mhurhangee/ep-ind-claims huggingface dataset:
A heating installation arrangement for a wind turbine blade comprising: a sleigh, wherein the sleigh forms a platform of the heating installation arrangement; said sleigh includes a recess, wherein said recess includes one or more connection points (110, 112) for a corresponding one or more heating apparatus; two or more ribs (102, 103), wherein said ribs (102, 103) extend below said sleigh; said two or more ribs (102, 103) form attachment points to attach said heating installation arrangement to an internal structure of said wind turbine blade; and said heating installation arrangement is to be installed into said wind turbine blade. a sleigh, wherein the sleigh forms a platform of the heating installation arrangement; said sleigh includes a recess, wherein said recess includes one or more connection points (110, 112) for a corresponding one or more heating apparatus; two or more ribs (102, 103), wherein said ribs (102, 103) extend below said sleigh; said two or more ribs (102, 103) form attachment points to attach said heating installation arrangement to an internal structure of said wind turbine blade; and said heating installation arrangement is to be installed into said wind turbine blade.
An electron beam sterilization apparatus for sterilizing a container by applying an electron beam while conveying the container, the apparatus comprising: a rotation conveyor plate configured to rotate around a central axis of the rotation conveyor plate and configured to convey the container in a circular path; and an electron beam application device configured to apply an electron beam to the container being conveyed by the rotation conveyor plate, characterized in that: a tubular blocking member is provided on a lower surface of the rotation conveyor plate so as to block radioactive rays produced by application of the electron beam and surround the central axis of the rotation conveyor plate, and wherein the tubular blocking member includes a ventilation space formed therein. a rotation conveyor plate configured to rotate around a central axis of the rotation conveyor plate and configured to convey the container in a circular path; and an electron beam application device configured to apply an electron beam to the container being conveyed by the rotation conveyor plate, characterized in that: a tubular blocking member is provided on a lower surface of the rotation conveyor plate so as to block radioactive rays produced by application of the electron beam and surround the central axis of the rotation conveyor plate, and wherein the tubular blocking member includes a ventilation space formed therein. a tubular blocking member is provided on a lower surface of the rotation conveyor plate so as to block radioactive rays produced by application of the electron beam and surround the central axis of the rotation conveyor plate, and wherein the tubular blocking member includes a ventilation space formed therein.
A vehicle front structure comprising: a front pillar (30, 130) extending on a vehicle side part, in a vehicle upper-lower direction, the front pillar (30, 130) including a pillar outer panel (32, 132) and a pillar inner panel (36, 136), the pillar outer panel (32, 132) being disposed on an outside in a vehicle width direction, the pillar inner panel (36, 136) being disposed on an inside in the vehicle width direction, the pillar outer panel (32, 132) and the pillar inner panel (36, 136) forming a closed cross-section; and a cowl (40, 140) extending in the vehicle width direction, the cowl (40, 140) including a cowl-side bent portion (42, 142), the cowl-side bent portion (42, 142) being an end of the cowl (40, 140) on the outside in the vehicle width direction that is bent toward a rear side in a vehicle front-rear direction, characterized in that the cowl-side bent portion (42, 142) is laid and welded on the outside in the vehicle width direction of a front end of the pillar inner panel (36, 136). a front pillar (30, 130) extending on a vehicle side part, in a vehicle upper-lower direction, the front pillar (30, 130) including a pillar outer panel (32, 132) and a pillar inner panel (36, 136), the pillar outer panel (32, 132) being disposed on an outside in a vehicle width direction, the pillar inner panel (36, 136) being disposed on an inside in the vehicle width direction, the pillar outer panel (32, 132) and the pillar inner panel (36, 136) forming a closed cross-section; and a cowl (40, 140) extending in the vehicle width direction, the cowl (40, 140) including a cowl-side bent portion (42, 142), the cowl-side bent portion (42, 142) being an end of the cowl (40, 140) on the outside in the vehicle width direction that is bent toward a rear side in a vehicle front-rear direction, characterized in that the cowl-side bent portion (42, 142) is laid and welded on the outside in the vehicle width direction of a front end of the pillar inner panel (36, 136).
A process for preparing crystalline 1-(4-chlorophenyl)pyrazol-3-ol, comprising a) contacting an aqueous solution of a metal 1-(4-chlorophenyl)pyrazol-3-olate with a solvent; wherein i. the solvent is selected from anisole or cyclopentylmethylether; and ii. the temperature is between 0°C and the boiling point of the mixture; and iii. the pH of the mixture is adjusted to ≤8 using an acid; and b) removing the aqueous phase; and c) crystallizing 1-(4-chlorophenyl)pyrazol-3-ol in the solution resulting from step b). a) contacting an aqueous solution of a metal 1-(4-chlorophenyl)pyrazol-3-olate with a solvent; wherein i. the solvent is selected from anisole or cyclopentylmethylether; and ii. the temperature is between 0°C and the boiling point of the mixture; and iii. the pH of the mixture is adjusted to ≤8 using an acid; and i. the solvent is selected from anisole or cyclopentylmethylether; and ii. the temperature is between 0°C and the boiling point of the mixture; and iii. the pH of the mixture is adjusted to ≤8 using an acid; and b) removing the aqueous phase; and c) crystallizing 1-(4-chlorophenyl)pyrazol-3-ol in the solution resulting from step b).
A pseudo resistance circuit comprising: a first MOSFET having a drain, a source and a gate; a second MOSFET having a drain, a source and a gate that is electrically connected to the gate of the first MOSFET, the second MOSFET being diode-connected; a first current source electrically connected to the drain of the second MOSFET and configured to generate a first current proportional to absolute temperature, wherein the first current from the current source is supplied to the drain of the second MOSFET; and a voltage source electrically connected to the source of the second MOSFET and configured to generate a first voltage, which is a linear function of absolute temperature, wherein the first voltage from the voltage source is applied to the source of the second MOSFET: wherein a resistor is formed between the drain and the source of the first MOSFET that has a resistance value based on the gate voltage of the first MOSFET. a first MOSFET having a drain, a source and a gate; a second MOSFET having a drain, a source and a gate that is electrically connected to the gate of the first MOSFET, the second MOSFET being diode-connected; a first current source electrically connected to the drain of the second MOSFET and configured to generate a first current proportional to absolute temperature, wherein the first current from the current source is supplied to the drain of the second MOSFET; and a voltage source electrically connected to the source of the second MOSFET and configured to generate a first voltage, which is a linear function of absolute temperature, wherein the first voltage from the voltage source is applied to the source of the second MOSFET: wherein a resistor is formed between the drain and the source of the first MOSFET that has a resistance value based on the gate voltage of the first MOSFET.
Method of operating an LLC resonant converter (19; 49; 69; 79) for a luminaire (3; 5), wherein the LLC resonant converter (19; 49; 69; 79) comprises a primary side circuit (20; 50; 70; 80) and a secondary side circuit that is galvanically isolated by a SELV barrier, wherein it comprises: - clocked switching of a first switch and a second switch of a half-bridge circuit to which is connected an LLC resonant circuit of the primary side circuit (20; 50; 70; 80); - detecting a voltage (V_sns; 43-46; 77, 78; 87, 88) in the primary side circuit (20; 50; 70; 80); and - determining an output voltage of the secondary side circuit based on the detected voltage (V_sns; 43-46; 77, 78; 87, 88), wherein the output voltage of the secondary side circuit is correlated with the voltage (V_sns; 43-46; 77, 78; 87, 88) in the primary side circuit (20; 50; 70; 80), characterized in that the determination based on the detected voltage (V_sns; 43-46; 77, 78; 87, 88) is performed by a control device, wherein the determination comprises the determination of a voltage peak (44, 46; 78; 88), which is temporally coordinated with the clocked switching, wherein the control device receives energy for operation of the control device from a transformer (28, 29, 72) that transfers energy between the primary side circuit (20; 50; 70; 80) and the secondary side circuit, and wherein the voltage (V_sns; 77, 78; 87, 88) is detected in a supply circuit (71, 81) which transfers energy to the control device for operation of the control device. - clocked switching of a first switch and a second switch of a half-bridge circuit to which is connected an LLC resonant circuit of the primary side circuit (20; 50; 70; 80); - detecting a voltage (V_sns; 43-46; 77, 78; 87, 88) in the primary side circuit (20; 50; 70; 80); and - determining an output voltage of the secondary side circuit based on the detected voltage (V_sns; 43-46; 77, 78; 87, 88), wherein the output voltage of the secondary side circuit is correlated with the voltage (V_sns; 43-46; 77, 78; 87, 88) in the primary side circuit (20; 50; 70; 80),
A plate heat exchanger comprising a package of heat transfer plates, which are provided with through inlet ports forming an inlet channel through the package, and between the heat transfer plates arranged sealing means, which together with the heat transfer plates in every other plate interspace delimit a first flow passage for one fluid and in each of the remaining plate interspaces delimit a second flow passage for a second fluid, wherein said inlet channel communicates with each first flow passage by way of a first inlet passage, and is sealed from communication with each second flow passage by said sealing means, wherein the inlet channel has an essentially smooth cylindrical shape formed by a sealing member provided in the inlet ports for the first fluid and wherein that the first inlet passage is provided in the sealing member, wherein the sealing member is a ring provided around the inlet port in the interspace between two adjacent heat transfer plates, characterized in that said ring has at least one pair of opposing recesses extending radially from the inner circumference to the outer circumference of the ring and in that the first inlet passage is provided by the recesses of two adjacent rings receiving the first inlet passage therein.
A brush tufting machine comprising a tufting tool having a tip, an intermediate section adjacent to and connected with the tip, the tufting tool being adapted to be reciprocated between a bundle receiving position and a tufting position, being guided along a curved non-linear path, a guide provided in the tip and the intermediate section for a tongue which thrusts an anchor together with a bundle into a bristle carrier, the tongue being received in the guide for longitudinal displacement, and the tongue being reversibly movable relative to the tip in the tufting direction, and comprising an anchor feeder which feeds anchors to the tufting tool laterally to the direction of movement of the tip and the intermediate section, the intermediate section having an upper surface from which a feed channel for the anchor extends to the guide of the tongue, the guide being located at a deeper position, the anchor feeder being adapted to move anchors to a takeover position that is located above the upper surface of the intermediate section, the feeding of the anchors and the movement of the tufting tool being coordinated with each other such that an anchor to be processed is moved to its takeover position, and the path being curved such that the intermediate section passes under the stationary anchor, which is in the takeover position, and positions the feed channel under the stationary anchor so that the stationary anchor moves into the feed channel when the tufting tool moves to the bundle receiving position.
A surgical access assembly comprising: a cannula including an elongated shaft having a proximal end portion including an anchor inflation port and a distal end portion including an expandable anchor, the elongated shaft including an inner tube and an outer tube disposed over the inner tube, the inner tube including a channel extending longitudinally therethrough and first openings and second openings defined in an outer surface thereof that are in communication with the channel, the channel and the first and second openings of the inner tube forming an inflation lumen with an inner surface of the outer tube, the inflation lumen in communication with the anchor inflation port and the expandable anchor, wherein the channel of the inner tube extends longitudinally along a length of the inner tube and characterized in that the first openings are disposed on a first side of the channel in longitudinally spaced relation relative to each other and the second openings are disposed on a second side of the channel in longitudinally spaced relation relative to each other.
A vehicle exhaust system comprising: an exhaust component having an outer surface (38, 94) and an inner surface (36, 96) that defines an internal exhaust component cavity, wherein the exhaust component comprises a pipe extending from a first pipe end to a second pipe end that is connected to at least one additional component; and at least one first bleed hole formed in the pipe external to the at least one additional component such that bleed hole is open to atmosphere in the exhaust component to reduce a resonance frequency, wherein the opening into atmosphere is provided by a first member that is associated with the at least one first bleed hole, characterized in that the first member comprises microperforated material that covers the at least one first bleed hole, at least one second bleed hole formed in the at least one additional component, and a second member associated with the at least one second bleed hole, wherein the second member comprises a microperforated material that covers the at least one second bleed hole. an exhaust component having an outer surface (38, 94) and an inner surface (36, 96) that defines an internal exhaust component cavity, wherein the exhaust component comprises a pipe extending from a first pipe end to a second pipe end that is connected to at least one additional component; and at least one first bleed hole formed in the pipe external to the at least one additional component such that bleed hole is open to atmosphere in the exhaust component to reduce a resonance frequency, wherein the opening into atmosphere is provided by a first member that is associated with the at least one first bleed hole, characterized in that the first member comprises microperforated material that covers the at least one first bleed hole, at least one second bleed hole formed in the at least one additional component, and a second member associated with the at least one second bleed hole, wherein the second member comprises a microperforated material that covers the at least one second bleed hole.
A rotating mechanism, comprising a base, a first connecting piece, a second connecting piece, a lifting plate, a force applying structure, and a supporting structure; wherein both the first connecting piece and the second connecting piece are rotatably connected to the base; the lifting plate is located between the first connecting piece and the second connecting piece; the lifting plate is provided with a fitting surface, and the fitting surface is used for fitting a part of a flexible display; and the lifting plate is provided with a lifting space, the force applying structure is located on at least one side in a circumference of the lifting space, and the force applying structure is connected to the lifting plate; and the first connecting piece and the second connecting piece can rotate between an unfolding position and a folding position relative to the base; and when the first connecting piece and the second connecting piece are in the unfolding position, the force applying structure applies, to the lifting plate, a tensile force from the lifting plate to a side of the lifting plate away from the fitting surface, the lifting plate is supported on the supporting structure, and the supporting structure applies, to the lifting plate, a first supporting force that counterbalances the tensile force. both the first connecting piece and the second connecting piece are rotatably connected to the base; the lifting plate is located between the first connecting piece and the second connecting piece; the lifting plate is provided with a fitting surface, and the fitting surface is used for fitting a part of a flexible display; and the lifting plate is provided with a lifting space, the force applying structure is located on at least one side in a circumference of the lifting space, and the force applying structure is connected to the lifting plate; and the first connecting piece and the second connecting piece can rotate between an unfolding position and a folding position relative to the base; and when the first connecting piece and the second connecting piece are in the unfolding position, the force applying structure applies, to the lifting plate, a tensile force from the lifting plate to a side of the lifting plate away from the fitting surface, the lifting plate is supported on the supporting structure, and the supporting structure applies, to the lifting plate, a first supporting force that counterbalances the tensile force.
An electric impedance thomography device comprising: a plurality of electrodes which can be arranged about the chest of a patient, and a control and analyzing unit which is, by progamming, configured to supply at least one electrode pair as a feeding electrode pair with an alternating current or with an alternating voltage, to record a voltage signal or a current signal as a measured signal with a plurality of the remaining electrode pairs from the plurality of electrodes, and to let other electrode pairs of the plurality of electrode pairs act consecutively as the feeding electrode pair, to reconstruct from the measured signals, with a reconstruction algorithm, a matrix of image elements which represent the distribution of the impedance changes in the electrode plane, and to repeatedly record measured signals over time and to reconstruct matrices, and to display them with a display device, wherein the control and analyzing unit is further configured to determine a time series of a global ventilation curve from the sequence of the reconstructed matrices as a time series of the mean impedance change or as a time series of a measured respiration volume and to determine an inspiration or expiration phase therein, to divide the inspiration or expiration phase of the global ventilation curve into a number (1, 2,... M steps) of steps of equal volume change, to determine times corresponding to these steps of equal volume change in the inspiration or expiration phase, to determine, for each image element, the change in the local impedance between these times and to determine each time the ratio of this local change in impedance of the image element to the global equal volume change to thereby form a local sequence of relative impedance changes of the image element as a function of the number of steps of equal volume change, characterized in that the control and analyzing unit is further configured to fit, for each image element in an inspiration or expiration phase a straight line to the local sequence of relative impedance changes as a function of the step number (1, 2,... M steps) of equal volume changes and to determine the zero point of the straight line, to assign to this zero point a time within the inspiration or expiration phase, and to assign to the image element a ventilation variable at this time, as a scalar indicator for the curve of the local impedance change, and to display the image element as a function of the ventilation variable thus determined in gray scale value or color coding on the display device.
A packaging structure for a semiconductor device that comprises a first substrate and a second substrate which are opposite to each other, wherein the packaging structure comprises: an adhesive layer; and at least two spaced apart sealing strips, wherein: the sealing strips being configured for abutting against the adhesive layer by protruding toward the adhesive layer; wherein a plurality of connecting beams are arranged between at least a pair of adjacent sealing strips, each connecting beam comprising respective connection points, the connecting beams on both sides of each sealing strip having connecting beams of the same structure on the both sides are arranged to be staggered to each other so that, on the both sides of one sealing strip, the respective connection points of the connecting beams and the sealing strip are different. an adhesive layer; and at least two spaced apart sealing strips, wherein: the sealing strips being configured for abutting against the adhesive layer by protruding toward the adhesive layer; wherein a plurality of connecting beams are arranged between at least a pair of adjacent sealing strips, each connecting beam comprising respective connection points, the connecting beams on both sides of each sealing strip having connecting beams of the same structure on the both sides are arranged to be staggered to each other so that, on the both sides of one sealing strip, the respective connection points of the connecting beams and the sealing strip are different. the sealing strips being configured for abutting against the adhesive layer by protruding toward the adhesive layer; wherein a plurality of connecting beams are arranged between at least a pair of adjacent sealing strips, each connecting beam comprising respective connection points, the connecting beams on both sides of each sealing strip having connecting beams of the same structure on the both sides are arranged to be staggered to each other so that, on the both sides of one sealing strip, the respective connection points of the connecting beams and the sealing strip are different.