mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement system for testing a device under test over-the-air, comprising a signal generation and/or analysis equipment , several antennas , several reflectors and a test location for the device under test , wherein the antennas are connected with the signal generation and/or analysis equipment in a signal-transmitting manner such that measurement signals received by the antennas are forwarded to the signal generation and/or analysis equipment and/or signals to be emitted are forwarded to the antennas by means of the signal generation and/or analysis equipment , wherein each of the antennas is configured to transmit and/or receive an electromagnetic signal so that a beam path is provided between the respective antenna and the test location , wherein each of the reflectors is assigned to one corresponding antenna such that the respective antenna and the corresponding reflector together establish a pair, the electromagnetic signal being reflected by the respective reflector so that the electromagnetic signal corresponds to a planar wave at the test location , and wherein each antenna and the corresponding reflector together are configured to provide a corresponding quiet zone at the test location , characterized in that the measurement system comprises at least one large reflector as well as at least one smaller reflector such that at least one of the quiet zones provided is larger than the at least one other quiet zone . wherein the antennas are connected with the signal generation and/or analysis equipment in a signal-transmitting manner such that measurement signals received by the antennas are forwarded to the signal generation and/or analysis equipment and/or signals to be emitted are forwarded to the antennas by means of the signal generation and/or analysis equipment , wherein each of the antennas is configured to transmit and/or receive an electromagnetic signal so that a beam path is provided between the respective antenna and the test location , wherein each of the reflectors is assigned to one corresponding antenna such that the respective antenna and the corresponding reflector together establish a pair, the electromagnetic signal being reflected by the respective reflector so that the electromagnetic signal corresponds to a planar wave at the test location , and wherein each antenna and the corresponding reflector together are configured to provide a corresponding quiet zone at the test location , characterized in that the measurement system comprises at least one large reflector as well as at least one smaller reflector such that at least one of the quiet zones provided is larger than the at least one other quiet zone .
A porous formed composite material comprising: (i) a polymer selected from polyethylene and polypropylene, or a mixture thereof, and (ii) an insoluble sorbent material comprising a cross-linked vinyl lactam homopolymer or copolymer, said vinyl lactam homopolymer or copolymer being optionally mixed with silica gel; the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll. (i) a polymer selected from polyethylene and polypropylene, or a mixture thereof, and (ii) an insoluble sorbent material comprising a cross-linked vinyl lactam homopolymer or copolymer, said vinyl lactam homopolymer or copolymer being optionally mixed with silica gel; the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll. the porous formed composite material being formed into a desired shape by sintering the mixture of polymer and sorbent material at a temperature of 100 to 400°C to allow the polymer to fuse; the formation process causing the polymer (i) and insoluble sorbent material (ii) to be formed into a unitary body such that the insoluble sorbent material is immobilised into the structure of the unitary body; characterised in that the desired shape into which the composite material is formed into is selected from a sheet, a tube, a disc or a roll.
Device for cutting individual tubes from a continuous tubular product in uninterrupted translational movement and formed by a production machine, said device comprising at least a chassis that is fixed with respect to the machine, an assembly that is translationally mobile with respect to the chassis and supports a cutting head driven in reciprocating linear translational movement and in rotational movement, said cutting head comprising at least one cutting blade mounted on a rocker arm , a first mechanism comprising at least a first motor (10ʺ) for driving the reciprocating translational movement of said cutting head, a second mechanism comprising at least a second motor for driving the rotational movement of said cutting head, a third mechanism comprising at least a third motor for actuating the start and end of the cutting operation with the cutting blade, the cutting device being characterized in that said first, second and third mechanisms are fixed in the direction of travel of the tubular product with respect to the chassis of the device. a chassis that is fixed with respect to the machine, an assembly that is translationally mobile with respect to the chassis and supports a cutting head driven in reciprocating linear translational movement and in rotational movement, said cutting head comprising at least one cutting blade mounted on a rocker arm , a first mechanism comprising at least a first motor (10ʺ) for driving the reciprocating translational movement of said cutting head, a second mechanism comprising at least a second motor for driving the rotational movement of said cutting head, a third mechanism comprising at least a third motor for actuating the start and end of the cutting operation with the cutting blade, the cutting device being characterized in that said first, second and third mechanisms are fixed in the direction of travel of the tubular product with respect to the chassis of the device.
A process for obtaining a material comprising a glass sheet, said process comprising providing a glass sheet comprising a first face coated at least partly by an essentially mineral first coating, said first face having at least one first zone and at least one second zone, said at least one first zone having a higher emissivity than that of said second zone, said process being characterized in that it further comprises the following steps: - applying, on at least one portion of said second zone, a sacrificial layer comprising a resin, then - heat treating said coated glass sheet at a temperature of at least 550°C, during which step said sacrificial layer is removed by combustion. - applying, on at least one portion of said second zone, a sacrificial layer comprising a resin, then - heat treating said coated glass sheet at a temperature of at least 550°C, during which step said sacrificial layer is removed by combustion.
An efficient care-type variable endotracheal tube ventilation device, comprising: a telescopic endotracheal tube main body with a variable length, wherein the endotracheal tube main body comprises: a main tube of a telescopic stacked endotracheal tube , wherein an endotracheal tube plugging cuff is sheathed outside the endotracheal tube main body , and the endotracheal tube plugging cuff is provided near a variable endotracheal tube head part , wherein the variable endotracheal tube head part is connected to one end of the main tube of the telescopic stacked endotracheal tube ; and the other end of the main tube of the telescopic stacked endotracheal tube is connected to an endotracheal tube connector , characterized in that the variable endotracheal tube head part is formed of a temperature control material, and the variable endotracheal tube head part is configured to develop to a cylindrical shape when a temperature reaches more than 30 degrees centigrade or 54.6 degrees Fahrenheit (12.6°C), and to be retracted back to a conical shape when the temperature reaches lower than 10 degrees centigrade or 18.6 degrees Fahrenheit (-7.4 °C); or the variable endotracheal tube head part is in a stacked conical shape, and is configured in such a manner that the stacked conical shape of the variable endotracheal tube head part is capable of developing to the cylindrical shape by an air flow aeration method.
A composite particle comprising a core and a shell , wherein the core comprises at least one inorganic nanoparticle and the shell is made of vitrified glass, wherein the composite particle has an average size strictly inferior to 500 nm, and wherein the loading charge of inorganic nanoparticle in the composite particle is at least 10%, said loading charge being the mass ratio between the mass of inorganic nanoparticles comprised in a composite particle and the mass of said composite particle .
A digitalisation unit for exercise equipment , the digitalisation unit being arranged to be placed in contact with or in the vicinity of the exercise equipment during use, the digitalisation unit comprising: - an energy source ; - a wireless communication device ; - an annunciator ; characterised by an identification sensor arranged to give a unique identification of the exercise equipment . - an energy source ; - a wireless communication device ; - an annunciator ; characterised by an identification sensor arranged to give a unique identification of the exercise equipment .
Container having a plurality of compartments for receiving objects, having an outer casing and an insert which is removably received in the outer casing , wherein the outer casing has two front walls and two side walls connecting the front walls to one another, wherein the front walls and the side walls are connected to one another in an articulated manner on outer edges , wherein the insert has two end walls and at least one partition wall connecting the end walls to one another, wherein the compartments are in each case bordered in an encircling manner by at least one of the front walls and/or at least one of the side walls and/or at least one of the end walls and/or the at least one partition wall , and wherein each of the end walls rests in a planar manner on one of the front walls , characterized in that each of the end walls by way of one of its edges rests on a first one of the side walls , and by way of a further one of its edges rests on a second one of the side walls .
Method for detecting and extracting gaseous fluid contained in a closed circuit functioning according to a Rankine cycle, said circuit comprising a multiplicity of components with, in succession, a working fluid circulation and compression pump , a heat exchanger associated with a hot source , an expansion machine , a cooling exchanger , a tank of working fluid and circulation ducts linking these components, characterized in that : - the temperature (T real ) and the pressure (P real ) of the working fluid are measured at a point of the circuit when this circuit is at rest, and - as soon as the measured pressure (P real ) exceeds a threshold value (P saturated liquid) for a given ambient temperature (T), a gaseous fluid extraction device is activated to discharge the gaseous fluid out of the circuit. - the temperature (T real ) and the pressure (P real ) of the working fluid are measured at a point of the circuit when this circuit is at rest, and - as soon as the measured pressure (P real ) exceeds a threshold value (P saturated liquid) for a given ambient temperature (T), a gaseous fluid extraction device is activated to discharge the gaseous fluid out of the circuit.
A connecting member for an endoscope camera drape including a drape section that covers a circumferential face of an endoscope camera , and the connecting member , wherein the connecting member is provided on a front end of the drape section and connects an endoscope and the endoscope camera , the connecting member comprising: an optical film provided on the connecting member ; characterised in that the optical film comprises a reflection suppression section configured to suppress a reflection of incident light incident on the endoscope camera from the endoscope ; the connecting member further comprising: a protective film that covers a surface of the optical film facing the endscope , wherein the reflection suppression section is a concave-convex structure formed on a surface of the optical film , a pitch of concavities and convexities included in the concave-convex structure is less than or equal to a visible light wavelength, the pitch is an arithmetic mean value of distance between adjacent convexities and between adjacent concavities , and the protective film also has a concave-convex structure, and a pitch of the concavities and convexities of the concave-convex structure of the protective film is smaller than the pitch of the concavities and convexities of the concave-convex structure of the reflection suppression section . an optical film provided on the connecting member ; characterised in that the optical film comprises a reflection suppression section configured to suppress a reflection of incident light incident on the endoscope camera from the endoscope ; the connecting member further comprising: a protective film that covers a surface of the optical film facing the endscope , wherein the reflection suppression section is a concave-convex structure formed on a surface of the optical film , a pitch of concavities and convexities included in the concave-convex structure is less than or equal to a visible light wavelength, the pitch is an arithmetic mean value of distance between adjacent convexities and between adjacent concavities , and the protective film also has a concave-convex structure, and a pitch of the concavities and convexities of the concave-convex structure of the protective film is smaller than the pitch of the concavities and convexities of the concave-convex structure of the reflection suppression section . a protective film that covers a surface of the optical film facing the endscope , wherein the reflection suppression section is a concave-convex structure formed on a surface of the optical film , a pitch of concavities and convexities included in the concave-convex structure is less than or equal to a visible light wavelength, the pitch is an arithmetic mean value of distance between adjacent convexities and between adjacent concavities , and the protective film also has a concave-convex structure, and a pitch of the concavities and convexities of the concave-convex structure of the protective film is smaller than the pitch of the concavities and convexities of the concave-convex structure of the reflection suppression section .
An optical laminate, comprising: an optical functional layer , wherein the optical functional layer is a polarizing layer; and a reddening-resistant layer formed on at least one side of the optical functional layer , wherein the reddening-resistant layer is a void-containing layer or a laminate comprising the void-containing layer, wherein the void-containing layer does not comprise solid particles, wherein the reddening-resistant layer satisfies Equation 4 below: H L ≤ 0 .9 × H P wherein, H L is a thermal diffusivity of a laminate of a polymer film and the reddening-resistant layer formed on one side of the polymer film, and H P is the thermal diffusivity of the polymer film, wherein a surface of the laminate on a side of the polymer film and a surface of the laminate on a side of the reddening-resistant layer are coated with graphite and the thermal diffusivity is measured using a laser flash device based on a temperature of 95°C confirmed through the temperature transfer from one graphite surface to the other graphite surface. an optical functional layer , wherein the optical functional layer is a polarizing layer; and a reddening-resistant layer formed on at least one side of the optical functional layer , wherein the reddening-resistant layer is a void-containing layer or a laminate comprising the void-containing layer, wherein the void-containing layer does not comprise solid particles, wherein the reddening-resistant layer satisfies Equation 4 below: H L ≤ 0 .9 × H P wherein, H L is a thermal diffusivity of a laminate of a polymer film and the reddening-resistant layer formed on one side of the polymer film, and H P is the thermal diffusivity of the polymer film, wherein a surface of the laminate on a side of the polymer film and a surface of the laminate on a side of the reddening-resistant layer are coated with graphite and the thermal diffusivity is measured using a laser flash device based on a temperature of 95°C confirmed through the temperature transfer from one graphite surface to the other graphite surface.
A waste collection device comprising; a receptacle having an opening in an upper end, the receptacle being mounted relative to a body of water such that the upper end is adjacent a surface of the water; a tubular member mounted for sliding movement within the opening ; a pump for pumping water outwardly from within the receptacle ; and a basket within the tubular member for extracting waste from water passing through the tubular member ; wherein the tubular member comprises a cylindrical inner wall and a cylindrical outer wall , and wherein an outer surface of the tubular member engages with an inner surface of the opening such that a seal is created and water may enter the receptacle by passing through the tubular member , characterized in that the cylindrical inner wall and the cylindrical outer wall are connected at upper and lower ends thereof to define an annular chamber to provide buoyancy to the tubular member .
A method of forming a three-dimensional component, comprising: providing a first composition comprising a plurality of foam particles dispersed or suspended in a liquid polymerizable composition; polymerizing a first portion of the liquid polymerizable composition, forming a first layer including a first portion of a polymeric material which is the polymerized reaction product of the polymerizable composition, the first portion of the polymeric material at least partially encapsulating a first portion of the plurality of foam particles ; repeating the polymerizing and forming for a second iteration, polymerizing a second portion of the liquid polymerizable composition, forming a second layer including a second portion of the polymeric material at least partially encapsulating a second portion of the plurality of foam particles , and bonding the second layer to the first layer; and repeating the polymerizing, forming and bonding for at least a third iteration, forming a three-dimensional component having at least three layers, each layer including foam particles at least partially encapsulated by the first polymeric material and being bonded to another layer, the total number of layers being equal to the total number of iterations conducted. providing a first composition comprising a plurality of foam particles dispersed or suspended in a liquid polymerizable composition; polymerizing a first portion of the liquid polymerizable composition, forming a first layer including a first portion of a polymeric material which is the polymerized reaction product of the polymerizable composition, the first portion of the polymeric material at least partially encapsulating a first portion of the plurality of foam particles ; repeating the polymerizing and forming for a second iteration, polymerizing a second portion of the liquid polymerizable composition, forming a second layer including a second portion of the polymeric material at least partially encapsulating a second portion of the plurality of foam particles , and bonding the second layer to the first layer; and repeating the polymerizing, forming and bonding for at least a third iteration, forming a three-dimensional component having at least three layers, each layer including foam particles at least partially encapsulated by the first polymeric material and being bonded to another layer, the total number of layers being equal to the total number of iterations conducted.
Vehicle lamp , having at least three light sources arranged at different positions (S1, S2, S3), an optics element comprising a multiplicity of facet surfaces , wherein the directions of light beams that are emittable by the light sources in the direction of the facet surfaces are changeable by the facet surfaces , and a control unit for controlling the light sources , wherein the positions and/or orientations of the facet surfaces relative to the positions of the light sources are arranged such that, viewed from a specific observation position (P) that is remote from the vehicle lamp , at least a light beam (L1-1) that has been emitted by a first light source (4-1) and the direction of which has been changed by a first facet surface (9-1) at a first facet position (F1) is visible, a light beam (L2-2) that has been emitted by a second light source (4-2) and the direction of which has been changed by a second facet surface (9-2) at a second facet position (F2) is visible, and a light beam (L3-3) that has been emitted by a third light source (4-3) and the direction of which has been changed by a third facet surface (9-3) at a third facet position (F2) is visible, wherein the first, second and third facet positions (F1, F2, F3) are arranged in each case at a distance from one another, characterized in that the light sources are controllable such that a sparkling effect is obtained at the observation position (P), in which one or more facet surfaces flash successively at different positions due to reflected light beams, wherein the light sources emit light successively or in any desired order.
A torque motor assembly comprising: two or more pole piece pairs, each pair comprising two opposing pole pieces each having an end facing a respective end of the opposite pole piece, the ends separated by a gap ; and a magnetic plate extending between the pole piece pairs and located in the gap, the magnetic plate having surface portions facing the respective pole piece ends; wherein the surface portions of the magnetic plate and the respective pole piece ends are non-parallel with respect to each other; wherein each pole piece end has a triangular cross-section cut out (Fig.2A, Fig.2B) such that opposing pole pieces define a diamond-shaped gap between them, and wherein the surface portions of the magnetic plate has a diamond-shaped cross-section defined by angles different from those defining the gap. two or more pole piece pairs, each pair comprising two opposing pole pieces each having an end facing a respective end of the opposite pole piece, the ends separated by a gap ; and a magnetic plate extending between the pole piece pairs and located in the gap, the magnetic plate having surface portions facing the respective pole piece ends; wherein the surface portions of the magnetic plate and the respective pole piece ends are non-parallel with respect to each other; wherein each pole piece end has a triangular cross-section cut out (Fig.2A, Fig.2B) such that opposing pole pieces define a diamond-shaped gap between them, and wherein the surface portions of the magnetic plate has a diamond-shaped cross-section defined by angles different from those defining the gap.