mhurhangee/patent-ind-claim-en huggingface dataset:
A construction machine , comprising - a machine frame ; - a driver cabin with a right and a left door-window unit when viewed in a traveling direction (A) of the construction machine , said door-window units being adjustable between a closed and an open position; - a drive engine ; and - front and rear traveling devices ; characterized in that the door-window unit of the right side and the door-window unit of the left side are adjustable from the closed position to the open position at least partially in opposite directions (X) with respect to one another when viewed in a traveling direction (A). - a machine frame ; - a driver cabin with a right and a left door-window unit when viewed in a traveling direction (A) of the construction machine , said door-window units being adjustable between a closed and an open position; - a drive engine ; and - front and rear traveling devices ;
A power steering system for a vehicle , the power steering system comprising a power steering pump , an electrical machine unit , a clutch arrangement and a power steering control system configured to control the power steering system , wherein: - the electrical machine unit is configured to drive the power steering pump and to be operatively connected to and powered by an energy storage of the vehicle , - the power steering pump is configured to be connected to a torque output source arranged downstream of a transmission system of the vehicle , the power steering pump being configured to be driven by means of torque provided by the torque output source , - the clutch arrangement is configured to selectively connect the power steering pump to the torque output source , wherein the power steering control system is configured to control the clutch arrangement and the electrical machine unit to cause the power steering system to be operable in an electrical steering mode (EM) wherein the electrical machine unit drives the power steering pump and a mechanical steering mode (MM) wherein the power steering pump is driven by means of the torque provided by the torque output source . - the electrical machine unit is configured to drive the power steering pump and to be operatively connected to and powered by an energy storage of the vehicle , - the power steering pump is configured to be connected to a torque output source arranged downstream of a transmission system of the vehicle , the power steering pump being configured to be driven by means of torque provided by the torque output source , - the clutch arrangement is configured to selectively connect the power steering pump to the torque output source ,
A femoral tunnel guide device comprising: a handle ; a guide tube coupled to the handle and extending in one direction; an offset unit provided at a first end portion of the guide tube, wherein a separation distance from a virtual extension line of the guide tube to the offset unit is adjustable in another direction different to the one direction; and an offset controller connected to the offset unit and configured to control the separation distance between the offset unit and the guide tube, wherein the offset unit comprises: a connection portion extending from the guide tube; a tongue portion base provided at a first end portion of the connection portion; a guide portion configured to be inserted into or withdrawn from the guide tube; and one or more links connecting the tongue portion base and the guide portion, wherein the connection portion, the guide portion, the one or more links, and the tongue portion base form a four-section link. a handle ; a guide tube coupled to the handle and extending in one direction; an offset unit provided at a first end portion of the guide tube, wherein a separation distance from a virtual extension line of the guide tube to the offset unit is adjustable in another direction different to the one direction; and an offset controller connected to the offset unit and configured to control the separation distance between the offset unit and the guide tube, wherein the offset unit comprises: a connection portion extending from the guide tube; a tongue portion base provided at a first end portion of the connection portion; a guide portion configured to be inserted into or withdrawn from the guide tube; and one or more links connecting the tongue portion base and the guide portion, wherein the connection portion, the guide portion, the one or more links, and the tongue portion base form a four-section link. a connection portion extending from the guide tube; a tongue portion base provided at a first end portion of the connection portion; a guide portion configured to be inserted into or withdrawn from the guide tube; and one or more links connecting the tongue portion base and the guide portion, wherein the connection portion, the guide portion, the one or more links, and the tongue portion base form a four-section link.
A method of making a three-dimensional article, the method comprising: heating a composition comprising an inorganic filler and a fluoropolymer; extruding the composition in molten form from an extrusion head to provide at least a portion of a first layer of the three dimensional article; and extruding at least a second layer of the composition in molten form onto at least the portion of the first layer to make at least a portion of the three dimensional article, wherein the fluoropolymer is a semi-crystalline fluorothermoplastic and has a melting point of up to 325 °C and less than 50 percent by weight interpolymerized units of vinylidene fluoride or wherein the fluoropolymer is amorphous and has a glass transition temperature of up to 280 °C. heating a composition comprising an inorganic filler and a fluoropolymer; extruding the composition in molten form from an extrusion head to provide at least a portion of a first layer of the three dimensional article; and extruding at least a second layer of the composition in molten form onto at least the portion of the first layer to make at least a portion of the three dimensional article, wherein the fluoropolymer is a semi-crystalline fluorothermoplastic and has a melting point of up to 325 °C and less than 50 percent by weight interpolymerized units of vinylidene fluoride or wherein the fluoropolymer is amorphous and has a glass transition temperature of up to 280 °C.
A method to produce nanoporous microsponge particles useful as carriers for drug delivery; said method comprising a cross-linking/precipitation step wherein a cross-linking agent reacts with hyaluronic acid having nucleophile functional groups which react with said cross-linking agent; said a cross-linking agent being prepared by a reaction between 1,1'-carbonyldiimidazole (CDI) and a diamine compound; said method being characterized in that said hyaluronic acid has an average molecular weight ranging from 10KDa to 200KDa.
A piston ring for two-stroke engines with a wear display, comprising a piston ring body with an outer face, two piston ring flanks and a piston ring inner surface, wherein at least two radially superimposed layers of thermally sprayed coatings are provided on the outer face, said layers having at least two different colours in a fixed sequence and thereby being able to be differentiated by colour, wherein the radially lowermost layer or lowermost layers are dyed in a reddish colour by adding Cu or CuFeAl, wherein the copper component of the lowermost layer or the lowermost layers is preferably between 30 and 50 wt.%, characterized in that at least three radially superimposed layers of thermally sprayed coatings which are supplied with three different colours, in each case in a fixed sequence, are provided. wherein at least two radially superimposed layers of thermally sprayed coatings are provided on the outer face, said layers having at least two different colours in a fixed sequence and thereby being able to be differentiated by colour, wherein the radially lowermost layer or lowermost layers are dyed in a reddish colour by adding Cu or CuFeAl, wherein the copper component of the lowermost layer or the lowermost layers is preferably between 30 and 50 wt.%, characterized in that at least three radially superimposed layers of thermally sprayed coatings which are supplied with three different colours, in each case in a fixed sequence, are provided.
Separating tool comprising a tooth supporting body and a plurality of teeth being arranged at the tooth supporting body , characterised in that the tooth supporting body is made of a superalloy .
A method for selecting a demulsifier and its concentration that is most efficient in separating water from oil, the method comprising: mixing dry oil with a demulsifier to obtain a mixture having a first concentration; generating , by a mono-dispersed droplet generation mechanism having micro-ferrules shaped so that the tips have a smaller diameter than other parts of the respective micro-ferrule, uniform mono-dispersed water droplets inside the mixture ; pumping the water droplets and the mixture into a micro-fluidic channel that extends along a vertical length direction and has a square or rectangular cross section, characterized in that one end of the micro-fluidic channel is clamped after the mono-dispersed water droplets and the mixture are pumped into a micro-fluidic channel , the method further comprising sending a laser beam through the micro-fluidic channel ; recording images of the water droplets in the mixture with a camera ; and calculating a percentage of the water droplets that coalesce inside the micro-fluidic channel due to shearing between adjacent water droplets when free-falling through the mixture , due to gravity, wherein the micro-fluidic channel has at least two sides smaller than 1 mm. mixing dry oil with a demulsifier to obtain a mixture having a first concentration; generating , by a mono-dispersed droplet generation mechanism having micro-ferrules shaped so that the tips have a smaller diameter than other parts of the respective micro-ferrule, uniform mono-dispersed water droplets inside the mixture ; pumping the water droplets and the mixture into a micro-fluidic channel that extends along a vertical length direction and has a square or rectangular cross section, characterized in that one end of the micro-fluidic channel is clamped after the mono-dispersed water droplets and the mixture are pumped into a micro-fluidic channel , the method further comprising sending a laser beam through the micro-fluidic channel ; recording images of the water droplets in the mixture with a camera ; and calculating a percentage of the water droplets that coalesce inside the micro-fluidic channel due to shearing between adjacent water droplets when free-falling through the mixture , due to gravity, wherein the micro-fluidic channel has at least two sides smaller than 1 mm.
An outlet structure for an encoder, comprising: an encoder case , a first cable through hole being disposed in the encoder case , a cable being capable of passing through the first cable through hole ; a first metal ring , the metal ring being disposed in the first cable through hole and being sleevable onto a shielding layer of the cable, the metal ring being deformable under an external force to clasp the shielding layer; a fixing member , a second cable through hole being disposed in the fixing member , the cable being capable of passing through the second cable through hole , the fixing member being insertable with interference into the first cable through hole from an outer side of the encoder case for fixation; a first O-shaped ring , the first O-shaped ring being sleevable onto the fixing member , and the first O-shaped ring being insertable into the first cable through hole to seal a slit between the fixing member and the encoder case ; and a second O-shaped ring , the second O-shaped ring being disposed in the second cable through hole and sleevable onto the cable, the second O-shaped ring being capable of sealing a slit of the fixing member and the cable, and the second O-shaped ring being further capable of applying an elastic force to the metal ring after the fixing member is inserted into the first cable through hole , such that the metal ring remains abutting against the encoder case . an encoder case , a first cable through hole being disposed in the encoder case , a cable being capable of passing through the first cable through hole ; a first metal ring , the metal ring being disposed in the first cable through hole and being sleevable onto a shielding layer of the cable, the metal ring being deformable under an external force to clasp the shielding layer; a fixing member , a second cable through hole being disposed in the fixing member , the cable being capable of passing through the second cable through hole , the fixing member being insertable with interference into the first cable through hole from an outer side of the encoder case for fixation; a first O-shaped ring , the first O-shaped ring being sleevable onto the fixing member , and the first O-shaped ring being insertable into the first cable through hole to seal a slit between the fixing member and the encoder case ; and a second O-shaped ring , the second O-shaped ring being disposed in the second cable through hole and sleevable onto the cable, the second O-shaped ring being capable of sealing a slit of the fixing member and the cable, and the second O-shaped ring being further capable of applying an elastic force to the metal ring after the fixing member is inserted into the first cable through hole , such that the metal ring remains abutting against the encoder case .
A method for producing acetic acid comprising reacting: (A) a starting material selected from methanol, dimethyl ether, or methyl acetate; (B) carbon monoxide; and (C) a rhodium compound; in a reaction mixture in the presence of a ruthenium compound, a first iodide source, and a phosphine oxide (C≤24) under conditions sufficient to cause carbonylation to produce acetic acid; wherein the rhodium compound is rhodium(II) acetate, rhodium(III) acetate and the ruthenium compound is ruthenium acetate, (A) a starting material selected from methanol, dimethyl ether, or methyl acetate; (B) carbon monoxide; and (C) a rhodium compound;
A directable sound-absorbing panel comprising a sound-absorbing panel , a fixing member which can be fixed to said sound-absorbing panel , an arm and an articulated joint between said fixing member and said arm , wherein said panel comprises a padding layer with heat-bonded synthetic fibers and a first layer of fabric facing a first side of said padding layer , wherein said padding layer has a first thickness (SP1), wherein said padding layer is shaped so as to have an edge along at least a part of the perimeter of said panel , the edge having a second thickness (SP2) which is smaller than the first thickness (SP1), characterized in that the fixing member comprises a plate having one side cooperating with a surface of the sound-absorbing panel, the plate having holes and comprising screws for fixing the plate to the sound-absorbing panel or the plate being fixed to the sound-absorbing panel by magnetic means.
A method for the preparation of a three-dimensional hydrogel scaffold for cell culturing, which comprises the steps of: a) preparing at least one first uniform solid mixture comprising at least one gas-forming agent, selected from the group consisting of sodium hydrogen carbonate, potassium hydrogen carbonate, sodium glycine carbonate, ammonium hydrogen carbonate, sodium bisulfite, sodium metabisulfite, calcium carbonate and sodium sulfite, at least one water-soluble salt and at least one non-water-soluble, water-swellable cross-linked poly(acrylic) polymer; b) preparing compressed or compact units starting from said at least one first solid mixture; c) subjecting the compressed or compact units thus obtained to heating at a temperature in the range of 120°C-160°C, for a time of 1-120 minutes, preferably 1-20 minutes; d) leaching the thermally treated units thus obtained in an aqueous medium; e) conditioning the leached units thus obtained in water or in an aqueous solution selected from the group comprising a buffer solution, preferably phosphate-buffered saline (PBS) and a cell culture medium; f) subjecting the conditioned units thus obtained to sterilization. a) preparing at least one first uniform solid mixture comprising at least one gas-forming agent, selected from the group consisting of sodium hydrogen carbonate, potassium hydrogen carbonate, sodium glycine carbonate, ammonium hydrogen carbonate, sodium bisulfite, sodium metabisulfite, calcium carbonate and sodium sulfite, at least one water-soluble salt and at least one non-water-soluble, water-swellable cross-linked poly(acrylic) polymer; b) preparing compressed or compact units starting from said at least one first solid mixture; c) subjecting the compressed or compact units thus obtained to heating at a temperature in the range of 120°C-160°C, for a time of 1-120 minutes, preferably 1-20 minutes; d) leaching the thermally treated units thus obtained in an aqueous medium; e) conditioning the leached units thus obtained in water or in an aqueous solution selected from the group comprising a buffer solution, preferably phosphate-buffered saline (PBS) and a cell culture medium; f) subjecting the conditioned units thus obtained to sterilization.
Sensor device for a motor vehicle , having a light source and a detection device , the detection device being formed with an array of optical pixels, wherein the light source and the detection device are coupled to a control and evaluation device which controls the light source to emit light pulses and controls the detection device for detection and evaluates the detected signals of the detection device , wherein the control and evaluation device , the detection device and the light source cooperate as a time-of-flight camera (ToF camera) so that spatial distance data are detected, and wherein the control and evaluation device is designed to operate the light source and the detection device in at least two modes, namely an initialization mode on the one hand and a measurement mode on the other hand, characterized in that in the initialization mode it is determined by a calibration process which pixels of the installed sensor device are available for sensory detection when the installation situation is taken into account, the control and evaluation device controls the light source and the detection device in the initialization mode and samples the signals of all pixels at least once and, depending on the result of the sampling, assigns each pixel either to a group of relevant pixels or to a group of irrelevant pixels, the control and evaluation device storing this assignment, wherein the control and evaluation device, depending on the result of the evaluation in the initialization mode, permanently adapts the detection in the measurement mode in such a way that only the signals of the pixels from the group of relevant pixels are taken into account during a measurement.
A noise reduction headset setting method, characterized by comprising: triggering , by a terminal, when it is detected that a noise reduction headset is inserted into a preset headset jack of the terminal and a communication setting instruction is received, the noise reduction headset to enter a communication mode, wherein the preset headset jack comprises a first line used by a first channel and a sending channel, a second line used by a second channel and a receiving channel, and a third line used by a microphone and communication triggering, the first channel and the second channel are respectively one of a left channel and a right channel, and the first channel and the second channel are different, and in the communication mode, the first line is used for the sending channel, the second line is used for the receiving channel, and the third line is used for the communication triggering; receiving , by the terminal, a headset setting request in the communication mode, wherein the headset setting request is used to request a firmware upgrade and/or noise reduction parameter setting for the noise reduction headset; and setting , by the terminal, the noise reduction headset according to the headset setting request by using the preset headset jack. triggering , by a terminal, when it is detected that a noise reduction headset is inserted into a preset headset jack of the terminal and a communication setting instruction is received, the noise reduction headset to enter a communication mode, wherein the preset headset jack comprises a first line used by a first channel and a sending channel, a second line used by a second channel and a receiving channel, and a third line used by a microphone and communication triggering, the first channel and the second channel are respectively one of a left channel and a right channel, and the first channel and the second channel are different, and in the communication mode, the first line is used for the sending channel, the second line is used for the receiving channel, and the third line is used for the communication triggering; receiving , by the terminal, a headset setting request in the communication mode, wherein the headset setting request is used to request a firmware upgrade and/or noise reduction parameter setting for the noise reduction headset; and setting , by the terminal, the noise reduction headset according to the headset setting request by using the preset headset jack.
A computer implemented method of monitoring a communication network , the method comprising checking if remote electrical tilt, RET, equipment operates as intended, the method further comprising obtaining first information related to remote electrical tilt configurations deployed in the communication network ; obtaining second information related to cell documentation; rearranging at least one of the first information and the second information by grouping at least one of the first information and the second information by antenna instances, comparing the first and second information to identify mismatches between the first and second information, if any; and outputting an alarm concerning mismatches identified as a result of the comparison. obtaining first information related to remote electrical tilt configurations deployed in the communication network ; obtaining second information related to cell documentation; rearranging at least one of the first information and the second information by grouping at least one of the first information and the second information by antenna instances, comparing the first and second information to identify mismatches between the first and second information, if any; and outputting an alarm concerning mismatches identified as a result of the comparison.
A virus like particle comprising a virus structural polypeptide and at least one malaria antigen, wherein said virus structural polypeptide is a polypeptide of Chikungunya virus (CHIKV) or Venezuelan equine encephalitis virus (VEEV) and comprises the capsid and the envelope proteins E1 and E2 wherein said at least one malaria antigen is an antigen comprising (NPNA) n wherein n is from 4 to 30 and/or an antigen comprising (EYLNKIQNSLSTEWSPCSVT) y wherein y is from 1 to 6, and wherein said at least one malaria antigen is inserted between residues 509-510, 510-511, 511-512, 519-520, 529-530, 530-531 or 531-532 of CHIKV E2 with SEQ ID NO. 1 or 2, or between residues 515-516, 516-517, 517-518, 518-519, 519-520, 536-537, 537-538 or 538-539 of VEEV E2 with SEQ ID NO. 3. wherein said virus structural polypeptide is a polypeptide of Chikungunya virus (CHIKV) or Venezuelan equine encephalitis virus (VEEV) and comprises the capsid and the envelope proteins E1 and E2 wherein said at least one malaria antigen is an antigen comprising (NPNA) n wherein n is from 4 to 30 and/or an antigen comprising (EYLNKIQNSLSTEWSPCSVT) y wherein y is from 1 to 6, and wherein said at least one malaria antigen is inserted between residues 509-510, 510-511, 511-512, 519-520, 529-530, 530-531 or 531-532 of CHIKV E2 with SEQ ID NO. 1 or 2, or between residues 515-516, 516-517, 517-518, 518-519, 519-520, 536-537, 537-538 or 538-539 of VEEV E2 with SEQ ID NO. 3.