mhurhangee/patent-ind-claim-en huggingface dataset:
Anterior part (P1) of a nacelle of an aircraft propulsive assembly, said anterior part (P1) having a front end allowing the inlet of air and a rear end, said anterior part (P1) comprising: - an air inlet lip arranged at said front end, - an inner structure extending an inner surface of the air inlet lip , - an outer panel extending an outer surface of the air inlet lip , - an annular rigidifying frame around an axis of revolution (A), said rigidifying frame being arranged at said rear end of said anterior part (P1) and linking said outer panel to said inner structure , said rigidifying frame comprising an inner peripheral edge linked to said inner structure and an outer peripheral edge linked directly or by an interface ring to said outer panel , such that said rigidifying frame has an inclination relative to the axis of revolution (A), such that the rigidifying frame has a slope oriented towards the front end of said anterior part (P1) of the nacelle, said rigidifying frame being configured to deflect out of the nacelle of the propulsive assembly an object entering through the front end of the anterior part and striking said rigidifying frame , and characterised in that the outer peripheral edge or the interface ring does not extend in the continuity of the rigidifying frame so as to facilitate the evacuation out of the nacelle of an object striking the rigidifying frame . - an air inlet lip arranged at said front end, - an inner structure extending an inner surface of the air inlet lip , - an outer panel extending an outer surface of the air inlet lip , - an annular rigidifying frame around an axis of revolution (A), said rigidifying frame being arranged at said rear end of said anterior part (P1) and linking said outer panel to said inner structure , said rigidifying frame comprising an inner peripheral edge linked to said inner structure and an outer peripheral edge linked directly or by an interface ring to said outer panel ,
A catheter assembly comprising: a catheter ; a needle having a distal tip and disposed within the catheter; a catheter hub connected to the catheter having the needle passing therethrough; and a housing attachable to the catheter hub, wherein an external surface of the catheter hub includes one of a channel member and a raised portion ; an internal surface of the housing includes an other of the channel member and the raised portion such that the channel member and the raised portion engage to restrict motion between the catheter hub and the housing; characterized in that the channel member includes a first channel and a second channel separated by an axial gap . a catheter ; a needle having a distal tip and disposed within the catheter; a catheter hub connected to the catheter having the needle passing therethrough; and a housing attachable to the catheter hub, wherein an external surface of the catheter hub includes one of a channel member and a raised portion ;
A device comprising: a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region ; a window layer ; at least one transparent bonding layer disposed between the p-type region and the window layer ; a light-directing structure , the light-directing structure being configured to direct light toward the window layer ; and an n-contact electrically connected to the n-type region and a p-contact electrically connected to the p-type region ; wherein: the semiconductor structure is disposed between the window layer and the light-directing structure ; and the light-directing structure is disposed on a surface of the n-type region ; and the p-contact is disposed in an opening formed in the semiconductor structure characterized in that , the at least one transparent bonding layer is conductive and directly connected to the p-type region , the opening exposes a portion of the at least one transparent bonding layer , and the p-contact is disposed on the exposed portion of the at least one transparent bonding layer . a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region ; a window layer ; at least one transparent bonding layer disposed between the p-type region and the window layer ; a light-directing structure , the light-directing structure being configured to direct light toward the window layer ; and an n-contact electrically connected to the n-type region and a p-contact electrically connected to the p-type region ; the semiconductor structure is disposed between the window layer and the light-directing structure ; and the light-directing structure is disposed on a surface of the n-type region ; and the p-contact is disposed in an opening formed in the semiconductor structure characterized in that , the at least one transparent bonding layer is conductive and directly connected to the p-type region , the opening exposes a portion of the at least one transparent bonding layer , and the p-contact is disposed on the exposed portion of the at least one transparent bonding layer .
A mutant human apoptosis inhibitor of macrophage (AIM) comprising an amino acid sequence of any one of the following to and having an activity of wild-type human AIM an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 168 is substituted with another amino acid, an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 277 is substituted with another amino acid, an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 168 is substituted with another amino acid, and cysteine at amino acid number 277 is substituted with another amino acid, an amino acid sequence according to any one of to , further comprising deletion, addition, insertion or substitution of one to five amino acids or a combination thereof at a position other than cysteines present in the amino acid sequence of any one of to and the substituted another amino acid, wherein the activity of wild-type human AIM means at least one of activities selected from the group consisting of: endocytosis activity to macrophages, apoptosis suppressive activity of macrophages, arteriosclerosis maintenance/promotion activity, adipocyte differentiation suppressive activity, adipocyte lipolytic activity, adipocyte reducing activity, CD36 binding activity, adipocyte endocytosis activity, FAS binding activity, FAS function suppressive activity, anti-obesity activity, preventive or therapeutic activity of liver diseases (fatty liver, NASH, liver cirrhosis, or liver cancer), and preventive or therapeutic activity of kidney diseases (acute renal failure, chronic nephritis, chronic renal failure, nephrotic syndrome, diabetic nephropathy, nephrosclerosis, IgA nephropathy, hypertensive nephropathy, nephropathy associated with collagen disease or IgM nephropathy). an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 168 is substituted with another amino acid, an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 277 is substituted with another amino acid, an amino acid sequence as shown in SEQ ID NO: 1, wherein cysteine at amino acid number 168 is substituted with another amino acid, and cysteine at amino acid number 277 is substituted with another amino acid, an amino acid sequence according to any one of to , further comprising deletion, addition, insertion or substitution of one to five amino acids or a combination thereof at a position other than cysteines present in the amino acid sequence of any one of to and the substituted another amino acid,
Method comprising the following steps: subjecting the subject (S) to a visual test requiring at least one eye of the subject to make at least one return sweep (A, B, L); during said task, recording the movements of the eye of the subject using a device for tracking eye movements; determining, using a digital processing device and in the obtained recordings , return saccades (A 1 , A 2 , B 1 -B 4 , composing all or some of the at least one return sweep of the eye of the subject; computing at least one return-saccade parameter (18, N mean , G mean , Δ) from the recordings corresponding to the determined return saccades, method wherein the at least one return-saccade parameter is dependent on a number (N A , N B , N L ) of return saccades making up a given return sweep (A, B, L) and comprises a mean number (N mean ) of returns saccades over a plurality of return sweeps. subjecting the subject (S) to a visual test requiring at least one eye of the subject to make at least one return sweep (A, B, L); during said task, recording the movements of the eye of the subject using a device for tracking eye movements; determining, using a digital processing device and in the obtained recordings , return saccades (A 1 , A 2 , B 1 -B 4 , composing all or some of the at least one return sweep of the eye of the subject; computing at least one return-saccade parameter (18, N mean , G mean , Δ) from the recordings corresponding to the determined return saccades, method wherein the at least one return-saccade parameter is dependent on a number (N A , N B , N L ) of return saccades making up a given return sweep (A, B, L) and comprises a mean number (N mean ) of returns saccades over a plurality of return sweeps.
An insulated wire, comprising an insulation layer, on an outer periphery of a conductor, wherein the insulation layer is composed of a mixed resin of a crystalline resin (A) and a resin (B) having a glass transition temperature higher, by 30°C or more, than a glass transition temperature of the crystalline resin (A), in which the glass transition temperature is measured by a thermomechanical analysis, and a mixing mass ratio of the mixed resin (a mass of the crystalline resin (A):a mass of the resin (B)) is 90:10 to 51:49; and further comprising a thermosetting resin layer including at least one resin selected from polyamideimide, polyetherimide, polyimide, and H-class polyester, on the outer periphery of the conductor.
A radiosonde power source device configured to supply driving power to an apparatus that processes and transmits observation information obtained by meteorological observations in the upper atmosphere, the radiosonde power source device comprises: a dry cell that has a rated voltage lower than driving voltage of the apparatus characterized in that the dry cell is a lithium battery or an assembled battery of lithium batteries; and in that the radiosonde power source device further comprises a step-up power source circuit configured to step up the voltage of the dry cell to a predetermined voltage, a regulator that is connected to the step-up power source circuit and configured to step down a step-up voltage of the step-up power source circuit , wherein the apparatus includes an internal circuit unit that is connected to the regulator and is configured to process observation information from a sensor unit configured to make meteorological observations in the upper atmosphere, and a transmission unit that is connected to the step-up power source circuit and configured to transmit information processed by the internal circuit unit , and wherein the transmission unit is configured to operate when receiving the step-up voltage of the step-up power source circuit , and the internal circuit unit is configured to operate when receiving a step-down voltage of the regulator . a dry cell that has a rated voltage lower than driving voltage of the apparatus characterized in that the dry cell is a lithium battery or an assembled battery of lithium batteries; and in that the radiosonde power source device further comprises a step-up power source circuit configured to step up the voltage of the dry cell to a predetermined voltage, a regulator that is connected to the step-up power source circuit and configured to step down a step-up voltage of the step-up power source circuit , wherein the apparatus includes an internal circuit unit that is connected to the regulator and is configured to process observation information from a sensor unit configured to make meteorological observations in the upper atmosphere, and a transmission unit that is connected to the step-up power source circuit and configured to transmit information processed by the internal circuit unit , and wherein the transmission unit is configured to operate when receiving the step-up voltage of the step-up power source circuit , and the internal circuit unit is configured to operate when receiving a step-down voltage of the regulator .
A vehicle comprising a vehicle cabin , an internal combustion engine and wheels for supporting the vehicle on a road surface, the vehicle cabin having a longitudinal vehicle center line extending in a usual direction of movement of the vehicle, a cabin height seen in a direction perpendicular to the road surface and a cabin width seen in a direction perpendicular to the longitudinal vehicle center line and perpendicular to the cabin height, the vehicle comprising a hood positioned at the front of the vehicle cabin when seen in the usual direction of movement of the vehicle, a cooling system and a fan positioned inside the underhood, the fan being positioned behind the cooling system when seen in the usual direction of movement of the vehicle and in front of the internal combustion engine, the fan having a fan rotation axis parallel to the vehicle center line, a fan front end positioned at a first distance from the hood and a fan rear end positioned at a second distance from the hood when seen in the usual direction of movement of the vehicle and having a fan width (FW), the vehicle further comprising an air deflector positioned below the fan, characterized in that the vehicle further comprises a protection frame underneath the cooling system and the fan, the air deflector being mounted to the protection frame and extending from the protection frame towards a free end of the air deflector, the free end of the air deflector being positioned at an air deflector free end distance (Q) from the hood which air deflector free end distance is larger than a second distance (Y), the air deflector having an air deflector center line and an air deflector width , the air deflector width being defined by a first air deflector side and a second air deflector side , the air deflector width being smaller than the fan width, the air deflector center line being positioned offset with regard to the fan rotation axis in width direction of the vehicle cabin.
Valve for a container for dispensing pressurized fluid, said valve comprising a housing which is mounted on a valve cup , a hollow stem provided in a passage of the housing which stem has at least one lateral inlet opening at its lower end and an outlet opening at its upper end, which stem is displaceable between a closed position and an open position and spring means by means of which the stem is pushed in the closed position, wherein the housing has a circumferential step-like contour with an outer, lower part and a central, upper part , wherein the valve cup follows essentially the step-like contour line of the housing and ends horizontally on the top of the housing close to the stem and wherein a sealing is provided on the upper side of the housing between the housing and the valve cup and which seals at the same time the valve cup against the housing and the stem against the housing , characterized in that the lower part of the housing situated in the container is provided with a circumferential groove in which the spring means , preferably a metallic spring element , is held which pushes the stem in the closed position.
A communication apparatus including a communication controller having a host-side communication interface for communicating with a host and a plurality of slave-side communication interfaces , each slave-side communication interface having a plurality of electrical pins that are configurable to define a communication port that implements a selected communication protocol thereon, and each pin further being in electrical communication with a slave socket having a predetermined layout, said communication apparatus being characterised in that each slave socket is configured to removably receive a protocol adapter that corresponds to the selected communication protocol, the protocol adapter being configured to facilitate communication between an external slave device and the relevant communication port, wherein a footprint of each slave socket is configured to at least partially correspond to the layout of the protocol adapter, such that the protocol adapter is interchangeable between at least a subset of the slave sockets.
A composition for use in the treatment of obesity by reducing fatty tissue by injection lipolysis, comprising a) polidocanol as a non-ionic surfactant in a content of from 0.1% to 15% by weight; and b) water as the solvent. a) polidocanol as a non-ionic surfactant in a content of from 0.1% to 15% by weight; and b) water as the solvent.
A method for controlling an external device by an electronic device , the method comprising: when a trigger input is sensed (S510), determining an external device frontally indicated by the electronic device among a plurality of external devices (S530); providing a user interface , UI, screen on a display of the electronic device of an application corresponding to the external device frontally indicated by the electronic device (S540); and when a user command is input through the UI screen of the application (S550) on the display of the electronic device , transmitting a control signal corresponding to the user command to the external device frontally indicated by the electronic device (S560), wherein in the determining of the external device frontally indicated by the electronic device , when at least two external devices are present in a direction frontally indicated by the electronic device, a UI screen for selecting one of the at least two external devices is provided, and when one external device is selected through the UI screen for selecting the external device, the selected external device is judged as one external device frontally indicated by the electronic device. when a trigger input is sensed (S510), determining an external device frontally indicated by the electronic device among a plurality of external devices (S530); providing a user interface , UI, screen on a display of the electronic device of an application corresponding to the external device frontally indicated by the electronic device (S540); and when a user command is input through the UI screen of the application (S550) on the display of the electronic device , transmitting a control signal corresponding to the user command to the external device frontally indicated by the electronic device (S560), wherein in the determining of the external device frontally indicated by the electronic device , when at least two external devices are present in a direction frontally indicated by the electronic device, a UI screen for selecting one of the at least two external devices is provided, and when one external device is selected through the UI screen for selecting the external device, the selected external device is judged as one external device frontally indicated by the electronic device.
A method for manufacture of a nanocomposite material with antibacterial properties using carbon quantum dots CQD, characterized that, comprising mixing of a polymer and a filler together, while the amount of the filler in the mixture is max 10% wt, and the polymer is selected from polyamide, acrylics, butadiene, dialkylphtalate, dimethylsiloxanes, isoprene, isobutylene, styrene structural units, the filler is hydrophobic carbon quantum dots hCQD which are prepared by bottom-up condensation reaction of polyoxyethylene-polyoxypropylene-polyoxyethylene in which: - polyoxyethylene-polyoxypropylene-polyoxyethylene in the amount between 2 and 10 mass % is dissolved in water, - mixing the obtained solution with concentrated phosphoric acid in the amount of up to two times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - processing the compound at 240 - 260°C for 90 - 240 minutes, - cooling the compound to room temperature, - mixing the compound with toluene or chlorophorm in the amount of up to three times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - decantating the compound from water, - and filtrating the compound of hydrophobic carbon quantum dots hCQD dissolved in toluene or chlorophorm. - polyoxyethylene-polyoxypropylene-polyoxyethylene in the amount between 2 and 10 mass % is dissolved in water, - mixing the obtained solution with concentrated phosphoric acid in the amount of up to two times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - processing the compound at 240 - 260°C for 90 - 240 minutes, - cooling the compound to room temperature, - mixing the compound with toluene or chlorophorm in the amount of up to three times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - decantating the compound from water, - and filtrating the compound of hydrophobic carbon quantum dots hCQD dissolved in toluene or chlorophorm.
A method for isolating polynucleotides from a cell-containing sample, the method comprising: contacting the sample with a lysis solution having a first pH between 4 and 8 and a plurality of binding particles coated in PAMAM, so that the polynucleotides are liberated from the cells and become bound to the PAMAM, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles by contacting the binding particles with a release solution, releasing based on a shift from the first pH to a second, more basic pH; wherein the PAMAM has a molecular weight between 500 and 600 Daltons. contacting the sample with a lysis solution having a first pH between 4 and 8 and a plurality of binding particles coated in PAMAM, so that the polynucleotides are liberated from the cells and become bound to the PAMAM, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles by contacting the binding particles with a release solution, releasing based on a shift from the first pH to a second, more basic pH; wherein the PAMAM has a molecular weight between 500 and 600 Daltons.