mhurhangee/ep-ind-claims huggingface dataset:
Capsule for obtaining beverages comprising a side wall and an entry surface for the entrance of water under pressure into the capsule, said side wall and said entry surface forming the containment volume for containing the infusion product, characterized in that: said entry surface comprises one or more reduced thickness areas so that, letting water under pressure flow against said entry surface, said one or more reduced thickness areas open so as to allow water under pressure to enter the capsule and said one or more reduced thickness areas are made of elastic material so that, after having been opened by the flow of water under pressure, they return to the closing position when the flow of water under pressure is stopped.
A combustion gas piston type netting device with movable guiding tubes, comprising: a capture net, a traction head, a guiding tube, an igniter, a main charge, a sealing ring, a combustion gas generator, a piston and a cover plate; wherein the main charge consisting of black powder within a power box, the combustion gas generator includes a chamber, a groove, an airway and a gas channel; wherein the traction head is inserted in the guiding tube, wherein on of its ends is placed at the internal bottom of the guiding tube and the other one of its ends is connected to a corner of the capture net; characterised in that the chamber inside the combustion gas generator has a cylindrical shape, and the piston and the main charge are placed within the chamber; the top of the piston contacts a triangular lug on the base of the guiding tube; the igniter is connected to the lower end of the combustion gas generator by a threaded connection; four to six grooves in the shape of semi-cylindrical are uniformly distributed in the surface of the upper end of the combustion gas generator; the shape and number of the airways matches the shape and number of the grooves, respectively; said plurality of grooves and said plurality of airways are alternatively distributed and interconnected; the chamber and the airways are in fluid communication via the gas channel, and the number of the gas channels is the same as the number of the airways; the bottom of the guiding tube has an inverted T-shape and is placed in the groove; the cover plate is closely fitted with the upper end of the combustion gas generator and the bottom of the guiding tube with the sealing ring in its interface surface; the cover plate is fixed on the upper end of the combustion gas generator with screws; the gas generated by the combustion gas generator is the power source of the netting device to push the piston to move so that the guiding tube is rotated 40°-45°, and also to push the traction head to burst out of the guiding tube so that the capture net is smoothly opened; the guiding tube is vertically retracted in the initial state of the netting device; during operating, the ignition signal detonates the igniter, the resulting combustion gas pushes the piston to move upward to push the triangle lug on the base of the guiding tube so that the whole guiding tube is rotated; after the piston is moved a distance of 20-40mm, the gas channel is opened, so that the gas comes into the guiding tube and pushes the traction head to move at high speed and fly out of the guiding tube, so that the traction head drives the capture net to open.
A composition for use in increasing the tolerability of a BCG treatment ( Bacillus C almette- G uérin treatment) of malignant diseases of the urogenital tract, wherein the composition contains, in combination and in effective amounts in each case: (a) chondroitin sulphate and/or a physiologically tolerable chondroitin sulphate salt (component (a)), wherein the composition includes the chondroitin sulphate and/or the physiologically tolerable chondroitin sulphate salt in a concentration in a range from (2 ± 0.5) mg/ml to (25 ± 2) mg/ml; and (b) hyaluronic acid and/or a physiologically tolerable hyaluronic acid salt (hyaluronate) (component (b)), wherein the composition includes the hyaluronic acid and/or the physiologically tolerable hyaluronic acid salt in a concentration in a range from (1 ± 0.5) mg/ml to (20 ± 2) mg/ml. (a) chondroitin sulphate and/or a physiologically tolerable chondroitin sulphate salt (component (a)), wherein the composition includes the chondroitin sulphate and/or the physiologically tolerable chondroitin sulphate salt in a concentration in a range from (2 ± 0.5) mg/ml to (25 ± 2) mg/ml; and (b) hyaluronic acid and/or a physiologically tolerable hyaluronic acid salt (hyaluronate) (component (b)), wherein the composition includes the hyaluronic acid and/or the physiologically tolerable hyaluronic acid salt in a concentration in a range from (1 ± 0.5) mg/ml to (20 ± 2) mg/ml.
An inspection method for inspecting an internal state of an SOI wafer by a measurement of silicon islands within an insulating base material of a silicon oxide layer formed in the SOI wafer, comprising the steps of: irradiating ions upon the surface of the inspection region of said silicon oxide layer; and imaging a surface image of secondary electrons emitted from said surface and from its vicinity; and etching said inspection region; and imaging a surface image successively with secondary electrons emitted from an underlying surface and from its vicinity, renewed successively at the etched depth; and measuring said silicon islands within said silicon oxide layer based upon accumulated said surface images; and analyzing shape and type of said silicon islands by observing TEM images; and inspecting the internal state of said SOI wafer, wherein said etching is performed with an ion-beam having a acceleration voltage in a range of 15 to 40 keV, beam current of greater than or equal to 3.6 pA, and beam diameter of greater than or equal to 18 nm, and said etching and said imaging of said surface image are performed at the same time. irradiating ions upon the surface of the inspection region of said silicon oxide layer; and imaging a surface image of secondary electrons emitted from said surface and from its vicinity; and etching said inspection region; and imaging a surface image successively with secondary electrons emitted from an underlying surface and from its vicinity, renewed successively at the etched depth; and measuring said silicon islands within said silicon oxide layer based upon accumulated said surface images; and analyzing shape and type of said silicon islands by observing TEM images; and inspecting the internal state of said SOI wafer, wherein said etching is performed with an ion-beam having a acceleration voltage in a range of 15 to 40 keV, beam current of greater than or equal to 3.6 pA, and beam diameter of greater than or equal to 18 nm, and said etching and said imaging of said surface image are performed at the same time.
A method of analyzing protein interactions at a single molecule level, comprising: (a) binding the first proteins to the substrate where the first proteins are tagged with the first markers that bind specifically to the biomolecules immobilized on the substrate; (b) incubating the substrate bound first proteins with cell lysate containing the second proteins which are tagged with the second markers wherein the second markers are fluorescent proteins; (c) analyzing the interactions between the first proteins and the second proteins in cell lysate by measuring a fluorescent signal having a specific wavelength generated by the second markers tagged on second proteins when they are bound to the first proteins using an optical apparatus generating a near-field, wherein in step (c) the fluorescent signal having the specific wavelength is cumulatively measured for a predetermined time period. (a) binding the first proteins to the substrate where the first proteins are tagged with the first markers that bind specifically to the biomolecules immobilized on the substrate; (b) incubating the substrate bound first proteins with cell lysate containing the second proteins which are tagged with the second markers wherein the second markers are fluorescent proteins; (c) analyzing the interactions between the first proteins and the second proteins in cell lysate by measuring a fluorescent signal having a specific wavelength generated by the second markers tagged on second proteins when they are bound to the first proteins using an optical apparatus generating a near-field,
Vessel for transporting and setting up a tension leg platform for wind turbines, wherein the floating platform is of the type comprising an elongated central body, from the lower portion of which a plurality of pontoons come out extending outwardly from said central body, being the pontoons intended to fix the platform, through tendons, to anchoring elements arranged in the sea bed, wherein the vessel comprises: - a longitudinal through groove running from the deck up to the vessel bottom, and leaving a part of the vessel bow open; characterized in that it also comprises a plurality of slots (6, 7) located at the bottom of the vessel, wherein the groove and the slots (6, 7) are configured both in dimension and in shape in such a way so as to fit in at least some of the pontoons, so that the pontoons can be inserted, at least partially, in the slots (6, 7) to attach the platform to the vessel. - a longitudinal through groove running from the deck up to the vessel bottom, and leaving a part of the vessel bow open;
A radiating phase-shifting cell comprising a plurality of conducting elements (207, 209, 1001, 1002) formed on the surface of a substrate, above and spaced apart from a ground plane, said conducting elements being separated by slots (202, 203, 204), the arrangement of said slots forming an equivalent resonator, the electrical form of which configures the phase-shifting applied to a wave to be reflected, said cell comprising controlled variable loads (206, 1005) that can vary the electrical length and/or width of said slots, said conducting elements (207, 209, 1001, 1002) and said controlled variable loads (206, 1005) being arranged so that, in at least one first configuration of said loads, an annular conducting surface of microwave signals is formed so as to create an inductive-dominant resonator and so that, in at least one second configuration, a slot is formed around at least one central conducting element (209, 1001) so as to create a capacitive-dominant resonator, characterised in that said conducting surface is formed by a plurality of conducting elements (207, 1002) surrounding said central conducting element (209, 1001) and separated from each other by said slots, which have a radial orientation relative to said central conducting element.
A pneumatic tire comprising: a tread portion provided with a pair of axially outermost shoulder main grooves extending continuously in the tire circumferential direction to define a pair of shoulder land portions between the shoulder main grooves and the tread edges, wherein at least one of the shoulder land portions is provided with a plurality of shoulder lug grooves and a plurality of shoulder sipes, said plurality of shoulder lug grooves extend axially inwardly from the tread edge, and include first shoulder lug grooves and second shoulder lug grooves which are alternately arranged in the tire circumferential direction and terminate without reaching the shoulder main groove, the shoulder sipes include first shoulder sipes which extend axially inwardly from axially inner ends of the first shoulder lug grooves and communicate with the shoulder main groove, and second shoulder sipes which comprise a first part extending in the tire circumferential direction and crossing the first shoulder sipe, and a second part which communicates between one end in the tire circumferential direction of the first part and the inner end of the second shoulder lug groove, characterized in that the second part extends and curves while gradually decreasing the angle (α5c) with respect to the tire axial direction. a tread portion provided with a pair of axially outermost shoulder main grooves extending continuously in the tire circumferential direction to define a pair of shoulder land portions between the shoulder main grooves and the tread edges, wherein at least one of the shoulder land portions is provided with a plurality of shoulder lug grooves and a plurality of shoulder sipes, said plurality of shoulder lug grooves extend axially inwardly from the tread edge, and include first shoulder lug grooves and second shoulder lug grooves which are alternately arranged in the tire circumferential direction and terminate without reaching the shoulder main groove, the shoulder sipes include first shoulder sipes which extend axially inwardly from axially inner ends of the first shoulder lug grooves and communicate with the shoulder main groove, and second shoulder sipes which comprise a first part extending in the tire circumferential direction and crossing the first shoulder sipe, and a second part which communicates between one end in the tire circumferential direction of the first part and the inner end of the second shoulder lug groove, characterized in that the second part extends and curves while gradually decreasing the angle (α5c) with respect to the tire axial direction.
Method for determining a rotational variable, in particular a rotational angle position (θ, θ 1) of a shaft, in particular a crankshaft of an internal combustion engine, which is coupled directly or with transmission to an electric machine comprising a rotor and a stator having at least two phase windings (U, V, W) from which at least one phase signal (U U, Uv, Uw, I U, Iv, Iw) is derived in each case, wherein the phase signals (U U, U V, U W, I U, I V, I W) each have rising edges (Fl Uu, Fl Vu, FL Wu), falling edges (Fl Ud, Fl Vd, Flwd) and zero crossings (Fl U0, Fl V0, Fl W0), wherein a sum signal (U sum) comprising a plurality of phase signals (Uu, Uv, Uw, I U, Iv, I W) from the electric machine is generated in such a manner that a characteristic pulse (P f1, P f2, P f3, P r1, P r2, P r3) in the sum signal (U sum) is respectively assigned to the rising edges (Fl Uu, Fl Vu, FL Wu), falling edges (Fl Ud, Fl Vd, Fl Wd) and zero crossings (Fl U0, Fl V0, Fl W0), wherein the pulses (P f1, P f2, P f3, P r1, P r2, P r3) are used to determine the rotational speed (n), the rotational angle position (θ, θ 1) or the direction of rotation (α +, α -) of the rotor, characterized in that the pulses assigned to a first edge type having rising edges (Fl Uu, Fl Vu, FL Wu) or falling edges (Fl Ud, Fl Vd, Fl Wd) have a constant first pulse width (T Pf1, T Pf2, T Pf3) and the pulses assigned to an accordingly different edge type constant but mutually different further pulse widths (T Pr1, T Pr2, T Pr3).
A calibration system for use with a handheld vision tester having a display, comprising: a reflective surface and characterized by a calibration stand configured to hold said handheld vision tester having said display at a fixed distance from said reflective surface, wherein said handheld vision tester displays images; and the reflective surface coupled to said calibration stand and oriented substantially parallel to said display, when the calibration stand holds the handheld vision tester at the fixed distance to the reflective surface. a reflective surface and characterized by a calibration stand configured to hold said handheld vision tester having said display at a fixed distance from said reflective surface, wherein said handheld vision tester displays images; and the reflective surface coupled to said calibration stand and oriented substantially parallel to said display, when the calibration stand holds the handheld vision tester at the fixed distance to the reflective surface.
A flexible retroreflective article comprising a light transmissive polymeric body layer having an elastic modulus of less than 7 X 10 8 pascals; and a plurality of cube-corner elements projecting from the body layer, characterized in that the cube-corner elements comprise the reaction product of a polymerizable resin composition comprising at least 2 wt-% of a polymerizable amine-containing ingredient comprising one or more polymerizable (meth)acrylate groups or other ethylenically unsaturated or free-radically polymerizable groups.
A humanized bispecific antibody comprising: - humanized variable regions of the heavy chain and the light chain of an anti-human EGF receptor 1 antibody, and - humanized variable regions of the heavy chain and the light chain of an anti-CD3 antibody, the antibody having the structure (5L5H)-(a peptide linker)-(OHOL), wherein the 5H, 5L, OH and OL have an amino acid sequence represented by SEQ ID Nos 25, 26, 27 and 28, respectively, further comprising a peptide linker sequence joining 5H to 5L and a peptide linker sequence joining OH to OL, wherein the peptide linker sequences present in the humanized bispecific antibody are selected from amino acid sequences encoded by SEQ ID NOS: 34, 35 and 36. - humanized variable regions of the heavy chain and the light chain of an anti-human EGF receptor 1 antibody, and - humanized variable regions of the heavy chain and the light chain of an anti-CD3 antibody, further comprising a peptide linker sequence joining 5H to 5L and a peptide linker sequence joining OH to OL, wherein the peptide linker sequences present in the humanized bispecific antibody are selected from amino acid sequences encoded by SEQ ID NOS: 34, 35 and 36.
A method in a portable electronic device of authenticating enhanced wide area network data usage capabilities, comprising: Establishing data communication between a communication device of the portable electronic device and a wide area network; and detecting commencement of a dual-operating system hybrid environment on one or more processors of the portable electronic device, wherein the dual-operating system hybrid environment comprises: a first operating system environment operable to communicate with the wide area network at a restricted data rate; and a second operating system environment operable to communicate with the wide area network at an enhanced data rate; after the detecting, verifying whether the portable electronic device is authorized to communicate with the wide area network at the enhanced data rate; and when the verifying indicates the portable electronic device is authorized to communicate with the wide area network at the enhanced data rate, configuring, with the one or more processors, the second operating system environment to communicate with the wide area network at the enhanced data rate. Establishing data communication between a communication device of the portable electronic device and a wide area network; and detecting commencement of a dual-operating system hybrid environment on one or more processors of the portable electronic device, wherein the dual-operating system hybrid environment comprises: a first operating system environment operable to communicate with the wide area network at a restricted data rate; and a second operating system environment operable to communicate with the wide area network at an enhanced data rate; a first operating system environment operable to communicate with the wide area network at a restricted data rate; and a second operating system environment operable to communicate with the wide area network at an enhanced data rate; after the detecting, verifying whether the portable electronic device is authorized to communicate with the wide area network at the enhanced data rate; and when the verifying indicates the portable electronic device is authorized to communicate with the wide area network at the enhanced data rate, configuring, with the one or more processors, the second operating system environment to communicate with the wide area network at the enhanced data rate.
A welding or additive manufacturing wire drive system, comprising: a first drive roll; a second drive roll, wherein at least one of the first drive roll and the second drive roll has a circumferential groove (133, 135) for simultaneously driving both of a first wire electrode and a second wire electrode located between the first drive roll and the second drive roll in the circumferential groove (133, 135), characterized by: a sensor device that generates a signal or data corresponding to a consumed or remaining amount of one or both of the first wire electrode and the second wire electrode, wherein the first wire electrode contacts the second wire electrode within the circumferential groove (133, 135), and the first wire electrode further contacts a first sidewall portion of the circumferential groove (133, 135), and the second wire electrode further contacts a second sidewall portion of the circumferential groove, and both of the first wire electrode and the second wire electrode are offset from a base portion of the circumferential groove (133, 135), said base portion extending between the first sidewall portion and the second sidewall portion of the circumferential groove (133, 135). a first drive roll; a second drive roll, wherein at least one of the first drive roll and the second drive roll has a circumferential groove (133, 135) for simultaneously driving both of a first wire electrode and a second wire electrode located between the first drive roll and the second drive roll in the circumferential groove (133, 135), characterized by: a sensor device that generates a signal or data corresponding to a consumed or remaining amount of one or both of the first wire electrode and the second wire electrode, wherein the first wire electrode contacts the second wire electrode within the circumferential groove (133, 135), and the first wire electrode further contacts a first sidewall portion of the circumferential groove (133, 135), and the second wire electrode further contacts a second sidewall portion of the circumferential groove, and both of the first wire electrode and the second wire electrode are offset from a base portion of the circumferential groove (133, 135), said base portion extending between the first sidewall portion and the second sidewall portion of the circumferential groove (133, 135). a sensor device that generates a signal or data corresponding to a consumed or remaining amount of one or both of the first wire electrode and the second wire electrode, wherein the first wire electrode contacts the second wire electrode within the circumferential groove (133, 135), and the first wire electrode further contacts a first sidewall portion of the circumferential groove (133, 135), and the second wire electrode further contacts a second sidewall portion of the circumferential groove, and both of the first wire electrode and the second wire electrode are offset from a base portion of the circumferential groove (133, 135), said base portion extending between the first sidewall portion and the second sidewall portion of the circumferential groove (133, 135).