mhurhangee/ep-ind-claims huggingface dataset:
Electric pump motor comprising a winding which is provided on a bobbin of the pump motor, and comprising a connecting element for electrically contacting the winding, wherein an aluminium wire of the winding is connected to the connecting element by means of a connection arrangement, said connection arrangement comprising the connecting element and the wire which is bonded to at least one point (2, 3) at a junction point on the connecting element, as well as a sheath for the junction point manufactured after the bonding, characterised in that the sheath provides heat-shrink tubing with an adhesive inner liner and grips the wire and the connecting element in the region of the junction point, and in that the bonded connection at the at least one point (2, 3) is made by an automatic bonding machine, wherein in making the connection the wire was pressed against the connecting element by means of a tool of the automatic bonding machine and energised by the tool to produce ultrasonic vibrations.
A method for information transmission, which is applied to a terminal, comprising: sending a first message to a network device, wherein the first message comprises communication capability information of the terminal on a PC5 interface, wherein in the communication capability information of the terminal on the PC5 interface comprised in the first message, representation of a communication capability of the PC5 interface for long term evolution LTE is carried in first signaling, and the representation of the communication capability of the PC5 interface for new radio NR is carried in second signaling. sending a first message to a network device, wherein the first message comprises communication capability information of the terminal on a PC5 interface, wherein in the communication capability information of the terminal on the PC5 interface comprised in the first message, representation of a communication capability of the PC5 interface for long term evolution LTE is carried in first signaling, and the representation of the communication capability of the PC5 interface for new radio NR is carried in second signaling.
Power transmission mechanism for a turbomachine, comprising: - a reduction gear comprising a first gear and a second gear having different reduction ratios and each comprising a first gear wheel (37, 38) mounted on the same first axis and a second gear wheel (39, 40) mounted on the same second axis, the first gear wheels (37, 38) being mounted so as to rotate freely on the first axis and each provided with helical meshing projections (47, 48) on a side of the latter; and, - a coupling member comprising an annular body with an axis of revolution which comprises first and second rows (6, 7) of helical coupling teeth, the helical coupling teeth of the first and second rows (6, 7) are respectively oriented opposite and essentially parallel to first and second directions (D1, D2), the coupling member being mounted so as to rigidly rotate on the first axis and sliding axially on said first axis so as to occupy at least two predetermined axial meshing positions in which the coupling teeth mesh with complementary meshing projections (47, 48) of one of the first gear wheels (37, 38), which is then made to rigidly rotate with the first axis, the helical coupling teeth and the helical meshing projections (47, 48) being configured to form a surface contact in each axial position, the helical meshing projections comprising first and second surfaces with inclinations that are respectively identical to those of a first surface and of a second surface of the helical coupling teeth facing one another. - a reduction gear comprising a first gear and a second gear having different reduction ratios and each comprising a first gear wheel (37, 38) mounted on the same first axis and a second gear wheel (39, 40) mounted on the same second axis, the first gear wheels (37, 38) being mounted so as to rotate freely on the first axis and each provided with helical meshing projections (47, 48) on a side of the latter; and, - a coupling member comprising an annular body with an axis of revolution which comprises first and second rows (6, 7) of helical coupling teeth, the helical coupling teeth of the first and second rows (6, 7) are respectively oriented opposite and essentially parallel to first and second directions (D1, D2),
A rotation sensor having: a coupler configured to act as a beam splitter for light introduced into a waveguide for splitting light from a light source into a first beam and a second beam, and configured to act as a combiner for light departing the waveguide, wherein: the photonic waveguide extends from the coupler in a double spiral in a single plane and includes: a first spiral having a first winding comprising a photonic crystal structure configured to receive the first beam, the photonic crystal structure of the first spiral being a plurality of pillars, and a pair of crystal slabs, configured to create a predefined path for the first beam; a second spiral, extending in the same plane as the first spiral, having a second winding that extends from the coupler to the midpoint in parallel to the first winding of the first spiral, the second spiral having a photonic crystal structure configured to receive the second beam, the photonic crystal structure of the second spiral being a plurality of pillars, and a pair of crystal slabs, configured to create a predefined path for the second beam; and a midpoint of the photonic waveguide forming a turn in the photonic waveguide or a reflecting structure configured to make light propagate from the first winding of the first spiral into the second winding of the second spiral and vice versa. a first spiral having a first winding comprising a photonic crystal structure configured to receive the first beam, the photonic crystal structure of the first spiral being a plurality of pillars, and a pair of crystal slabs, configured to create a predefined path for the first beam; a second spiral, extending in the same plane as the first spiral, having a second winding that extends from the coupler to the midpoint in parallel to the first winding of the first spiral, the second spiral having a photonic crystal structure configured to receive the second beam, the photonic crystal structure of the second spiral being a plurality of pillars, and a pair of crystal slabs, configured to create a predefined path for the second beam; and a midpoint of the photonic waveguide forming a turn in the photonic waveguide or a reflecting structure configured to make light propagate from the first winding of the first spiral into the second winding of the second spiral and vice versa.
A quantum device comprising: a plurality of controllably quantum mechanically coupled dangling bonds of a material with each of said plurality of controllably quantum mechanically coupled dangling bonds having a separation from the remainder of said plurality of controllably quantum mechanically coupled dangling bonds of at least one atom of said material; and at least one electrode for selectively modifying an electronic state of said plurality of controllably quantum mechanically coupled dangling bonds; wherein the separation is between 2 and 200 Angstroms inclusive. a plurality of controllably quantum mechanically coupled dangling bonds of a material with each of said plurality of controllably quantum mechanically coupled dangling bonds having a separation from the remainder of said plurality of controllably quantum mechanically coupled dangling bonds of at least one atom of said material; and at least one electrode for selectively modifying an electronic state of said plurality of controllably quantum mechanically coupled dangling bonds; wherein the separation is between 2 and 200 Angstroms inclusive.
Multistage method for dyeing keratinous fibers, which consists in: a) in a first step, treating said fibers with: i) one or more ortho-diphenol derivative(s), ii) one or more metal salt(s), and iii) hydrogen peroxide or one or more system(s) which generate(s) hydrogen peroxide, the ingredients i) to iii) being applied to said fibers together or separately; b) in a second step, said fibers are wiped mechanically and/or dried and/or not rinsed, preferably said fibers are wiped mechanically and/or dried and more particularly said fibers are wiped mechanically; and c) in a third stage, said fibers are treated with iv) one or more (bi)carbonate(s); more particularly, just before stage c), which uses the ingredient iv), the fibers are wiped mechanically; or: a) in a first step, treating said fibers with: i) one or more ortho-diphenol derivative(s), and ii) one or more metal salt(s), b) in a second step, said fibers are wiped mechanically and/or dried and/or not rinsed, preferably said fibers are wiped mechanically and/or dried and more particularly said fibers are wiped mechanically; and c) in a third stage, said fibers are treated with iii) hydrogen peroxide or one or more system(s) which generate(s) hydrogen peroxide and iv) one or more (bi)carbonate(s); more particularly, just before stage c), which uses the ingredient iv), the fibers are wiped mechanically; it being understood that the ingredients i) and ii) and iii) and iv) can be applied to said fibers together or separately. a) in a first step, treating said fibers with: i) one or more ortho-diphenol derivative(s), ii) one or more metal salt(s), and iii) hydrogen peroxide or one or more system(s) which generate(s) hydrogen peroxide, the ingredients i) to iii) being applied to said fibers together or separately; i) one or more ortho-diphenol derivative(s), ii) one or more metal salt(s), and iii) hydrogen peroxide or one or more system(s) which generate(s) hydrogen peroxide, b) in a second step, said fibers are wiped mechanically and/or dried and/or not rinsed, preferably said fibers are wiped mechanically and/or dried and more particularly said fibers are wiped mechanically; and c) in a third stage, said fibers are treated with iv) one or more (bi)carbonate(s); more particularly, just before stage c), which uses the ingredient iv), the fibers are wiped mechanically; a) in a first step, treating said fibers with: i) one or more ortho-diphenol derivative(s), and ii) one or more metal salt(s), i) one or more ortho-diphenol derivative(s), and ii) one or more metal salt(s), b) in a second step, said fibers are wiped mechanically and/or dried and/or not rinsed, preferably said fibers are wiped mechanically and/or dried and more particularly said fibers are wiped mechanically; and c) in a third stage, said fibers are treated with iii) hydrogen peroxide or one or more system(s) which generate(s) hydrogen peroxide and iv) one or more (bi)carbonate(s); more particularly, just before stage c), which uses the ingredient iv), the fibers are wiped mechanically;
A method for co-existence in an apparatus having a wireless local area network 'WLAN' communication module operative for communication with an access point 'AP' in a WLAN frequency band, and a Long Term Evolution 'LTE' communication module served by an evolved base node 'eNB' and operative in one or more LTE Time Division Duplex 'TDD' frequency bands that are adjacent the WLAN frequency band, the method comprising: notifying the AP that the WLAN communication module is operating in a power save mode; receiving from the AP a notification that the AP has buffered frames destined for the WLAN communication module; and the WLAN communication module transmitting a power save poll frame to the AP to trigger transmission of the buffered frames, the power save poll being transmitted by the WLAN communication module at a start of a downlink period reserved by the eNB for downlink communications; the method further comprising: notifying the AP of a maximum receivable size of any aggregated medium access control 'MAC' protocol data unit 'A-MPDU' to be received by the WLAN communication module from the AP, the maximum receivable size being calculated as a function of a minimum duration of any downlink period reserved by the eNB for downlink communications so as to ensure that the A-MPDU reception is fully containable within the downlink period reserved by the eNB. notifying the AP that the WLAN communication module is operating in a power save mode; receiving from the AP a notification that the AP has buffered frames destined for the WLAN communication module; and the WLAN communication module transmitting a power save poll frame to the AP to trigger transmission of the buffered frames, the power save poll being transmitted by the WLAN communication module at a start of a downlink period reserved by the eNB for downlink communications; the method further comprising: notifying the AP of a maximum receivable size of any aggregated medium access control 'MAC' protocol data unit 'A-MPDU' to be received by the WLAN communication module from the AP, the maximum receivable size being calculated as a function of a minimum duration of any downlink period reserved by the eNB for downlink communications so as to ensure that the A-MPDU reception is fully containable within the downlink period reserved by the eNB. notifying the AP of a maximum receivable size of any aggregated medium access control 'MAC' protocol data unit 'A-MPDU' to be received by the WLAN communication module from the AP, the maximum receivable size being calculated as a function of a minimum duration of any downlink period reserved by the eNB for downlink communications so as to ensure that the A-MPDU reception is fully containable within the downlink period reserved by the eNB.
An adhesive article (100, 200, 300, 400) comprising: a barrier layer (102, 202, 302, 402) having opposed first and second major surfaces (104, 106), the barrier layer comprising a polymer being substantially impermeable to oxygen gas at ambient temperature and pressure such that the polymer exhibits a transmission of oxygen gas of less than 100 cc/m 2 /day-atmosphere, said transmission being measured at 25°C and zero percent relative humidity and measured transmission value being normalized to a total barrier layer thickness of 25 micrometers; a heat-bondable layer (108 208, 308, 408) extending across and coupled to the first major surface of the barrier layer, said heat-bondable layer (108 208, 308, 408) having an exposed surface for bonding to a suitable substrate; a backing (110, 210, 310, 410) extending across and coupled to the second major surface of the barrier layer; and an adhesive layer (112, 212, 312, 412) extending across and coupled to the backing opposite the barrier layer, said adhesive layer having a major surface opposite the backing; wherein either the major surface of the adhesive layer opposite the backing is exposed or the adhesive article further comprises a liner (316, 416) extending across and contacting the major surface of the adhesive layer opposite the backing. a barrier layer (102, 202, 302, 402) having opposed first and second major surfaces (104, 106), the barrier layer comprising a polymer being substantially impermeable to oxygen gas at ambient temperature and pressure such that the polymer exhibits a transmission of oxygen gas of less than 100 cc/m 2 /day-atmosphere, said transmission being measured at 25°C and zero percent relative humidity and measured transmission value being normalized to a total barrier layer thickness of 25 micrometers; a heat-bondable layer (108 208, 308, 408) extending across and coupled to the first major surface of the barrier layer, said heat-bondable layer (108 208, 308, 408) having an exposed surface for bonding to a suitable substrate; a backing (110, 210, 310, 410) extending across and coupled to the second major surface of the barrier layer; and an adhesive layer (112, 212, 312, 412) extending across and coupled to the backing opposite the barrier layer, said adhesive layer having a major surface opposite the backing; wherein either the major surface of the adhesive layer opposite the backing is exposed or the adhesive article further comprises a liner (316, 416) extending across and contacting the major surface of the adhesive layer opposite the backing.
A control method for controlling an imaging device, the control method comprising: processing a cached image output by the imaging device to identify whether there is an overexposed light source area in the cached image, wherein RGB channel values of the overexposed light source area are all 255; acquiring, in a case where there is the overexposed light source area in the cached image, RGB channel values of a halo area, wherein the halo area is an area scattered by the over-exposed light source area, surrounding a contour of the over-exposed light source area, and normally exposed with the RGB channel values less than 255, and the halo area comprises a predetermined number of pixels centered around the overexposed light source area; determining, for white balancing purposes, a color temperature using the RGB values of the halo area surrounding the contour of the over-exposed light source area; and performing white balance processing on the cached image according to the color temperature. processing a cached image output by the imaging device to identify whether there is an overexposed light source area in the cached image, wherein RGB channel values of the overexposed light source area are all 255; acquiring, in a case where there is the overexposed light source area in the cached image, RGB channel values of a halo area, wherein the halo area is an area scattered by the over-exposed light source area, surrounding a contour of the over-exposed light source area, and normally exposed with the RGB channel values less than 255, and the halo area comprises a predetermined number of pixels centered around the overexposed light source area; determining, for white balancing purposes, a color temperature using the RGB values of the halo area surrounding the contour of the over-exposed light source area; and performing white balance processing on the cached image according to the color temperature.
Computer program comprising instructions suitable for implementing each of the steps of the method for managing a cardiac pump, when said program is run on a computer, said cardiac pump being intended to send pressurized blood at a flow rate proportional to the speed of rotation V rpm of said pump, said method comprising, during a same ventricular systole, the following steps: (a) detecting the closing of the mitral valve of said heart, the speed of rotation V rpm of said pump being strictly less than a maximum value V rpm max of the speed of rotation of said pump, (b) increasing the speed of rotation V rpm of said pump such that, at an instant t 2, after the instant t 1 corresponding to the closing of said mitral valve, the speed of rotation of said pump is equal, or substantially equal, to said maximum value V rpm max of the speed of rotation, (c) keeping said speed of rotation V rpm of said pump at this maximum value V rpm max for at least a portion of the time period T during which the aortic valve is open, and - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle. (a) detecting the closing of the mitral valve of said heart, the speed of rotation V rpm of said pump being strictly less than a maximum value V rpm max of the speed of rotation of said pump, (b) increasing the speed of rotation V rpm of said pump such that, at an instant t 2, after the instant t 1 corresponding to the closing of said mitral valve, the speed of rotation of said pump is equal, or substantially equal, to said maximum value V rpm max of the speed of rotation, (c) keeping said speed of rotation V rpm of said pump at this maximum value V rpm max for at least a portion of the time period T during which the aortic valve is open, and - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle. - optionally repeating the steps (a) to (c) for at least the ventricular systole of a next cardiac cycle.
Polybenzimidazole based polymeric forms of ionic liquids of formula III and IV wherein A,B are repeat units; R 1 and R 2 is same or different and are each selected from the group consisting of C 1 -C 20 alkyl, trialkyl silyl, cycloalkyl, aryl, arylene, alkylene, or heterocyclic ring such as pyridine, pyrazine, furan, quinoline or thiophene groups as straight chain, branched, cyclic, aromatic, and derivatives thereof substituted with functional groups such as halo, nitro, ether, aldehyde, ketone, hydroxyl, carboxylic, sulfonic or ester; X'" is selected from (C n H 2n+1)COO, haloacetate, (C n F 2n+1)COO, ArCOO, where Ar may be substituted or unsubstituted, (C n H 2n+1)SO 3, (C n F 2n+1)SO 3, ArSO 3, where Ar may be substituted or unsubstituted aromatic moiety, NO 3, NO 2, PO 3, BF 4, HPO 4 -N(SO 2 CF 3) 2. H 2 PO 4, HSO 4, S 2 O 3, ClO, BrO 3, CrO 4, HCO 3, C 2 O 4, MnO 4, NH 2, FeCl 4 -, PF 6 -, 2 N -, C 16 H 34 PO 4 -, C 12 H 25 C 6 H 4 O 3 -, SCN -, CH 2 =CHCOOCH 2 CH 2 CH 2 SO 3 -, CH 2 =CHSO 3 -, C 6 H 4 CO 3 SN -, o-tosylate, Pyrazolium anion, Imadazolium anion, Triazole anion, Tetrazole anion, Oxazole anion, Indolium anion, Benztriazole anion, Phenoxide anion, N(SO 2 (C n F 2n+1)) 2 bis((perfluoroethyl)sulfonyl)imide (BETI -), Diethylenglykolmonomethylethersulphate (MDEGSO 4 -), alkylsulfate (C n H 2n+1)SO 4 -, fluoroalkylsulfate (C n F 2n+1)SO 4 - Tetracyanoborate (B 4 -), Tetrafluorosuccinate, Hexafluoroglutarate, Oxalate, Malonate, Glycolate, L-Tartrate, Maleate, Mucobromate, Nitrilotriacetate, 5-Aminotetrazolate, DL-Tartrate, Lactate, Gluconate, DL-Malate, or mixture thereof. wherein R is a tetraamine monomer having structure formula V(a)-V(f) wherein structure formula V(a)- R 1, R 2 = H, CH 3, CF 3, F, Cl, Br, I, NO 2 or C 1-24 containing alkyl or aryl groups, wherein structure formula V(b)- R 1, R 2, R 3, R 4 = H, CH 3, CF 3, F, Cl, Br, I, NO 2 or C 1-24 alkyl or aryl groups, wherein structure formula V(c)- R 1, R 2, R 3, R 4 = H, CH 3, CF 3, F, Cl, Br, I, NO 2 or C 1-24 alkyl or aryl groups, wherein structure formula V(d)- R 1, R 2, R 3, R 4 = H, -CH 3, CF 3, F, Cl, Br, I, NO 2 or C 1-24 alkyl or aryl groups, wherein structure formula V(e)-, R 1, R 2, R 3, R 4 = H, CH 3, CF 3, F, Cl, Br, I, NO 2 or C 1-24 alkyl or aryl groups and X can be any of the following: -CH 2 -, -O-, -SO 2 -, -C(CH 3) 2 -, -C(CF 3) 2 -, -C(Ph) 2 -, -CH 3 C(Ph)-, -CH 3 C(isopropyl)-, -CH 3 C(t-butyl)-, -CH 3 C(n-propyl)-, -CH 3 C(ethyl)- or any other C 1-24 containing alkyl or aryl groups, and R' of Formula III and IV is dicarboxylic acid as shown in structure VI: HOOC-(C k H m X n)-COOH VI wherein k = 1-30 containing alkyl, aryl, aromatic, arylene, alkylene, arylene-ether or heterocyclic ring such as pyridine, pyrazine, furan, quinoline or thiophene groups as straight chain, branched, cyclic, aromatic or combination of these; X = H, O, N, S, halogen or combination thereof, n = 0-10 and m = appropriate numbers of hydrogens.
Element for an at least partially viscoelastic orthopedic medical product, or for an at least partially viscoelastic orthopedic aid, wherein the element comprises at least one first layered component and a second layered component, wherein the first component is harder than the second component, wherein a surface of the first component is connected to a surface of the second component; and wherein said element comprises at least two zones of different hardness on its surface, wherein the surface of the first component connected to the second component has a plurality of protrusions (4,5,6,7), wherein the hardness of these zones is determined by the height, the width, and/or the distribution of the protrusions (4,5,6,7) in a zone of the element, and wherein the surface of the second component at the positions of the protrusions (4,5,6,7) of the first component has corresponding depressions, characterized in that the surfaces of the first and second components (1,2) which are not bonded to each other are smooth.