a Mach-Zehnder interferometer filter in an initial stage of the multistage semiconductor demultiplexer and additional Mach-Zehnder interferometer filters in an additional stage of the multistage semiconductor demultiplexer, the integrated semiconductor amplifiers comprising semiconductor optical amplifiers between the initial stage and the additional stage; separating the multiple optical signals using the Mach-Zehnder interferometer filter in the initial stage; generating, within the multistage semiconductor demultiplexer and using the semiconductor optical amplifiers, amplified optical signals by amplifying the multiple optical signals that have been separated by the Mach-Zehnder interferometer filter in the initial stage; and generating filtered optical signals by filtering the amplified optical signals using the additional Mach-Zehnder interferometer filters in the additional stage.
A heart valve prosthesis recapture device comprising: a heart valve prosthesis recapture sleeve configured to envelop and collapse a heart valve prosthesis which has been partially deployed from a capsule within a body lumen, wherein the recapture sleeve is suitable to fit over both the capsule and the heart valve prosthesis; and a guide wire ; the heart valve prosthesis recapture sleeve comprising: a distal end securely attached to the guide wire ; and a proximal end , and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule. a heart valve prosthesis recapture sleeve configured to envelop and collapse a heart valve prosthesis which has been partially deployed from a capsule within a body lumen, wherein the recapture sleeve is suitable to fit over both the capsule and the heart valve prosthesis; and a guide wire ; the heart valve prosthesis recapture sleeve comprising: a distal end securely attached to the guide wire ; and a proximal end , and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule. a distal end securely attached to the guide wire ; and a proximal end , and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule.
A method executed by a client device, comprising: - generating a request for a compressed neural network, wherein the generating request comprises at least an indication of an original neural network for a certain task, and including into the request the following requirements a description of a task of the neural network; a desired performance of the compressed neural network executing the task, wherein the desired performance of the compressed neural network is defined by a compression ratio and a deterioration level, where the compression ratio is specified according to computational resources of the client device, and wherein the used compression method is at least one of the following: a weight quantization, lossless source coding, pruning, singular value decomposition, filter selection, or structure design; - sending the request to a server; - receiving from the server a response comprising at least an identification for accessing at least one compressed neural network, said compressed neural network having been generated by the server with respect to an original neural network according to said requirements; and - obtaining the compressed neural network by means of said identification, and - running the compressed neural network to perform the task. - generating a request for a compressed neural network, wherein the generating request comprises at least an indication of an original neural network for a certain task, and including into the request the following requirements a description of a task of the neural network; a desired performance of the compressed neural network executing the task, wherein the desired performance of the compressed neural network is defined by a compression ratio and a deterioration level, where the compression ratio is specified according to computational resources of the client device, and wherein the used compression method is at least one of the following: a weight quantization, lossless source coding, pruning, singular value decomposition, filter selection, or structure design; a description of a task of the neural network; a desired performance of the compressed neural network executing the task, wherein the desired performance of the compressed neural network is defined by a compression ratio and a deterioration level, where the compression ratio is specified according to computational resources of the client device, and wherein the used compression method is at least one of the following: a weight quantization, lossless source coding, pruning, singular value decomposition, filter selection, or structure design; - sending the request to a server; - receiving from the server a response comprising at least an identification for accessing at least one compressed neural network, said compressed neural network having been generated by the server with respect to an original neural network according to said requirements; and - obtaining the compressed neural network by means of said identification, and - running the compressed neural network to perform the task.
A pump for dispensing a fluid product comprising a piston secured to an actuating stem and which slides in a pump body having a pump chamber defined between an inlet valve and an outlet valve , said outlet valve comprising an outlet valve element sliding during actuation in a sealed manner in the pump chamber , said pump chamber comprising passage means such that, at the end of actuation of the pump, said outlet valve element co-operates in a non-sealed manner with said passage means in order to open said outlet valve to allow the expulsion of the product contained in the pump chamber, said inlet valve comprising an inlet valve element which slides after closure of the inlet valve in a sleeve of the pump body , said sleeve of the pump body having a reduced diameter and containing a spring pressing firstly on said inlet valve element and secondly on a bottom of said sleeve of the pump body, said spring , in addition expelling the product, also returning the piston into its rest position, said outlet valve element is formed by a separate part which is inserted movably in said piston , with the interposition of a second spring , the force exerted by said second spring being greater than the force exerted by said spring in position at rest, and less than the force exerted by said spring in the actuated position.
Rain detection device for sensing rain drops on a surface , having at least one sensor unit comprising at least one capacitive sensor element , the sensor element being designed and/or arranged in such a way that a capacitance characteristic value of the sensor element changes depending on an object contacting the surface , and having at least one evaluation unit which is configured to detect rain drops on the surface depending on a differential signal from the sensor element , characterized in that the evaluation unit is configured to detect a rain drop on the surface depending on a symmetry characteristic value of the differential signal, in particular with respect to a zero point, wherein the symmetry characteristic value describes a symmetry of a signal shape and/or of separate value sets of the differential signal across a waveform and wherein the differential signal is defined as a temporal waveform of a rate of change of the capacitance characteristic value of the sensor element.
Combustion-operated setting tool for driving fastening elements into a substrate, having at least one main combustion chamber for a fuel, having a driving piston , which is able to be driven out of the main combustion chamber in a setting direction via expandable gases, having a control sleeve , and having a prechamber to which an ignition device is assigned and in which, before the ignition of a fuel/air mixture in the main combustion chamber , a pressure acting on the main combustion chamber is able to be built up, wherein the prechamber has a venting connection to a passage opening which can be closed and opened in order to allow the prechamber to be vented by means of a movement of the driving piston , characterized in that the prechamber has at least two venting connections (108; 109), spaced apart from one another in an axial direction, with passage openings (31, 32; 111, 112) which can be closed and opened in order to allow rapid venting of the prechamber by means of a movement of the driving piston , wherein the venting connections (108; 109) each comprise a series of passage openings (31, 32; 111, 112) in a prechamber cylinder , and wherein the venting connections (108; 109) comprise passage openings (37, 38; 117, 118) in the control sleeve , which, in an open position of the control sleeve , are brought into congruence with the passage openings (31, 32; 111, 112) in the prechamber cylinder in order to open the venting connections (108; 109).
Movable support of a pipeline, the moveable support containing associated movable and fixed parts, the movable part includes a cradle , made in the form of a semi-cylinder, at least two half-ringed stiffeners located on an outside of the cradle, detachable half-yokes , providing fixation of the pipeline in the cradle, side cheeks , rigidly connected with the cradle and flexibly fixed to a tower base support by a hinged joint , wherein the tower base is made with the possibility of sliding movement on the surface of a fixed part of the support, and characterised in that the fixed part of the support includes a pilework table made in the form of interconnected beams , jumpers and scarves with a base plate having a sliding surface, the sliding surface being located on top, and further comprising supporting assemblies of the hinged type, through which the pilework table is fastened to the pile foundation, and further comprising a dielectric friction material positioned on an interior surface of the half-yokes and the cradle, and wherein a bearing sleeve is installed freely with a gap relative to the pile foundation on two half-rings rigidly connected to the pile foundation and on which is placed a support plate with a hole corresponding to the inner diameter of the bearing sleeve , wherein the support plate is connected with the bearing sleeve by vertical rails and horizontal stiffeners, that increase the rigidity of the supporting assemblies. the movable part includes a cradle , made in the form of a semi-cylinder, at least two half-ringed stiffeners located on an outside of the cradle, detachable half-yokes , providing fixation of the pipeline in the cradle, side cheeks , rigidly connected with the cradle and flexibly fixed to a tower base support by a hinged joint , wherein the tower base is made with the possibility of sliding movement on the surface of a fixed part of the support, and characterised in that the fixed part of the support includes a pilework table made in the form of interconnected beams , jumpers and scarves with a base plate having a sliding surface, the sliding surface being located on top, and further comprising supporting assemblies of the hinged type, through which the pilework table is fastened to the pile foundation, and further comprising a dielectric friction material positioned on an interior surface of the half-yokes and the cradle, and wherein a bearing sleeve is installed freely with a gap relative to the pile foundation on two half-rings rigidly connected to the pile foundation and on which is placed a support plate with a hole corresponding to the inner diameter of the bearing sleeve , wherein the support plate is connected with the bearing sleeve by vertical rails and horizontal stiffeners, that increase the rigidity of the supporting assemblies.
Battery unit for a drive mechanism for a bicycle, comprising 1.1. at least one battery , 1.2. a housing for receiving the at least one battery with 1.2.1. at least one receptacle element for receiving at least one supporting element for mouting the battery unit in or on a bicycle frame and 1.3. at least one decoupling element interacting with the receptacle element for at least partially mechanically decoupling the supporting element incorporated in the receptacle element from the housing , 1.4. wherein the at least one decoupling element comprises a slide-in shaft , which is stuck through the at least one receptacle element , and 1.5. wherein the at least one decoupling element comprises at least one elastic and/or flexible component, by means of which the slide-in shaft is held in the receptacle element , 1.6. wherein the slide-in shaft has a play in the axial direction relative to the housing of the battery unit . 1.1. at least one battery , 1.2. a housing for receiving the at least one battery with 1.2.1. at least one receptacle element for receiving at least one supporting element for mouting the battery unit in or on a bicycle frame and 1.3. at least one decoupling element interacting with the receptacle element for at least partially mechanically decoupling the supporting element incorporated in the receptacle element from the housing , 1.4. wherein the at least one decoupling element comprises a slide-in shaft , which is stuck through the at least one receptacle element , and 1.5. wherein the at least one decoupling element comprises at least one elastic and/or flexible component, by means of which the slide-in shaft is held in the receptacle element , 1.6. wherein the slide-in shaft has a play in the axial direction relative to the housing of the battery unit .
A method for direct bonding of a first substrate to a second substrate, the first and second substrate comprising dielectric bonding layers, wherein the bonding takes place by bringing the dielectric bonding layers into mutual contact to form a substrate assembly and subjecting the assembly to a post-bond anneal, and wherein both bonding layers are subjected to a pre-treatment prior to bonding, the pre-treatment comprising the following steps performed in the order in which they are stated : • a first plasma activation step in an inert gas plasma, • a second plasma activation step in an oxygen plasma, • a wet surface treatment including a water rinsing step or including an exposure to a water-containing ambient, and wherein the two dielectric bonding layers on the two substrates are two SiCO layers, or two SiCN layer, or two SiC layers. • a first plasma activation step in an inert gas plasma, • a second plasma activation step in an oxygen plasma, • a wet surface treatment including a water rinsing step or including an exposure to a water-containing ambient,
A method for finishing a surface comprising: passing a jet (102; 210) along a surface thereby creating a localized soft area (154; 254; 354); and trailing the jet (102; 210) with a shot peen nozzle (140; 240; 340) such that the localized soft area (154; 254; 354) is exposed to shot projected from the shot peen nozzle (140; 240; 340); characterisied in that: the jet (102; 210) is a plasma jet, and the method further comprises preventing at least one of errant shot and reflected shot from entering the plasma jet (102; 210). passing a jet (102; 210) along a surface thereby creating a localized soft area (154; 254; 354); and trailing the jet (102; 210) with a shot peen nozzle (140; 240; 340) such that the localized soft area (154; 254; 354) is exposed to shot projected from the shot peen nozzle (140; 240; 340); the jet (102; 210) is a plasma jet, and the method further comprises preventing at least one of errant shot and reflected shot from entering the plasma jet (102; 210).
A method for operating a gas turbine engine comprising: directing pressurized air to an air-driven auxiliary turbine and controlling, with a modulation device , a flow rate of the pressurized air directed to the auxiliary turbine ; generating electrical energy with an auxiliary generator in operable communication with the auxiliary turbine ; and storing the electrical energy in an energy storage device during a first engine loading condition; characterised by applying the electrical energy stored in the energy storage device to an electrical load at a second engine loading condition different than the first engine loading condition; establishing, with the modulation device , a first flow rate of the pressurized air at the first engine loading condition and a second flow rate of the pressurized air, different than the first flow rate of the pressurized air, at the second engine loading condition; wherein the first engine loading condition is an idle engine loading condition. directing pressurized air to an air-driven auxiliary turbine and controlling, with a modulation device , a flow rate of the pressurized air directed to the auxiliary turbine ; generating electrical energy with an auxiliary generator in operable communication with the auxiliary turbine ; and storing the electrical energy in an energy storage device during a first engine loading condition; characterised by applying the electrical energy stored in the energy storage device to an electrical load at a second engine loading condition different than the first engine loading condition; establishing, with the modulation device , a first flow rate of the pressurized air at the first engine loading condition and a second flow rate of the pressurized air, different than the first flow rate of the pressurized air, at the second engine loading condition; wherein the first engine loading condition is an idle engine loading condition.
A method comprising: in a security device cluster comprising a plurality of security devices (110; 112; 114) each configured to receive respective data flows, receiving a first segment of a flow at a first security device of the plurality of security devices; sending the first segment of the flow toward a destination node (160 or 170) without the first security device of the plurality of security devices asserting ownership over the flow; receiving, from the destination node (160 or 170), a second segment of the flow at a second security device of the plurality of security devices, the second segment of the flow being responsive to the first segment; asserting, by the second security device of the plurality of security devices, ownership over the flow; and as a result of the second security device asserting ownership over the flow, forwarding, from the first security device, packets of the flow subsequently received by the first security device to the second security device , such that the second security device receives and processes subsequent packets of the flow. in a security device cluster comprising a plurality of security devices (110; 112; 114) each configured to receive respective data flows, receiving a first segment of a flow at a first security device of the plurality of security devices; sending the first segment of the flow toward a destination node (160 or 170) without the first security device of the plurality of security devices asserting ownership over the flow; receiving, from the destination node (160 or 170), a second segment of the flow at a second security device of the plurality of security devices, the second segment of the flow being responsive to the first segment; asserting, by the second security device of the plurality of security devices, ownership over the flow; and as a result of the second security device asserting ownership over the flow, forwarding, from the first security device, packets of the flow subsequently received by the first security device to the second security device , such that the second security device receives and processes subsequent packets of the flow.