mhurhangee/ep-ind-claims huggingface dataset:
An identification token comprising: (a) A body portion having two surfaces and a rim; (b) An antenna located within the said body portion; (c) A microchip connected to said antenna; (d) A light source in communication with said microchip; and (e) Illumination zones connected to said light source; Wherein the illumination zones are in either of said surfaces or said rim; wherein the illumination zones are connected to said light source via light pipes; and wherein the microchip is responsive to radio frequency signals, characterised in that the microchip is programmed to cause the light source to communicate light via the light pipes to the illumination zones so that they emit light in a predetermined frequency range and/or in a predetermined pattern. (a) A body portion having two surfaces and a rim; (b) An antenna located within the said body portion; (c) A microchip connected to said antenna; (d) A light source in communication with said microchip; and (e) Illumination zones connected to said light source; Wherein the illumination zones are in either of said surfaces or said rim; wherein the illumination zones are connected to said light source via light pipes; and wherein the microchip is responsive to radio frequency signals, characterised in that the microchip is programmed to cause the light source to communicate light via the light pipes to the illumination zones so that they emit light in a predetermined frequency range and/or in a predetermined pattern.
A method of determining the geographic location of a portable electronic device, said portable electronic device comprising a signal receiving unit (106, 108) configured to receive a signal from at least one remote transmitter (200, 300, 400), and a local positioning unit for determining a local position of the portable electronic device, said method comprising the following steps performed at the portable electronic device: obtaining a plurality of data samples from the signal at different time points during a measurement period with arbitrary movement of the portable electronic device; associating each data sample with a local position obtained from the local positioning unit to thereby form a synthetic antenna array which associates said each data sample with said local position; obtaining an array response of the synthetic antenna array; and identifying the geographic location of the portable electronic device, by processing the synthetic antenna array as a function of the array response and by using knowledge about the geographic location of the or each transmitter (200, 300, 400). obtaining a plurality of data samples from the signal at different time points during a measurement period with arbitrary movement of the portable electronic device; associating each data sample with a local position obtained from the local positioning unit to thereby form a synthetic antenna array which associates said each data sample with said local position; obtaining an array response of the synthetic antenna array; and identifying the geographic location of the portable electronic device, by processing the synthetic antenna array as a function of the array response and by using knowledge about the geographic location of the or each transmitter (200, 300, 400).
An exercise machine which includes a support structure, a first crank member which is mounted to the support structure for rotation about a first axis, a first-non rotatable drive transfer device fixed to the support structure at the first axis, a second crank member which is mounted to the first crank member for rotation about a second axis which is on the first crank member and which is spaced apart from the first axis, a second drive transfer device, which is mounted for rotation about the second axis together with the second crank member, a user-actuated force application component which is mounted to the second crank member at a third axis which is spaced apart from the second axis and which is operable to impart rotation to the second crank member about the second axis, characterized in that the second drive transfer device is coupled to the first drive transfer device so that rotational movement of S revolutions of the second crank member about the second axis causes rotational movement of R revolutions of the first crank member and the second crank member, in unison, about the first axis, and wherein R/S ≠ 1⁄2.
A polyorganosiloxane-containing graft copolymer, which is a polyorganosiloxane-containing graft copolymer formed by graft polymerizing a vinyl monomer mixture on a polyorganosiloxane-based rubber, wherein the vinyl monomer mixture contains a (meth)acrylate ester (b 1) and an aromatic vinyl monomer (b 2), the (meth)acrylate ester has an alkyl group or an aromatic group, a volume average particle diameter of the graft copolymer is 300 nm to 2000 nm, measured according to the method as described in the description, and a content of the polyorganosiloxane is 15 mass% to 40 mass% based on 100 mass% of the graft copolymer, wherein the polyorganosiloxane-based rubber is a composite rubber containing the polyorganosiloxane and a polyalkyl(meth)acrylate.
A compact container for receiving two types of cosmetic materials, the compact container comprising: an inner container formed therein with a first receiving space; and an inner container lid coupled to one side of the inner container and formed in a lower portion thereof with a second receiving space, wherein the second receiving space faces the first receiving space, and the second receiving space and the first receiving space are sealed together when the inner container lid is covered on the inner container,, characterized in that a second impregnating member is received in the second receiving space of the inner container lid and a first impregnating member is received in the first receiving space of the inner container. an inner container formed therein with a first receiving space; and an inner container lid coupled to one side of the inner container and formed in a lower portion thereof with a second receiving space, wherein the second receiving space faces the first receiving space, and the second receiving space and the first receiving space are sealed together when the inner container lid is covered on the inner container,, characterized in that a second impregnating member is received in the second receiving space of the inner container lid and a first impregnating member is received in the first receiving space of the inner container.
A folding roller comprising: - a cylindrical sleeve having a rotation axis, an outer surface and an inner surface delimiting an axial cavity of the cylindrical sleeve; - an inner body axially extending in the axial cavity of the cylindrical sleeve, the cylindrical sleeve being arranged so as to rotate around the inner body; - a suction chamber inside the cylindrical sleeve; - a plurality of suction holes (41, 43) extending from the outer surface up to the inner surface of the cylindrical sleeve; wherein the suction holes are arranged according to longitudinal alignments (42, 44) that are approximately parallel to the rotation axis of the cylindrical sleeve and angularly spaced apart with respect to one another; characterized in that inside the suction chamber a plurality of stationary shutters are arranged, spaced from one another along the rotation axis of the cylindrical sleeve, each shutter having a closing surface co-acting with the inner surface of the cylindrical sleeve to close the suction holes. - a cylindrical sleeve having a rotation axis, an outer surface and an inner surface delimiting an axial cavity of the cylindrical sleeve; - an inner body axially extending in the axial cavity of the cylindrical sleeve, the cylindrical sleeve being arranged so as to rotate around the inner body; - a suction chamber inside the cylindrical sleeve; - a plurality of suction holes (41, 43) extending from the outer surface up to the inner surface of the cylindrical sleeve; wherein the suction holes are arranged according to longitudinal alignments (42, 44) that are approximately parallel to the rotation axis of the cylindrical sleeve and angularly spaced apart with respect to one another;
Lifting apparatus for a vehicle axle of a vehicle, having a strut support which is connected to a vehicle frame of the vehicle and extends downwards, a strut which is mounted on the strut support such that it can be pivoted about a pivot axis and is fastened to an axle beam of the vehicle axle at a spacing from the pivot axis, a bracket which is arranged below the pivot axis and is connected rigidly to the strut support, a linear drive which comprises a lifting rod and by way of the actuation of which the lifting rod can be moved translationally, characterized in that the linear drive is fastened to the strut which is provided with a through hole, through which the lifting rod extends in the direction of the bracket, against which the lifting rod can be pressed by way of actuation of the linear drive, and the vehicle axle can be lifted as a result.
Apparatus for operating a brake system of a motor vehicle, having a first control unit for operating an ABS device of the brake system and having a second control unit for operating a brake servo device of the brake system, characterized in that the control units (3, 4) are designed as user-specific integrated circuits (5, 6) and are connected to a microprocessor in order to be actuated, wherein the microprocessor has a dedicated disconnection path (15, 16) for each of the circuits (5, 6).
A capacitor comprising: a porous metal base material; a first buffer layer formed by an atomic layer deposition method on the porous metal base material; a dielectric layer formed by an atomic layer deposition method on the first buffer layer; and an upper electrode formed on the dielectric layer. a porous metal base material; a first buffer layer formed by an atomic layer deposition method on the porous metal base material; a dielectric layer formed by an atomic layer deposition method on the first buffer layer; and an upper electrode formed on the dielectric layer.
Device for supporting at least two radiant heating tubes (3, 3') in a furnace chamber of an industrial furnace, wherein each radiant heating tube (3, 3') is attached at one end to a respective burner and is held against a first furnace wall of the furnace chamber, wherein the free closed end of the radiant heating tubes (3, 3') projects into the furnace chamber, wherein the device has a connecting element to which at least two radiant tubes (3, 3') can be connected transversely to the axial direction, wherein the connecting element has an attachment which extends in the axial direction of the radiant heating tubes (3, 3') and which is configured to rest in a holder in the furnace chamber in the axial direction, characterized in that the connecting element is configured such that each radiant heating tube (3, 3') is displaceable relative to the connecting element in the axial direction of the radiant heating tubes (3, 3'), wherein the attachment is configured such that it rests immovably in the holder in the axial direction of the radiant heating tubes (3, 3') and/or can be securely connected to the holder, or characterized in that the connecting element is configured such that a radiant heating tube can be fixed in the axial direction and each further radiant heating tube can be displaced in the axial direction relative to the connecting element, wherein the attachment rests in the holder so as to be displaceable in the axial direction of the radiant heating tubes (3, 3'). wherein the free closed end of the radiant heating tubes (3, 3') projects into the furnace chamber, wherein the device has a connecting element to which at least two radiant tubes (3, 3') can be connected transversely to the axial direction, wherein the connecting element has an attachment which extends in the axial direction of the radiant heating tubes (3, 3') and which is configured to rest in a holder in the furnace chamber in the axial direction, characterized in that the connecting element is configured such that each radiant heating tube (3, 3') is displaceable relative to the connecting element in the axial direction of the radiant heating tubes (3, 3'), wherein the attachment is configured such that it rests immovably in the holder in the axial direction of the radiant heating tubes (3, 3') and/or can be securely connected to the holder, or characterized in that the connecting element is configured such that a radiant heating tube can be fixed in the axial direction and each further radiant heating tube can be displaced in the axial direction relative to the connecting element, wherein the attachment rests in the holder so as to be displaceable in the axial direction of the radiant heating tubes (3, 3').
A production method of a graft copolymer of a poly(amino acid) or a salt thereof and a hydrophobic primary amine compound represented by Formula: A-NH 2 or a salt thereof, wherein A denotes a hydrophobic moiety, wherein the poly(amino acid) is poly(y-glutamic acid), wherein the hydrophobic primary amine compound is an α-amino acid derivative, and wherein the graft copolymer is represented by Formula: wherein M is alkali metal, A is a hydrophobic moiety, and n is an integer from 10 to 100,000, diagonal lines intervening three monomer units represent that the monomer units are arranged in irregular order; and x is a mole fraction of the monomer unit represented by Formula: y is a mole fraction of the monomer unit represented by Formula: z is a mole fraction of the monomer unit represented by Formula: x, y, and z satisfy the following equations: 0 ≤ x < 1; 0 ≤ y < 1; 0 < z < 1; and x + y + z = 1; the method comprising the steps of: acquiring a graft copolymer by condensation of the poly(amino acid) or a salt thereof with the hydrophobic primary amine compound represented by Formula or a salt thereof; and isolating the graft copolymer by allowing an acid to act on the graft copolymer acquired at step at a temperature of 40 to 70°C. wherein the poly(amino acid) is poly(y-glutamic acid), wherein the hydrophobic primary amine compound is an α-amino acid derivative, and wherein the graft copolymer is represented by Formula: wherein M is alkali metal, A is a hydrophobic moiety, and n is an integer from 10 to 100,000, diagonal lines intervening three monomer units represent that the monomer units are arranged in irregular order; and x is a mole fraction of the monomer unit represented by Formula: y is a mole fraction of the monomer unit represented by Formula: z is a mole fraction of the monomer unit represented by Formula: x, y, and z satisfy the following equations: 0 ≤ x < 1; 0 ≤ y < 1; 0 < z < 1; and x + y + z = 1; M is alkali metal, A is a hydrophobic moiety, and n is an integer from 10 to 100,000, diagonal lines intervening three monomer units represent that the monomer units are arranged in irregular order; and x is a mole fraction of the monomer unit represented by Formula: y is a mole fraction of the monomer unit represented by Formula: z is a mole fraction of the monomer unit represented by Formula: x, y, and z satisfy the following equations: 0 ≤ x < 1; 0 ≤ y < 1; 0 < z < 1; and x + y + z = 1; the method comprising the steps of: acquiring a graft copolymer by condensation of the poly(amino acid) or a salt thereof with the hydrophobic primary amine compound represented by Formula or a salt thereof; and isolating the graft copolymer by allowing an acid to act on the graft copolymer acquired at step at a temperature of 40 to 70°C. acquiring a graft copolymer by condensation of the poly(amino acid) or a salt thereof with the hydrophobic primary amine compound represented by Formula or a salt thereof; and isolating the graft copolymer by allowing an acid to act on the graft copolymer acquired at step at a temperature of 40 to 70°C.
A mechanical position indicator (9a-9f) for providing an indication that a first part of an aircraft landing gear has assumed a predetermined position relative to a second part, the position indicator being arranged to be coupled to a first one of the first and second parts and including a mounting structure or a frangible element (15b', 15c', 15d', 15e"', 15f") which when the position indicator is in a first state is arranged to hold an indicator element (15a-15f) in a deployed position, wherein the position indicator is arranged such that upon the first part assuming the predetermined position relative to the second part, a second one of the first and second parts displaces the indicator element (15a-15f) so as to change the position indicator from the first state to a second state in which the indicator element (15a-15f) is separated from the mounting structure or the frangible element (15b', 15c', 15d', 15e'", 15f") such that it may fall by way of gravity from the deployed position, the position indicator being arranged to inhibit the indicator element (15a-15f) thereafter returning to the deployed position, and wherein: the frangible element (15b', 15c', 15d', 15e"', 15f") is arranged to hold the indicator element (15b, 15c, 15d, 15e, 15f) in the deployed position, the frangible element being arranged to break upon the first part assuming the predetermined position relative to the second part such that the position indicator changes from the first state to the second state; or the mounting structure is arranged to hold the indicator element in the deployed position by way of providing an interference fit, the mounting structure and indicator element being arranged such that the indicator element is displaced from the mounting structure upon the first part assuming the predetermined position relative to the second part such that the position indicator changes from the first state to the second state. the frangible element (15b', 15c', 15d', 15e"', 15f") is arranged to hold the indicator element (15b, 15c, 15d, 15e, 15f) in the deployed position, the frangible element being arranged to break upon the first part assuming the predetermined position relative to the second part such that the position indicator changes from the first state to the second state; or the mounting structure is arranged to hold the indicator element in the deployed position by way of providing an interference fit, the mounting structure and indicator element being arranged such that the indicator element is displaced from the mounting structure upon the first part assuming the predetermined position relative to the second part such that the position indicator changes from the first state to the second state.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, X 1 and X 2 are each independently a substituted or unsubstituted C 2-15 alkenyl; x is an integer of 0 to 4; y is an integer of 1 to 4; Y's are each independently a bond, -CH 2 -, or -CH 2 CH 2 -; and M is an alkali metal. X 1 and X 2 are each independently a substituted or unsubstituted C 2-15 alkenyl; x is an integer of 0 to 4; y is an integer of 1 to 4; Y's are each independently a bond, -CH 2 -, or -CH 2 CH 2 -; and M is an alkali metal.
A terminal device comprising: a display screen; a glass cover plate disposed above the display screen; a housing with an accommodating gap, wherein the accommodating gap is below the glass cover plate; a light guide column disposed in the accommodating gap; and an infrared fill-in light is disposed below the light guide column, wherein a light-shielding body is disposed between the light guide column and the display screen; the terminal device being characterized in that an out-light surface of the light guide column that faces the glass cover plate comprises: a first out-light surface that faces the glass cover plate and is arc-shaped, a second out-light surface that faces a top direction of the terminal device and is inclined, and a third out-light surface that is away from the top direction of the terminal device and is inclined. a display screen; a glass cover plate disposed above the display screen; a housing with an accommodating gap, wherein the accommodating gap is below the glass cover plate; a light guide column disposed in the accommodating gap; and an infrared fill-in light is disposed below the light guide column, wherein a light-shielding body is disposed between the light guide column and the display screen; the terminal device being characterized in that an out-light surface of the light guide column that faces the glass cover plate comprises: a first out-light surface that faces the glass cover plate and is arc-shaped, a second out-light surface that faces a top direction of the terminal device and is inclined, and a third out-light surface that is away from the top direction of the terminal device and is inclined.
Watch comprising a horological movement housed in a watch case formed by a middle part, a crystal and a bottom, the horological movement being arranged to rotate at least one hand, the horological movement being covered by a dial visible through the crystal, the dial being disposed between the horological movement and said at least one hand, said watch being characterised in that the crystal is transparent to UV rays and in that the dial consists of a photochromic plate so that: - the horological movement is visible when the photochromic plate is exposed to an amount of UV radiation below a first threshold value, - the horological movement is masked when the photochromic plate is exposed to an amount of UV radiation above a second threshold value. - the horological movement is visible when the photochromic plate is exposed to an amount of UV radiation below a first threshold value, - the horological movement is masked when the photochromic plate is exposed to an amount of UV radiation above a second threshold value.
A method for automatic consolidated order-picking and packaging of articles for shipment, wherein an order-picking container is provided, in which articles are collected in accordance with an order, comprising the steps a) arranging the order-picking container at a transfer location and transferring at least one article provided in accordance with the order into the order-picking container, b) moving the order-picking container filled with at least one article to a predetermined packing location and, above the packing location, providing a transport packaging with a downwardly pointing opening which is dimensioned to receive the order-picking container, c) arranging the order-picking container through the opening in the transport packaging, d) moving the filled order-picking container arranged in the transport packaging to a retransferring and separating station, e) retransferring the at least one article from the order-picking container into the transport packaging by means of a turning movement in relation to the vertical, f) separating the order-picking container from the transport packaging in which the at least one article is present, and g) closing the transport packaging, wherein all method steps are performed in automated fashion by machine in a continuous process. a) arranging the order-picking container at a transfer location and transferring at least one article provided in accordance with the order into the order-picking container, b) moving the order-picking container filled with at least one article to a predetermined packing location and, above the packing location, providing a transport packaging with a downwardly pointing opening which is dimensioned to receive the order-picking container, c) arranging the order-picking container through the opening in the transport packaging, d) moving the filled order-picking container arranged in the transport packaging to a retransferring and separating station, e) retransferring the at least one article from the order-picking container into the transport packaging by means of a turning movement in relation to the vertical, f) separating the order-picking container from the transport packaging in which the at least one article is present, and g) closing the transport packaging,