mhurhangee/patent-ind-claim-en huggingface dataset:
A part for a finger joint rehabilitation exercise aid, wherein the rehabilitation exercise aid comprises a single power source corrugated tube for each finger, and wherein the part comprises a rubber part which is configured to be worn by the patient such that, is use, the power source corrugated tube forces the rubber part to bend and straighten and drives the patient's finger to perform exercise, the part further comprises: at least one small bracket , one middle bracket and one large bracket , wherein the small bracket , the middle bracket and the large bracket are fixed on the rubber part , with the positions of the small bracket , the middle bracket and the large bracket fixed on the rubber part respectively corresponding to a distal phalanx/middle phalanx, a proximal phalanx and a metacarpal bone; the small bracket , the middle bracket and the large bracket are each provided with a fixing hole for fixing the power source corrugated tube; the rubber part is further provided with a hole for fixing the rubber part to another aid structure through the hole ; a front end of the rubber part is provided with a finger sheath into which a patient's finger can reach; the reverse side of the rubber part is provided with a curved surface , so as to facilitate fitting to the patient's finger; the rubber part is provided with at least four raised cylinders , and the small bracket , the middle bracket and the large bracket are all provided with holes that cooperate with the cylinders. at least one small bracket , one middle bracket and one large bracket , wherein the small bracket , the middle bracket and the large bracket are fixed on the rubber part , with the positions of the small bracket , the middle bracket and the large bracket fixed on the rubber part respectively corresponding to a distal phalanx/middle phalanx, a proximal phalanx and a metacarpal bone; the small bracket , the middle bracket and the large bracket are each provided with a fixing hole for fixing the power source corrugated tube; the rubber part is further provided with a hole for fixing the rubber part to another aid structure through the hole ; a front end of the rubber part is provided with a finger sheath into which a patient's finger can reach; the reverse side of the rubber part is provided with a curved surface , so as to facilitate fitting to the patient's finger; the rubber part is provided with at least four raised cylinders , and the small bracket , the middle bracket and the large bracket are all provided with holes that cooperate with the cylinders.
A temporary hair colour composition comprising an encapsulated liquid crystal at a level of 10 to 60% by weight of the said composition and a coating composition comprising a thickening agent which comprises a cross-linked polyelectrolyte and/or a hydrophobically modified alkali swellable emulsion thickening product and a rheology modifier which comprises a glycol and the hair colour composition optionally further comprising an iridescent component.
A control device comprising: a control signal transmitter ; a control signal receiver ; a control signal generator ; and a control signal controller , characterized in that : the control signal transmitter is configured to transmit a signal to a device to be controlled, the control signal receiver is configured to receive a signal from the device to be controlled, the control signal generator is configured to generate a control signal of 2 bytes or more in one transmission cycle, wherein in the control signal, an address is assigned to each byte, and each address is ON/OFF switchable by a voltage such that when voltage is applied to the address, the control signal controller is configured to turn the address ON, and when no voltage is applied to the address, the control signal controller is configured to turn the address OFF, the address of the control signal of 2 bytes or more includes a main signal address and a collation signal address associated with the main signal address, wherein in a case where the main signal address and the collation signal address are identically ON/OFF switchable, the control signal controller is configured to turn the collation signal address ON when the main signal address is ON and to turn the collation signal address OFF when the main signal address is OFF, and in a case where the main signal address and the collation signal address are inversely ON/OFF switchable, the control signal controller is configured to turn the collation signal address OFF when the main signal address is ON and to turn the collation signal address ON when the main signal address is OFF. a control signal transmitter ; a control signal receiver ; a control signal generator ; and a control signal controller , the control signal transmitter is configured to transmit a signal to a device to be controlled, the control signal receiver is configured to receive a signal from the device to be controlled, the control signal generator is configured to generate a control signal of 2 bytes or more in one transmission cycle, wherein in the control signal, an address is assigned to each byte, and each address is ON/OFF switchable by a voltage such that when voltage is applied to the address, the control signal controller is configured to turn the address ON, and when no voltage is applied to the address, the control signal controller is configured to turn the address OFF, the address of the control signal of 2 bytes or more includes a main signal address and a collation signal address associated with the main signal address, wherein in a case where the main signal address and the collation signal address are identically ON/OFF switchable, the control signal controller is configured to turn the collation signal address ON when the main signal address is ON and to turn the collation signal address OFF when the main signal address is OFF, and in a case where the main signal address and the collation signal address are inversely ON/OFF switchable, the control signal controller is configured to turn the collation signal address OFF when the main signal address is ON and to turn the collation signal address ON when the main signal address is OFF.
A method for securing data having a plurality of fields, wherein the data is header data and wherein the plurality of fields are fields of a data block header that identifies and describes a block, said fields being created by a memory manager and used by the memory manager to manage the memory of a computer, the method comprising: grouping the plurality of fields into at least a first group and a second group; in response to grouping the plurality of fields, rearranging the at least two fields of the first group; generating a first identifier for the first group and a second identifier for the second group, wherein the first identifier is a checksum; encoding the first group; and encoding the second group; wherein the first identifier is encoded with the first group, and wherein the first group and first identifier are encoded using a first encryption algorithm and the second group is encoded using a second different encryption algorithm. grouping the plurality of fields into at least a first group and a second group; in response to grouping the plurality of fields, rearranging the at least two fields of the first group; generating a first identifier for the first group and a second identifier for the second group, wherein the first identifier is a checksum; encoding the first group; and encoding the second group; wherein the first identifier is encoded with the first group, and wherein the first group and first identifier are encoded using a first encryption algorithm and the second group is encoded using a second different encryption algorithm.
A silicon-based molten composition comprising: silicon, carbon, and a metal in which a solubility parameter (C si sol ) defined by Equation below is less than -0.37, wherein the metal includes two or more metals, wherein the metal includes aluminum (A1) and scandium (Sc), wherein the metal has a content of 25 to 85 parts by weight based on 100 parts by weight of a total content of the silicon: C si sol = A − B + μ 1 − μ 2 in Equation above, A is a first energy (A) of a first evaluation lattice including metal atoms, a carbon atom, and silicon atoms in a silicon crystal lattice including metal atoms and carbon atoms, B is a second energy (B) of a second evaluation lattice including metal atoms and silicon atoms in a silicon crystal lattice including metal atoms, μ 1 is a constant of -5.422 as a chemical potential obtained by dividing a total energy of silicon in a diamond crystal structure into the number of silicon atoms present in a unit lattice, and μ 2 is a constant of -9.097 as a chemical potential obtained by dividing a total energy of carbon in the diamond crystal structure into the number of carbon atoms present in the unit lattice, wherein the first energy, the second energy, the first constant, and the second constant are derived by a density functional theory (DFT) using a Vienna Ab-Initio Simulation Package (VASP) code, and as disclosed in the specification. silicon, carbon, and a metal in which a solubility parameter (C si sol ) defined by Equation below is less than -0.37, wherein the metal includes two or more metals, wherein the metal includes aluminum (A1) and scandium (Sc), wherein the metal has a content of 25 to 85 parts by weight based on 100 parts by weight of a total content of the silicon: C si sol = A − B + μ 1 − μ 2 in Equation above, A is a first energy (A) of a first evaluation lattice including metal atoms, a carbon atom, and silicon atoms in a silicon crystal lattice including metal atoms and carbon atoms, B is a second energy (B) of a second evaluation lattice including metal atoms and silicon atoms in a silicon crystal lattice including metal atoms, μ 1 is a constant of -5.422 as a chemical potential obtained by dividing a total energy of silicon in a diamond crystal structure into the number of silicon atoms present in a unit lattice, and μ 2 is a constant of -9.097 as a chemical potential obtained by dividing a total energy of carbon in the diamond crystal structure into the number of carbon atoms present in the unit lattice, wherein the first energy, the second energy, the first constant, and the second constant are derived by a density functional theory (DFT) using a Vienna Ab-Initio Simulation Package (VASP) code, and as disclosed in the specification.
Floor panel, wherein the floor panel is made rectangular and oblong and comprises a substrate and a top layer provided on this substrate ; wherein the substrate substantially consists of a thermoplastic material; wherein the substrate is a vinyl-based substrate; wherein the substrate has a thickness of 2 to 10 millimeters; wherein the substrate forms at least half of the thickness of the floor panel ; wherein the top layer is at least composed of a print and a transparent thermoplastic layer situated above said print , the print being provided on a carrier sheet , which carrier sheet , together with the print , forms a printed synthetic film; wherein the floor panel , at least at two opposite edges (2-3), is provided with mechanical coupling means allowing that two of such floor panels can be coupled to each other, such that a locking is obtained in a vertical direction perpendicular to the plane of the coupled panels, as well as in a horizontal direction perpendicular to the coupled edge and in the plane of the floor panels; wherein the coupling means are realized as a tongue and groove bordered by an upper lip and a lower lip ; wherein the tongue and groove substantially are responsible for the locking in said vertical direction; wherein the tongue and groove are provided with locking parts (24-25), substantially responsible for the locking in said horizontal direction; and wherein the coupling means are substantially realized in said substrate ; characterized in that the floor panel has a length of more than 110 centimeters and comprises means for limiting the bending by the own weight, said means at least comprising the measure wherein at least one layer of the floor panel has a density of more than 750 kilograms per cubic meter, said layer comprising hard PVC.
A filter element comprising: (a) a tubular section of filter media ; and (b) a first end cap secured to the filter media ; (i) the first end cap having a seal arrangement along an inner radial surface ; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface , the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface ; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (c) a second end cap secured to the filter media opposite of the first end cap ; (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap ; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap . (a) a tubular section of filter media ; and (b) a first end cap secured to the filter media ; (i) the first end cap having a seal arrangement along an inner radial surface ; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface , the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface ; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (i) the first end cap having a seal arrangement along an inner radial surface ; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface , the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface ; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (c) a second end cap secured to the filter media opposite of the first end cap ; (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap ; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap . (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap ; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap .
A system for inducing collagen regeneration in the skin of a patient, the system comprising: a handpiece having a proximal end and a distal end, the distal end comprising an electrode array and a noninvasive probe , the electrode array comprising a plurality of electrodes for delivering energy to the skin of the patient, characterized in that the noninvasive probe comprises an ultrasonic array configured to delineate and measure the thickness of at least one layer of the skin of the patient, wherein the ultrasonic array comprises a plurality of ultrasound integrated circuits, wherein each ultrasound integrated circuit is situated between at least two electrodes of the electrode array ; a processor operatively coupled to the electrode array and operatively coupled to the noninvasive probe , wherein in response to the measurement of the noninvasive probe the processor is configured to adjust one or more operating parameters of the electrode array selected from the group consisting of a waveform frequency of the energy, an amplitude of the waveform, a duration of the energy deliver, a depth of penetration into the skin of each of the electrodes, and a positioning of each of the electrodes; and memory storing instructions for operating the processor. a handpiece having a proximal end and a distal end, the distal end comprising an electrode array and a noninvasive probe , the electrode array comprising a plurality of electrodes for delivering energy to the skin of the patient, characterized in that the noninvasive probe comprises an ultrasonic array configured to delineate and measure the thickness of at least one layer of the skin of the patient, wherein the ultrasonic array comprises a plurality of ultrasound integrated circuits, wherein each ultrasound integrated circuit is situated between at least two electrodes of the electrode array ; a processor operatively coupled to the electrode array and operatively coupled to the noninvasive probe , wherein in response to the measurement of the noninvasive probe the processor is configured to adjust one or more operating parameters of the electrode array selected from the group consisting of a waveform frequency of the energy, an amplitude of the waveform, a duration of the energy deliver, a depth of penetration into the skin of each of the electrodes, and a positioning of each of the electrodes; and memory storing instructions for operating the processor.
A polyamide fiber with enhanced dyeing properties, wherein the polyamide fiber is a blend of at least two different polyamides: a first polyamide and second polyamide, - the first polyamide being an aliphatic polyamide selected from the group consisting of polyamide 6, polyamide 6.6, polyamide 6.9, polyamide 6.12, polyamide 6.10, polyamide 11, polyamide 12, polyamide 10.10, polyamide 4.6, polyamide 4.10, polyamide 12.12, polyamide 10.12 and mixtures thereof, and - the second polyamide being selected between polyamide 5.X, X being an integer from 4 to 16 and mixtures thereof, and wherein said polyamide fiber is a multifilament. - the first polyamide being an aliphatic polyamide selected from the group consisting of polyamide 6, polyamide 6.6, polyamide 6.9, polyamide 6.12, polyamide 6.10, polyamide 11, polyamide 12, polyamide 10.10, polyamide 4.6, polyamide 4.10, polyamide 12.12, polyamide 10.12 and mixtures thereof, and - the second polyamide being selected between polyamide 5.X, X being an integer from 4 to 16 and mixtures thereof,
A vehicle brake booster comprising: a brake input member configured to receive a braking input force; a booster housing divided into a first chamber adjacent the brake input member and a second chamber remote from the brake input member ; a poppet valve including a poppet valve body and a poppet seal , the poppet valve being operable to maintain separation between air having a pressure in the first chamber and a vacuum in the second chamber during assisted braking and further being operable to enable evacuation of the air from the first chamber through one or more side ports of the poppet valve body upon release of the braking input force and completion of the assisted braking; and a restrictor element separate from the poppet valve body and configured to provide a predetermined release speed for the booster ; wherein the one or more side ports define a total flow resistance of the poppet valve body which is less than an effective total flow resistance of the poppet valve body set by the restrictor element , characterized in that the poppet valve body includes a plurality of side ports , and the restrictor element includes a restriction portion arranged in each of the plurality of side ports . a brake input member configured to receive a braking input force; a booster housing divided into a first chamber adjacent the brake input member and a second chamber remote from the brake input member ; a poppet valve including a poppet valve body and a poppet seal , the poppet valve being operable to maintain separation between air having a pressure in the first chamber and a vacuum in the second chamber during assisted braking and further being operable to enable evacuation of the air from the first chamber through one or more side ports of the poppet valve body upon release of the braking input force and completion of the assisted braking; and a restrictor element separate from the poppet valve body and configured to provide a predetermined release speed for the booster ; wherein the one or more side ports define a total flow resistance of the poppet valve body which is less than an effective total flow resistance of the poppet valve body set by the restrictor element , characterized in that the poppet valve body includes a plurality of side ports , and the restrictor element includes a restriction portion arranged in each of the plurality of side ports .
Flat steel product made from a steel that consists of in % by weight: Al: 12 - 20%, Cr: 0.3 - 7%, Ti: 0.2 - 2%, B: 0.1 0.6%, as well as optionally one or more elements from the group " Mn, Si, Nb, Ta, W, Zr, V, Mo, Ni, Cu, Ca, rare earth metals, Co" at the following levels: Mn: up to 2% Si: 0.05-5% Nb, Ta, W: up to 0.2% in total Zr: up to 1% V: up to 1% Mo: up to 1% Ni: up to 2% Cu: up to 3% Ca: up to 0.015% Rare earth metals: up to 0.2% Co: up to 1% residual iron and unavoidable impurities, wherein C levels of up to 0.15% by weight, N levels of up to 0.1% by weight, S levels of up to 0.03% by weight and P levels of up to 0.1% by weight can be attributable to the unavoidable impurities, and wherein the ratio %Ti/%B formed from the Ti levels %Ti and the B levels %B of the steel is 0.33 ≤ % ⁢ Ti/ ⁢ % ⁢ B ≤ 3.75 and the microstructure of the steel consists of 0.3-5% by volume TiB 2 precipitates that are embedded in a structural matrix made up of at least 80% by volume Fe 3 Al.
A fuel monitoring system for a vehicle comprising: a fuel filter sensor device (204, 206; 1208; 1212) configured to generate data reflecting a filter restriction value of a fuel filter ; a geolocation circuit configured to generate or receive geolocation data; a system control circuit configured to evaluate the fuel filter sensor device data to determine changes in the filter restriction value; receive fuel level data; cross-reference geolocation data and fuel level data to identify refueling locations utilized; correlate refueling locations with subsequent changes in the filter restriction value to identify an effect of specific refueling locations utilized on fuel filter loading. a fuel filter sensor device (204, 206; 1208; 1212) configured to generate data reflecting a filter restriction value of a fuel filter ; a geolocation circuit configured to generate or receive geolocation data; a system control circuit configured to evaluate the fuel filter sensor device data to determine changes in the filter restriction value; receive fuel level data; cross-reference geolocation data and fuel level data to identify refueling locations utilized; correlate refueling locations with subsequent changes in the filter restriction value to identify an effect of specific refueling locations utilized on fuel filter loading.