mhurhangee/ep-ind-claims huggingface dataset:
A magnetized coaxial plasma generation device configured to generate spheromak plasma, the magnetized coaxial plasma generation device comprising: an external electrode; an internal electrode disposed coaxially with the external electrode; and a plasma generation gas supply section configured to supply plasma generation gas between the external and internal electrodes; a bias coil disposed inside the internal electrode and configured to generate a bias magnetic field between the external and internal electrodes; a power supply circuit configured to apply a load signal between the external and internal electrodes (1, 2); a pulse power supply configured to pulse-drive the bias coil; characterised by a magnetic flux conservation section disposed outside the external electrode and formed of copper or a copper alloy; and by a control section configured to control the pulse power supply for the bias coil so as to pulse-drive the bias coil for a time sufficient to apply a bias magnetic field necessary to generate the spheromak plasma between the external and internal electrodes and within a time shorter than a skin time of the magnetic flux of the bias magnetic field into the magnetic flux conservation section. an external electrode; an internal electrode disposed coaxially with the external electrode; and a plasma generation gas supply section configured to supply plasma generation gas between the external and internal electrodes; a bias coil disposed inside the internal electrode and configured to generate a bias magnetic field between the external and internal electrodes; a power supply circuit configured to apply a load signal between the external and internal electrodes (1, 2); a pulse power supply configured to pulse-drive the bias coil; characterised by a magnetic flux conservation section disposed outside the external electrode and formed of copper or a copper alloy; and by a control section configured to control the pulse power supply for the bias coil so as to pulse-drive the bias coil for a time sufficient to apply a bias magnetic field necessary to generate the spheromak plasma between the external and internal electrodes and within a time shorter than a skin time of the magnetic flux of the bias magnetic field into the magnetic flux conservation section.
A method for manufacturing a thin-layer photovoltaic device, comprising the following steps: - providing a substrate; - laying a photovoltaic film on said substrate by the superposition of layers comprising, in this order, at least a first conductive layer forming a rear electrical contact, a second photoactive layer absorbent in the solar spectrum based in inorganic material, and a third layer made of transparent conductive material forming a front electrical contact; - dividing the photovoltaic film into a plurality of individual interconnected photovoltaic cells, each cell being connected in series or in parallel with one or more adjacent cell(s) and electrically isolated from the other adjacent cells, wherein, at the moment of laying the photovoltaic film, a plurality of individual holes, passing through at least the first and second layers (4, 5) of the photovoltaic film in each cell, are arranged by applying a mask according to a printing method, in particular of the material jet, flexography, screen printing, or pad printing digital print type, said mask having main areas defining a positive stencil of said holes; said method being characterized in that it comprises the following steps: - depositing the mask directly on the substrate, said mask forming a positive stencil of the holes; - depositing uniformly a first conductive layer which covers the mask and the bare areas of the substrate. - providing a substrate; - laying a photovoltaic film on said substrate by the superposition of layers comprising, in this order, at least a first conductive layer forming a rear electrical contact, a second photoactive layer absorbent in the solar spectrum based in inorganic material, and a third layer made of transparent conductive material forming a front electrical contact; - dividing the photovoltaic film into a plurality of individual interconnected photovoltaic cells, each cell being connected in series or in parallel with one or more adjacent cell(s) and electrically isolated from the other adjacent cells, - depositing the mask directly on the substrate, said mask forming a positive stencil of the holes; - depositing uniformly a first conductive layer which covers the mask and the bare areas of the substrate.
A system for disrupting target tissue for treatment and evaluating disruption of the target tissue, the system comprising: an imaging device for acquiring a digital representation of at least a portion of a target volume of the target tissue; an ultrasound transducer for generating and delivering at least one sonication of shaped energy beams to the target volume for causing disruption of the target tissue in a region corresponding to the target volume so as to increase tissue permeability therein; the system being characterised by comprising: a controller, responsive to the imaging device, configured to generate a tissue permeability map indicating regions of increased tissue permeability and estimates of the tissue permeability due to the disruption and to computationally evaluate, based on the tissue permeability map, the disruption of the target tissue within the target volume; wherein the controller is further configured to computationally determine, based on the tissue permeability map, whether tissue within the target volume can admit a therapeutic agent. an imaging device for acquiring a digital representation of at least a portion of a target volume of the target tissue; an ultrasound transducer for generating and delivering at least one sonication of shaped energy beams to the target volume for causing disruption of the target tissue in a region corresponding to the target volume so as to increase tissue permeability therein; the system being characterised by comprising: a controller, responsive to the imaging device, configured to generate a tissue permeability map indicating regions of increased tissue permeability and estimates of the tissue permeability due to the disruption and to computationally evaluate, based on the tissue permeability map, the disruption of the target tissue within the target volume; wherein the controller is further configured to computationally determine, based on the tissue permeability map, whether tissue within the target volume can admit a therapeutic agent. a controller, responsive to the imaging device, configured to generate a tissue permeability map indicating regions of increased tissue permeability and estimates of the tissue permeability due to the disruption and to computationally evaluate, based on the tissue permeability map, the disruption of the target tissue within the target volume; wherein the controller is further configured to computationally determine, based on the tissue permeability map, whether tissue within the target volume can admit a therapeutic agent.
A phase alignment circuit of a receive end for receiving electromagnetic energy through wireless communication, comprising: a current detection circuit, a filter, a phase measurement circuit and a controller, wherein a first input end of the phase measurement circuit is connected to an output end of the current detection circuit, and a second input end of the phase measurement circuit is connected to an output end of the filter; the current detection circuit is configured to detect an input current of a rectifier; the filter is configured to filter the input current to obtain an input current fundamental component; the phase measurement circuit is configured to obtain a difference between a phase of the input current and a phase of the input current fundamental component; and the controller is configured to: use, as an actual phase shift angle, a result obtained by subtracting the phase difference from a preset phase shift angle, and control a phase of a bridge arm voltage of the rectifier to lag behind the phase of the input current fundamental component by the actual phase shift angle. a first input end of the phase measurement circuit is connected to an output end of the current detection circuit, and a second input end of the phase measurement circuit is connected to an output end of the filter; the current detection circuit is configured to detect an input current of a rectifier; the filter is configured to filter the input current to obtain an input current fundamental component; the phase measurement circuit is configured to obtain a difference between a phase of the input current and a phase of the input current fundamental component; and the controller is configured to: use, as an actual phase shift angle, a result obtained by subtracting the phase difference from a preset phase shift angle, and control a phase of a bridge arm voltage of the rectifier to lag behind the phase of the input current fundamental component by the actual phase shift angle.
A system for fluid processing, comprising: a microfluidic device including a well and a channel component; wherein the channel component includes (a) a body including a bottom surface attached to the well and a top surface having a microchannel formed therein, (b) an input tube projecting into the well from the bottom surface of the body, (c) a passage extending through the input tube and the body, and (d) a sample port directly over the well and separate from the passage, the sample port being open on top to provide access to the well from above the microfluidic device, and wherein the system is configured to receive a sample-containing fluid dispensed into the well through the sample port with a fluid-transfer device, such that the sample-containing fluid is in contact with a bottom end of the passage and is retained, with assistance from gravity, below a top end of the passage and out of contact with the microchannel until a pressure differential is created that drives at least a portion of the sample-containing fluid from the well via the passage and through the microchannel. a microfluidic device including a well and a channel component; wherein the channel component includes (a) a body including a bottom surface attached to the well and a top surface having a microchannel formed therein, (b) an input tube projecting into the well from the bottom surface of the body, (c) a passage extending through the input tube and the body, and (d) a sample port directly over the well and separate from the passage, the sample port being open on top to provide access to the well from above the microfluidic device, and wherein the system is configured to receive a sample-containing fluid dispensed into the well through the sample port with a fluid-transfer device, such that the sample-containing fluid is in contact with a bottom end of the passage and is retained, with assistance from gravity, below a top end of the passage and out of contact with the microchannel until a pressure differential is created that drives at least a portion of the sample-containing fluid from the well via the passage and through the microchannel.
A balancer (100, 110a, 100b) arranged to be mounted to a rotary drum to counterbalance an unbalanced load generated in rotation of the rotary drum, the balancer (100, 100a, 100b) comprising: at least one balancing module (200, 200a, 200b, 300) configured to move to a position capable of counterbalancing the unbalanced load of the rotary drum; and a balancer housing formed with a ring-shaped channel therein along which the balancing module (200, 200a, 200b, 300) is arranged to move; characterised by the balancer housing including: at least one electrode (111, 112) provided at an inner surface of the balancer housing in a circumferential direction of the balancer housing; and a connector provided at an outer surface of the balancer housing in order to electrically connect an external power source and the electrode. (111, 112) at least one balancing module (200, 200a, 200b, 300) configured to move to a position capable of counterbalancing the unbalanced load of the rotary drum; and a balancer housing formed with a ring-shaped channel therein along which the balancing module (200, 200a, 200b, 300) is arranged to move; characterised by the balancer housing including: at least one electrode (111, 112) provided at an inner surface of the balancer housing in a circumferential direction of the balancer housing; and a connector provided at an outer surface of the balancer housing in order to electrically connect an external power source and the electrode. (111, 112)
Probe for measuring an electrical field, comprising: - at least one antenna adapted to receive a broadband RF signal; - a diplexer comprising an input coupled to the antenna, the diplexer being configured for transmitting the received broadband RF signal to a low frequency band signal output and a high frequency band signal output such that the broadband RF signal is reflected in the combination of the low frequency band signal output and the high frequency band signal output; - a low frequency band detection circuit connected to the low frequency band signal output for detecting a low frequency band RF signal, and adapted for feeding the detected signal to a processing circuit; - a high frequency band detection circuit connected to the high frequency band signal output for detecting a high frequency band RF signal and adapted for feeding the detected signal to said processing circuit; and - said processing circuit for processing the detected signals. - at least one antenna adapted to receive a broadband RF signal; - a diplexer comprising an input coupled to the antenna, the diplexer being configured for transmitting the received broadband RF signal to a low frequency band signal output and a high frequency band signal output such that the broadband RF signal is reflected in the combination of the low frequency band signal output and the high frequency band signal output; - a low frequency band detection circuit connected to the low frequency band signal output for detecting a low frequency band RF signal, and adapted for feeding the detected signal to a processing circuit; - a high frequency band detection circuit connected to the high frequency band signal output for detecting a high frequency band RF signal and adapted for feeding the detected signal to said processing circuit; and - said processing circuit for processing the detected signals.
A homogeneous population of isolated placental stem cells, wherein said placental stem cells are fibroblastoid, adherent to tissue culture plastic, and are MSC-like, wherein said placental stem cells are obtainable from a placenta that has been drained of cord blood and perfused to remove residual blood, and wherein said placental stem cells are obtained from said placenta by a method comprising: (i) perfusion to produce cell-containing perfusate, (ii) isolation of cells from the perfusate, (iii) culture of said cells on tissue culture plastic, (iv) trypsinization of said cells for about five minutes with a solution of 0.05% trypsin with 0.2% EDTA to release placental stem cells; (v) isolating the placental stem cells after trypsinization.
Motorised work device such as a chain saw, a hand grinder, a hand-held circular saw, a lawnmower, lawn trimmer or other manually operated tool or device for garden and landscape maintenance, comprising an internal combustion engine with at least one cylinder and at least one carburettor, wherein a housing is provided which at least partially encloses an engine compartment so that an upper section of the cylinder extends towards the housing, wherein a fan impeller is also provided, by means of which air can be introduced from the engine compartment through a hot-air opening into the carburettor chamber, wherein the carburettor is arranged in a carburettor chamber which is separated from the engine compartment by a partition panel, wherein the hot-air opening is arranged in the area of the partition panel adjacent to the upper section of the cylinder, and wherein a spark plug is arranged on the cylinder in the area of the upper section thereof, wherein the hot-air opening is arranged in the area of the spark plug or adjoining the spark plug, wherein the housing has means that create a flow of air from the fan impeller towards the hot-air opening and that are arranged on the inside of the housing, and wherein the means comprise at least one and preferably a plurality of air guide ribs and/or at least one and preferably a plurality of air guide panels that are arranged in particular on the inside of the housing, characterized in that in addition to the hot-air opening an engine compartment opening is provided, through which air supplied by the fan impeller can be introduced into the carburettor chamber, wherein a dust pre-separation means is provided, wherein at least the air that can be introduced into the carburettor chamber through the engine compartment opening can be introduced into the carburettor chamber via the dust pre-separation means, which air in particular has a lower temperature than the air that can be introduced into the carburettor chamber through the hot-air opening.
Method for controlling a facility for transporting vehicles using at least one continuously moving cable, the method comprising: - a step of determining at least one oscillation of the cable and/or of at least one of the vehicles on the basis of at least one parameter chosen from the following parameters: an average tension of the cable, an average speed ( v) of the cable, a distance ( d) between two successive vehicles, and an average mass ( m) transported by the vehicles, - a step of generating a database which links an oscillation value to a combination of the average tension of the cable, the average speed ( v) of the cable, the distance ( d) between two successive vehicles, and the average mass ( m) transported by the vehicles, and - a step of reducing the oscillation by varying one or more parameters to be varied among the parameters according to the database. - a step of determining at least one oscillation of the cable and/or of at least one of the vehicles on the basis of at least one parameter chosen from the following parameters: an average tension of the cable, an average speed ( v) of the cable, a distance ( d) between two successive vehicles, and an average mass ( m) transported by the vehicles, - a step of generating a database which links an oscillation value to a combination of the average tension of the cable, the average speed ( v) of the cable, the distance ( d) between two successive vehicles, and the average mass ( m) transported by the vehicles, and - a step of reducing the oscillation by varying one or more parameters to be varied among the parameters according to the database.
An MIPI switch, wherein the MIPI switch comprises: a pin module, wherein the pin module comprises a first pin; a sub-switch module, wherein the sub-switch module comprises at least one sub-switch; and a controller, configured to: receive an MIPI instruction, wherein the MIPI instruction comprises a control instruction and an address bit; wherein the address bit is used to represent an address information included in the MIPI instruction; when determining that the address information included in the MIPI instruction is the same address information as used to control the MIPI switch, determine a Y-bit instruction in the control instruction based on a status of the first pin, wherein the control instruction comprises an X-bit instruction, and Y is less than or equal to X; and switch the at least one sub-switch based on the Y-bit instruction. a pin module, wherein the pin module comprises a first pin; a sub-switch module, wherein the sub-switch module comprises at least one sub-switch; and a controller, configured to: receive an MIPI instruction, wherein the MIPI instruction comprises a control instruction and an address bit; wherein the address bit is used to represent an address information included in the MIPI instruction; when determining that the address information included in the MIPI instruction is the same address information as used to control the MIPI switch, determine a Y-bit instruction in the control instruction based on a status of the first pin, wherein the control instruction comprises an X-bit instruction, and Y is less than or equal to X; and switch the at least one sub-switch based on the Y-bit instruction.
A negative pressure guided bone cement injection system, comprising: a pushing system, pushing a bone cement material into an injection target region directly, comprising a bone cement implantation system, wherein the bone cement material is pushed in the bone cement implantation system for delivery; characterized in that the negative pressure guided bone cement injection system further comprises: a negative pressure system, comprising a negative pressure introduction device, wherein the negative pressure introduction device comprises a cavity, a side connected to a negative pressure source, and a first opening on an opposite side; wherein the negative pressure source is for introducing a negative pressure and the first opening is for outputting the negative pressure introduced from the negative pressure source through the cavity to the injection target region; a control system, connected to the negative pressure system and the pushing system; and at least one sensing device, disposed at any position of the negative pressure system and electrically connected to the control system for sensing at least one environmental parameter and sending the at least one environmental parameter to the control system. a pushing system, pushing a bone cement material into an injection target region directly, comprising a bone cement implantation system, wherein the bone cement material is pushed in the bone cement implantation system for delivery; a negative pressure system, comprising a negative pressure introduction device, wherein the negative pressure introduction device comprises a cavity, a side connected to a negative pressure source, and a first opening on an opposite side; wherein the negative pressure source is for introducing a negative pressure and the first opening is for outputting the negative pressure introduced from the negative pressure source through the cavity to the injection target region; a control system, connected to the negative pressure system and the pushing system; and at least one sensing device, disposed at any position of the negative pressure system and electrically connected to the control system for sensing at least one environmental parameter and sending the at least one environmental parameter to the control system.
A riding lawn care vehicle comprising an auto idle assembly, the riding lawn care vehicle further comprising a mobility assembly configured to support the riding lawn care vehicle during movement over ground, a working assembly configured to perform a working function, an engine operably coupled to the mobility assembly and the working assembly and comprising a throttle, and a drive control system configured to control delivery of the power from the engine to the mobility assembly, the engine configured to selectively provide power to the mobility assembly and the working assembly, wherein the auto idle assembly comprises a control unit configured to detect predetermined criteria and, in response to the detection of the predetermined criteria, automatically provide inputs to the drive control system to cause a shift of the throttle to an idle position, wherein the control unit is operably coupled to at least one sensor, and wherein the control unit is configured to monitor a status of the at least one sensor and initiate the shift of the throttle to the idle position based on the status and wherein the at least one sensor is configured to detect placement of steering levers of the riding lawn care vehicle in an outboard position, and wherein the control unit is configured to initiate the shift of the throttle to the idle position based on detection of the steering levers placed in the outboard position..