mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid hard surface cleaning composition comprising: a. a surface modification polymer, wherein the surface modification polymer is selected from the group consisting of: copolymers of corn starch, acrylic acid or salts thereof and acrylamido-propyl-trimethyl-ammonium chloride; and b. sulfonate hydrotrope wherein the composition does not comprise fluorescent whitening agent. a. a surface modification polymer, wherein the surface modification polymer is selected from the group consisting of: copolymers of corn starch, acrylic acid or salts thereof and acrylamido-propyl-trimethyl-ammonium chloride; and b. sulfonate hydrotrope wherein the composition does not comprise fluorescent whitening agent.
Use of a dual-carriage linear motor equipped with a controller within a blowing device , a first carriage of said motor moving a first movable support of a draw rod equipping said blowing device along at least a first path, whilst a second carriage of said motor moves a second movable support of a nozzle equipping said blowing device along at least a second path, each of said first and second paths being controlled independently by said controller .
A fiber-matrix composition having a fiber component consisting of reinforcing fibers and a matrix component comprising epoxy resin and curing agent, characterized in that the curing agent comprises at least one alkyl-substituted ethyleneamine of the formula I H 2 N-A-(NH-A-) n NH 2 (I) where A is independently an ethylene group of the formula -CHR-CH 2 - or CH 2 -CHR-, with R = H, ethyl or methyl, but at least one A of the alkyl-substituted ethyleneamine of the formula I is an alkylethylene group of the formula -CHR-CH 2 - or -CH 2 -CHR-, with R = ethyl or methyl, and where n = 1 to 4. where A is independently an ethylene group of the formula -CHR-CH 2 - or CH 2 -CHR-, with R = H, ethyl or methyl, but at least one A of the alkyl-substituted ethyleneamine of the formula I is an alkylethylene group of the formula -CHR-CH 2 - or -CH 2 -CHR-, with R = ethyl or methyl, and where n = 1 to 4.
A charging control method, applicable for a first terminal, characterized by , the method comprising: monitoring (S101) a Bluetooth communication state between a first terminal and a second terminal in a process of charging the first terminal when performing Bluetooth communication with the second terminal; when (S102) the Bluetooth communication state is monitored to be in an abnormal state, adjusting a charging power for charging the first terminal based on a charge protocol supported by the first terminal. monitoring (S101) a Bluetooth communication state between a first terminal and a second terminal in a process of charging the first terminal when performing Bluetooth communication with the second terminal; when (S102) the Bluetooth communication state is monitored to be in an abnormal state, adjusting a charging power for charging the first terminal based on a charge protocol supported by the first terminal.
Bicycle frame, comprising a front frame part and a rear frame part , each designed to accommodate a front or rear wheel , wherein the rear frame part comprises at least one chainstay which connects a rear dropout , for receiving the rear wheel , to a bottom bracket housing on the front frame part , wherein the bicycle frame is a rigid frame, characterised in that the chainstay on the bottom bracket housing side has a hook end with at least one hook element which engages around the bottom bracket housing in an enclosing portion (A), wherein the hook element is part of an ISCG, International Standard Chain Guide, and has at least one receiving means for a chain guide and/or a chainring ram protection , and wherein the hook element is integrally bonded to the bottom bracket housing .
A gas streaming device for use between an injection port and a mixing chamber within an airlift pump , the device comprising: a planar body such as a plate, the planar body with multiple holes extending therethrough, the holes dimensioned to direct the gas into multiple streams for streaming the gas from the injection port into the mixing chamber , characterized in that the holes in the body contain a helical groove pattern to gyroscopically stabilize the gas flow as it leaves the body . a planar body such as a plate, the planar body with multiple holes extending therethrough, the holes dimensioned to direct the gas into multiple streams for streaming the gas from the injection port into the mixing chamber , characterized in that the holes in the body contain a helical groove pattern to gyroscopically stabilize the gas flow as it leaves the body .
A photovoltaic module comprising: a solar cell module including a plurality of solar cells, a first conductive line connected to a first solar cell among the plurality of solar cells, and a second conductive line connected to a second solar cell among the plurality of solar cells; and a junction box attached to a back surface of the solar cell module, wherein the junction box includes a power conversion unit having a capacitor unit located between the first conductive line and the second conductive line , wherein the power conversion unit includes: - an input voltage detector (B) configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage (Vc1) detected by the input voltage detector (B) is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). a solar cell module including a plurality of solar cells, a first conductive line connected to a first solar cell among the plurality of solar cells, and a second conductive line connected to a second solar cell among the plurality of solar cells; and a junction box attached to a back surface of the solar cell module, wherein the junction box includes a power conversion unit having a capacitor unit located between the first conductive line and the second conductive line , wherein the power conversion unit includes: - an input voltage detector (B) configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage (Vc1) detected by the input voltage detector (B) is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). - an input voltage detector (B) configured to detect an input voltage at opposite ends of the capacitor unit; and - a controller configured to: -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage (Vc1) detected by the input voltage detector (B) is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1). -- supply a first current (Impp1), and -- when a voltage variation rate of the input voltage (Vc1) detected by the input voltage detector (B) is a predetermined value or more, determine that shading occurs, and supply a second current (Impp2), the level of which is lower than the level of the first current (Impp1).
A hetero-oligomeric pore derived from a Mycobacterium smegmatis porin, which comprises a narrowing having a net negative charge; wherein the pore comprises monomers from MspA, MspB, MspC and/or MspD; wherein one of the monomers in the pore differs from the rest of the monomers in the pore; and wherein the pore is capable of characterising polynucleotides.
A wire which is formed of a magnetocaloric material having a magnetocaloric effect, wherein an outer surface of the wire partially has at least one of a concave portion and a convex portion in a longitudinal direction of the wire, the concave portion is recessed in a radial direction of the wire, and the convex portion protrudes in the radial direction.
An electrolyte additive composition comprising: a borate-based lithium compound represented by Formula 1; and a non-lithiated additive, wherein the non-lithiated additive comprises a sulfate-based compound, and the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S). a borate-based lithium compound represented by Formula 1; and a non-lithiated additive, wherein the non-lithiated additive comprises a sulfate-based compound, and the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S).
A cobalt-rich wear resistant and corrosion resistant alloy consisting of, in weight %: 0.1 to 0.8% C; 0.1 to 1.5% Mn; 3 to 5% Si; 10 to 20% Cr; 5 to 32% Fe; 0.5 to 4% W; 10 to 30% Mo; 0 to 20% Ni; 20 to 40% Co; up to 6% V; up to 3% Nb; total V plus Nb of 0.5 to 8.5%; and balance unavoidable impurities. 0.1 to 0.8% C; 0.1 to 1.5% Mn; 3 to 5% Si; 10 to 20% Cr; 5 to 32% Fe; 0.5 to 4% W; 10 to 30% Mo; 0 to 20% Ni; 20 to 40% Co; up to 6% V; up to 3% Nb; total V plus Nb of 0.5 to 8.5%; and balance unavoidable impurities.
A shaft sealing arrangement , in particular for vacuum dissolvers, comprising: - a low-pressure container , - a shaft which comprises an end section extending into the low-pressure container and a drive section located outside the low-pressure container , which drive section is provided for connection to a rotary drive, characterised in that the shaft sealing arrangement comprises: - a first shaft seal on the drive-section side and a second shaft seal on the low-pressure container side, which bound between them a sealing chamber , - an air supply line with an internal diameter (d 1 ) and a length (l 1 ), which is provided for connection to a compressed air source with an essentially constant excess pressure and which ends in the sealing chamber , - an air discharge line with an internal diameter (d 2 ) and a length (l 2 ), which connects the sealing chamber to the low-pressure container , wherein the internal diameter (d 1 ) and the length (l 1 ) of the air supply line are dimensioned such that, in the presence of atmospheric pressure in the low-pressure container , the essentially constant excess pressure of the compressed air source is reduced to a slight excess pressure at the end of the air supply line on the sealing-chamber side, and wherein the internal diameter (d 2 ) and the length (l 2 ) of the air discharge line are dimensioned such that, in the presence of a low pressure in the low-pressure container , the pressure in the sealing chamber always lies between the low pressure and atmospheric pressure. - a low-pressure container , - a shaft which comprises an end section extending into the low-pressure container and a drive section located outside the low-pressure container , which drive section is provided for connection to a rotary drive, - a first shaft seal on the drive-section side and a second shaft seal on the low-pressure container side, which bound between them a sealing chamber , - an air supply line with an internal diameter (d 1 ) and a length (l 1 ), which is provided for connection to a compressed air source with an essentially constant excess pressure and which ends in the sealing chamber , - an air discharge line with an internal diameter (d 2 ) and a length (l 2 ), which connects the sealing chamber to the low-pressure container , wherein the internal diameter (d 1 ) and the length (l 1 ) of the air supply line are dimensioned such that, in the presence of atmospheric pressure in the low-pressure container , the essentially constant excess pressure of the compressed air source is reduced to a slight excess pressure at the end of the air supply line on the sealing-chamber side, and wherein the internal diameter (d 2 ) and the length (l 2 ) of the air discharge line are dimensioned such that, in the presence of a low pressure in the low-pressure container , the pressure in the sealing chamber always lies between the low pressure and atmospheric pressure.
Wheel drive with wheel for a vehicle, in particular an industrial truck, wherein the wheel drive comprises a motor and a gearbox and consists of at least two units which can be separated from one another, characterized in that at least a first of the units is integrated into the wheel of the vehicle and forms a structural unit with the wheel , wherein this unit comprises the gearbox and at least a second of the units , which remains in the vehicle when the units are separated, comprises the motor in order to promote structural separation of wear components and valuable components.
An aerial optical fiber cable inspection method comprising: receiving backscattered light of test light incident on an aerial optical fiber cable to be measured - using optical fiber reflection measurements -, and acquiring (S01) - based on said optical fiber reflection measurements - a vibration distribution of vibrations caused by disturbances from the natural environment along a longitudinal direction of the aerial optical fiber cable ; and calculating (S02) a standard deviation of an amplitude at each position in the vibration distribution; and identifying (S03) a cable sagging section in which the aerial optical fiber cable sags based on the standard deviation; wherein: - a section in which the standard deviation is larger than an average of the standard deviations at each position along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section; or - an arbitrary section along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section if a variance of the standard deviations at each position included in the arbitrary section is larger than a preset threshold value; or - a section in which the standard deviation is larger than a preset threshold value is identified as the cable sagging section. receiving backscattered light of test light incident on an aerial optical fiber cable to be measured - using optical fiber reflection measurements -, and acquiring (S01) - based on said optical fiber reflection measurements - a vibration distribution of vibrations caused by disturbances from the natural environment along a longitudinal direction of the aerial optical fiber cable ; and calculating (S02) a standard deviation of an amplitude at each position in the vibration distribution; and identifying (S03) a cable sagging section in which the aerial optical fiber cable sags based on the standard deviation; wherein: - a section in which the standard deviation is larger than an average of the standard deviations at each position along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section; or - an arbitrary section along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section if a variance of the standard deviations at each position included in the arbitrary section is larger than a preset threshold value; or - a section in which the standard deviation is larger than a preset threshold value is identified as the cable sagging section. - a section in which the standard deviation is larger than an average of the standard deviations at each position along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section; or - an arbitrary section along the longitudinal direction of the aerial optical fiber cable is identified as the cable sagging section if a variance of the standard deviations at each position included in the arbitrary section is larger than a preset threshold value; or - a section in which the standard deviation is larger than a preset threshold value is identified as the cable sagging section.
A device for supporting at least one arm of a user , wherein the device has - at least one arm support element with an arm shell for placing on the arm , - at least one passive actuator , ∘ which is configured to apply a force to the at least one support element that is directed against the force of gravity, and - at least one counter bearing for the force to be applied, which comprises ∘ at least one counter bearing element and ∘ at least one force transmission element that is configured to transmit a counter force to the counter bearing element , ∘ wherein the arm support element is connected to the force transmission element via a joint , characterized by the fact that the device is configured in such a way that a freedom of movement of the spine of the user is not restricted by the device, wherein particularly an inclination is possible and wherein the joint is configured and designed to allow for an abduction and/or adduction of the arm of the user when the device is in the mounted state. - at least one arm support element with an arm shell for placing on the arm , - at least one passive actuator , ∘ which is configured to apply a force to the at least one support element that is directed against the force of gravity, and ∘ which is configured to apply a force to the at least one support element that is directed against the force of gravity, and - at least one counter bearing for the force to be applied, which comprises ∘ at least one counter bearing element and ∘ at least one force transmission element that is configured to transmit a counter force to the counter bearing element , ∘ wherein the arm support element is connected to the force transmission element via a joint , characterized by the fact that the device is configured in such a way that a freedom of movement of the spine of the user is not restricted by the device, wherein particularly an inclination is possible and wherein the joint is configured and designed to allow for an abduction and/or adduction of the arm of the user when the device is in the mounted state. ∘ at least one counter bearing element and ∘ at least one force transmission element that is configured to transmit a counter force to the counter bearing element , ∘ wherein the arm support element is connected to the force transmission element via a joint ,
A virucidal compound having formula (I) wherein: x is 6, 7 or 8, R is -Z-CH 2 -(CH 2 ) y -SO 3 - , Z is O or S, y is at least 11, y is at a maximum 25, and R' is selected from the group consisting of H, -(CH 2 )y-SO 3 - and -(CH 2 )-COOH, or R' is a polymer selected from the group consisting of poly(ethylene glycol) (PEG), poly(vinyl alcohol) (PVA), poly(acrylamide) (PAAm), poly(n-butyl acrylate), poly-( α -esters), (PEG-b-PPO-b-PEG), poly(N-isopropylacrylamide) (pNIPAAM), polylacticglycolic acid (PLGA), dextran, dextrins, glucose, cellulose and cyclodextrins. x is 6, 7 or 8, R is -Z-CH 2 -(CH 2 ) y -SO 3 - , Z is O or S, y is at least 11, y is at a maximum 25, and R' is selected from the group consisting of H, -(CH 2 )y-SO 3 - and -(CH 2 )-COOH, or R' is a polymer selected from the group consisting of poly(ethylene glycol) (PEG), poly(vinyl alcohol) (PVA), poly(acrylamide) (PAAm), poly(n-butyl acrylate), poly-( α -esters), (PEG-b-PPO-b-PEG), poly(N-isopropylacrylamide) (pNIPAAM), polylacticglycolic acid (PLGA), dextran, dextrins, glucose, cellulose and cyclodextrins.
A section of a streamer for acoustic marine data collection, said section comprising a carrier (14; 50; 150) comprising: a body retaining at least two particle motion sensors (22, 24; 52, 54; 152, 154, 158, 160), each particle motion sensor detecting motion in one direction, characterized in that said at least two particle motion sensors being arranged 90° about the body longitudinal axis relative to one another, so as to detect a movement of the streamer in two orthogonal directions; said carrier (14; 50; 150) being coupled to a tilt sensor in a known orientation to said at least two particle motion sensors (22, 24; 52,54), the tilt sensor being configured to determine the angle of tilt of the carrier (14; 50; 150) about its axis, relative to vertical. a body retaining at least two particle motion sensors (22, 24; 52, 54; 152, 154, 158, 160), each particle motion sensor detecting motion in one direction, characterized in that said at least two particle motion sensors being arranged 90° about the body longitudinal axis relative to one another, so as to detect a movement of the streamer in two orthogonal directions; said carrier (14; 50; 150) being coupled to a tilt sensor in a known orientation to said at least two particle motion sensors (22, 24; 52,54), the tilt sensor being configured to determine the angle of tilt of the carrier (14; 50; 150) about its axis, relative to vertical.
A door handle assembly comprising: a bracket ; a slide member coupled to the bracket and configured to translate between a first position and a second position; and a counterweight pivotally coupled to the bracket and configured to rotate between a first rotational position and a second rotational position, wherein, upon translation of the slide member from the second position to the first position, the slide member is operable to (i) rotate the counterweight in a first direction from the second rotational position to the first rotational position and (ii) prevent rotation of the counterweight in a second direction from the first rotational position. a bracket ; a slide member coupled to the bracket and configured to translate between a first position and a second position; and a counterweight pivotally coupled to the bracket and configured to rotate between a first rotational position and a second rotational position, wherein, upon translation of the slide member from the second position to the first position, the slide member is operable to (i) rotate the counterweight in a first direction from the second rotational position to the first rotational position and (ii) prevent rotation of the counterweight in a second direction from the first rotational position.
A method of fabricating a diffractive structure with varying diffractive element depth, the method comprising: providing a shadow mask having a first region with a first aperture dimension to aperture periodicity ratio and a second region with a second aperture dimension to aperture periodicity ratio less than the first aperture dimension to aperture periodicity ratio; positioning the shadow mask adjacent a substrate, wherein the substrate comprises an etch mask corresponding to the diffractive structure; exposing the substrate to an etchant; etching the substrate to form diffractive elements adjacent the first region having a first depth; and etching the substrate to form diffractive elements adjacent the second region having a second depth less than the first depth. providing a shadow mask having a first region with a first aperture dimension to aperture periodicity ratio and a second region with a second aperture dimension to aperture periodicity ratio less than the first aperture dimension to aperture periodicity ratio; positioning the shadow mask adjacent a substrate, wherein the substrate comprises an etch mask corresponding to the diffractive structure; exposing the substrate to an etchant; etching the substrate to form diffractive elements adjacent the first region having a first depth; and etching the substrate to form diffractive elements adjacent the second region having a second depth less than the first depth.