mhurhangee/ep-ind-claims huggingface dataset:
An elevator system comprising a coated belt in combination with an elevator car, wherein the coated belt suspends and/or drives the elevator car, the coated belt comprising: at least one cord, the at least one cord comprising a plurality of filaments, the filaments including a plurality of inner filaments and a plurality of outer filaments surrounding the plurality of inner filaments, the outer filaments forming a first-order helical structure, wherein the filaments are free of second-order helical structure; the inner filaments are formed of a first material and the outer filaments are formed of a second material, wherein the first material is a polymeric material and the second material is steel having greater load bearing strength than the first material; and by the belt further comprising: a plurality of cords including the at least one cord; and a jacket, wherein the plurality of cords are retained in the jacket to form the belt, the belt having an aspect ratio of width to thickness of greater than one; characterized in that: the plurality of outer filaments are twisted around the plurality of inner filaments such that the cord forms a first-order helix and the plurality of inner filaments are non-twisted; and wherein the inner filaments are bunched together by at least one restraining loop, or by an adhesive through at least a portion of the length of the cord. at least one cord, the at least one cord comprising a plurality of filaments, the filaments including a plurality of inner filaments and a plurality of outer filaments surrounding the plurality of inner filaments, the outer filaments forming a first-order helical structure, wherein the filaments are free of second-order helical structure; the inner filaments are formed of a first material and the outer filaments are formed of a second material, wherein the first material is a polymeric material and the second material is steel having greater load bearing strength than the first material; and by the belt further comprising: a plurality of cords including the at least one cord; and a jacket, wherein the plurality of cords are retained in the jacket to form the belt, the belt having an aspect ratio of width to thickness of greater than one; a plurality of cords including the at least one cord; and a jacket, wherein the plurality of cords are retained in the jacket to form the belt, the belt having an aspect ratio of width to thickness of greater than one; characterized in that: the plurality of outer filaments are twisted around the plurality of inner filaments such that the cord forms a first-order helix and the plurality of inner filaments are non-twisted; and wherein the inner filaments are bunched together by at least one restraining loop, or by an adhesive through at least a portion of the length of the cord. the plurality of outer filaments are twisted around the plurality of inner filaments such that the cord forms a first-order helix and the plurality of inner filaments are non-twisted; and wherein the inner filaments are bunched together by at least one restraining loop, or by an adhesive through at least a portion of the length of the cord.
Polymeric material that is at least partially biodegradable and at least partially biosourced, characterised in that it comprises, in percentage by mass expressed relative to the total mass of said material, at least: a) between 10% and 80% of a matrix comprising at least one polyester chosen from the group consisting of polybutylene succinate (abbreviated PBS), polybutylene terephthalate (abbreviated PBT), polybutylene succinate co-adipate (abbreviated PBSA), polymethylene adipate/terephthalate (abbreviated PTMAT), polyethylene isosorbide terephthalate (abbreviated PEIT) and polybutylene succinate-co-terephthalate (abbreviated PBST); b) between 10% and 80% of at least one biodegradable and biosourced reinforcement agent; c) between 0.5% and 5% of at least one ionic liquid, characterised in that the ionic liquid is a eutectic mixture DES (Deep Eutectic Solvents) comprising at least one organic cation salt and at least one other compound in proportions forming a eutectic mixture. a) between 10% and 80% of a matrix comprising at least one polyester chosen from the group consisting of polybutylene succinate (abbreviated PBS), polybutylene terephthalate (abbreviated PBT), polybutylene succinate co-adipate (abbreviated PBSA), polymethylene adipate/terephthalate (abbreviated PTMAT), polyethylene isosorbide terephthalate (abbreviated PEIT) and polybutylene succinate-co-terephthalate (abbreviated PBST); b) between 10% and 80% of at least one biodegradable and biosourced reinforcement agent; c) between 0.5% and 5% of at least one ionic liquid, characterised in that the ionic liquid is a eutectic mixture DES (Deep Eutectic Solvents) comprising at least one organic cation salt and at least one other compound in proportions forming a eutectic mixture.
A mobile barcode scanning device comprising: an embedded camera; a user interface system comprising a visual display, the user interface system being configured to allow the user to access features of the mobile barcode scanning device with touch gestures on the visual display; a barcode scanning application, the barcode scanning application being initialized by an act of a user of the mobile barcode scanning device; and an operating system communicatively coupled to the embedded camera, the barcode scanning application, and the user interface system; wherein the visual display provides a viewfinder for the embedded camera, characterized in that: the visual display provides an adjustable barcode scanning window overlaid on the viewfinder, wherein the adjustable barcode scanning window is adjustable in size, orientation, and location in real-time by a two-point touch gesture on the visual display by the user of the mobile barcode scanning device, such that the barcode to be scanned and decoded can be defined and selected by the user in real-time from among a plurality of barcodes located within the viewfinder based at least in part on the two-point touch gesture resizing, reorienting, and relocating the adjustable barcode scanning window so as to at least partially encompass the barcode to be scanned and decoded, and wherein the mobile barcode scanning device is configured to scan and decode any barcode within the adjustable barcode scanning window. an embedded camera; a user interface system comprising a visual display, the user interface system being configured to allow the user to access features of the mobile barcode scanning device with touch gestures on the visual display; a barcode scanning application, the barcode scanning application being initialized by an act of a user of the mobile barcode scanning device; and an operating system communicatively coupled to the embedded camera, the barcode scanning application, and the user interface system; wherein the visual display provides a viewfinder for the embedded camera, characterized in that: the visual display provides an adjustable barcode scanning window overlaid on the viewfinder, wherein the adjustable barcode scanning window is adjustable in size, orientation, and location in real-time by a two-point touch gesture on the visual display by the user of the mobile barcode scanning device, such that the barcode to be scanned and decoded can be defined and selected by the user in real-time from among a plurality of barcodes located within the viewfinder based at least in part on the two-point touch gesture resizing, reorienting, and relocating the adjustable barcode scanning window so as to at least partially encompass the barcode to be scanned and decoded, and wherein the mobile barcode scanning device is configured to scan and decode any barcode within the adjustable barcode scanning window.
A material represented by the following formula (M') 8 (M"M′′′) 6 O 24 (X,S) 2:Mʺʺ formula wherein M' represents a combination of at least two monoatomic cations of different alkali metals selected from Group 1 of the IUPAC periodic table of the elements; M" represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M′′′ represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or any combination of such cations; X represents an anion of an element selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or X represents an anion of an element selected from a group consisting of F, Cl, Br, and I, or any combination of such anions; and Mʺʺ represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or any combination of such cations, or wherein Mʺʺ is absent. M' represents a combination of at least two monoatomic cations of different alkali metals selected from Group 1 of the IUPAC periodic table of the elements; M" represents a trivalent monoatomic cation of an element selected from Group 13 of the IUPAC periodic table of the elements, or of a transition element selected from any of Groups 3 - 12 of the IUPAC periodic table of the elements, or any combination of such cations; M′′′ represents a monoatomic cation of an element selected from Group 14 of the IUPAC periodic table of the elements, or any combination of such cations; X represents an anion of an element selected from Group 16 of the IUPAC periodic table of the elements, or any combination of such anions, or X represents an anion of an element selected from a group consisting of F, Cl, Br, and I, or any combination of such anions; and Mʺʺ represents a dopant cation of an element selected from rare earth metals of the IUPAC periodic table of the elements, or from transition metals of the IUPAC periodic table of the elements, or any combination of such cations, or wherein Mʺʺ is absent.
A fuse assembly comprising: a bus bar fuse having a leg with a slotted opening; and a clip surrounding a portion of the leg, wherein the clip includes: a first side having a threaded through-hole; a second side extending from the first side at an angle with respect to the first side; and a third side extending from the second side at an angle with respect to the second side, wherein the third side includes a through-hole, and characterized in that at least one of the first or third sides includes a lip to guide the clip onto the bus bar fuse and to restrict motion of the clip when assembled onto the bus bar fuse. a bus bar fuse having a leg with a slotted opening; and a clip surrounding a portion of the leg, wherein the clip includes: a first side having a threaded through-hole; a second side extending from the first side at an angle with respect to the first side; and a third side extending from the second side at an angle with respect to the second side, wherein the third side includes a through-hole, and characterized in that at least one of the first or third sides includes a lip to guide the clip onto the bus bar fuse and to restrict motion of the clip when assembled onto the bus bar fuse. a first side having a threaded through-hole; a second side extending from the first side at an angle with respect to the first side; and a third side extending from the second side at an angle with respect to the second side, wherein the third side includes a through-hole, and characterized in that at least one of the first or third sides includes a lip to guide the clip onto the bus bar fuse and to restrict motion of the clip when assembled onto the bus bar fuse.
Method of determining the passing time of a moving transponder (106, 202, 302, 402, 1002, 1102) passing a detection antenna (110, 206, 306, 406, 1006) of a base station, the moving transponder comprising a first transponder coil and a second transponder coil, the direction of the magnetic axis of the first transponder coil being different from the direction of the magnetic axis of the second transponder coil, the method comprising the steps of: during said passing exchanging a sequence of first signals (210, 214) between the first transponder coil and said detection antenna and a sequence of second signals (210, 214) between the second transponder coil and the detection antenna; associating said first and/or second signals with time instances indicating the time when said first and/or second signals are exchanged between said transponder and said base station; and, determining the passing time of said transponder on the basis of the signal strengths of said first (210, 214) and second signals (210, 214) and said time instances, preferably said time instances indicating the time the first and/or second signals are received by said base station; during said passing exchanging a sequence of first signals (210, 214) between the first transponder coil and said detection antenna and a sequence of second signals (210, 214) between the second transponder coil and the detection antenna; associating said first and/or second signals with time instances indicating the time when said first and/or second signals are exchanged between said transponder and said base station; and, determining the passing time of said transponder on the basis of the signal strengths of said first (210, 214) and second signals (210, 214) and said time instances, preferably said time instances indicating the time the first and/or second signals are received by said base station;
A computer-implemented method for selecting a face among faces of a 3D object in a 3D immersive environment of a CAD system, each face being oriented in the 3D immersive environment's reference frame, comprising: - displaying the 3D object in the 3D immersive environment; - detecting a hand gesture of a user's hand comprising an adduction of all fingers except thumb; - determining an oriented plane formed with the palm and/or the back of the user's hand in the 3D immersive environment's reference frame; and - identifying (S40, S400) the face of the 3D object having the closest orientation with the oriented plane. - displaying the 3D object in the 3D immersive environment; - detecting a hand gesture of a user's hand comprising an adduction of all fingers except thumb; - determining an oriented plane formed with the palm and/or the back of the user's hand in the 3D immersive environment's reference frame; and - identifying (S40, S400) the face of the 3D object having the closest orientation with the oriented plane.
A communication system comprising an access apparatus (11, 12) that provides a termination point of a communication path with a communication terminal, and an access control apparatus that controls the access apparatus (11, 12), the communication system comprising: determination means for, after a handover is completed and the communication is completed in the communication terminal, determining whether or not to prompt a switching process of termination point of the communication path in accordance with a movement history of the communication terminal based on an operation state of the communication terminal, and wherein any one of the access control apparatus and the access apparatus (11, 12) comprise the determination means; wherein the movement history indicates whether or not an access apparatus (11,12) providing a termination point of the communication path is the same as an access apparatus (11, 12) to which the communication terminal is connected, and wherein the operation state of the communication terminal indicates whether or not the communication terminal fulfils a condition for transition to a power-saving state, which indicates a state where, although the termination point is maintained in the communication terminal and the access apparatus (11, 12), the communication path is released between the communication terminal and the access apparatus (11, 12). determination means for, after a handover is completed and the communication is completed in the communication terminal, determining whether or not to prompt a switching process of termination point of the communication path in accordance with a movement history of the communication terminal based on an operation state of the communication terminal, and wherein any one of the access control apparatus and the access apparatus (11, 12) comprise the determination means; wherein the movement history indicates whether or not an access apparatus (11,12) providing a termination point of the communication path is the same as an access apparatus (11, 12) to which the communication terminal is connected, and wherein the operation state of the communication terminal indicates whether or not the communication terminal fulfils a condition for transition to a power-saving state, which indicates a state where, although the termination point is maintained in the communication terminal and the access apparatus (11, 12), the communication path is released between the communication terminal and the access apparatus (11, 12).
A method of identifying a waveform for a drive signal to a transmit coil (L 1, 12) in a wireless power transfer system (WPTS), characterized by said method comprising: applying a pseudo-random signal to the transmit coil (L 1, 12); while the pseudo-random signal is being applied to the transmit coil (L 1, 12), recording one or more signals produced within the WPTS in response to the applied pseudo-random signal; by using the one or more recorded signals, generating a system model for some aspect of the WPTS; and conducting a search for an optimum waveform for the drive signal, wherein conducting the search comprises repeatedly using the generated system model to simulate a response to the drive signal while varying the waveform of the drive signal until the optimum waveform is found, and transferring power to the receiver coil (L 2, 52) using the optimized waveform for the drive signal. applying a pseudo-random signal to the transmit coil (L 1, 12); while the pseudo-random signal is being applied to the transmit coil (L 1, 12), recording one or more signals produced within the WPTS in response to the applied pseudo-random signal; by using the one or more recorded signals, generating a system model for some aspect of the WPTS; and conducting a search for an optimum waveform for the drive signal, wherein conducting the search comprises repeatedly using the generated system model to simulate a response to the drive signal while varying the waveform of the drive signal until the optimum waveform is found, and transferring power to the receiver coil (L 2, 52) using the optimized waveform for the drive signal.
A flow and fluid conditioning pressure reduction valve or device, comprising an inlet and an outlet, wherein the valve or device moreover comprises at least two cone surface sections or discs, the cone surface sections or discs are stacked along a central axis of the valve or device and its inlet or its outlet, wherein each of the cone surface sections or discs comprises a spiral-shaped flow bore conduit, arranged on the surface of the cone surface section or disc, the spiral-shaped flow bore conduits winding around the central axis at least one rotation, forming at least one flow bore conduit rotation, each rotation bringing the flow bore conduit closer to or further away from said central axis, the length of each spiral-shaped flow bore conduit is at least 0,1 m, and the spiral-shaped flow bore conduits have been arranged between the inlet and the outlet, each spiral-shaped flow bore conduit has reduced flow cross section area when compared to the inlet or outlet cross-section area, and the length, the cross section area and the number of the spiral-shaped flow bore conduits in line determine the pressure reduction of a given fluid at a given flow rate.
A method of sample collection comprising: collecting a sample comprising a biological or environmental substance to provide a collected sample, contacting the collected sample with a swab, placing the swab with the collected sample in a sample buffer, thereby transferring at least a portion of the collected sample comprising an organism into the sample buffer to provide a sample buffer comprising the organism, and filtering the sample buffer comprising the organism; wherein the method does not comprise a pre-treatment step lasting for more than 2 minutes, and wherein the sample buffer comprises a detergent in an amount of at least 10% by volume of the sample buffer. collecting a sample comprising a biological or environmental substance to provide a collected sample, contacting the collected sample with a swab, placing the swab with the collected sample in a sample buffer, thereby transferring at least a portion of the collected sample comprising an organism into the sample buffer to provide a sample buffer comprising the organism, and filtering the sample buffer comprising the organism; wherein the method does not comprise a pre-treatment step lasting for more than 2 minutes, and wherein the sample buffer comprises a detergent in an amount of at least 10% by volume of the sample buffer. wherein the method does not comprise a pre-treatment step lasting for more than 2 minutes, and wherein the sample buffer comprises a detergent in an amount of at least 10% by volume of the sample buffer.
A robotic assembly comprising: - a plate provided with means for securing an object to be positioned with a predetermined orientation and a position XY, with a spatial resolution and a repeatability with variations of less than 0.34 minutes of arc in terms of orientation and less than 5 microns in terms of position, - four parallel motor-driven axes of rotation (2 to 5) connected together, two-by-two, by means of three arms (6 to 8) in a serial kinematic chain, with the plate being supported by the extremal axis - a frame secured, on the one hand, to the first motor-driven axis of rotation and on the other hand, to a tool holder, with the plate being movable and rotatable relative to said tool-holder. - a plate provided with means for securing an object to be positioned with a predetermined orientation and a position XY, with a spatial resolution and a repeatability with variations of less than 0.34 minutes of arc in terms of orientation and less than 5 microns in terms of position, - four parallel motor-driven axes of rotation (2 to 5) connected together, two-by-two, by means of three arms (6 to 8) in a serial kinematic chain, with the plate being supported by the extremal axis - a frame secured, on the one hand, to the first motor-driven axis of rotation and on the other hand, to a tool holder, with the plate being movable and rotatable relative to said tool-holder.
A biodegradable yarn with an increased flame resistance comprising from 25 to 55 weight-96, preferably from 35 to 45 weight-% of viscose fibres or of viscose filaments, preferably of chlorine free viscose fibres or filaments and from 45 to 65 weight-96, preferably from 50 to 60 weight-96, most preferably 55 weight-96 of polybutylene succinate fibres.