mhurhangee/ep-ind-claims huggingface dataset:
A resin composition for a laminated glass interlayer used for forming a laminated glass interlayer, the resin composition comprising: an ionomer of an ethylene-unsaturated carboxylic acid-based copolymer; and an inorganic filler, wherein a volume-based cumulative 10% diameter (D 10) of the inorganic filler as measured by a laser diffraction scattering method is equal to or more than 0.1 μm and equal to or less than 10 μm, wherein a metal ion constituting the ionomer of the ethylene-unsaturated carboxylic acid-based copolymer includes one or more selected from the group of lithium ion, potassium ion, calcium ion, magnesium ion, zinc ion, aluminum ion, and barium ion and the inorganic filler is calcium carbonate. an ionomer of an ethylene-unsaturated carboxylic acid-based copolymer; and an inorganic filler, wherein a volume-based cumulative 10% diameter (D 10) of the inorganic filler as measured by a laser diffraction scattering method is equal to or more than 0.1 μm and equal to or less than 10 μm, wherein a metal ion constituting the ionomer of the ethylene-unsaturated carboxylic acid-based copolymer includes one or more selected from the group of lithium ion, potassium ion, calcium ion, magnesium ion, zinc ion, aluminum ion, and barium ion and the inorganic filler is calcium carbonate.
A gas generator, comprising: a housing defining a space within the housing; a catalyst within the space within the housing, wherein the catalyst comprises a carrier comprising hafnia, and at least one active metal on a surface of the carrier; a propellant inlet to the housing; and an outlet from the housing for reaction products comprising gas; characterised in that the carrier has been hot isostatically pressed to a theoretical density of at least 97%. a housing defining a space within the housing; a catalyst within the space within the housing, wherein the catalyst comprises a carrier comprising hafnia, and at least one active metal on a surface of the carrier; a propellant inlet to the housing; and an outlet from the housing for reaction products comprising gas;
A pump with a canned motor having a stator with an internal rotor disposed therein, wherein the stator and the internal rotor are mutually separated fluid-tightly by a can made of a non-metallic material which is disposed between the stator and the internal rotor, wherein the stator has stator teeth which extend radially in the direction of the internal rotor and define with appurtenant stator-tooth end faces a receiving space for the internal rotor and the can, wherein the can lies against the stator-tooth end faces and has on its surface facing the stator, in stator-tooth gaps which are respectively defined by two mutually adjacent stator teeth, ribs (27; 27a; 27b) fitted in in a form-locking manner, wherein the ribs (27; 27a; 27b) have a height starting out from a rib root disposed on the can, and taper in the radial direction, starting out from the rib root, with respect to a rib thickness defined in the circumferential direction of the can, wherein a stator tooth is composed of respectively a stator tooth shank and a stator tooth head, wherein the stator tooth head has two stator-tooth-head members (51a, 53a; 51b, 53b), wherein the stator-tooth-head members (51a, 53a; 51b, 53b) respectively protrude beyond the stator tooth shank in both circumferential directions of the can, characterized in that a cross-sectional profile of the ribs (27; 27a; 27b) has at least a trapezoidal portion with a base line and a roof line, wherein the base line extending in the circumferential direction of the can lies on the can and the roof line is disposed in the stator tooth gap (25; 25a; 25b), the cross-sectional profile of the trapezoidal portion is further determined by the two side lines (39a, 40a; 39b, 40b) extending mutually symmetrically and substantially straight, wherein the side lines (39a, 40a; 39b, 40b) extend respectively at an angle (α) in the range of 5° to 60° with reference to the radius of the can, rib flanks formed by the side lines (39a, 40a; 39b, 40b) of the ribs (27; 27a; 27b) are respectively in contact, over the region of the height of the ribs (27; 27a; 27b), with a contour of the stator-tooth-head members (51a, 53a; 51b, 53b) which is shaped complementarily to the side lines (39a, 40a; 39b, 40b), as bearing points fixed against shearing-off, the side lines (39a, 40a; 39b; 40b) pass from the rib (27; 27a; 27b) into the can in a rounded manner, wherein a transition between the outer can surface and one of the side lines (39a, 39b) follows at least one radius from the range of 0.8 to 10 times the wall thickness (d) of the can, and the stator tooth contour and thus the height of the ribs (27; 27a; 27b) is so adjusted that equivalent stresses in the can are always smaller than the breaking point of the can material in the total region in the can under operating pressure load.
An antenna device comprising: an array of N radiating elements, N being an integer greater than one, the N radiating elements being arranged on a common axis, each radiating element being configured to radiate a radio wave in response to a radiofrequency, RF, signal being fed to the respective radiating element; a reflector arranged on the common axis and configured to reflect the N radio waves from the N radiating elements into a main radiating direction; a feed structure configured to feed a RF signal to each radiating element, the RF signal at each radiating element having a respective phase difference ( α) relative to the RF signal at a first radiating element of the array, wherein the feed structure comprises a feed line for each radiating element of the array and one or more phase shifters configured, for one or more or all radiating elements of the array, to set the phase difference ( α) of the RF signal at the respective radiating element, wherein each feed line has a different length than the other feed lines, and characterized in that one or more feed lines each comprise a meandering line portion. an array of N radiating elements, N being an integer greater than one, the N radiating elements being arranged on a common axis, each radiating element being configured to radiate a radio wave in response to a radiofrequency, RF, signal being fed to the respective radiating element; a reflector arranged on the common axis and configured to reflect the N radio waves from the N radiating elements into a main radiating direction; a feed structure configured to feed a RF signal to each radiating element, the RF signal at each radiating element having a respective phase difference ( α) relative to the RF signal at a first radiating element of the array, wherein the feed structure comprises a feed line for each radiating element of the array and one or more phase shifters configured, for one or more or all radiating elements of the array, to set the phase difference ( α) of the RF signal at the respective radiating element, wherein each feed line has a different length than the other feed lines, and characterized in that one or more feed lines each comprise a meandering line portion.
A cold-rolled dual-phase steel plate having a high yield ratio, comprising the following chemical elements in mass percentages: C: 0.05-0.08%, Mn: 0.9-1.2%, Si: 0.1-0.6%, Nb: 0.030-0.060%, Ti: 0.030-0.060%, Al: 0.015-0.045%, P ≤ 0.015%, S ≤ 0.005%, N ≤ 0.005%, and a balance of Fe and other unavoidable impurities; wherein the cold-rolled dual-phase steel plate has a microstructure which is a complex phase structure of martensite+ferrite+[Nb x Ti y (C,N) z] carbonitride, wherein x + y = z; the martensite has a phase proportion of 20-30%, and the martensite is in the shape of long strips-islands; the [Nb x Ti y (C,N) z] carbonitride has an irregular spherical shape and is uniformly distributed in ferrite grains, and the [Nb x Ti y (C,N) z] carbonitride has a phase proportion of 5-10%; and the cold-rolled dual-phase steel plate has a yield strength of 550-660 MPa, a tensile strength of ≥ 660 MPa, an elongation at break of ≥ 15%, and a yield ratio of greater than 0.8. C: 0.05-0.08%, Mn: 0.9-1.2%, Si: 0.1-0.6%, Nb: 0.030-0.060%, Ti: 0.030-0.060%, Al: 0.015-0.045%, P ≤ 0.015%, S ≤ 0.005%, N ≤ 0.005%, and a balance of Fe and other unavoidable impurities; wherein the cold-rolled dual-phase steel plate has a microstructure which is a complex phase structure of martensite+ferrite+[Nb x Ti y (C,N) z] carbonitride, wherein x + y = z; the martensite has a phase proportion of 20-30%, and the martensite is in the shape of long strips-islands; the [Nb x Ti y (C,N) z] carbonitride has an irregular spherical shape and is uniformly distributed in ferrite grains, and the [Nb x Ti y (C,N) z] carbonitride has a phase proportion of 5-10%; and the cold-rolled dual-phase steel plate has a yield strength of 550-660 MPa, a tensile strength of ≥ 660 MPa, an elongation at break of ≥ 15%, and a yield ratio of greater than 0.8.
A laser fiber for performing laser lithotripsy comprising: an optical fiber having a distal end and a terminating end surface at the distal end; and a fiber tip at the distal end of the optical fiber, the fiber tip including a transmissive portion, through which laser energy discharged from the terminating end surface of the optical fiber is transmitted, and a spacer portion defining a distal terminating end of the fiber tip that is spaced a predetermined distance from the terminating end surface of the optical fiber; wherein the predetermined distance is set for shock wave generation for calculus destruction at the distal terminating end of the fiber tip, wherein the predetermined distance is between 0.1 mm and 4 mm, wherein the fiber tip forms a sealed cavity around the terminating end surface of the optical fiber. an optical fiber having a distal end and a terminating end surface at the distal end; and a fiber tip at the distal end of the optical fiber, the fiber tip including a transmissive portion, through which laser energy discharged from the terminating end surface of the optical fiber is transmitted, and a spacer portion defining a distal terminating end of the fiber tip that is spaced a predetermined distance from the terminating end surface of the optical fiber; wherein the predetermined distance is set for shock wave generation for calculus destruction at the distal terminating end of the fiber tip, wherein the predetermined distance is between 0.1 mm and 4 mm, wherein the fiber tip forms a sealed cavity around the terminating end surface of the optical fiber.
An internal combustion engine system comprising a reciprocating compressor for pressurizing a fluid medium and having a compressor cylinder for accommodating a compressor piston, said compressor cylinder having a main cylinder volume and a secondary adjustable volume in fluid communication with the main cylinder volume so as to provide a variable geometrical compression ratio, wherein the secondary adjustable volume comprises at least a plurality of volume compartment portions (127, 128) of different size, and wherein a total dead volume is provided by at least two volume compartment portions of different size, each one of the two volume compartment portions of different size being individually arranged in fluid communication with the main cylinder volume by at least one valve.
A method of determining a nucleotide sequence of a template nucleic acid, the method comprising: providing a substrate comprising a first surface and at least a first optical waveguide disposed upon the first surface; providing a mask layer disposed over the first surface of the substrate, the mask layer covering at least a first portion of the waveguide and comprising a plurality of apertures leaving exposed portions of the waveguide; providing an immobilized polymerase enzyme complex comprising a polymerase enzyme, a template nucleic acid, and a primer which is disposed sufficiently proximal to the first surface and external to the waveguide, to be illuminated by an evanescent field emanating from the waveguide when light is passed through the waveguide, wherein the immobilized polymerase enzyme complex is disposed within an aperture in the mask layer such that a signal from the analyte is spatially optically resolvable from any other signal from an analyte immobilized in another aperture; directing light through the first waveguide such that the evanescent field from the waveguide illuminates the polymerase enzyme complex; exposing the polymerase enzyme complex to a set of labeled nucleotides or nucleotide analogs such that they are incorporated into a nascent strand complementary to the template nucleic acid; and detecting an optical signal from the labelled nucleotides or nucleotide analogs during incorporation into the nascent strand, thereby identifying each of the nucleotides incorporated into the nascent strand. providing a substrate comprising a first surface and at least a first optical waveguide disposed upon the first surface; providing a mask layer disposed over the first surface of the substrate, the mask layer covering at least a first portion of the waveguide and comprising a plurality of apertures leaving exposed portions of the waveguide; providing an immobilized polymerase enzyme complex comprising a polymerase enzyme, a template nucleic acid, and a primer which is disposed sufficiently proximal to the first surface and external to the waveguide, to be illuminated by an evanescent field emanating from the waveguide when light is passed through the waveguide, wherein the immobilized polymerase enzyme complex is disposed within an aperture in the mask layer such that a signal from the analyte is spatially optically resolvable from any other signal from an analyte immobilized in another aperture; directing light through the first waveguide such that the evanescent field from the waveguide illuminates the polymerase enzyme complex; exposing the polymerase enzyme complex to a set of labeled nucleotides or nucleotide analogs such that they are incorporated into a nascent strand complementary to the template nucleic acid; and detecting an optical signal from the labelled nucleotides or nucleotide analogs during incorporation into the nascent strand, thereby identifying each of the nucleotides incorporated into the nascent strand.
A transparent conductive film comprising: a film substrate having two main surfaces; and a transparent conductor layer formed on one main surface of the film substrate, the transparent conductor layer is composed of three layers in which a first indium tin oxide layer, a second indium tin oxide layer, and a third indium tin oxide layer are laminated in this order from the film substrate side, the first indium tin oxide layer has a smaller tin oxide content than the second indium tin oxide layer has, and the third indium tin oxide layer has a smaller tin oxide content than the second indium tin oxide layer has, wherein the first indium tin oxide layer has a thickness smaller than the second indium tin oxide layer has and the third indium tin oxide layer has a thickness smaller than the second indium tin oxide layer has, and wherein the first indium tin oxide layer has a thickness of 1 nm to 10 nm, the second indium tin oxide layer has a thickness of over 10 nm to 30 nm or smaller, and the third indium tin oxide layer has a thickness of 1 nm to 10 nm. a film substrate having two main surfaces; and a transparent conductor layer formed on one main surface of the film substrate, the transparent conductor layer is composed of three layers in which a first indium tin oxide layer, a second indium tin oxide layer, and a third indium tin oxide layer are laminated in this order from the film substrate side, the first indium tin oxide layer has a smaller tin oxide content than the second indium tin oxide layer has, and the third indium tin oxide layer has a smaller tin oxide content than the second indium tin oxide layer has, wherein the first indium tin oxide layer has a thickness smaller than the second indium tin oxide layer has and the third indium tin oxide layer has a thickness smaller than the second indium tin oxide layer has, and wherein the first indium tin oxide layer has a thickness of 1 nm to 10 nm, the second indium tin oxide layer has a thickness of over 10 nm to 30 nm or smaller, and the third indium tin oxide layer has a thickness of 1 nm to 10 nm.
A device for manufacturing receptacles provided with decorative wrap-around labels by thermoforming, the device including a mold block (24, 26) having at least one thermoforming chamber (28, 128) that has an inside surface (29, 129), an axial opening (28A, 128A), and a moving end-wall, opposite from the opening, and a wrap-around label insertion block (32, 34) having at least one wrap-around label insertion chamber and a piston mounted to move in the wrap-around label insertion chamber to push a decorative wrap-around label into the thermoforming chamber through said axial opening (28A, 128A); said device being characterized in that the end-wall (40, 140) is suitable for moving in an end segment (28B, 128B) of the chamber (28, 128) between a positioning high level in which said end wall is able to define an abutment for the lower edge of a wrap-around label placed in the thermoforming chamber and at least one thermoforming low level, and in that the device has at least one tongue-and-groove set comprising a fin on the end-wall (40, 140) that is engaged in a notch in the inside surface of the end segment (28B, 128B).
Method for controlling authenticity of a code received with a message by a first electronic device from a second electronic device, said code resulting from application of a bijective algorithm to said message using at least one predetermined key, characterized in that it comprises the steps of: (i) receiving, by the first electronic device, the message and the code from the second electronic device; (ii) applying partly said bijective algorithm to said received message, using said predetermined key, from a starting step to a chosen intermediate step, in order to get a first result, (iii) applying partly in a reverse manner said bijective algorithm with said predetermined key, from an ending step to said chosen intermediate step, to said received code while using said received message, in order to get a second result; (iv) comparing said first result and said second result; and (v) considering that said received code is authentic if said first and second results are identical.
An insertion tool for inserting a catheter into a body of a patient, comprising: a housing in which at least a portion of the catheter is initially disposed; an at least partially hollow needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire including a proximal end anchored to a portion of the insertion tool, a distal end pre-disposed within the needle, and an intermediate portion substantially defining a U-shaped bend; and an advancement assembly for selectively advancing the distal end of the guidewire out of a distal opening of the needle in preparation for distal advancement of the catheter. a housing in which at least a portion of the catheter is initially disposed; an at least partially hollow needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire including a proximal end anchored to a portion of the insertion tool, a distal end pre-disposed within the needle, and an intermediate portion substantially defining a U-shaped bend; and an advancement assembly for selectively advancing the distal end of the guidewire out of a distal opening of the needle in preparation for distal advancement of the catheter.
A method, comprising: providing a garment that substantially contours to and stays in relative contact with an operator's body via a fastening mechanism, but not the operator's head, to protect a portion of the operator's body from radiation, and wherein the garment is suspended from a suspension component, wherein the suspension component provides a purely lateral axis of motion and a purely linear axis of motion, the garment being configured to secure a face shield thereon, the face shield being attached to the suspension component and protecting at least a portion of the operator's head from radiation.
Fitting element for use in rehabilitation of pipelines with a liner, the fitting element comprising a composite article of reinforcing fibers and a resin composition, wherein a first part of the fitting element comprises reinforcing fibers and a substantially fully cured resin composition, wherein a second part of the fitting element comprises dry reinforcing fibers that can accept a curable resin composition that optionally originates from the liner to form a functional joint between the fitting element and at least a part of the liner, and wherein an interface layer of the fitting element structurally connects the first and the second part by comprising reinforcing fibres of the second part and resin from the first part.
A near-field noise suppression sheet comprising a pair of plastic films (1a; 2a) each having a thin metal film (1b; 2b) on one surface, said plastic films being adhered by an adhesive with said thin metal films inside, one thin metal film being made of a magnetic metal, characterized in that said adhesive is conductive; and each thin metal film (1b; 2b) is made of a magnetic metal and has a controlled thickness such that a pair of the adhered thin metal films (1b; 2b) have surface resistance of 20 - 150 Ω/square.
A flame-retardant HIPS material, comprising the following components in parts by weight: a HIPS resin 90 parts to 67 parts; a brominated flame retardant 10 parts to 15 parts; and an auxiliary flame retardant 3 parts to 7 parts; wherein the auxiliary flame retardant is a 1,3,5-triazine compound, which is a chemical substance or a derivative having the following structure: wherein R 1, R 2, R 3 are the same and are selected from -P(C 6 H 5) 2, -P(CH 3) 2, -PH 2 O 4, -PH 2 O 2, -SiH 3, -SiCl 3, -SiOH 2, -SiHCl 2, -SiHO 3, -((CH 3) 5 Si) 2 O, -NCH, -NO 3, -NH 2, -NCO, -N(CH 3) or -N 2 Cl.