mhurhangee/ep-ind-claims huggingface dataset:
An ablation probe, comprising: an inner conductor; a dielectric coaxially-disposed around the inner conductor; an outer conductor coaxially-disposed around the dielectric, wherein the dielectric and the inner conductor extend distally from the outer conductor; and a helical antenna element coaxially-disposed about the distal extension of the dielectric and coupled at a distal end thereof to the inner conductor, wherein the helical antenna element is operable to change from a first configuration at a first temperature to a second configuration at a second temperature, characterised in that, during use, an increase in reflections that occur as a result of tissue desiccation and/or denaturisation causes an increase in probe temperature, which, in turn, heats the helical antenna element and causes the size and/or shape thereof to change, and thus adjusts and/or corrects a tuning of the helical antenna element, wherein the tuning is affected by changing a gap distance between a distal end of the outer conductor and a proximal end of the helical antenna element. an inner conductor; a dielectric coaxially-disposed around the inner conductor; an outer conductor coaxially-disposed around the dielectric, wherein the dielectric and the inner conductor extend distally from the outer conductor; and a helical antenna element coaxially-disposed about the distal extension of the dielectric and coupled at a distal end thereof to the inner conductor, wherein the helical antenna element is operable to change from a first configuration at a first temperature to a second configuration at a second temperature, characterised in that, during use, an increase in reflections that occur as a result of tissue desiccation and/or denaturisation causes an increase in probe temperature, which, in turn, heats the helical antenna element and causes the size and/or shape thereof to change, and thus adjusts and/or corrects a tuning of the helical antenna element, wherein the tuning is affected by changing a gap distance between a distal end of the outer conductor and a proximal end of the helical antenna element.
An ultrasonic flaw detection method, comprising: a condition setting step of setting, according to a type of a test object, a boundary echo detection threshold and a gate end point relative position; a flaw detection signal obtaining step of obtaining a flaw detection signal, by converting ultrasonic waves received from the test object into an electric signal; a boundary echo detection step of detecting a boundary echo detection time of the flaw detection signal, by using the boundary echo detection threshold; a flaw echo detection gate setting step of setting an end point of a flaw echo detection gate, by subtracting the gate end point relative position from a base time determined based on the boundary echo detection time; and a flaw echo detection step of detecting a flaw echo, by using the flaw detection signal within the flaw echo detection gate. a condition setting step of setting, according to a type of a test object, a boundary echo detection threshold and a gate end point relative position; a flaw detection signal obtaining step of obtaining a flaw detection signal, by converting ultrasonic waves received from the test object into an electric signal; a boundary echo detection step of detecting a boundary echo detection time of the flaw detection signal, by using the boundary echo detection threshold; a flaw echo detection gate setting step of setting an end point of a flaw echo detection gate, by subtracting the gate end point relative position from a base time determined based on the boundary echo detection time; and a flaw echo detection step of detecting a flaw echo, by using the flaw detection signal within the flaw echo detection gate.
A composition comprising a microcapsule having a polyurea wall encapsulating lambda cyhalothrin and dispersed titanium dioxide particles, wherein the polyurea wall of the microcapsule is made of polyurea polymers derived from a mixture of polymethylene polyphenylisocyanate and isomeric mixture of toluene diisocyanate of 80% 2,4-isomer and 20% 2,6-isomer of toluene diisocyanate, provided that the d50 median particle size diameter of the titanium dioxide particles is from 0.15 to 0.5 microns, the d50 median diameter of the microcapsule in the composition is from 1 to 4, microns, the weight ratio of to is 1:1, the polymer (or wall) content of each microcapsule is from 7 to 8 % by weight, the amount of titanium dioxide is present in an amount of from 3.5 to 6 % by weight and the amount of lambda cyhalothrin is from 43 to 47 % by weight, each based on the weight of the microcapsule; and the amount of the microcapsule in the composition is from 47 to 53 % by weight, based on the weight of the composition.
Light Emitting Diode, LED, device, comprising: a LED array including a plurality of LEDs, at least one top contact and bottom contact electrically connected to the LED array, and a conductive structure arranged above the LED array and the top contact, respectively, and electrically connected to the top contact, wherein the conductive structure is, regarding each LED, configured to absorb a first part of the light emitted by the LED, and to pass a second part of the light emitted by the LED, wherein an emission angle of the passed light is smaller than an emission angle of the light emitted by the LED, and wherein the LED device is characterized by further comprising: a plurality of lenses arranged between the LED array and the conductive structure, wherein each lens is configured to focus at least some of the light emitted by one of the plurality of LEDs, so that the focused light is passed by the conductive structure. a LED array including a plurality of LEDs, at least one top contact and bottom contact electrically connected to the LED array, and a conductive structure arranged above the LED array and the top contact, respectively, and electrically connected to the top contact, wherein the conductive structure is, regarding each LED, configured to absorb a first part of the light emitted by the LED, and to pass a second part of the light emitted by the LED, wherein an emission angle of the passed light is smaller than an emission angle of the light emitted by the LED, and wherein the LED device is characterized by further comprising: a plurality of lenses arranged between the LED array and the conductive structure, wherein each lens is configured to focus at least some of the light emitted by one of the plurality of LEDs, so that the focused light is passed by the conductive structure.
A gearbox mounting link between a gas turbine engine structure and a gearbox, the mounting link comprising: a gearbox arm configured to be attached to the gearbox, and extending along an axis defining a first degree of constraint between the gas turbine engine structure and the gearbox; a fusibly breakable member extending through the gearbox arm, and having a shear section that mates with the gearbox arm, the shear section disposed between a first outer section and a second outer section of the fusibly breakable member; first and second engine attachment brackets (102a, 102b), each comprising: an attachment flange configured to be attached to the gas turbine engine structure; a primary retention annulus concentric to one of the outer sections of the fusibly breakable member, and having a first annular radius selected to tightly retain an outer section of the fusibly breakable member in the first degree of constraint; and a secondary retention annulus concentric to a portion of the shear section, and having a second annular radius greater than the first annular radius to loosely retain the shear section in at least the first degree of constraint, in the event of the shear section separating from the outer sections. a gearbox arm configured to be attached to the gearbox, and extending along an axis defining a first degree of constraint between the gas turbine engine structure and the gearbox; a fusibly breakable member extending through the gearbox arm, and having a shear section that mates with the gearbox arm, the shear section disposed between a first outer section and a second outer section of the fusibly breakable member; first and second engine attachment brackets (102a, 102b), each comprising: an attachment flange configured to be attached to the gas turbine engine structure; a primary retention annulus concentric to one of the outer sections of the fusibly breakable member, and having a first annular radius selected to tightly retain an outer section of the fusibly breakable member in the first degree of constraint; and a secondary retention annulus concentric to a portion of the shear section, and having a second annular radius greater than the first annular radius to loosely retain the shear section in at least the first degree of constraint, in the event of the shear section separating from the outer sections. an attachment flange configured to be attached to the gas turbine engine structure; a primary retention annulus concentric to one of the outer sections of the fusibly breakable member, and having a first annular radius selected to tightly retain an outer section of the fusibly breakable member in the first degree of constraint; and a secondary retention annulus concentric to a portion of the shear section, and having a second annular radius greater than the first annular radius to loosely retain the shear section in at least the first degree of constraint, in the event of the shear section separating from the outer sections.
No-frost refrigeration device having an evaporator which is supported on a carrier separating an evaporation chamber from a cooling chamber and having a wall which has arranged therein an opening through which flows the air circulated by a fan, wherein a rib, which forms a boundary wall of an air passage communicating via the opening with the evaporation chamber, is formed in a protruding manner integrally with the wall on an outer side thereof.
A pressure multiplier, comprising a cylinder assembly, a command device (20; 200), and an electronic control unit, wherein the cylinder assembly comprises: - a first chamber; - a second chamber adjacent to the first chamber; - a piston rod which extends into the first chamber and the second chamber; - a first piston connected to a first end of the piston rod inside the first chamber so as to divide the first chamber into a first pressure increase chamber, facing the second chamber, and a first actuation chamber, facing the opposite side with respect to the second chamber; - a second piston connected to a second end of the piston rod inside the second chamber, so as to divide the second chamber into a second pressure increase chamber, facing the first chamber, and a second actuation chamber, facing the opposite side with respect to the first chamber; wherein the command device (20; 200) is configured to: - supply with a fluid at least one of the first pressure increase chamber and the second pressure increase chamber; - alternately supply, based on a switching signal provided by the electronic control unit to the command device (20; 200), the fluid to the first actuation chamber, while simultaneously discharging the fluid from the second actuation chamber, and the fluid to the second actuation chamber, while simultaneously discharging the fluid from the first actuation chamber; the pressure multiplier being characterized in that, the electronic control unit is configured to obtain the switching signal to be provided to the command device (20; 200) from a compression curve which, with the pressure of the fluid entering the pressure multiplier being known, links the pressure increase of the fluid exiting the pressure multiplier from at least one of the first and second pressure increase chambers (10a, 12a) with the switching frequency of the axial translation direction of the first and second pistons of the cylinder assembly. - a first chamber; - a second chamber adjacent to the first chamber; - a piston rod which extends into the first chamber and the second chamber; - a first piston connected to a first end of the piston rod inside the first chamber so as to divide the first chamber into a first pressure increase chamber, facing the second chamber, and a first actuation chamber, facing the opposite side with respect to the second chamber; - a second piston connected to a second end of the piston rod inside the second chamber, so as to divide the second chamber into a second pressure increase chamber, facing the first chamber, and a second actuation chamber, facing the opposite side with respect to the first chamber; - supply with a fluid at least one of the first pressure increase chamber and the second pressure increase chamber; - alternately supply, based on a switching signal provided by the electronic control unit to the command device (20; 200), the fluid to the first actuation chamber, while simultaneously discharging the fluid from the second actuation chamber, and the fluid to the second actuation chamber, while simultaneously discharging the fluid from the first actuation chamber;
An electrical cabinet comprising walls which delimit an interior volume configured to receive at least one electrical appliance, the electrical cabinet also comprising a column for receiving at least one electrical cable, the column being arranged vertically inside the electrical cabinet, in which the electrical cabinet also comprises a junction piece inserted into an upper end of the column into an upper end of the column, so as to close the upper end of the column, the junction piece has a longitudinal shape and comprising a body, the joining piece extending orthogonally to the column when the joining piece is inserted in the column, the joining piece comprising a central groove extending along the junction piece lips arranged on either side of the groove, at least along part of the length of the groove, characterised in that: the electrical cabinet has Class II insulation within the meaning of the IEC standard 61140:2016 of the International Electrotechnical Commission, the central groove is configured to drain water out of the column towards the rear of the switchgear cabinet, and the lips are configured to facilitate the collection of water and its evacuation from the column. the junction piece has a longitudinal shape and comprising a body, the joining piece extending orthogonally to the column when the joining piece is inserted in the column, the joining piece comprising a central groove extending along the junction piece lips arranged on either side of the groove, at least along part of the length of the groove, characterised in that: the electrical cabinet has Class II insulation within the meaning of the IEC standard 61140:2016 of the International Electrotechnical Commission, the central groove is configured to drain water out of the column towards the rear of the switchgear cabinet, and the lips are configured to facilitate the collection of water and its evacuation from the column. the electrical cabinet has Class II insulation within the meaning of the IEC standard 61140:2016 of the International Electrotechnical Commission, the central groove is configured to drain water out of the column towards the rear of the switchgear cabinet, and the lips are configured to facilitate the collection of water and its evacuation from the column.
A method of autonomously scheduled transmission within configurations set by a base station in 3GPP New Radio via Radio Resource Control from a user equipment to the base station, the method performed at the UE and comprising the steps of: transmitting at a first available transmission occasion a corresponding first redundancy version, RV, of a transport block associated with this occasion; and transmitting remaining repetitions of the transport block on the next available occasions with their associated RVs, wherein transmitting the remaining repetitions comprises the UE using a pre-configured RV sequence in a circular manner, wherein indices of RVs in the RV sequence are in an order of 0, 2, and 3. transmitting at a first available transmission occasion a corresponding first redundancy version, RV, of a transport block associated with this occasion; and transmitting remaining repetitions of the transport block on the next available occasions with their associated RVs, wherein transmitting the remaining repetitions comprises the UE using a pre-configured RV sequence in a circular manner, wherein indices of RVs in the RV sequence are in an order of 0, 2, and 3.
A device for virtual walking, comprising: an omnidirectional exercise machine and foot wearable devices; wherein the omnidirectional exercise machine comprises a base, a support piece arranged on the base through a bearing, and a running plate arranged on the support piece; one side of the bearing is connected with two back support rods through rotating beams; a loading connector is arranged on upper ends of the two back support rods; the loading connector is sequentially connected with a waist omnidirectional motion controller and a binding belt; the base, the support piece, and the running plate are coaxially arranged; an inertial sensor is arranged inside the waist omnidirectional motion controller; the loading connector comprises a loading frame; rows of connecting holes are on one side of the loading frame; a mounting frame arranged between the two back support rods; the mounting frame is fixedly connected with at least one row of connecting holes through connecting pieces: wherein the foot wearable devices are configured to move on the running plate; each of the foot wearable devices comprises a wrapping body; a pair of rollers are arranged on a rear end of a bottom portion of each wrapping body; a laser sensor is arranged on a front end of the bottom portion of each wrapping body.
A nucleic acid molecule encoding a mutant C-RAF polypeptide having C-RAF activity or a mutant C-RAF polypeptide having C-RAF activity, wherein said mutant C-RAF polypeptide comprises at least one amino acid substitution selected from the group consisting of 257S>P, 261P>T, 361G>A, and 478E>K as compared to a wild type C-RAF polypeptide comprising SEQ. ID. NO.2, the at least one amino acid substitution conferring resistance to one or more RAF inhibitors on a cell expressing the mutant C-RAF polypeptide, the RAF inhibitor selected from PLX 4720, PLX4032, and -methyl 1-(4-(3-(5-chloro-2-fluoro-3-(methylsulfonamido)phenyl)-1-isopropyl-1H-pyrazol-4-yl)pyrimidin-2-ylamino)propan-2-ylcarbamate.
A mirror for concentrating solar power devices, supported by a curved supporting panel, wherein the mirror comprises a flat and thin mirror finished glass plate which is flexible, as a consequence of a chemical tempering treatment, for complementary shaping, by inflection, with respect to said panel, which supports it and keeps it inflexed, wherein said plate has a surface region which is pretensioned by replacing with potassium ions the sodium ions present in the glass of which said plate is made, wherein said surface region comprises a surface thickness between 20 and 100 microns and wherein said plate has a thickness comprised between 0.6 and 1.8 mm, said plate being elastically deformed until it assumes the shape of the panel.
An apparatus for use with a tire (10, 94, 102, 116), comprising: a base (32, 90, 100, 118) configured for mechanical attachment to the tire (10, 94, 102, 116), the base (32, 90, 100, 118) including an electronic device and a mechanical attachment element (64, 128); and a plurality of modules (34, 121, 142), each of which includes an electronic device, a lower mechanical attachment element (54, 124), and an upper mechanical attachment element (52, 122); wherein the lower mechanical attachment element (54, 124) on each one of the modules (34, 121, 142) is configured to mechanically attach to the upper mechanical attachment element (52, 122) on any other one of the modules (34, 121, 142), whereby the modules (34, 121, 142) are interchangeably mechanically attachable to each other; and the lower mechanical attachment element (54, 124) on each one of the modules (34, 121, 142) is configured to mechanically attach to the mechanical attachment element (64, 128) on the base (32, 90, 100, 118), whereby the modules (34, 121, 142) are interchangeably mechanically attachable to the base (32, 90, 100, 118). a base (32, 90, 100, 118) configured for mechanical attachment to the tire (10, 94, 102, 116), the base (32, 90, 100, 118) including an electronic device and a mechanical attachment element (64, 128); and a plurality of modules (34, 121, 142), each of which includes an electronic device, a lower mechanical attachment element (54, 124), and an upper mechanical attachment element (52, 122); wherein the lower mechanical attachment element (54, 124) on each one of the modules (34, 121, 142) is configured to mechanically attach to the upper mechanical attachment element (52, 122) on any other one of the modules (34, 121, 142), whereby the modules (34, 121, 142) are interchangeably mechanically attachable to each other; and the lower mechanical attachment element (54, 124) on each one of the modules (34, 121, 142) is configured to mechanically attach to the mechanical attachment element (64, 128) on the base (32, 90, 100, 118), whereby the modules (34, 121, 142) are interchangeably mechanically attachable to the base (32, 90, 100, 118).
A method for fabricating a ceramic material from a preceramic polymer material, the method comprising: providing a preceramic polymer material that includes a preceramic polymer and an electromagnetic radiation-responsive component, wherein the preceramic polymer includes, by volume, 0.1%-1% of the electromagnetic radiation-responsive component, and the electromagnetic radiation-responsive component is selected from the group consisting of boron-containing compounds, nitrides of aluminum, nitrides of titanium, nitrides of zirconium, nitrides of hafnium, nitrides of tantalum, nitrides of tungsten, nitrides of rhenium, carbides of aluminum, carbides of titanium, carbides of zirconium, carbides of hafnium, carbides of tantalum, carbides of tungsten, carbides of rhenium and combinations thereof; and applying electromagnetic radiation to the preceramic polymer material, the electromagnetic radiation interacting with the electromagnetic radiation-responsive component to generate heat that converts the preceramic polymer to a ceramic phase, wherein the electromagnetic radiation-responsive component is a material that is thermally responsive to electromagnetic radiation and is more thermally responsive to the electromagnetic radiation than the preceramic polymer. providing a preceramic polymer material that includes a preceramic polymer and an electromagnetic radiation-responsive component, wherein the preceramic polymer includes, by volume, 0.1%-1% of the electromagnetic radiation-responsive component, and the electromagnetic radiation-responsive component is selected from the group consisting of boron-containing compounds, nitrides of aluminum, nitrides of titanium, nitrides of zirconium, nitrides of hafnium, nitrides of tantalum, nitrides of tungsten, nitrides of rhenium, carbides of aluminum, carbides of titanium, carbides of zirconium, carbides of hafnium, carbides of tantalum, carbides of tungsten, carbides of rhenium and combinations thereof; and applying electromagnetic radiation to the preceramic polymer material, the electromagnetic radiation interacting with the electromagnetic radiation-responsive component to generate heat that converts the preceramic polymer to a ceramic phase, wherein the electromagnetic radiation-responsive component is a material that is thermally responsive to electromagnetic radiation and is more thermally responsive to the electromagnetic radiation than the preceramic polymer.