mhurhangee/ep-ind-claims huggingface dataset:
A compressor comprising: a plurality of synthetic jet assemblies (102;108,110,112), each synthetic jet assembly (108,110,112) of said plurality of synthetic jet assemblies in fluid communication with at least one other synthetic jet assembly of said plurality of synthetic jet assemblies, each synthetic jet assembly of said plurality of synthetic jet assemblies comprising: a first side plate comprising a first bimorph piezoelectric structure; and a second side plate comprising a second bimorph piezoelectric structure, said first side plate and said second side plate defining a first fluid cavity extending between said first side plate and said second side plate; characterized by a check valve, said check valve coupled to a first synthetic jet assembly of said plurality of synthetic jet assemblies, said check valve further coupled to a second synthetic jet assembly of said plurality of synthetic jet assemblies, said check valve oriented to facilitate flow of a fluid from said first synthetic jet assembly to said second synthetic jet assembly, said check valve further oriented to restrict flow of the fluid from said second synthetic jet assembly to said first synthetic jet assembly. a first side plate comprising a first bimorph piezoelectric structure; and a second side plate comprising a second bimorph piezoelectric structure, said first side plate and said second side plate defining a first fluid cavity extending between said first side plate and said second side plate; characterized by a check valve, said check valve coupled to a first synthetic jet assembly of said plurality of synthetic jet assemblies, said check valve further coupled to a second synthetic jet assembly of said plurality of synthetic jet assemblies, said check valve oriented to facilitate flow of a fluid from said first synthetic jet assembly to said second synthetic jet assembly, said check valve further oriented to restrict flow of the fluid from said second synthetic jet assembly to said first synthetic jet assembly.
A charging pile system of parallel charging piles, wherein the charging pile system comprises at least two charging piles (101, 201), a charging plug (102, 202) is disposed on each charging pile, the charging plug is configured to charge load, and the charging plug comprises a power cable (106, 206) and a communications cable (104, 204), wherein a charging plug socket is further disposed on at least one charging pile, one end of the charging plug socket is connected to a power unit inside the charging pile on which the charging plug socket is disposed, and the other end of the charging plug socket is configured to be connected to a charging plug that is on another charging pile and that is inserted into the charging pile on which the charging plug is disposed; and when one charging pile on which the charging plug socket is disposed charges the load and a power requirement of the load is greater than power output of the one charging pile that charges the current load and on which the charging plug socket is disposed, the one charging pile is configured to insert the charging plug on the another charging pile in the charging pile system into the charging pile on which the charging plug socket is disposed, so that the power output of the charging pile that charges the current load meets the power requirement of the current load.
A vehicle control system, the vehicle control system comprising: an in-vehicle bus; a plurality of electronic control units (ECUs) coupled to the in-vehicle bus, wherein at least one ECU of the plurality of ECUs is configured to: receive, at a respective at least one ECU of the plurality of ECUs, a message in a message stream on the in-vehicle bus; evaluate the message to determine a significance value that aims to quantify how important it is to use or obtain a fresh or up-to-date measurement at any given point in time under a current safety circumstance or situation classification; and determine in real-time to allow or deny the message to the vehicle control system based on at least the significance value of the message to provide a sanitized message stream to the vehicle control system. an in-vehicle bus; a plurality of electronic control units (ECUs) coupled to the in-vehicle bus, wherein at least one ECU of the plurality of ECUs is configured to: receive, at a respective at least one ECU of the plurality of ECUs, a message in a message stream on the in-vehicle bus; evaluate the message to determine a significance value that aims to quantify how important it is to use or obtain a fresh or up-to-date measurement at any given point in time under a current safety circumstance or situation classification; and determine in real-time to allow or deny the message to the vehicle control system based on at least the significance value of the message to provide a sanitized message stream to the vehicle control system. receive, at a respective at least one ECU of the plurality of ECUs, a message in a message stream on the in-vehicle bus; evaluate the message to determine a significance value that aims to quantify how important it is to use or obtain a fresh or up-to-date measurement at any given point in time under a current safety circumstance or situation classification; and determine in real-time to allow or deny the message to the vehicle control system based on at least the significance value of the message to provide a sanitized message stream to the vehicle control system.
A knot placement device comprising: an elongate shaft with proximal and distal ends and a lumen extending therethrough; an intermediate tube having distal and proximal ends concentrically and slidably disposed within said shaft, the proximal end of said intermediate tube extending through the proximal end of said elongate shaft, wherein the distal end of the intermediate tube comprises a cutting surface; a knot positioned in the distal end of the elongate shaft within the lumen and configured to receive at least one suture portion therein; a push rod having proximal and distal ends slidably disposed in the lumen of said elongate shaft; and an actuator configured to distally advance said push rod relative to said elongate shaft to distally engage the knot, characterised in that the knot comprises a knot body, the knot body protruding slightly distal to the distal end of the elongate shaft and a plug, the plug being positioned in the lumen of the shaft proximal of the knot body, wherein distal advancement of the push rod pushes the plug distally into the knot body to secure the at least one suture portion relative to the knot, and further distal advancement of the push rod causes the cutting surface of the intermediate tube to sever the at least one suture portion and ejects the knot from the shaft. an elongate shaft with proximal and distal ends and a lumen extending therethrough; an intermediate tube having distal and proximal ends concentrically and slidably disposed within said shaft, the proximal end of said intermediate tube extending through the proximal end of said elongate shaft, wherein the distal end of the intermediate tube comprises a cutting surface; a knot positioned in the distal end of the elongate shaft within the lumen and configured to receive at least one suture portion therein; a push rod having proximal and distal ends slidably disposed in the lumen of said elongate shaft; and an actuator configured to distally advance said push rod relative to said elongate shaft to distally engage the knot, characterised in that the knot comprises a knot body, the knot body protruding slightly distal to the distal end of the elongate shaft and a plug, the plug being positioned in the lumen of the shaft proximal of the knot body, wherein distal advancement of the push rod pushes the plug distally into the knot body to secure the at least one suture portion relative to the knot, and further distal advancement of the push rod causes the cutting surface of the intermediate tube to sever the at least one suture portion and ejects the knot from the shaft.
A container (1, 10) for receiving a fluid, in particular an infusion fluid or irrigation fluid, comprising a fluid phase containing the fluid and a gas phase, wherein a fluid port is formed in the operating position in the lower region of the container (1, 10) and wherein the container has a gas port, which gas port is formed by a gas pipe comprising a first gas pipe end and a second gas pipe end, wherein the first gas pipe end extends into the gas phase of the container (1, 10) and the second gas pipe end ends outside of the container (1, 10), characterized in that the gas pipe is inseparably connected to the container (1, 10), the first gas pipe end is provided with a closure, the gas pipe extends with the first gas pipe end from a region of the container (1, 10) which is lower in the operating position or from a region of the container (1, 10) which is upper in the operating position into the gas phase, and the container (1, 10) is formed from a folded plastic film welded at the edges, with the gas pipe being welded to the plastic film.
A loop-mediated isothermal amplification (LAMP) reaction assembly comprising: a substantially hygroscopic agent free LAMP reagent mixture in combination with a solid-phase reaction medium, said reaction assembly being suitable for a colorimetric assay after rehydration of a dried reagent mixture.
An isolated monoclonal antibody that binds mesothelin, wherein the complementarity determining regions (CDRs) of the VH domain of the antibody comprise amino acid residues 31-36, 51-68 and 100-112 of SEQ ID NO: 13 and the CDRs of the VL domain of the antibody comprise amino acid residues 24-34, 50-56 and 89-101 of SEQ ID NO: 15.
A method of operating an electric cascaded multilevel converter comprising a plurality of rectifiers, wherein each rectifier comprises a H-bridge circuit having two branches each comprising two switches connected in series to each other, wherein the rectifiers are connected in series to each other on an alternating current side of the cascaded multilevel converter so that a total alternating voltage on the alternating current side of the cascaded multilevel converter is equal to the sum of the alternating voltages on alternating current sides of the rectifiers and so that the cascaded multilevel converter has an integer number of converting states, each converting state defining a relation of the total alternating voltage on the alternating current side to a direct voltage on a direct current side of the cascaded multilevel converter, wherein at least one of the converting states can be realized by different switching states of the cascaded multilevel converter and wherein the method is characterized by: - repeatedly producing a level number (L k) of a multilevel pulse width modulation signal in a level-shifted pulse width modulation process that uses a number of level-shifted carrier signals (cr), wherein the multilevel pulse width modulation signal comprises an integer number of possible signal levels corresponding to the integer number of converting states and wherein the level number (L k) corresponds to a respective one of the converting states and of the possible signal levels, - outputting the level number (L k) to a control device for controlling the switches of the rectifiers by generating and outputting corresponding control signals, - during operation of the control device, each time when the level number (L k) that is output to the control device changes, selecting one of the rectifiers according to a predefined repeating sequence of the rectifiers in operation and performing the required change of the switching state by controlling the selected rectifier. - repeatedly producing a level number (L k) of a multilevel pulse width modulation signal in a level-shifted pulse width modulation process that uses a number of level-shifted carrier signals (cr), wherein the multilevel pulse width modulation signal comprises an integer number of possible signal levels corresponding to the integer number of converting states and wherein the level number (L k) corresponds to a respective one of the converting states and of the possible signal levels, - outputting the level number (L k) to a control device for controlling the switches of the rectifiers by generating and outputting corresponding control signals, - during operation of the control device, each time when the level number (L k) that is output to the control device changes, selecting one of the rectifiers according to a predefined repeating sequence of the rectifiers in operation and performing the required change of the switching state by controlling the selected rectifier.
A method to compensate a carrier frequency offset, CFO, in a receiver, the method comprising: receiving discrete time samples; obtaining a sample vector from the received discrete time samples; obtaining a plurality of tentative CFO estimates based on a plurality of angles and a sub-period identified from selected elements from the sample vector, wherein each of the angles corresponds respectively to the tentative CFO estimates and wherein, the selected elements are separated by a time duration equal to the sub-period and the sub-period being less than a preamble period; determining, for each of the tentative CFO estimates, a compensation coefficient based on a respective compensated vector, the respective compensated vector being determined by compensating the sample vector using the respective CFO estimate; selecting a CFO having a greatest compensation coefficient from the tentative CFO estimates; and compensating the CFO in the received discrete time samples. receiving discrete time samples; obtaining a sample vector from the received discrete time samples; obtaining a plurality of tentative CFO estimates based on a plurality of angles and a sub-period identified from selected elements from the sample vector, wherein each of the angles corresponds respectively to the tentative CFO estimates and wherein, the selected elements are separated by a time duration equal to the sub-period and the sub-period being less than a preamble period; determining, for each of the tentative CFO estimates, a compensation coefficient based on a respective compensated vector, the respective compensated vector being determined by compensating the sample vector using the respective CFO estimate; selecting a CFO having a greatest compensation coefficient from the tentative CFO estimates; and compensating the CFO in the received discrete time samples.
A ring dogging system for holding the position of a volume adjustment screw for a pipetting system, the ring dogging system being characterised in that it comprises: - a first toothed wheel comprising first teeth; - a second toothed wheel comprising second teeth, said first toothed wheel being a lock wheel for being rotatably fixed with respect to a fixed piece of the pipetting system, and the second wheel being rotatably integral with the adjustment screw, or vice versa; - elastic return means capable of returning the first and second wheels (34, 36) against each other in order to make the first teeth cooperate with the second teeth, said second teeth of the second wheel forming a number N of concentric annular rows (58a, 58b), the number N being an integer higher than or equal to 2 and each row being possibly discontinuous, said second wheel having at least one tooth covering zone in which the N annular rows (58a, 58b) of second teeth respectively have N covering sectors (66a, 66b) which cover each other along a radial direction of the second wheel, the second teeth of the N covering sectors being angularly offset from each other such that at least one of the first teeth of the first toothed wheel can be in several relative positions with respect to the second wheel, in each of which this first tooth is in contact with one of the second teeth of one of the N sectors, and in contact with one of the second teeth of another of these N sectors. - a first toothed wheel comprising first teeth; - a second toothed wheel comprising second teeth, said first toothed wheel being a lock wheel for being rotatably fixed with respect to a fixed piece of the pipetting system, and the second wheel being rotatably integral with the adjustment screw, or vice versa; - elastic return means capable of returning the first and second wheels (34, 36) against each other in order to make the first teeth cooperate with the second teeth, said second teeth of the second wheel forming a number N of concentric annular rows (58a, 58b), the number N being an integer higher than or equal to 2 and each row being possibly discontinuous, said second wheel having at least one tooth covering zone in which the N annular rows (58a, 58b) of second teeth respectively have N covering sectors (66a, 66b) which cover each other along a radial direction of the second wheel, the second teeth of the N covering sectors being angularly offset from each other such that at least one of the first teeth of the first toothed wheel can be in several relative positions with respect to the second wheel, in each of which this first tooth is in contact with one of the second teeth of one of the N sectors, and in contact with one of the second teeth of another of these N sectors.
A method of forming a contact lens, the method comprising: conformal coating a media insert, wherein the media insert is a variable optic insert comprising a microcontroller comprising a data storage portion, an energy source, an energy harvester and a liquid meniscus variable optic lens located within an optic zone on the media insert; wherein the energy source and the energy harvester are in electrical communication via conductive circuit paths with the microcontroller;placing the coated media insert proximate to a first mold part; depositing a reactive monomer mix into the first mold part; positioning the coated media insert in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the coated variable optic insert and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation. conformal coating a media insert, wherein the media insert is a variable optic insert comprising a microcontroller comprising a data storage portion, an energy source, an energy harvester and a liquid meniscus variable optic lens located within an optic zone on the media insert; wherein the energy source and the energy harvester are in electrical communication via conductive circuit paths with the microcontroller;placing the coated media insert proximate to a first mold part; depositing a reactive monomer mix into the first mold part; positioning the coated media insert in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the coated variable optic insert and at least some of the reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation.
A heated laminated window comprising first and second panes of glass(15 and 16), a laminating interlayer interposed between the two panes of glass (15 and 16) and bonded thereto to form a laminated window, an electrical window heater (13, 113, 213) interposed between the first pane of glass and the laminating interlayer and a thin, flat electrical conductor (11, 20b, 111, 120b, 211, 220b) for connecting the electrical window heater (13, 113, 213) to a source of electrical power characterised in that the thin, flat electrical conductor (11, 20b; 111, 120b; 211, 220b) extends through an angled slit (18, 30, 118, 130, 218, 230) in the laminating interlayer and is folded over at an angle corresponding to the angular relationship of the slit (18, 30, 118, 130, 218, 230) to the thin, flat electrical conductor (11, 20b, 111, 120b, 211, 220b) as it passes through the slit (18, 30, 118, 130, 218, 230) so as to have first and second portions (11a, 11b and 11c; 21 and 22) lying on opposite sides of the laminating interlayer arranged at a turn angle (θ, θ1) with respect to one another.
A power plant construction that is configured to accommodate an internal combustion engine and a generator driven by the internal combustion engine, the construction comprising a front wall, a rear wall, a first side wall and a second side wall, at least the first side wall and the second side wall of the power plant construction being constructed as modular walls, each modular wall comprising at least two wall modules (1a, 2a, 3a, 4a, 1b, 2b, 3b, 4b, 1c, 2c, 3c, 4c) arranged one upon the other, the wall modules (1a, 2a, 3a, 4a, 1b, 2b, 3b, 4b, 1c, 2c, 3c, 4c) being self-supporting modules having a shape of a rectangular prism, wherein the wall modules (1a, 2a, 3a, 4a, 1b, 2b, 3b, 4b, 1c, 2c, 3c, 4c) arranged one upon the other form a self-supporting wall, characterized in that an uppermost wall module of the first side wall and an uppermost wall module of the second side wall comprises a beam that is parallel to the longitudinal direction of the side walls (3, 4) and configured to function as a runway beam of an overhead crane and in that the runway beams are structural elements of the wall modules (3c, 4c).
A guide for treating a knee joint of a patient, the guide comprising: a first portion, the first portion including at least one surface having a shape based, at least in part, on patient-specific information regarding a portion of a skin surface of the patient adjacent to the joint, so as to conform to said portion of a skin surface; and a second portion, the second portion comprising: a first surface shaped, at least in part, to conform to an anterior-facing portion of the tibial head of the patient; a second surface (1220, 1230) shaped, at least in part, to conform to the corresponding subchondral bone surface of the proximal tibia of the patient; and a guiding formation configured to guide a surgical instrument, the guiding formation having a predetermined position and orientation with respect to the at least one surface of the first portion and the first and second surface of the second portion. a first portion, the first portion including at least one surface having a shape based, at least in part, on patient-specific information regarding a portion of a skin surface of the patient adjacent to the joint, so as to conform to said portion of a skin surface; and a second portion, the second portion comprising: a first surface shaped, at least in part, to conform to an anterior-facing portion of the tibial head of the patient; a second surface (1220, 1230) shaped, at least in part, to conform to the corresponding subchondral bone surface of the proximal tibia of the patient; and a guiding formation configured to guide a surgical instrument, the guiding formation having a predetermined position and orientation with respect to the at least one surface of the first portion and the first and second surface of the second portion. a first surface shaped, at least in part, to conform to an anterior-facing portion of the tibial head of the patient; a second surface (1220, 1230) shaped, at least in part, to conform to the corresponding subchondral bone surface of the proximal tibia of the patient; and a guiding formation configured to guide a surgical instrument, the guiding formation having a predetermined position and orientation with respect to the at least one surface of the first portion and the first and second surface of the second portion.